Laser Diodes: Ø3.8 mm, TO-46, Ø5.6 mm, Ø9 mm, and Ø9.5 mm TO Cans

Ø3.8 mm, TO-46, Ø5.6 mm, Ø9 mm, and Ø9.5 mm, Laser Diodes
Center Wavelengths Ranging from 375 nm to 4.60 µm
Output Powers from 0.2 mW to 3 W

Ø3.8 mm

Ø9 mm

Ø5.6 mm

Application Idea

Our Laser Diode Driver Kits Include an
LD Controller, TEC Controller,
LD/TEC Mount, and Accessories

Ø9.5 mm

(DPSS Laser)

Ø9 mm

(High Heat Load)

TO-46

(VCSEL Diode)

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Overview
Collimation Tutorial
LD Operation
Laser Safety
Feedback
LD Selection Guide

Laser Diode Selection Guide^a
Shop by Package / Type
TO Can (Ø3.8, TO-46, Ø5.6, Ø9, and Ø9.5 mm) TO Can Pigtail, Collimator Output (SM) TO Can Pigtail (SM) TO Can Pigtail (PM) TO Can Pigtail (MM) Fabry-Perot Butterfly Package FBG-Stabilized Butterfly Package MIR Fabry-Perot QCL, TO Can MIR Fabry-Perot QCL, Two-Tab C-Mount MIR Fabry-Perot QCL, D-Mount Chip on Submount
Single-Frequency Lasers
DFB TO Can Pigtail VHG-Stabilized TO Can VHG-Stabilized TO Can Pigtail (SM) VHG-Stabilized Butterfly Package ECL Butterfly Package DBR Butterfly Package ULN Hybrid Extended Butterfly Package MIR DFB QCL, Two-Tab C-Mount MIR DFB QCL, D-Mount MIR DFB QCL, High Heat Load
Shop By Wavelength

Our complete selection of laser diodes is available on the LD Selection Guide tab above.

Webpage Features
	Clicking this icon opens a window that contains specifications and mechanical drawings.
	Clicking this icon allows you to download our standard support documentation.
Choose Item	Clicking the words "Choose Item" opens a drop-down list containing all of the in-stock lasers around the desired center wavelength. The red icon next to the serial number then allows you to download L-I-V and spectral measurements for that serial-numbered device.

Features

Fabry-Perot (FP), Distributed Feedback (DFB), Volume Holographic Grating (VHG), Diode-Pumped Solid-State (DPSS), Quantum Cascade (QCL), and Vertical-Cavity Surface-Emitting Laser (VCSEL) Diodes
Output Powers from 0.2 mW to 3 W
Center Wavelengths Available from 375 nm to 4.60 µm
Easily Choose a Compatible Mount Using Our LD Pin Codes
Compatible with Thorlabs' Laser Diode and TEC Controllers

TO-packaged laser diodes are available in standard Ø3.8 mm, Ø5.6 mm, or Ø9 mm TO cans, as well as TO-46 or Ø9.5 mm cans. We have categorized the pin configurations into standard A, B, C, D, E, F, G, and H pin codes (see the diagram below). This pin code allows the user to easily determine compatible mounts.

Some of our diodes that are offered in header packages can be converted to a sealed TO can package by request, as indicated in the tables below. Please contact Tech Support for details.

Click to Enlarge
Ø9 mm TO-Can Laser Diode Secured in Post-Mounted LM9F Holder

Notes on Center Wavelength
While the center wavelength is listed for each diode, this is only a typical number. The center wavelength of a particular diode varies from production run to production run. Thus, the diode you receive may not operate at the typical center wavelength. Diodes can be temperature tuned, which will alter the lasing wavelength. A number of items below are listed as Wavelength Tested, which means that the dominant wavelength of each unit has been measured and recorded. For many of these items, after clicking "Choose Item" below, a list will appear that contains the dominant wavelength, output power, and operating current of each in-stock unit. Clicking on the red Docs Icon next to the serial number provides access to a PDF with serial-number-specific L-I-V and spectral characteristics. For products listed as Wavelength Tested that do not have the "Choose Item" option, please contact Tech Support with inquires about specific wavelengths.

Spatial Mode and Linewidth
We offer laser diodes with different output characteristics (power, wavelength, beam size, shape, etc.). Most lasers offered here are single spatial mode (single mode, or SM) and a few are designed for higher-power, multi-spatial-mode (multimode, or MM) operation. Our wavelength stabilized VHG laser diodes, sold below, have excellent single mode performance. Some single mode laser diodes can be operated with limited single-longitudinal-mode characteristics (see tables below for additional information). For better side mode suppression ratio (SMSR) performance, consider devices such as DFB lasers, VHG-stabilized lasers, DBR lasers, or external cavity lasers. Thorlabs single-frequency lasers are highlighted in green in the tables below; in particular, our VHG-stabilized, DFB, DBR, and external cavity lasers have very narrow linewidths (≤20 MHz for the VHG-stabilized and DFB lasers and <100 kHz for the DBR and ECL lasers). Please see our Laser Diode Tutorial for more information on these topics and laser diodes in general.

Laser diodes are sensitive to electrostatic shock. Please take the proper precautions when handling the device (see our electrostatic shock accessories). Laser diodes are also sensitive to optical feedback, which can cause significant fluctuations in the output power of the laser diode depending on the application. See our optical isolators for potential solutions to this problem. Tech Support staff are available to help you select a laser diode and to discuss possible operation issues.

Pin Codes

Laser Diode pin codes indicate which mounts and diodes are compatible. The drawings do not represent exact wiring diagrams.

Pin Code	Monitor Photodiode	Pin Code	Monitor Photodiode
A	Yes	E	No
B	Yes	F	Yes
C	Yes	G	No
D	Yes	H	No

For warranty information for laser diodes, please refer to the LD Operation tab.

Choosing a Collimation Lens for Your Laser Diode

Since the output of a laser diode is highly divergent, collimating optics are necessary. Aspheric lenses do not introduce spherical aberration and are therefore are commonly chosen when the collimated laser beam is to be between one and five millimeters. A simple example will illustrate the key specifications to consider when choosing the correct lens for a given application.

Example

Laser Diode to be Used: L780P010
Desired Collimated Beam Diameter: Ø3 mm (Major Axis)

When choosing a collimation lens, it is essential to know the divergence angle of the source being used and the desired output diameter. The specifications for the L780P010 laser diode indicate that the typical parallel and perpendicular FWHM beam divergences are 10° and 30°, respectively. Therefore, as the light diverges, an elliptical beam will result. To collect as much light as possible during the collimation process, consider the larger of these two divergence angles in any calculations (i.e., in this case, use 30°). If you wish to convert your elliptical beam into a round one, we suggest using an Anamorphic Prism Pair, which magnifies one axis of your beam.

laser diode collimation drawing

Ø = Beam Diameter

Θ = Divergence Angle

Assuming that the width of the lens is negligible compared to the radius of curvature, the thin lens approximation can be used to determine the appropriate focal length for the asphere. Assuming a divergence angle of 30° (FWHM) and desired beam diameter of 3 mm:

focal length calculation

f = Focal Length

Note that the focal length is generally not equal to the needed distance between the light source and the lens.

With this information known, it is now time to choose the appropriate collimating lens. Thorlabs offers a large selection of aspheric lenses. For this application, the ideal lens is a molded glass aspheric lens with focal length near 5.6 mm and our -B antireflection coating, which covers 780 nm. The C171TMD-B (mounted) or 354171-B (unmounted) aspheric lenses have a focal length of 6.20 mm, which will result in a collimated beam diameter (major axis) of 3.3 mm. Next, check to see if the numerical aperture (NA) of the diode is smaller than the NA of the lens:

0.30 = NA_Lens > NA_Diode ≈ sin(15°) = 0.26

Up to this point, we have been using the full-width at half maximum (FWHM) beam diameter to characterize the beam. However, a better practice is to use the 1/e² beam diameter. For a Gaussian beam profile, the 1/e² diameter is almost equal to 1.7X the FWHM diameter. The 1/e² beam diameter therefore captures more of the laser diode's output light (for greater power delivery) and minimizes far-field diffraction (by clipping less of the incident light).

A good rule of thumb is to pick a lens with an NA twice that of the laser diode NA. For example, either the A390-B or the A390TM-B could be used as these lenses each have an NA of 0.53, which is more than twice the approximate NA of our laser diode (0.26). These lenses each have a focal length of 4.6 mm, resulting in an approximate major beam diameter of 2.5 mm. In general, using a collimating lens with a short focal length will result in a small collimated beam diameter and a large beam divergence, while a lens with a large focal length will result in a large collimated beam diameter and a small divergence.

Laser Diode and Laser Diode Pigtail Warranty

When operated within their specifications, laser diodes have extremely long lifetimes. Most failures occur from mishandling or operating the lasers beyond their maximum ratings. Laser Diodes are among the most static-sensitive devices currently made. Proper ESD Protection should be worn whenever handling a laser diode. Due to their extreme electrostatic sensitivity, laser diodes cannot be returned after their sealed package has been open. Laser diodes in their original sealed package can be returned for a full refund or credit.

Handling and Storage Precautions

Due to their extreme susceptibility to damage from electrostatic discharge (ESD), care should be taken whenever handling and operating laser diodes:

Wrist Straps: Use grounded anti-static wrist straps whenever handling diodes.
Anti-Static Mats: Always work on grounded anti-static mats.
Laser Diode Storage: When not in use, short the leads of the laser together to protect against ESD damage.

Operating and Safety Precautions

Use an Appropriate Driver:
Laser diodes require precise control of operating current and voltage to avoid overdriving the laser diode. In addition, the laser driver should provide protection against power supply transients. Select a laser driver appropriate for your application. Do not use a voltage supply with a current limiting resistor since it does not provide sufficient regulation to protect the laser.

Power Meters:
When setting up and calibrating a laser diode with its driver, use a NIST-traceable power meter to precisely measure the laser output. It is usually safest to measure the laser output directly before placing the laser in an optical system. If this is not possible, be sure to take all optical losses (transmissive, aperture stopping, etc.) into consideration when determining the total output of the laser.

Reflections:
Flat surfaces in the optical system in front of a laser diode can cause some of the laser energy to reflect back onto the laser’s monitor photodiode giving an erroneously high photodiode current. If optical components are moved within the system and energy is no longer reflected onto the monitor photodiode, a constant power feedback loop will sense the drop in photodiode current and try to compensate by increasing the laser drive current and possibly overdriving the laser. Back reflections can also cause other malfunctions or damage to laser diodes. To avoid this, be sure that all surfaces are angled 5-10°, and when necessary, use optical isolators to attenuate direct feedback into the laser.

Heat Sinks:
Laser diode lifetime is inversely proportional to operating temperature. Always mount the laser in a suitable heat sink to remove excess heat from the laser package.

Voltage and Current Overdrive:
Be careful not to exceed the maximum voltage and drive current listed on the specification sheet with each laser diode, even momentarily. Also, reverse voltages as little as 3 V can damage a laser diode.

ESD Sensitive Device:
Currently operating lasers are susceptible to ESD damage. This is particularly aggravated by using long interface cables between the laser diode and its driver due to the inductance that the cable presents. Avoid exposing the laser or its mounting apparatus to ESDs at all times.

ON/OFF and Power Supply Coupled Transients:
Due to their fast response times, laser diodes can be easily damaged by transients less than 1 µs. High current devices such as soldering irons, vacuum pumps, and fluorescent lamps can cause large momentary transients. Thus, always use surge-protected outlets.

If you have any questions regarding laser diodes, please call your local Thorlabs Technical Support office for assistance.

Laser Safety and Classification

Safe practices and proper usage of safety equipment should be taken into consideration when operating lasers. The eye is susceptible to injury, even from very low levels of laser light. Thorlabs offers a range of laser safety accessories that can be used to reduce the risk of accidents or injuries. Laser emission in the visible and near infrared spectral ranges has the greatest potential for retinal injury, as the cornea and lens are transparent to those wavelengths, and the lens can focus the laser energy onto the retina.

Safe Practices and Light Safety Accessories

Thorlabs recommends the use of safety eyewear whenever working with laser beams with non-negligible powers (i.e., > Class 1) since metallic tools such as screwdrivers can accidentally redirect a beam.
Laser goggles designed for specific wavelengths should be clearly available near laser setups to protect the wearer from unintentional laser reflections.
Goggles are marked with the wavelength range over which protection is afforded and the minimum optical density within that range.
Laser Safety Curtains and Laser Safety Fabric shield other parts of the lab from high energy lasers.
Blackout Materials can prevent direct or reflected light from leaving the experimental setup area.
Thorlabs' Enclosure Systems can be used to contain optical setups to isolate or minimize laser hazards.
A fiber-pigtailed laser should always be turned off before connecting it to or disconnecting it from another fiber, especially when the laser is at power levels above 10 mW.
All beams should be terminated at the edge of the table, and laboratory doors should be closed whenever a laser is in use.
Do not place laser beams at eye level.
Carry out experiments on an optical table such that all laser beams travel horizontally.
Remove unnecessary reflective items such as reflective jewelry (e.g., rings, watches, etc.) while working near the beam path.
Be aware that lenses and other optical devices may reflect a portion of the incident beam from the front or rear surface.
Operate a laser at the minimum power necessary for any operation.
If possible, reduce the output power of a laser during alignment procedures.
Use beam shutters and filters to reduce the beam power.
Post appropriate warning signs or labels near laser setups or rooms.
Use a laser sign with a lightbox if operating Class 3R or 4 lasers (i.e., lasers requiring the use of a safety interlock).
Do not use Laser Viewing Cards in place of a proper Beam Trap.

Laser Classification

Lasers are categorized into different classes according to their ability to cause eye and other damage. The International Electrotechnical Commission (IEC) is a global organization that prepares and publishes international standards for all electrical, electronic, and related technologies. The IEC document 60825-1 outlines the safety of laser products. A description of each class of laser is given below:

Class	Description	Warning Label
1	This class of laser is safe under all conditions of normal use, including use with optical instruments for intrabeam viewing. Lasers in this class do not emit radiation at levels that may cause injury during normal operation, and therefore the maximum permissible exposure (MPE) cannot be exceeded. Class 1 lasers can also include enclosed, high-power lasers where exposure to the radiation is not possible without opening or shutting down the laser.
1M	Class 1M lasers are safe except when used in conjunction with optical components such as telescopes and microscopes. Lasers belonging to this class emit large-diameter or divergent beams, and the MPE cannot normally be exceeded unless focusing or imaging optics are used to narrow the beam. However, if the beam is refocused, the hazard may be increased and the class may be changed accordingly.
2	Class 2 lasers, which are limited to 1 mW of visible continuous-wave radiation, are safe because the blink reflex will limit the exposure in the eye to 0.25 seconds. This category only applies to visible radiation (400 - 700 nm).
2M	Because of the blink reflex, this class of laser is classified as safe as long as the beam is not viewed through optical instruments. This laser class also applies to larger-diameter or diverging laser beams.
3R	Lasers in this class are considered safe as long as they are handled with restricted beam viewing. The MPE can be exceeded with this class of laser, however, this presents a low risk level to injury. Visible, continuous-wave lasers are limited to 5 mW of output power in this class.
3B	Class 3B lasers are hazardous to the eye if exposed directly. However, diffuse reflections are not harmful. Safe handling of devices in this class includes wearing protective eyewear where direct viewing of the laser beam may occur. In addition, laser safety signs lightboxes should be used with lasers that require a safety interlock so that the laser cannot be used without the safety light turning on. Class-3B lasers must be equipped with a key switch and a safety interlock.
4	This class of laser may cause damage to the skin, and also to the eye, even from the viewing of diffuse reflections. These hazards may also apply to indirect or non-specular reflections of the beam, even from apparently matte surfaces. Great care must be taken when handling these lasers. They also represent a fire risk, because they may ignite combustible material. Class 4 lasers must be equipped with a key switch and a safety interlock.
All class 2 lasers (and higher) must display, in addition to the corresponding sign above, this triangular warning sign

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Posted Comments:

I-Yun Chen (posted 2021-01-19 03:53:22.743)

Hello. We used DL5146-101S as a light source in our experiment. However, we have observed that after operating for 3 hours, the power of the laser seems to be drifting(the power becomes larger and larger). I wonder if there is any solution to this problem. Thanks a lot.

YLohia (posted 2021-01-19 03:23:50.0)

Hello, how much is the power drifting over time? Usually, such effects can be attributed to the lack of active cooling and/or improper heat-sinking. I have reached out to you directly to troubleshoot further.

Josefine Lemke (posted 2020-10-22 06:39:12.87)

L785 SH300 - what is the recommended operating temperature? In the spec sheet it is "20 - 50°C" but there is one small additional note that says T_CHIP=25°C. What is T_CHIP? Thank you, Josefine

YLohia (posted 2020-10-22 01:46:55.0)

Hello Josefine, thank you for contacting Thorlabs. T_Chip is the temperature of the laser diode chip (not case). All specs are taken at a chip temperature of 25 C. This can be considered the "recommended" operating temperature for most applications. Some applications may require slight differences in the output spectrum, which can be tuned by changing the temperature of the chip. For example, the temperature tuning coefficient of the LD785-SH300 is on the order of 0.20-0.25 nm/C.

michael lee (posted 2020-09-10 13:12:20.473)

L405P150 - 405 nm, 150 mW is a laser we want to try in our CBRNE instrument, but we need a different form factor. We are looking for 5.6mm - B package. Is this something you can do for us, without costing too much?

YLohia (posted 2020-09-11 09:05:33.0)

Thank you for contacting Thorlabs. We offer the DL5146-101S 405 nm laser diode in a 5.6 mm package. I have reached out to you directly to discuss the possibility of getting a custom laser.

Mark Frederick (posted 2020-09-08 20:42:37.227)

What is the window thickness of the L638P200?

YLohia (posted 2020-09-09 11:18:57.0)

Thank you for contacting Thorlabs. The window thickness for the L638P200 is ~0.25 mm.

mohiniv. sontakke (posted 2020-07-30 04:44:26.697)

Actually, I really wanted to know it's side-effects! Specifically, is it harmful for human? What's the time one can stay expose to certain laser! Is it harmful, do answer my queries! Eagerly waiting for your reply😊

YLohia (posted 2020-07-30 03:37:05.0)

Hello, thank you for contacting Thorlabs. We suggest contacting your local Laser Safety Officer (LSO) for accurate information regarding laser safety and human health.

David Lowndes (posted 2020-06-11 07:30:49.667)

Could you please advise the materials of the TO56 packages?

YLohia (posted 2020-06-16 08:22:05.0)

Thank you for contacting Thorlabs. We have reached out to you directly to discuss this.

Warren Massey (posted 2020-01-08 13:15:34.467)

Have you got anything like (package, wavelength, power) an L637P5 but with pin code "G"? In our application we cannot tolerate the connection of the circuit to the case of the diode.

YLohia (posted 2020-01-08 02:07:22.0)

Thank you for contacting Thorlabs. We offer the HL63133DG, which has a 170 mW typical output power, G pin code, and 5.6 mm package.

Juwan Kim (posted 2020-01-07 00:24:10.747)

Do you have any products with specially enhanced temperature characteristics? I'm looking for a product that meets the specifications below. 1. Visible LD: 50 mw or higher, CW, temperature -40 to 50 2. Infrared LD: 200 mW or higher, CW, temperature -40 to 50

YLohia (posted 2020-01-07 11:37:55.0)

Thank you for contacting Thorlabs. I have reached out to you directly to discuss possible solutions.

Channarong Asavathongkul (posted 2019-11-18 02:36:04.657)

L462P1400MM has been discontinued, what is the replacement product?

YLohia (posted 2019-11-18 11:12:58.0)

Thank you for contacting Thorlabs. The closest alternative to this item is the L450P1600MM.

Steve Russell (posted 2019-11-15 14:08:06.383)

Can you tell me what the electrical frequency response of this particular laser diode is? I never see this spec in any laser spec sheet of any type.

YLohia (posted 2019-11-20 11:19:56.0)

Hello, thank you for contacting Thorlabs. Unfortunately, we do not measure this parameter and it is hard to guarantee a certain level of performance as it varies between different pieces. Each diode would have to be individually tested in order to provide an accurate representation of the frequency response. That being said, we expect that the L850P010 can be modulated >100 MHz with the proper drive electronics.

Ana R (posted 2019-10-18 17:51:38.667)

Hi, I have an L785H1 diode that I'm setting up as part of an ECDL. The specifications state that the threshold current should be around 50 mA, but I'm getting just above 25 mA free-running. Is this something to be concerned about?

YLohia (posted 2019-10-18 02:49:38.0)

Hello, thank you for contacting Thorlabs. A lower threshold current is not a cause for concern. We specify the typical threshold current to be 50 mA, but we do not specify a lower bound as this can vary and is not seen as a defect.

user (posted 2019-10-17 09:26:55.633)

Hello, do you provide tolerance data regarding the positioning (x y z & tilt) of these TO-46, TO-56, TO-90 packages ? What should be the most reliable reference surface ? (package cylinder diameter, cylinder front face, support back or front plane ?)

YLohia (posted 2019-10-17 11:16:56.0)

Hello, we do not provide this tolerance data as some of the laser diodes on this page are sourced from other manufacturers (these diodes have original manufacturer spec sheets on this page) and these tolerances are not consistent. I will reach out to you directly to discuss your requirements further.

user (posted 2019-07-23 04:04:08.233)

What is the lifetime characteristics of laser diode L520G1, particularly MTBF?

YLohia (posted 2019-08-07 10:00:19.0)

Hello, thank you for contacting Thorlabs. I have reached out to you directly with this information.

user (posted 2019-06-24 03:51:37.793)

Is it possible to order a HL6312G diode with a lasing wavelength known more accurately than the 625 - 640 nm range given by the data sheet ?

YLohia (posted 2019-06-24 09:39:17.0)

Hello, thank you for contacting Thorlabs. Unfortunately, these laser diodes are not tested individually for wavelength. You can, however, purchase one of the LPS-635-FC pigtailed diodes, which are individually tested for wavelength and power.

PHANI PEDDIBHOTLA (posted 2019-06-10 10:28:24.897)

Hello, I bought L520P50 from Thorlabs. May I know the company which manufactures this diode? I am looking for a diode with TO56 package with a wavelength from 521-575 nm. Best Regards, Phani.

Vladimir Makarov (posted 2019-05-30 15:28:02.717)

Hello, I am using the PL450B laser diode as a point illumination source. Could you tell me what the length and width of the emission area is? In other words, the size of the area on the facet of the laser where the light is emitted.

YLohia (posted 2019-05-30 04:37:22.0)

Hello, the emitter width for this laser diode is 1.5um x 1.0 um.

user (posted 2019-04-30 09:57:39.64)

Could you please suggest me a collimation tube for 3.8mm laser diodes like L405P150, PL520 or L638P150 and other 3.8mm Laser diodes? thanks in advance. ibrahim

YLohia (posted 2019-04-30 09:29:13.0)

Hello Ibrahim, thank you for contacting Thorlabs. Unfortunately, we currently do not offer collimation tubes for 3.8mm package size laser diodes. That being said, you can build your own collimation tube with the S05LM38 adapter for 3.8mm diodes and using appropriate SM05 lens tubes and aspheric lenses.

michael.fitch (posted 2018-11-16 16:47:18.98)

About the HL6750, when I look at the manufacturers spec sheet in the link, it appears to be pin code A. But it is listed as pin code C. Could you please check the listing?

mmcclure (posted 2018-11-19 10:09:53.0)

Hello, thank you for your inquiry. The pin configuration for the HL6750MG laser diode corresponds to pin code C, as shown in both the manufacturer's spec sheet and the blue "info" icon on the website. Should you have additional questions, our tech support team will happily assist you.

paul.nachman (posted 2018-07-11 12:09:32.84)

The drawings you provide in this image ... https://www.thorlabs.com/images/popupimages/HL8338MG_DWG.gif ... don't label the pin numbers in the pin diagram for comparison with the bottom view. It's lucky that you make the manufacturer's data available ... https://www.thorlabs.com/drawings/fd0e8f0902043f28-6AFA1F67-E78D-AFDC-C6C2BB53EE55033C/HL8338MG-MFGSpec.pdf ... else I would have guessed wrong.

YLohia (posted 2018-07-12 09:57:42.0)

Hello, thank you for your feedback and bringing this issue to our attention. We are currently working on making all drawings for this item more consistent with each other.

chih.hao.li (posted 2018-05-23 08:53:36.27)

Hi We are wondering if there is AR coating on the laser diode front window. If no, how much do you charge for an AR coated laser diode? Thank you!

YLohia (posted 2018-05-23 05:07:46.0)

Hello, thank you for contacting Thorlabs. The windows on laser diode cans are almost always AR coated.

user (posted 2018-03-12 15:35:01.523)

The PL450B pin connections reported in the Thorlabs selling packages and datasheets are different from the one reported in pag. 7 of the PL450B MFG Spec.

YLohia (posted 2018-03-22 08:25:57.0)

Hello, thank you for your feedback. We took a look at this and, while they are labeled differently, the pin connections are still the same. The only thing that is different here is that the arbitrary pin numbers (Pin 1 and Pin 3) are switched in designation.

robert (posted 2017-10-11 16:29:34.97)

It should be made clear to prospective buyers that these diodes are exceptionally sensitive to optically feedback. To quote the Thorlabs Tech Support staff "Our engineers that designed this told me that any reflection with more than 2% of the power will kill diode." That is not typical of laser diodes in this wavelength range.

tcampbell (posted 2018-03-23 02:17:13.0)

Hello, thank you for contacting Thorlabs. After discussing with our engineers, we have added a warning for select laser diodes on this page. Please feel free to contact us if you have concerns about any other products on our site.

vg.buesaquillo (posted 2017-06-03 13:17:19.2)

Do you can give me the spectrum of the diode laser DL5146-101S? THANKS

tfrisch (posted 2017-06-30 01:11:14.0)

Hello, thank you for contacting Thorlabs. The spectrum will change because of differences from one production lot to another and because of differences in use, such as operating temperature and drive current. I will reach out to you directly to discuss your application.

dmitry.busko (posted 2016-11-16 11:59:52.17)

In a datasheet for M9-940-0200 there is no any information about the LD and PD pin connections.

tfrisch (posted 2016-11-22 08:21:01.0)

Hello, thank you for pointing out the missing circuit information. We will correct the spec sheet, but until then, if you are looking at the bottom of laser diode (pins pointing towards you), and the square cutout is down, the left pin is the Photodiode Anode, the center pin ties the Photodiode Cathode to the Laser Diode Anode and the case, and the right pin is the Laser Diode Cathode.

mitch (posted 2016-06-18 08:50:58.713)

Hi, I would like to drive the L850P010 fast. Initially I will be using your bias-T and driver, but I plan on designing my own bias-T for 2.4GHz operation. I was wondering if you could provide details on this laser diodes approximate impedance and more importantly it's capacitance? Thanks

besembeson (posted 2016-06-22 08:50:15.0)

Response from Bweh at Thorlabs USA: Such high speed modulation will not be suitable with this diode. You may want to consider a VCSEL instead and we don't have one for your application at this time.

pedrueze (posted 2016-02-02 13:23:02.757)

Hi all, I have your profile current and temperature controller "Profile PRO 8000" with a combined module LD/TE controller ITC 8052. (I can send by email the pics of them.) I also have a laser diode L9805E2P5, (50 mW, 980 nm, A Pin code). The problem is that I need to choose an appropiate Temperature Controlled Laser Diode Mount for it. I was checking the TCLDM9 device. The problem is that the output of the controller is DB-15 (15 pins), and very close to it is the LD output of 9 pins. It is better understood if you can see the pics. I need to be sure which are the appropiate cables to connect between my controller and the TE mount, regarding the pin congiguration of my LD, and if they have enough space to put in the module. Could you please help me with that? Thank you very much.

besembeson (posted 2016-02-04 10:21:59.0)

Response from Bweh at Thorlabs USA: The cables you would need will be the CAB400 for the laser control and CAB420-15 for the temperature controller. These can be found at the following page: http://www.thorlabs.com/newgrouppage9.cfm?objectgroup_id=966&pn=ITC8052

cmrogers (posted 2015-12-07 21:36:29.773)

I am looking for is a diode centered near 656nm, with as a wide a gain bandwidth as possible, for use in an ECDL. What is the gain bandwidth of the relevant diodes that you sell? Also, are any of your diodes AR coated? Thanks!

besembeson (posted 2015-12-08 10:14:54.0)

Response from Bweh at Thorlabs USA: The Fabry Perot lasers that you would need for your wavelength of interest will typically have optical bandwidth in the 5-10nm range. The high power diode lasers, for example the HL6545MG are AR coated.

pedrueze (posted 2015-10-12 11:42:15.523)

Hello. I just recently bought one L9805E2P5 laser diode + a cable SR9A-DB9. We have a current controller whose pin diagram could be find here: http://assets.newport.com/webDocuments-EN/images/70041001_LDC-37x4C_IX.PDF (see please page 17) As you may see, doesn't match with the pins of the cable, so we must re-wired it. My concern is which pins should I re-wire. In principle, I wired 3, 5 and 9 to use the laser diode, cathode, anode and ground chassis. Is this correct/enough to make the laser emitting? should I connect the PD cathode and Anode as well? What is the use of anode/cathode voltage sense pins in the manual? Concerning the temperature, I will use the laser at low-power (for alignement). Thanks a lot for your help.

jlow (posted 2015-10-12 04:55:23.0)

Response from Jeremy at Thorlabs: At a minimum, you will want to connect Pin2 and Pin7 on the SR9A-DB9 to your controller. If you want to use the internal photodiode for feedback, you will want to connect Pin4 as well. I will contact you directly via e-mail to help with this.

hmagh001 (posted 2015-05-08 10:53:27.903)

We just bought L808P200 for our lab and it is supposed to have a maximum power of 200 mW, and the spec. file of Laser diodes says that the threshold current is 100 mA. However, when I set the current to 80 mW from the LD controller (bought from thorlab as well, LDC220C) and measure the power with an optical power meter, it shows only 5 mW. I was wondering, how can we reach to higher power numbers with this laser diode. Thanks, Hadi.

jlow (posted 2015-05-13 11:05:19.0)

Response from Jeremy at Thorlabs: The threshold current is the current needed for the LD to lase. To get to the 200mW power, you would need to drive this near the operating current (somewhere between 220 to 300mA for the L808P200). Please use an optical power meter to measure the output power instead of relying just on the supplied current. Also, the light from the LD is divergent so please make sure your optical power meter will capture all the light from the LD to get an accurate reading.

rssi_2nava (posted 2014-11-24 19:25:25.74)

Hello guys, i was hoping you can tell me the amplitude reflection coefficients of the diode rear and front faces of the L1060P100J laser diode, i can't find them anywhere and i need them to compute the transmision function of the diode cavity. I'll appreciate reading from you soon Kind Regards

jlow (posted 2014-12-11 01:30:49.0)

Response from Jeremy at Thorlabs: The coating information on the chip facet is proprietary and is not something that we can provide.

jimzambuto (posted 2014-10-03 11:13:51.5)

For the diode part number L404P400M, what is the extent of the SLOW AAXIS. I am trying to design a collimator and the residual divergence caused by the extent of the laser facet in the slow or multimode direction is very important.

jlow (posted 2014-10-13 09:05:41.0)

Response from Jeremy at Thorlabs: You can find the far-field emission pattern/angle on page 3 of the MFG spec sheet in the supporting documents. The direct link is http://www.thorlabs.com/thorcat/QTN/L404P400M-MFGSpec.pdf.

ar_1348 (posted 2014-04-26 15:03:07.077)

i need a driver for M5-905-0100

cdaly (posted 2014-05-08 02:58:52.0)

Response from Chris at Thorlabs: This laser can be mounted in TCLDM9 and driven with LDC202C which can provide 200mA, covering the M5-905-0100's max operating current of 170mA. I'd suggest using a temperature controller as well, such as TED200C.

t.meinert (posted 2014-01-08 08:36:55.39)

ask for Quotation: LD Type: DL 5146-101s Quantity: 100pcs/a 1000pcs/a

jlow (posted 2014-01-08 10:15:34.0)

Response from Jeremy at Thorlabs: We will contact you directly to provide a quote.

The rows shaded green below denote single-frequency lasers.

Item #	Wavelength	Output Power	Operating Current	Operating Voltage	Beam Divergence		Laser Mode	Package
Item #	Wavelength	Output Power	Operating Current	Operating Voltage	Parallel	Perpendicular	Laser Mode	Package
L375P70MLD	375 nm	70 mW	110 mA	5.4 V	9°	22.5°	Single Transverse Mode	Ø5.6 mm
L404P400M	404 nm	400 mW	370 mA	4.9 V	13° (1/e²)	42° (1/e²)	Multimode	Ø5.6 mm
LP405-SF10	405 nm	10 mW	50 mA	5.0 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L405P20	405 nm	20 mW	38 mA	4.8 V	8.5°	19°	Single Transverse Mode	Ø5.6 mm
LP405C1	405 nm	30 mW	75 mA	4.3 V	1.4 mrad	1.4 mrad	Single Transverse Mode	Ø3.8 mm, SM Pigtail with Collimator
L405G2	405 nm	35 mW	50 mA	4.9 V	10°	21°	Single Transverse Mode	Ø3.8 mm
DL5146-101S	405 nm	40 mW	70 mA	5.2 V	8°	19°	Single Transverse Mode	Ø5.6 mm
LP405-MF300	405 nm	300 mW	350 mA	4.5 V	-	-	Multimode	Ø5.6 mm, MM Pigtail
L405G1	405 nm	1000 mW	900 mA	5.0 V	13°	45°	Multimode	Ø9 mm
L450G1	447 nm	3000 mW	2000 mA	5.2 V	6°	30°	Multimode	Ø9 mm
LP450-SF15	450 nm	15 mW	85 mA	5.5 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
PL450B	450 nm	80 mW	75 mA	5.2 V	4 - 7.5°	18 - 25°	Single Transverse Mode	Ø3.8 mm
L450P1600MM	450 nm	1600 mW	1200 mA	4.8 V	7°	19 - 27°	Multimode	Ø5.6 mm
L473P100	473 nm	100 mW	120 mA	5.7 V	10	24	Single Transverse Mode	Ø5.6 mm
LP488-SF20	488 nm	20 mW	70 mA	6.0 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP488-SF20G	488 nm	20 mW	80 mA	5.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L488P60	488 nm	60 mW	75 mA	6.8 V	7°	23°	Single Transverse Mode	Ø5.6 mm
LP515-SF3	515 nm	3 mW	50 mA	5.3 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L515A1	515 nm	10 mW	50 mA	5.4 V	6.5°	21°	Single Transverse Mode	Ø5.6 mm
LP520-SF15A	520 nm	15 mW	100 mA	7.0 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP520-SF15	520 nm	15 mW	140 mA	6.5 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
PL520	520 nm	50 mW	250 mA	7.0 V	7°	22°	Single Transverse Mode	Ø3.8 mm
L520P50	520 nm	45 mW	150 mA	7.0 V	7°	22°	Single Transverse Mode	Ø5.6 mm
DJ532-10	532 nm	10 mW	220 mA	1.9 V	0.69°	0.69°	Single Transverse Mode	Ø9.5 mm (non-standard)
DJ532-40	532 nm	40 mW	330 mA	1.9 V	0.69°	0.69°	Single Transverse Mode	Ø9.5 mm (non-standard)
LP633-SF50	633 nm	50 mW	170 mA	2.6 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL63163DG	633 nm	100 mW	170 mA	2.6 V	8.5°	18°	Single Transverse Mode	Ø5.6 mm
LPS-635-FC	635 nm	2.5 mW	70 mA	2.2 V	-	-	Single Transverse Mode	Ø9.5 mm, SM Pigtail
LPS-PM635-FC	635 nm	2.5 mW	70 mA	2.2 V	-	-	Single Transverse Mode	Ø9.5 mm, PM Pigtail
L635P5	635 nm	5 mW	30 mA	<2.7 V	8°	32°	Single Transverse Mode	Ø5.6 mm
HL6312G	635 nm	5 mW	55 mA	<2.7 V	8°	31°	Single Frequency	Ø9 mm
LPM-635-SMA	635 nm	8 mW	50 mA	2.2 V	-	-	Multimode	Ø9 mm, MM Pigtail
LP635-SF8	635 nm	8 mW	60 mA	2.3 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL6320G	635 nm	10 mW	70 mA	<2.7 V	8°	31°	Single Frequency	Ø9 mm
HL6322G	635 nm	15 mW	85 mA	<2.7 V	8°	30°	Single Frequency	Ø9 mm
L637P5	637 nm	5 mW	20 mA	<2.4 V	8°	34°	Single Transverse Mode	Ø5.6 mm
LP637-SF50	637 nm	50 mW	140 mA	2.6 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP637-SF70	637 nm	70 mW	220 mA	2.7 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL63142DG	637 nm	100 mW	140 mA	2.7 V	8°	18°	Single Transverse Mode	Ø5.6 mm
HL63133DG	637 nm	170 mW	250 mA	2.8 V	9°	17°	Single Transverse Mode	Ø5.6 mm
HL6388MG	637 nm	250 mW	340 mA	2.3 V	10°	40°	Multimode	Ø5.6 mm
L637G1	637 nm	1200 mW	1100 mA	2.5 V	10°	32°	Multimode	Ø9 mm (non-standard)
L638P040	638 nm	40 mW	92 mA	2.4 V	10°	21°	Single Transverse Mode	Ø5.6 mm
L638P150	638 nm	150 mW	230 mA	2.7 V	9	18	Single Transverse Mode	Ø3.8 mm
L638P200	638 nm	200 mW	280 mA	2.9 V	8	14	Single Transverse Mode	Ø5.6 mm
L638P700M	638 nm	700 mW	820 mA	2.2 V	9°	35°	Multimode	Ø5.6 mm
HL6358MG	639 nm	10 mW	40 mA	2.3 V	8°	21°	Single Frequency	Ø5.6 mm
HL6323MG	639 nm	30 mW	95 mA	2.3 V	8.5°	30°	Single Frequency	Ø5.6 mm
HL6362MG	640 nm	40 mW	90 mA	2.4 V	10°	21°	Single Frequency	Ø5.6 mm
LP642-SF20	642 nm	20 mW	90 mA	2.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP642-PF20	642 nm	20 mW	90 mA	2.5 V	-	-	Single Transverse Mode	Ø5.6 mm, PM Pigtail
HL6364DG	642 nm	60 mW	125 mA	2.5 V	10°	21°	Single Frequency	Ø5.6 mm
HL6366DG	642 nm	80 mW	155 mA	2.5 V	10°	21°	Single Frequency	Ø5.6 mm
HL6385DG	642 nm	150 mW	280 mA	2.6 V	9°	17°	Single Frequency	Ø5.6 mm
L650P007	650 nm	7 mW	28 mA	2.2 V	9°	28°	Single Transverse Mode	Ø5.6 mm
LPS-660-FC	658 nm	7.5 mW	65 mA	2.6 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP660-SF20	658 nm	20 mW	80 mA	2.6 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LPM-660-SMA	658 nm	22.5 mW	65 mA	2.6 V	-	-	Multimode	Ø5.6 mm, MM Pigtail
HL6501MG	658 nm	30 mW	65 mA	2.6 V	8.5°	22°	Single Frequency	Ø5.6 mm
L658P040	658 nm	40 mW	75 mA	2.2 V	10°	20°	Single Transverse Mode	Ø5.6 mm
LP660-SF40	658 nm	40 mW	135 mA	2.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP660-SF60	658 nm	60 mW	210 mA	2.4 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL6544FM	660 nm	50 mW	115 mA	2.3 V	10°	17°	Single Transverse Mode	Ø5.6 mm
LP660-SF50	660 nm	50 mW	140 mA	2.3 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL6545MG	660 nm	120 mW	170 mA	2.45 V	10°	17°	Single Transverse Mode	Ø5.6 mm
L660P120	660 nm	120 mW	175 mA	2.5 V	10°	17°	Single Transverse Mode	Ø5.6 mm
L670VH1	670 nm	1 mW	2.5 mA	2.6 V	10°	10°	Single Transverse Mode	TO-46
LPS-675-FC	670 nm	2.5 mW	55 mA	2.2 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
HL6748MG	670 nm	10 mW	30 mA	2.2 V	8°	25°	Single Transverse Mode	Ø5.6 mm
HL6714G	670 nm	10 mW	55 mA	<2.7 V	8°	22°	Single Transverse Mode	Ø9 mm
HL6756MG	670 nm	15 mW	35 mA	2.3 V	8°	24°	Single Frequency	Ø5.6 mm
LP685-SF15	685 nm	15 mW	55 mA	2.1 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL6750MG	685 nm	50 mW	75 mA	2.3 V	9°	21°	Single Frequency	Ø5.6 mm
HL6738MG	690 nm	30 mW	90 mA	2.5 V	8.5°	19°	Single Frequency	Ø5.6 mm
LP705-SF15	705 nm	15 mW	55 mA	2.3 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL7001MG	705 nm	40 mW	75 mA	2.5 V	9°	18°	Single Frequency	Ø5.6 mm
LP730-SF15	730 nm	15 mW	70 mA	2.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
HL7302MG	730 nm	40 mW	75 mA	2.5 V	9°	18°	Single Frequency	Ø5.6 mm
L760VH1	760 nm	0.5 mW	3 mA (Max)	2.2 V	12°	12°	Single Frequency	TO-46
DBR760PN	761 nm	9 mW	125 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
L763VH1	763 nm	0.5 mW	3 mA (Max)	2.0 V	10°	10°	Single Frequency	TO-46
DBR767PN	767 nm	23 mW	220 mA	1.87 V	-	-	Single Frequency	Butterfly, PM Pigtail
DBR770PN	770 nm	35 mW	220 mA	1.92 V	-	-	Single Frequency	Butterfly, PM Pigtail
L780P010	780 nm	10 mW	24 mA	1.8 V	8°	30°	Single Transverse Mode	Ø5.6 mm
LP780-SAD15	780 nm	15 mW	180 mA	2.2 V	-	-	Single Frequency	Ø9 mm, SM Pigtail
DBR780PN	780 nm	45 mW	250 mA	1.9 V	-	-	Single Frequency	Butterfly, PM Pigtail
L785P5	785 nm	5 mW	28 mA	1.9 V	10°	29°	Single Transverse Mode	Ø5.6 mm
LPS-PM785-FC	785 nm	6.25 mW	65 mA	-	-	-	Single Transverse Mode	Ø5.6 mm, PM Pigtail
LPS-785-FC	785 nm	10 mW	65 mA	1.85 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP785-SF20	785 nm	20 mW	85 mA	1.9 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
DBR785S	785 nm	25 mW	230 mA	2.0 V	-	-	Single Frequency	Butterfly, SM Pigtail
DBR785P	785 nm	25 mW	230 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
L785P25	785 nm	25 mW	45 mA	1.9 V	8°	30°	Single Transverse Mode	Ø5.6 mm
FPV785S	785 nm	50 mW	410 mA	2.2 V	-	-	Single Frequency	Butterfly, SM Pigtail
FPV785P	785 nm	50 mW	410 mA	2.1 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP785-SAV50	785 nm	50 mW	500 mA	2.2 V	-	-	Single Frequency	Ø9 mm, SM Pigtail
L785P090	785 nm	90 mW	125 mA	2.0 V	10°	17°	Single Transverse Mode	Ø5.6 mm
LP785-SF100	785 nm	100 mW	300 mA	2.0 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
L785H1	785 nm	200 mW	220 mA	2.5 V	8.5°	16°	Single Transverse Mode	Ø5.6 mm
FPL785P	785 nm	200 mW	500 mA	2.1 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL785S-250	785 nm	250 mW (Min)	500 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
LD785-SEV300	785 nm	300 mW	500 mA (Max)	2.0 V	8°	16°	Single Frequency	Ø9 mm
LD785-SH300	785 nm	300 mW	400 mA	2.0 V	7°	18°	Single Transverse Mode	Ø9 mm
FPL785C	785 nm	300 mW	400 mA	2.0 V	7°	18°	Single Transverse Mode	3 mm x 5 mm Submount
LD785-SE400	785 nm	400 mW	550 mA	2.0 V	7°	16°	Single Transverse Mode	Ø9 mm
FPV785M	785 nm	600 mW	1100 mA	1.9 V	-	-	Multimode	Butterfly, MM Pigtail
L795VH1	795 nm	0.25 mW	1.2 mA	1.8 V	20°	12°	Single Frequency	TO-46
DBR795PN	795 nm	40 mW	230 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
ML620G40	805 nm	500 mW	650 mA	1.9 V	3°	34°	Multimode	Ø5.6 mm
DBR808PN	808 nm	42 mW	250 mA	2 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP808-SA60	808 nm	60 mW	150 mA	1.9 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
M9-808-0150	808 nm	150 mW	180 mA	1.9 V	8°	17°	Single Transverse Mode	Ø9 mm
L808P200	808 nm	200 mW	260 mA	2 V	10°	30°	Multimode	Ø5.6 mm
FPL808P	808 nm	200 mW	600 mA	2.1 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL808S	808 nm	200 mW	750 mA	2.3 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
L808H1	808 nm	300 mW	400 mA	2.1 V	14°	6°	Single Transverse Mode	Ø9 mm
LD808-SE500	808 nm	500 mW	750 mA	2.2 V	7°	14°	Single Transverse Mode	Ø9 mm
LD808-SEV500	808 nm	500 mW	800 mA (Max)	2.2 V	8°	14°	Single Frequency	Ø9 mm
L808P500MM	808 nm	500 mW	650 mA	1.8 V	12°	30°	Multimode	Ø5.6 mm
L808P1000MM	808 nm	1000 mW	1100 mA	2 V	9°	30°	Multimode	Ø9 mm
DBR816PN	816 nm	45 mW	250 mA	1.95 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP820-SF80	820 nm	80 mW	230 mA	2.3 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L820P100	820 nm	100 mW	145 mA	2.1 V	9°	17°	Single Transverse Mode	Ø5.6 mm
L820P200	820 nm	200 mW	250 mA	2.4 V	9°	17°	Single Transverse Mode	Ø5.6 mm
DBR828PN	828 nm	24 mW	250 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
LPS-830-FC	830 nm	10 mW	120 mA	-	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LPS-PM830-FC	830 nm	10 mW	120 mA	-	-	-	Single Transverse Mode	Ø5.6 mm, PM Pigtail
LP830-SF30	830 nm	30 mW	115 mA	1.9 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
HL8338MG	830 nm	50 mW	75 mA	1.9 V	9°	22°	Single Transverse Mode	Ø5.6 mm
L830H1	830 nm	250 mW	3 A (Max)	2 V	8°	10°	Single Transverse Mode	Ø9 mm
FPL830P	830 nm	300 mW	900 mA	2.22 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL830S	830 nm	350 mW	900 mA	2.5 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
LD830-SE650	830 nm	650 mW	900 mA	2.3 V	7°	13°	Single Transverse Mode	Ø9 mm
LD830-MA1W	830 nm	1 W	2 A	2.1 V	7°	24°	Multimode	Ø9 mm
LD830-ME2W	830 nm	2 W	3 A (Max)	2.0 V	8°	21°	Multimode	Ø9 mm
L840P200	840 nm	200 mW	255 mA	2.4 V	9	17	Single Transverse Mode	Ø5.6 mm
L850VH1	850 nm	1 mW	6 mA (Max)	2 V	12°	12°	Single Frequency	TO-46
L850P010	850 nm	10 mW	50 mA	2 V	10°	30°	Single Transverse Mode	Ø5.6 mm
L850P030	850 nm	30 mW	65 mA	2 V	8.5°	30°	Single Transverse Mode	Ø5.6 mm
FPV852S	852 nm	20 mW	400 mA	2.2 V	-	-	Single Frequency	Butterfly, SM Pigtail
FPV852P	852 nm	20 mW	400 mA	2.2 V	-	-	Single Frequency	Butterfly, PM Pigtail
DBR852PN	852 nm	24 mW	300 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP852-SF30	852 nm	30 mW	115 mA	1.9 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
L852P50	852 nm	50 mW	75 mA	1.9 V	9°	22°	Single Transverse Mode	Ø5.6 mm
LP852-SF60	852 nm	60 mW	150 mA	2.0 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
L852P100	852 nm	100 mW	120 mA	1.9 V	8°	28°	Single Transverse Mode	Ø9 mm
L852P150	852 nm	150 mW	170 mA	1.9 V	8°	18°	Single Transverse Mode	Ø9 mm
L852H1	852 nm	300 mW	415 mA (Max)	2 V	7°	15°	Single Transverse Mode	Ø9 mm
FPL852P	852 nm	300 mW	900 mA	2.35 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL852S	852 nm	350 mW	900 mA	2.5 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
LD852-SE600	852 nm	600 mW	950 mA	2.3 V	7° (1/e²)	13° (1/e²)	Single Transverse Mode	Ø9 mm
LD852-SEV600	852 nm	600 mW	1050 mA (Max)	2.2 V	8°	13° (1/e²)	Single Frequency	Ø9 mm
LP880-SF3	880 nm	3 mW	25 mA	2.2 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L880P010	880 nm	10 mW	30 mA	2.0 V	12°	37°	Single Transverse Mode	Ø5.6 mm
L895VH1	895 nm	0.2 mW	1.4 mA	1.6 V	20°	13°	Single Frequency	TO-46
DBR895PN	895 nm	12 mW	300 mA	2 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP904-SF3	904 nm	3 mW	30 mA	1.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L904P010	904 nm	10 mW	50 mA	2 V	10°	30°	Single Transverse Mode	Ø5.6 mm
LP915-SF40	915 nm	40 mW	130 mA	1.5 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
DBR935PN	935 nm	13 mW	300 mA	1.75 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP940-SF30	940 nm	30 mW	90 mA	1.5 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
M9-940-0200	940 nm	200 mW	270 mA	1.9 V	8°	28°	Single Transverse Mode	Ø9 mm
L960H1	960 nm	250 mW	400 mA	2.1 V	11°	12°	Single Transverse Mode	Ø9 mm
FPV976S	976 nm	30 mW	400 mA (Max)	2.2 V	-	-	Single Frequency	Butterfly, SM Pigtail
FPV976P	976 nm	30 mW	400 mA (Max)	2.2 V	-	-	Single Frequency	Butterfly, PM Pigtail
DBR976PN	976 nm	33 mW	450 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
BL976-SAG300	976 nm	300 mW	470 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
BL976-PAG500	976 nm	500 mW	830 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
BL976-PAG700	976 nm	700 mW	1090 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
BL976-PAG900	976 nm	900 mW	1480 mA	2.5 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
L980P010	980 nm	10 mW	25 mA	2 V	10°	30°	Single Transverse Mode	Ø5.6 mm
LP980-SF15	980 nm	15 mW	70 mA	1.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L980P030	980 nm	30 mW	50 mA	1.5 V	10°	35°	Single Transverse Mode	Ø5.6 mm
L980P100A	980 nm	100 mW	150 mA	1.6 V	6°	32°	Multimode	Ø5.6 mm
LP980-SA100	980 nm	100 mW	180 mA	1.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
L980H1	980 nm	200 mW	300 mA (Max)	2.0 V	8°	13°	Single Transverse Mode	Ø9 mm
L980P200	980 nm	200 mW	300 mA	1.5 V	6°	30°	Multimode	Ø5.6 mm
DBR1060SN	1060 nm	130 mW	650 mA	2.0 V	-	-	Single Frequency	Butterfly, SM Pigtail
DBR1060PN	1060 nm	130 mW	650 mA	1.8 V	-	-	Single Frequency	Butterfly, PM Pigtail
DBR1064S	1064 nm	40 mW	150 mA	2.0 V	-	-	Single Frequency	Butterfly, SM Pigtail
DBR1064P	1064 nm	40 mW	150 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
DBR1064PN	1064 nm	110 mW	550 mA	2.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
LPS-1060-FC	1064 nm	50 mW	220 mA	1.4 V	-	-	Single Transverse Mode	Ø9 mm, SM Pigtail
M9-A64-0200	1064 nm	200 mW	280 mA	1.7 V	8°	28°	Single Transverse Mode	Ø9 mm
L1064H1	1064 nm	300 mW	700 mA	1.92 V	7.6°	13.5°	Single Transverse Mode	Ø9 mm
L1064H2	1064 nm	450 mW	1100 mA	1.92 V	7.6°	13.5°	Single Transverse Mode	Ø9 mm
DBR1083PN	1083 nm	100 mW	500 mA	1.75 V	-	-	Single Frequency	Butterfly, PM Pigtail
LP1310-SAD2	1310 nm	2.0 mW	40 mA	1.1 V	-	-	Single Frequency	Ø5.6 mm, SM Pigtail
LP1310-PAD2	1310 nm	2.0 mW	40 mA	1.0 V	-	-	Single Frequency	Ø5.6 mm, PM Pigtail
LPS-1310-FC	1310 nm	2.5 mW	20 mA	1.1 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LPS-PM1310-FC	1310 nm	2.5 mW	20 mA	1.1 V	-	-	Single Transverse Mode	Ø5.6 mm, PM Pigtail
L1310P5DFB	1310 nm	5 mW	20 mA	1.1 V	7°	9°	Single Frequency	Ø5.6 mm
ML725B8F	1310 nm	5 mW	20 mA	1.1 V	25°	30°	Single Transverse Mode	Ø5.6 mm
LPSC-1310-FC	1310 nm	50 mW	350 mA	2 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
FPL1053S	1310 nm	130 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL1053P	1310 nm	130 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL1053T	1310 nm	300 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Ø5.6 mm
FPL1053C	1310 nm	300 mW (Pulsed)	750 mA	2 V	15°	27°	Single Transverse Mode	Chip on Submount
L1310G1	1310 nm	2000 mW	5 A	1.5 V	7°	24°	Multimode	Ø9 mm
L1370G1	1370 nm	2000 mW	5 A	1.4 V	6°	22°	Multimode	Ø9 mm
BL1425-PAG500	1425 nm	500 mW	1600 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
BL1436-PAG500	1436 nm	500 mW	1600 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
L1450G1	1450 nm	2000 mW	5 A	1.4 V	7°	22°	Multimode	Ø9 mm
BL1456-PAG500	1456 nm	500 mW	1600 mA	2.0 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
L1480G1	1480 nm	2000 mW	5 A	1.6 V	6°	20°	Multimode	Ø9 mm
LPS-1550-FC	1550 nm	1.5 mW	30 mA	1.0 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LPS-PM1550-FC	1550 nm	1.5 mW	30 mA	1.1 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
LP1550-SAD2	1550 nm	2.0 mW	40 mA	1.0 V	-	-	Single Frequency	Ø5.6 mm, SM Pigtail
LP1550-PAD2	1550 nm	2.0 mW	40 mA	1.0 V	-	-	Single Frequency	Ø5.6 mm, PM Pigtail
L1550P5DFB	1550 nm	5 mW	20 mA	1.1 V	8°	10°	Single Frequency	Ø5.6 mm
ML925B45F	1550 nm	5 mW	30 mA	1.1 V	25°	30°	Single Transverse Mode	Ø5.6 mm
SFL1550S	1550 nm	40 mW	300 mA	1.5 V	-	-	Single Frequency	Butterfly, SM Pigtail
SFL1550P	1550 nm	40 mW	300 mA	1.5 V	-	-	Single Frequency	Butterfly, PM Pigtail
LPSC-1550-FC	1550 nm	50 mW	250 mA	2 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
FPL1009S	1550 nm	100 mW	400 mA	1.4 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL1009P	1550 nm	100 mW	400 mA	1.4 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
ULN15PC	1550 nm	140 mW	650 mA	3.0 V	-	-	Single Frequency	Extended Butterfly, PM Pigtail
ULN15PT	1550 nm	140 mW	650 mA	3.0 V	-	-	Single Frequency	Extended Butterfly, PM Pigtail
FPL1001C	1550 nm	150 mW	400 mA	1.4 V	18°	31°	Single Transverse Mode	Chip on Submount
FPL1055T	1550 nm	300 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Ø5.6 mm
FPL1055C	1550 nm	300 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Chip on Submount
L1550G1	1550 nm	1700 mW	5 A	1.5 V	7°	28°	Multimode	Ø9 mm
DFB1550	1555 nm	100 mW (Min)	1000 mA (Max)	3.0 V	-	-	Single Frequency	Butterfly, SM Pigtail
DFB1550P	1555 nm	100 mW (Min)	1000 mA (Max)	3.0 V	-	-	Single Frequency	Butterfly, PM Pigtail
L1575G1	1575 nm	1700 mW	5 A	1.5 V	6°	28°	Multimode	Ø9 mm
LPSC-1625-FC	1625 nm	50 mW	350 mA	1.5 V	-	-	Single Transverse Mode	Ø5.6 mm, SM Pigtail
FPL1054S	1625 nm	80 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL1054P	1625 nm	80 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL1054C	1625 nm	250 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Chip on Submount
FPL1054T	1625 nm	200 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Ø5.6 mm
FPL1059S	1650 nm	80 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL1059P	1650 nm	80 mW	400 mA	1.7 V	-	-	Single Transverse Mode	Butterfly, PM Pigtail
FPL1059C	1650 nm	225 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Chip on Submount
FPL1059T	1650 nm	225 mW (Pulsed)	750 mA	2 V	15°	28°	Single Transverse Mode	Ø5.6 mm
FPL1940S	1940 nm	15 mW	400 mA	2 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL2000S	2 µm	15 mW	400 mA	2 V	-	-	Single Transverse Mode	Butterfly, SM Pigtail
FPL2000C	2 µm	30 mW	400 mA	5.2 V	8°	19°	Single Transverse Mode	Chip on Submount
ID3250HHLH	3.00 - 3.50 µm (DFB)	5 mW	400 mA	5 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Two-Tab C-Mount
QF3850T1	3.85 µm (FP)	200 mW	600 mA (Max)	13.5 V	30°	40°	Single Transverse Mode	Ø9 mm
QF3850HHLH	3.85 µm (FP)	320 mW (Min)	1100 mA	13 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Transverse Mode	Horizontal HHL
QF4040HHLH	4.05 µm (FP)	320 mW (Min)	1100 mA	13 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Transverse Mode	Horizontal HHL
QD4500CM1	4.00 - 5.00 µm (DFB)	40 mW	<500 mA	10.5 V	30°	40°	Single Frequency	Two-Tab C-Mount
QF4050T2	4.05 µm (FP)	70 mW	250 mA	12 V	30°	40°	Single Transverse Mode	Ø9 mm
QF4050C2	4.05 µm (FP)	300 mW	400 mA	12 V	30	42	Single Transverse Mode	Two-Tab C-Mount
QF4050T1	4.05 µm (FP)	300 mW	600 mA (Max)	12.0 V	30°	40°	Single Transverse Mode	Ø9 mm
QF4050D2	4.05 µm (FP)	800 mW	750 mA	13 V	30°	40°	Single Transverse Mode	D-Mount
QF4050D3	4.05 µm (FP)	1200 mW	1000 mA	13 V	30°	40°	Single Transverse Mode	D-Mount
QF4550CM1	4.55 µm (FP)	450 mW	900 mA	10.5 V	30°	55°	Single Transverse Mode	Two-Tab C-Mount
QF4600T2	4.60 µm (FP)	200 mW	500 mA (Max)	13.0 V	30°	40°	Single Transverse Mode	Ø9 mm
QF4600T1	4.60 µm (FP)	400 mW	800 mA (Max)	12.0 V	30°	40°	Single Transverse Mode	Ø9 mm
QF4600C2	4.60 µm (FP)	600 mW	600 mA	12 V	30°	42°	Single Transverse Mode	Two-Tab C-Mount
QF4600T3	4.60 µm (FP)	1000 mW	800 mA (Max)	13 V	30°	40°	Single Transverse Mode	Ø9 mm
QF4600D4	4.60 µm (FP)	2500 mW	1800 mA	12.5 V	40°	30°	Single Transverse Mode	D-Mount
QF4600D3	4.60 µm (FP)	3000 mW	1700 mA	12.5 V	30°	40°	Single Transverse Mode	D-Mount
QD4602HH	4.602 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QF4650HHLH	4.65 µm (FP)	1500 mW (Min)	1100 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Transverse Mode	Horizontal HHL
QD5500CM1	5.00 - 6.00 µm (DFB)	40 mW	<700 mA	9.5 V	30°	45°	Single Frequency	Two-Tab C-Mount
QD5250C2	5.20 - 5.30 µm (DFB)	60 mW	<700 mA	9.5 V	30°	45°	Single Frequency	Two-Tab C-Mount
QD5263HH	5.263 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD6500CM1	6.00 - 7.00 µm (DFB)	40 mW	<650 mA	10 V	35°	50°	Single Frequency	Two-Tab C-Mount
QD6134HH	6.134 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD7500CM1	7.00 - 8.00 µm (DFB)	40 mW	<600 mA	10 V	40°	50°	Single Frequency	Two-Tab C-Mount
QD7500HHLH	7.00 - 8.00 µm (DFB)	50 mW	700 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD7500DM1	7.00 - 8.00 µm (DFB)	100 mW	<600 mA	11.5 V	40°	55°	Single Frequency	D-Mount
QD7416HH	7.416 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD7716HH	7.716 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD8050CM1	8.00 - 8.10 µm (DFB)	100 mW	<1000 mA	9.5 V	55°	70°	Single Frequency	Two-Tab C-Mount
QD8500CM1	8.00 - 9.00 µm (DFB)	100 mW	<900 mA	9.5 V	40°	55°	Single Frequency	Two-Tab C-Mount
QD8500HHLH	8.00 - 9.00 µm (DFB)	100 mW	<600 mA	10.2 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QF8450C2	8.45 µm (FP)	300 mW	750 mA	9 V	40°	60°	Single Transverse Mode	Two-Tab C-Mount
QD8650CM1	8.60 - 8.70 µm (DFB)	50 mW	<900 mA	9.5 V	55°	70°	Single Frequency	Two-Tab C-Mount
QD9500CM1	9.00 - 10.00 µm (DFB)	60 mW	<800 mA	9.5 V	40°	55°	Single Frequency	Two-Tab C-Mount
QD9500HHLH	9.00 - 10.00 µm (DFB)	100 mW	<600 mA	10.2 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD9062HH	9.062 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QF9150C2	9.15 µm (FP)	200 mW	850 mA	11 V	40°	60°	Single Transverse Mode	Two-Tab C-Mount
QD9550C2	9.50 - 9.60 µm (DFB)	60 mW	<800 mA	9.5 V	40°	55°	Single Frequency	Two-Tab C-Mount
QF9550CM1	9.55 µm (FP)	80 mW	1500 mA	7.8 V	35°	60°	Single Transverse Mode	Two-Tab C-Mount
QD9697HH	9.697 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD10500CM1	10.00 - 11.00 µm (DFB)	40 mW	<600 mA	10 V	40°	55°	Single Frequency	Two-Tab C-Mount
QD10500HHLH	10.00 - 11.00 µm (DFB)	50 mW	700 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD10530HH	10.530 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD10549HH	10.549 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL
QD10622HH	10.622 µm (DFB)	30 mW	<1000 mA	12 V	6 mrad (0.34°)	6 mrad (0.34°)	Single Frequency	Horizontal HHL

The rows shaded green above denote single-frequency lasers.

375 - 405 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L375P70MLD^c	375 nm	70 mW	110 mA / 140 mA	Ø5.6 mm	F	Yes	-	No	Single Mode
L404P400M	404 nm	400 mW	370 mA / 410 mA	Ø5.6 mm	G	No	S7060R	No	Multimode
L405P20	405 nm	20 mW	38 mA / 55 mA	Ø5.6 mm	B	Yes	S7060R	No	Single Mode
L405G2^d	405 nm	35 mW	50 mA / 60 mA	Ø3.8 mm	G	No	S038S	Yes	Single Mode
DL5146-101S	405 nm	40 mW	70 mA / 100 mA	Ø5.6 mm	B	Yes	S7060R	No	Single Mode
L405P150	405 nm	150 mW	138 mA / 170 mA	Ø3.8 mm	G	No	S038S	No	Single Mode
L405G1	405 nm	1000 mW	900 mA / 1200 mA	Ø9 mm	G	No	S8060	No	Multimode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
A temperature-controlled mount such as our LDM56F(/M) is recommended for general use.
The L405G2 is tested to ensure a center wavelength tolerance of ±1 nm.

447 - 520 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L450G1	447 nm	3000 mW	2000 mA / 2300 mA	Ø9 mm^c	G^d	No	Custom^c	No	Multimode
PL450B	450 nm	80 mW	75 mA / 145 mA	Ø3.8 mm	G	No	S038S	No	Single Mode
L450P1600MM	450 nm	1600 mW	1200 mA / 1500 mA	Ø5.6 mm	G	No	S7060R	No	Multimode
L473P100	473 nm	100 mW	120 mA / 150 mA	Ø5.6 mm	F+^e	Yes	-	No	Single Mode
L488P60	488 nm	60 mW	75 mA / 110 mA	Ø5.6 mm	B	Yes	S7060R	No	Single Mode
L515A1	515 nm	10 mW	50 mA / 100 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
PL520	520 nm	50 mW	150 mA / 160 mA	Ø3.8 mm	G	No	S038S	No	Single Mode
L520P50	520 nm	50 mW	150 mA / 160 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L520G1	520 nm	900 mW	1600 mA / 1800 mA	Ø9 mm^c	G^d	No	Custom^c	No	Multimode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
A socket is included to assist with soldering. The leads on this diode have a larger 0.6 mm diameter than the typical 0.45 mm diameter for a Ø9 mm package. This makes it incompatible with mounts and sockets that are designed to fit a standard Ø9 mm TO can package, such as our LDM90 mount.
This laser diode has a built in Zener diode to help protect against damage from small levels of electrostatic discharge and reverse potential on the laser diode.
This laser diode has a built in Zener diode to help protect against damage from small levels of electrostatic discharge and reverse potential on the laser diode. A temperature-controlled mount such as our LDM56F(/M) or LDM90(/M) is recommended for general use.

532 nm TO Can DPSS Lasers

Item #	Info	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode	Compatible Socket	Wavelength Tested	Spatial Mode
DJ532-10^b		532 nm	10 mW	220 mA / 250 mA	Ø9.5 mm (Non-Standard)^c	A	Yes^d	-	No	Single Mode
DJ532-40^b		532 nm	40 mW	330 mA / 400 mA	Ø9.5 mm (Non-Standard)^c	E	No	-	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Click here for more information on our 532 nm Diode Pumped Solid State Lasers.
These lasers have the same pin spacing as our Ø5.6 mm laser diodes. They are compatible with the LDM56 Laser Diode Mount using the LDM56DJ DPSS Laser Mounting Flange.
The monitor photodiode of the DJ532-10 measures the power of the pump source, not the 532 nm output. Therefore, we recommend operating these diodes in constant current mode.

633 - 635 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
HL63163DG	633 nm	100 mW	170 mA / 230 mA	Ø5.6 mm	G	No	S7060R	No	Single Mode
L635P5	635 nm	5 mW	30 mA / 45 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6312G	635 nm	5 mW	55 mA / 85 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
HL6320G	635 nm	10 mW	70 mA / 95 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
HL6322G	635 nm	15 mW	85 mA / 100 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.

637 - 639 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L637P5	637 nm	5 mW	20 mA / 25 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
HL63142DG	637 nm	100 mW	140 mA / 180 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL63133DG	637 nm	170 mW	250 mA / 320 mA	Ø5.6 mm	G	No	S7060R	No	Single Mode
HL6388MG	637 nm	250 mW	340 mA / 430 mA	Ø5.6 mm	H	No	S7060R	No	Multimode
L637G1	637 nm	1200 mW	1100 mA / 1500 mA	Ø9 mm^c	G	No	Custom^c	No	Multimode
L638P040	638 nm	40 mW	92 mA / 115 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L638P150	638 nm	150 mW	230 mA / 300 mA	Ø3.8 mm	G	No	S038S	No	Single Mode
L638P200	638 nm	200 mW	280 mA / 330 mA	Ø5.6 mm	G	No	S7060R	No	Single Mode
L638P700M	638 nm	700 mW	820 mA / 1000 mA	Ø5.6 mm	G	No	S7060R	No	Multimode
HL6358MG	639 nm	10 mW	40 mA / 50 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6323MG	639 nm	30 mW	95 mA / 130 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
A socket is included to assist with soldering. The leads on this diode have a larger 0.6 mm diameter than the typical 0.45 mm diameter for a Ø9 mm package. This makes it incompatible with mounts and sockets that are designed to fit a standard Ø9 mm TO can package, such as our LDM90 mount.

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+1 Qty Docs Part Number - Universal Price Available

L637P5 Customer Inspired! 637 nm, 5 mW, Ø5.6 mm, C Pin Code, Laser Diode

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HL63142DG 637 nm, 100 mW, Ø5.6 mm, A Pin Code, Laser Diode

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HL63133DG 637 nm, 170 mW, Ø5.6 mm, G Pin Code, Laser Diode

$186.34
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HL6388MG 637 nm, 250 mW, Ø5.6 mm, H Pin Code, MM, Laser Diode

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L637G1 637 nm, 1200 mW, Ø9 mm, G Pin Code, MM, Laser Diode

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L638P040 638 nm, 40 mW, Ø5.6 mm, A Pin Code, Laser Diode

$110.64
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L638P150 638 nm, 150 mW, Ø3.8 mm, G Pin Code, Laser Diode

$53.67

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L638P200 638 nm, 200 mW, Ø5.6 mm, G Pin Code, Laser Diode

$150.72

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L638P700M 638 nm, 700 mW, Ø5.6 mm, G Pin Code, MM, Laser Diode

$70.75
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HL6358MG 639 nm, 10 mW, Ø5.6 mm, A Pin Code, Laser Diode

$17.59
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HL6323MG 639 nm, 30 mW, Ø5.6 mm, A Pin Code, Laser Diode

$147.91
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640 nm - 660 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
HL6362MG	640 nm	40 mW	90 mA / 110 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6364DG	642 nm	60 mW	125 mA / 155 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6366DG	642 nm	80 mW	155 mA / 175 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6385DG	642 nm	150 mW	280 mA / 350 mA	Ø5.6 mm	H	No	S7060R	No	Single Mode
L650P007	650 nm	7 mW	28 mA / 35 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6501MG	658 nm	30 mW	65 mA / 95 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L658P040	658 nm	40 mW	75 mA / 110 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6544FM	660 nm	50 mW	115 mA / 135 mA	Ø5.6 mm	G	No	S7060R	No	Single Mode
HL6545MG	660 nm	120 mW	170 mA / 210 mA	Ø5.6 mm	H	No	S7060R	No	Single Mode
L660P120	660 nm	120 mW	175 mA / 210 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.

Based on your currency / country selection, your order will ship from Newton, New Jersey

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HL6362MG 640 nm, 40 mW, Ø5.6 mm, A Pin Code, Laser Diode

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HL6364DG 642 nm, 60 mW, Ø5.6 mm, A Pin Code, Laser Diode

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HL6366DG 642 nm, 80 mW, Ø5.6 mm, A Pin Code, Laser Diode

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HL6385DG 642 nm, 150 mW, Ø5.6 mm, H Pin Code, Laser Diode

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L650P007 650 nm, 7 mW, Ø5.6 mm, A Pin Code, Laser Diode

$14.78
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HL6501MG 658 nm, 30 mW, Ø5.6 mm, C Pin Code, Laser Diode

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L658P040 658 nm, 40 mW, Ø5.6 mm, A Pin Code, Laser Diode

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HL6544FM 660 nm, 50 mW, Ø5.6 mm, G Pin Code, Laser Diode

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HL6545MG 660 nm, 120 mW, Ø5.6 mm, H Pin Code, Laser Diode

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L660P120 660 nm, 120 mW, Ø5.6 mm, C Pin Code, Laser Diode

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670 nm - 730 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L670VH1	670 nm	1 mW	2.5 mA / 2.8 mA	TO-46	H	No	S8060	No	Single Mode
HL6748MG	670 nm	10 mW	30 mA / 45 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6714G	670 nm	10 mW	55 mA / 90 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
HL6756MG	670 nm	15 mW	35 mA / 45 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
HL6750MG	685 nm	50 mW	75 mA / 120 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
HL6738MG	690 nm	30 mW	90 mA / 115 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
HL7001MG	705 nm	40 mW	75 mA / 100 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
HL7302MG	730 nm	40 mW	75 mA / 100 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.

780 nm - 795 nm TO Can Laser Diodes

Note: The rows shaded green below denote single-frequency laser diodes.

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L780P010	780 nm	10 mW	24 mA / 40 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L785P5	785 nm	5 mW	28 mA / 40 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L785P25	785 nm	25 mW	45 mA / 60 mA	Ø5.6 mm	B	Yes	S7060R	No	Single Mode
L785P090	785 nm	90 mW	120 mA / 160 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L785H1	785 nm	200 mW	220 mA / 250 mA	Ø5.6 mm	H	No	S7060R	Yes	Single Mode
LD785-SEV300^c,f	785 nm	300 mW	500 mA (Max)^d	Ø9 mm^e	E	No	S8060 or S8060-4	Yes	Single Frequency^f
LD785-SH300^g	785 nm	300 mW	400 mA / 450 mA	Ø9 mm	H	No	S8060 or S8060-4	Yes	Single Mode
LD785-SE400^g	785 nm	400 mW	550 mA / 600 mA	Ø9 mm	E	No	S8060 or S8060-4	Yes	Single Mode
L795VH1	795 nm	0.25 mW	1.2 mA / 1.5 mA	TO-46	H	No	S8060 or S8060-4	No	Single Frequency^f

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
In order to achieve the specified performance, we recommend using the LDM90 Laser Diode Mount and, when collimated, an NIR Optical Isolator; single frequency performance when collimated is only guaranteed with >35 dB isolation of back reflections. This volume holographic grating (VHG) laser diode is also available in an SM pigtail package with internal isolator.
The power can be tuned across the operating current range, given in the serial-number-specific documentation, while maintaining wavelength-stabilized, single-frequency performance within a stabilized temperature range.
The Ø9 mm package for the LD785-SEV300 is 4.30 mm (0.17") thick, which is more than the standard Ø9 mm package thickness of 1.50 mm (0.06"). The diode will still be compatible with all Ø9 mm laser diode mounts; please see the Drawing tab in the blue info icon () above for full package specifications. Mounting this diode in the LDM90(/M) requires two 2-56 screws, included with this diode.
Single-Frequency Laser (Single Longitudinal Mode)
This diode is exceptionally sensitive to optical feedback. Any reflection with more than 2% of the incident power has the potential to permanently damage the diode.

805 nm - 808 nm TO Can Laser Diodes

Note: The rows shaded green below denote single-frequency laser diodes.

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
ML620G40	805 nm	500 mW	650 mA / 850 mA	Ø5.6 mm	G	No	S7060R	No	Multimode
L808P010	808 nm	10 mW	50 mA / 70 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L808P030	808 nm	30 mW	65 mA / 95 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
M9-808-0150	808 nm	150 mW	180 mA / 220 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
L808P200	808 nm	200 mW	260 mA / 300 mA	Ø5.6 mm	A	Yes	S7060R	No	Multimode
LD808-SEV500^c,d	808 nm	500 mW	800 mA (Max)^e	Ø9 mm^f	E	No	S8060 or S8060-4	Yes	Single Frequency^d
LD808-SE500^g	808 nm	500 mW	750 mA / 800 mA	Ø9 mm^f	E	No	S8060 or S8060-4	Yes	Single Mode
L808P500MM	808 nm	500 mW	650 mA / 700 mA	Ø5.6 mm	A	Yes	S7060R	No	Multimode
L808P1000MM	808 nm	1000 mW	1100 mA / 1500 mA	Ø9 mm	E	No	S7060R	No	Multimode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
In order to achieve the specified performance, we recommend using the LDM90 Laser Diode Mount and, when collimated, an NIR Optical Isolator; single frequency performance when collimated is only guaranteed with >35 dB isolation of back reflections.
Single-Frequency Laser (Single Longitudinal Mode)
The power can be tuned across the operating current range, given in the serial-number-specific documentation, while maintaining wavelength-stabilized, single-frequency performance within a stabilized temperature range.
The Ø9 mm package for this diode is 4.30 mm (0.17") thick, which is more than the standard Ø9 mm package thickness of 1.50 mm (0.06"). The diode will still be compatible with all Ø9 mm laser diode mounts; please see the Drawing tab in the blue info icon () above for full package specifications. Mounting this diode in the LDM90(/M) requires two 2-56 screws, included with this diode.
This diode is exceptionally sensitive to optical feedback. Any reflection with more than 2% of the incident power has the potential to permanently damage the diode.

820 nm - 895 nm TO Can Laser Diodes

Note: The rows shaded green below denote single-frequency laser diodes.

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L820P100	820 nm	100 mW	145 mA / 210 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L820P200	820 nm	200 mW	250 mA / 340 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
HL8338MG	830 nm	50 mW	75 mA / 100 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L830H1	830 nm	250 mW	400 mA (Max)	Ø9 mm	H	No	S8060 or S8060-4	Yes	Single Mode
LD830-SE650^c	830 nm	650 mW	900 mA / 1050 mA	Ø9 mm^d	E	No	S8060 or S8060-4	Yes	Single Mode
LD830-MA1W	830 nm	1000 mW	1330 mA / 1700 mA	Ø9 mm	A	Yes	S8060 or S8060-4	Yes	Multimode
LD830-ME2W	830 nm	2000 mW	3 A (Max)	Ø9 mm^d	E	No	S8060 or S8060-4	Yes	Multimode
L840P200	840 nm	200 mW	255 mA / 340 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L850VH1	850 nm	2 mW	4 mA / 5 mA	TO-46	H	No	S8060	No	Single Frequency^e
L850P010	850 nm	10 mW	50 mA / 70 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L850P030	850 nm	30 mW	65 mA / 95 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L850P200	850 nm	200 mW	255 mA / 340 mA	Ø5.6 mm	C	Yes	S7060R	No	Single Mode
L852P50	852 nm	50 mW	75 mA / 100 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L852P100	852 nm	100 mW	120 mA / 170 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
L852P150	852 nm	150 mW	170 mA / 220 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
L852H1	852 nm	300 mW	415 mA (Max)	Ø9 mm	H	No	S8060 or S8060-4	Yes	Single Mode
LD852-SE600^c	852 nm	600 mW	950 mA / 1050 mA	Ø9 mm^d	E	No	S8060 or S8060-4	Yes	Single Mode
LD852-SEV600^e,f	852 nm	600 mW	1050 mA (Max)^g	Ø9 mm^d	E	No	S8060 or S8060-4	Yes	Single Frequency^e
L880P010	880 nm	10 mW	30 mA / 40 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L895VH1	895 nm	0.2 mW	1.4 mA / 2.0 mA	TO-46	H	No	S8060 or S8060-4	No	Single Frequency^e

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
This diode is exceptionally sensitive to optical feedback. Any reflection with more than 2% of the incident power has the potential to permanently damage the diode.
The Ø9 mm package for this diode is 4.30 mm (0.17") thick, which is more than the standard Ø9 mm package thickness of 1.50 mm (0.06"). The diode will still be compatible with all Ø9 mm laser diode mounts; please see the Drawing tab in the blue info icon () above for full package specifications. Mounting this diode in the LDM90(/M) requires two 2-56 screws, included with this diode.
Single-Frequency Laser (Single Longitudinal Mode)
In order to achieve the specified performance, we recommend using the LDM90 Laser Diode Mount and, when collimated, an NIR Optical Isolator; single frequency performance when collimated is only guaranteed with >35 dB isolation of back reflections.
The power can be tuned across the operating current range, given in the serial-number-specific documentation, while maintaining wavelength-stabilized, single-frequency performance within a stabilized temperature range.

904 nm - 960 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L904P010	904 nm	10 mW	50 mA / 70 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
M9-915-0300	915 nm	300 mW	370 mA / 420 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
M9-940-0200	940 nm	200 mW	270 mA / 320 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
L960H1	960 nm	250 mW	400 mA / 430 mA	Ø9 mm	H	No	S8060 or S8060-4	Yes	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.

980 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L980P010	980 nm	10 mW	25 mA / 40 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L980P030	980 nm	30 mW	50 mA / 70 mA	Ø5.6 mm	A	Yes	S7060R	No	Single Mode
L980P100A	980 nm	100 mW	150 mA / 190 mA	Ø5.6 mm	A	Yes	S7060R	No	Multimode
L980H1	980 nm	200 mW	300 mA (Max)	Ø9 mm	H	No	S8060 or S8060-4	Yes	Single Mode^c
L980P200	980 nm	200 mW	300 mA / 400 mA	Ø5.6 mm	A	Yes	S7060R	No	Multimode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
At least 90% of the output power is within a single transverse mode.

1060 nm - 1064 nm TO Can Laser Diodes

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L1060P200J	1060 nm	200 mW	280 mA / 320 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
M9-A64-0200	1064 nm	200 mW	280 mA / 350 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode
M9-A64-0300	1064 nm	300 mW	390 mA / 480 mA	Ø9 mm	A	Yes	S8060 or S8060-4	No	Single Mode

The L1060P200J will be retired without replacement when stock is depleted. If you require this part for line production, please contact our OEM Team.

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.

1310 nm - 1480 nm TO Can Laser Diodes

Note: The rows shaded green below denote single-frequency laser diodes.

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L1310P5DFB^c	1310 nm	5 mW	20 mA / 40 mA	Ø5.6 mm	D	Yes	-	Yes	Single Frequency^c
ML725B8F	1310 nm	5 mW	20 mA / 35 mA	Ø5.6 mm	D	Yes	-	Yes	Single Mode
FPL1053T^d	1310 nm	300 mW (Pulsed)	750 mA / 1000 mA	Ø5.6 mm	E	No	S7060R	No	Single Mode
L1310G1	1310 nm	2000 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode
L1370G1	1370 nm	2000 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode
L1450G1	1450 nm	2000 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode
L1480G1	1480 nm	2000 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
Single-Frequency Laser (Single Longitudinal Mode)
This diode is available from stock in an open header package. It can be converted to a sealed TO can package by customer request. Please contact Tech Support for details.

Based on your currency / country selection, your order will ship from Newton, New Jersey

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L1270P5DFB 1270 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

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ML725B8F 1310 nm, 5 mW, Ø5.6 mm, D Pin Code, Laser Diode

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FPL1053T 1310 nm, 300 mW Pulsed, Ø5.6 mm, E Pin Code

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L1310G1 1310 nm, 2.0 W, Ø9 mm, G Pin Code, MM Laser Diode

$343.68

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L1330P5DFB 1330 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode With Aspheric Lens Cap

$90.55
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L1370G1 1370 nm, 2.0 W, Ø9 mm, G Pin Code, MM Laser Diode

$371.08

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L1450G1 1450 nm, 2.0 W, Ø9 mm, G Pin Code, MM Laser Diode

$344.82

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L1470P5DFB 1470 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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L1480G1 1480 nm, 2.0 W, Ø9 mm, G Pin Code, MM Laser Diode

$347.10

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1550 nm - 1650 nm TO Can Laser Diodes

Note: The rows shaded green below denote single-frequency laser diodes.

Item #	Wavelength	Power^a	Typical/Max Drive Current^a	Package	Pin Code	Monitor Photodiode^b	Compatible Socket	Wavelength Tested	Spatial Mode
L1550P5DFB^c	1550 nm	5 mW	20 mA / 40 mA	Ø5.6 mm	D	Yes	-	Yes	Single Frequency^c
ML925B45F	1550 nm	5 mW	30 mA / 50 mA	Ø5.6 mm	D	Yes	-	No	Single Mode
FPL1055T^d	1550 nm	300 mW (Pulsed)	750 mA / 1000 mA	Ø5.6 mm	E	No	S7060R	No	Single Mode
L1550G1	1550 nm	1700 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode
L1575G1	1575 nm	1700 mW	5 A / 8 A	Ø9 mm	G	No	S8060 or S8060-4	No	Multimode
FPL1054T^d	1625 nm	250 mW (Pulsed)	750 mA / 1000 mA	Ø5.6 mm	E	No	S7060R	No	Single Mode
FPL1059T^d	1650 nm	225 mW (Pulsed)	750 mA / 1000 mA	Ø5.6 mm	E	No	S7060R	No	Single Mode

Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
Laser diodes with a built-in monitor photodiode can operate at constant power.
Single-Frequency Laser (Single Longitudinal Mode)
This diode is available from stock in an open header package. It can be converted to a sealed TO can package by customer request. Please contact Tech Support for details.

Based on your currency / country selection, your order will ship from Newton, New Jersey

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L1490P5DFB 1490 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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L1510P5DFB 1510 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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L1530P5DFB 1530 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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L1550P5DFB 1550 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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ML925B45F 1550 nm, 5 mW, Ø5.6 mm, D Pin Code, Laser Diode

$56.48
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FPL1055T 1550 nm, 300 mW Pulsed, Ø5.6 mm, E Pin Code

$415.77

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L1550G1 1550 nm, 1.7 W, Ø9 mm, G Pin Code, MM Laser Diode

$348.24

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L1570P5DFB 1570 nm, 5 mW, Ø5.6 mm, D Pin Code, DFB Laser Diode with Aspheric Lens Cap

$90.55
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L1575G1 1575 nm, 1.7 W, Ø9 mm, G Pin Code, MM Laser Diode

$349.40

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FPL1054T 1625 nm, 200 mW Pulsed, Ø5.6 mm, E Pin Code

$457.71

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FPL1059T 1650 nm, 225 mW Pulsed, Ø5.6 mm, E Pin Code

$499.63

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4.05 µm - 4.60 µm TO Can Fabry-Perot QCLs

Item #	Center Wavelength^a	Power (Min)^b	Max Operating Current^b	Package	Pin Code	Monitor Photodiode	Wavelength Tested	Spatial Mode
QF4050T1	4.05 µm (2469 cm^-1)	300 mW	600 mA	Ø9 mm^c	H	No	Yes	Single Mode
QF4600T2	4.60 µm (2174 cm^-1)	200 mW	500 mA	Ø9 mm^c	H	No	Yes	Single Mode
QF4600T1	4.60 µm (2174 cm^-1)	400 mW	800 mA	Ø9 mm^c	H	No	Yes	Single Mode

Fabry-Perot Lasers exhibit broadband emission. The center wavelength is defined as a weighted average over all the modes. Each device has a unique spectrum. To get the spectrum of a specific, serial-numbered device, click "Choose Item" below, then click on the Docs Icon next to the serial number of the device. If you need spectral characteristics different than those shown below, please contact Tech Support to request a custom laser.
Please see the the blue info icons () above for absolute maximum power and current specifications. Do not exceed these values, whichever occurs first.
The Ø9 mm package for these diodes is 4.30 mm (0.17") thick, which is more than the standard 1.50 mm (0.06"). The laser will still be compatible with all Ø9 mm laser mounts; please see the Drawing tab in the blue info icon () above for full package specifications.