Celebrating the
independent kiwi spirit of invention.
Original
list by Ian Mander started 1 February 2008. Added to this site (Aqualab)
26 November 2008. Database released 27 May 2009.
Please note that the date mentioned below that the database code was last updated
is not the date the data itself was last updated.
Driver List Database code 16 December 2019
Footnotes 10 August 2016
Video Foundry/Aqualab does not sell any of these drivers. Links are
provided to resellers. The short URL for this list is www.videofoundry.co.nz/driverlist. See the bottom of the page for my email address. If you're just a spam bot looking for fodder, spam the hell out of these spammers' addresses: spammer address 1, spammer address 2, spammer address 3. They deserve a taste of their own spam.
Note that some sellers are more reliable than others. Inclusion of particular resellers in this list is not an endorsement of them as businesses. Note that Fasttech closed in December 2022 but the drivers are still included for reference.
For driving a single 5mm LED from an alkaline AA or AAA. Do not use with NiMH - the Joule Thief will suck it dry and leave it gasping or permanently dead. There's a handy instruction video on YouTube.
Some changes to the basic circuit can increase efficiency and stablise output. (Love the ASCII diagrams - they're cool!)
FWIW an open circuit Joule Thief can output over 50 volts, so they can be used for all sorts of things, like charging other batteries.
Maximum output voltage 38 V. Maximum input current 500 mA. Output current set by solder jumpers in 9 steps from 10 mA to 200mA. Dimming by PWM signal. Soft start. Maximum claimed efficiency listed here; typical efficiency for any particular configuration unknown.
~300 mA output with one fresh AA, ~530 mA with two AA cells. Accurate testing has been difficult, presumably because of the high switching frequency of the board.
3 mode; high (100%), low (15%), strobe (9 Hz). Incomplete specs - output current is just a guess and probably varies significantly depending on input voltage.
Unknown driver operation. Assumed to be boost because of the claimed ability to drive 5 LEDs from 12 V DC, but claimed output voltage is 12 V. AC rectifier built in. Efficiency is claimed minimum. The stated length probably includes the LED leads. Duh.
Output voltage 18-60 V (with 12 V input), 30-80 V (with 24 V input). Note that this voltage represents a shock hazard - use with caution. Heatsink included.
Output current is a guess. Input/output inconsistencies - buyer beware. Is it a boost driver or a buck/boost driver? One user claims it uses the XL6001 driver chip (datasheet - not presently linked from their web site), which offers PWM dimming. Efficiency figures from that datasheet.
Maximum output voltage 48 V. Input voltage must be at least 3 V lower than output voltage. Dimmable with external potentiometer (0-100%) and on board trim adjustment (75-125%). 7 pin SIP interface for PCB mounting; wiring harness optional extra. Output has short circuit protection (15 seconds) and open circuit protection.
Description claiming "output voltage: less than 1.5V" is just a laugh, as is the "Length: 7.50cm" dimension and the "5pcs a pair" quantity. Unknown minimum input voltage - values given here are just a guess. Buyer beware.
5 modes with memory; high, medium (30%), low (3%), strobe (9 Hz), SOS. Claims to be suitable for 1x 14500 cell, but doesn't say if it's in direct drive with that input, relying on the voltage drop of a small Li-ion cell.
~500 mA output, current not constant. Spec claims 5 modes; high 100%, mid 35%, low 10%, strobe, SOS. However one reviewer claims 16 modes, and with the steady modes in the opposite order.
Can be used as either a buck, or boost, or buck/boost driver - see the Application Notes for connection diagrams and other info. Not a constant current output; they claim this is a design feature to mimic the light dropoff of an incandescent bulb. I'm not convinced. Maximum 8 V output. Can be used in parallel. Efficiency as a boost driver claimed 70-82% (measured at 64-78% in a test with an XP-G here), as a buck driver 82-89%; as a buck/boost driver 62-72%. The datasheet doesn't claim an IP rating but does say "The 2009A is encapsulated by an insulating epoxy and is resistant to harsh environments and moisture."
Available in three versions with nominal outputs of 350, 400 (error in window title bar) and 500 mA.
$7.85 For 1-2: + shipping (sold out and/or discontinued)
Boost driver
1.0-3.2 V
1
1-2x AA,
1x LiFePO4
500 mA
4
17 mm
Driver removed from site.
Minimum input voltage is just a guess. 4 modes with 3 second mode memory; very low (7 mA), medium (160 mA), high, strobe. Polarity protection. Potted components (they're covered with goop).
$7.85 For 1-2: + shipping (sold out and/or discontinued)
Boost driver
1.0-3.2 V
1
1-2x AA,
1x LiFePO4
500 mA
4
17 mm
Driver removed from site.
Minimum input voltage is just a guess. 4 modes with 3 second mode memory; very low (7 mA), medium (100 mA), high, strobe. Polarity protection. Potted components (they're covered with goop).
Constant current boost driver with either PAM2801 (max 350 mA) or PAM2803 (max 1000 mA) or J1JD (?) chip. Latest version outputs 630 mA; originally set to 380 mA. Claimed variable output current depending on input voltage, 600 mA (with 1.5 Vin) to 1.2 A (with 4.2 Vin), which makes me wonder what on Earth DX means by "Fully regulated circuit design"; those figures obviously aren't. However, testing by Hilarion showed perfectly stable current output from 1.2-3.2 V; very nice, although only 360 mA. Output current is determined by a sense resistor with 95±5 mV feedback voltage. Thus 0.25 Ω sense resistor as supplied in 2009 gives 380 mA, 0.15 Ω as presently supplied gives 630 mA,
0.1 Ω gives 950 mA (measured 900 mA at ~80% efficiency). Efficiency is said to drop horribly with input current > 2 A.
As pointed out in this thread there are no components to buck voltage as implied, so it would actually be direct drive when Vin is greater than Vf of your LED.
$4.12 (up from $3.94, down from $4.34, down from $4.44, down from $4.88, up from $4.50,
Boost driver
3.0-12.5 V (5-8.4 V claimed)
2-6
4-8x NiMH, 2x Li-ion
72-90%
650 mA constant current
Can be modified to 2000 mA
5
26 mm x 13 mm high
A boost board for up to 5 LEDs in series (so would be ideal for a well-heatsinked MC-E with the dice in series).
Version 2, TR-0055C or TR-5055C: Has a slightly smaller inductor than the previous version and uses the FP5138 regulator chip. Output is set to 650 mA.
Version 1, TR-0055 or TR-5055 or TR-0055a2 or TR-5055a2: Has a lovely big-looking inductor and uses the AS2001 regulator chip.
5 modes, with memory - high, medium (56%), low (26%), fast strobe, SOS. Test results here or here by EpRoM which includes a 30 minute test at 12.44 V. Voltage across sense resistor is 0.5 V.
Tip 1: An investigation into eliminating the flashing modes is here (for single mode mod see post 11 and pic in post 13).
Tip 2: Operation with >12 V input may need a resistor changed, and for running 6 LEDs the output capacitor may need to be changed - an analysis and discusssion is here.
Boost board. Output voltage and current not constant; almost 300 mA from one fresh AA, almost 700 mA output with two fresh AAs. Modes are high, low, and three different flashing options! No mode memory.
Tip: Remove controller board to use as single mode driver.
Version 4: As of April 2010 buck drivers are being sent instead of boost drivers. Buyer beware. Update: Product is sold out.
Version 3: As of August 2008 there seems to be a new version which may have different components and may not cope with anything over 3.0 V.
Version 2: Boost driver using Zetec C300 control chip, no capacitors. 100~700 mA output, dependent on input voltage. Test data discussion (in which various people point out the test data is wrong).
Boost driver, 20 modes in three groups. Output voltage and current not constant, 1.0 V in gives ~300 mA out, 1.4 V in gives ~700 mA out. Run on two fresh NiMH it outputs 1.8 A and gets very hot - not advised. I believe this is identical in operation to the AAA driver except for physical size (and the new version of this board is black). "LDCH" on the back of the board is the manufacturer.
Boost boards; output voltage and current not constant. Gets really hot when used with two AA cells. I believe this is identical in operation to the AA driver but is narrower and taller than that one.
Three mode; high, medium (30%), strobe (9 Hz). Reverse polarity protected. Specs mention "(1 x 123A or 1 x 16340 battery)" but a 16340 li-ion cell would likely cause this boost driver to be in direct drive.
Very much non-constant output; 1.5 V in gives 500 mA out, or 3.6 V in gives 800 mA out, but claimed to be constant current at 1.8-3.6 V. The talk of linear regulator in the product description just shows they don't know what they're talking about. The review mentions it's quite inefficient.
5 modes, high, medium, low, strobe, SOS. Very much non-constant output; 1.5 V in gives 500 mA out, or 3.6 V in gives 800 mA out, but claimed to be constant current at 1.8-3.6 V. The talk of linear regulator in the product description just shows they don't know what they're talking about.
5 mode; high (700 mA with 1x AA, 900 mA with 2x AA), medium, low, strobe, SOS. Low voltage warning at 0.8 V and 1.8 V. Polarity protection. Also available (for much less) from Intl Outdoor Store p-417.
$8.99 For 1-2: + shipping (sold out and/or discontinued)
Boost driver
0.9-3.0 V
1
1-2x AA
900 mA
4
18 mm x 8 mm high - components on both sides
Driver removed from site.
4 modes; high (650 mA with one AA, 900 mA with two AAs), medium (100 mA), low (10 mA), strobe. Low voltage protection; drops to low mode and starts flashing. Polarity protection.
Boost driver (uses 2106F regulator chip). Reliable test data is hard to find and is complicated by people using different wiring methods. Some results are here and here but in the latter test, as pointed out, the output voltage dipping while the output current still climbs does seem a bit hard to believe. Discussion thread here.
Tip 1: It seems that modifying the set resistor to give a lower output current (max 500 mA) is a good idea.
Tip 2: Different wiring methods may give different efficiency figures.
This product has vanished from the retailer's web site.
Boost regulator, although Wayne says "The Shark has a hard time at voltages below ~4V". Vin must be less than Vout, and should be >1/3 Vout (preferably >1/2 Vout). Maximum input current 4 A, efficient up to 2 A. Regulates on voltage or current, output current adjustable from 50-980 mA (or greater by changing set resistor, although that would remove load protection) at maximum 26 V. Open circuit protected. Some questions are answered in this forum thread.
This product has vanished from the retailer's web site.
Multimode boost regulator. Maximum input current 4 A. Available in two flavours - three mode Plain (low, medium, high) and four mode Special (with SOS).
"Great for use in Mag C & D and fixed lighting applications."
980 mA constant current
1
19 mm
Boost regulator. Maximum input current 4 A, said by manufacturer to be still efficient >3 A. Regulates on voltage or current, output current adjustable from 50-980 mA (or greater by changing set resistor, although that would remove load protection) at maximum 32 V. Includes copper heatsink; improved thermal performance and higher output voltage over standard Shark.
I note that Wayne here recommends new buyers to get three.
This product has vanished from the retailer's web site.
Multimode boost regulator. Maximum input current 4 A. Available in two flavours - three mode Plain (low, medium, high) and four mode Special (with SOS).
Former version 19 mode Nanjg 16 (NJG-016) is the one pictured on DX. New version (NJG18) has the first mode group with just low, medium, high as detailed here.
Previous version: 19 mode boost driver using "Seiko S-8352D (or a clone thereof)" (datasheet, PDF 528 KB) which is a constant voltage boost driver chip. User-adjustable output voltage (not current) ~2 V up to 7.4 V. Output voltage must be greater than input voltage; one report says it will keep working down to 0.3 V but will not turn on unless input voltage is at least 1.1 V. Note that it runs out of regulation, so is not a constant current or constant voltage driver. Capable of ~700 mA output from a single AA NiMH cell, or ~1000 mA from two. Efficiency in the 60-70% range if output is much over 1 W (running the board on 1x AA), and pushing 90% at ~1 W - amazing for an inexpensive boost driver. Do not operate without a load connected.
Is it suitable for a Li-ion cell? See a good analysis here by Tido, who writes: "Yes and no. It's possible to use this circuit with a high Vf LED like an XR-E... Things are different with an XP-G..."
Tip 1: To disable modes (and a mode list) see this post.
Tip 2: A mod to get this driver to fit an Ultrafire A10 is detailed here.
$13.00 for all except $16.50 for 750 mA and 1 A versions + shipping
Boost driver
1.6-6.0 V
1-2
85-89%
1000 mA constant current
1
14 mm
Boost regulator. Vin must be less than Vout. Maximum Iin 1.5 A. Constant current output, board available as a "blank" (add set resistor), or preset to 300 mA, 400 mA, 500 mA, 750 mA, or 1000 mA. Must always have a load connected.
Buck/boost regulator. Constant current output, board available as a "blank" (add one or two SMT set resistors), or preset to 500 mA, 750 mA, or 1000 mA. Maximum output voltage 5.4 V. Must always have a load connected.
Boost regulator, but apparently needs to be started with Vin between 3.4 V and Vf to start the full current regulation mode, otherwise it starts in safe mode, which is 1.5 A maximum input current. Constant current output, maximum 1 A. Board available as a "blank" (add set resistor), or preset to 400 mA, 500 mA, 750 mA and 1000 mA. Must always have a load connected.
Boost regulator. Vin must be less than Vout. User adjustable constant current at 3-16 V, up to 1000 mA. Optional external adjustment. Must always have a load connected.
Stupidly, this driver completely vanishes from the retailer's web site when temporarily out of stock.
SKU 1219. Three mode, low (80 mA), medium (350 mA), high (1000 mA). Built-in voltage protection, will turn off at 2.8 V. Polarity protection.
5 mode board
Shining Beam
$5.95 + shipping (sold out and/or discontinued)
Boost driver and buck driver
4.0-15 V
1
1000 mA
5
17 mm
This driver has been replaced on the retailer's web site with a 3 mode linear regulator (with the same URL). Plain weird or a typo?
Old details: Claims to be a boost/buck driver, implying it can handle multiple LEDs, but no information is provided about that. 5 modes - high (1000 mA), medium (300 mA), low (100 mA), strobe, SOS. Mode memory.
$4.74 each (down from $4.82 while it was sold out, down from $5.02), also available in 5 pack (sold out and/or discontinued)
Boost driver and buck driver
0.9-4.2 V
1
1x Li-ion
1000 mA
5
17 mm
Unclear what it does when input voltage is greater than LED Vf - possibly just direct drive, but it claims to buck. Similar to Nanjg 28 but with contacts for different mode groups like AK-47; with a suitable switch you could change between groups with 2, 3, 3 and 5 modes on the fly. Output current with 1x AA claimed to be 300-500 mA. This review says the low and medium modes are very close together.
Formerly product ID 10243. Also available as a 5 pack, S009114 (formerly product ID 10246).
Output current 600 mA with 1xAA, 1000 mA with 2xAA. Three modes; high, medium (30%), low (5%). PWM frequency 1 kHz. Flashing warnings for high temperature and low voltage (not stated if it warns at several low voltage levels). Bottom board (which is where the model number V10-136 comes from) apparently does nothing except provide a 17 mm board and can be removed to leave just a 15 mm single board boost driver with components on both sides.
Recent buyers have reported problems with this driver. Buyer beware.
Boost driver, possibly Seiko S-8352D boost chip. Uses PIC12F629 microcontroller chip for modes, probably with an AMC7136 (sic) linear regulator (datasheet, PDF 954 KB) for dropping small excess voltage as well. 5 modes: High (1,000 mA), mid (350 mA), low (50 mA), strobe (1,000 mA), SOS (1,000 mA). Testing here and here shows that above 2.4 V input the output current is surprisingly regulated. Average efficiency 70%.
Driver board with combined LEDs - triple Cree XP-G R5 (cool white). Three modes; 100%, 20%, 2%. An extra momentary button (not supplied) allows access to four flashing modes and to manually set the middle mode anywhere in the range 0-50%. Below ~4.8 V in the output will drop out of regulation.
A new 1.55 A version is undergoing testing, as discussed here.
Driver board with combined LEDs - triple Cree XP-E R3 (cool white). Three modes; 100%, 20%, 2%. An extra momentary button (not supplied) allows access to four flashing modes and to manually set the middle mode anywhere in the range 0-50%.
A new 1.55 A version is undergoing testing, as discussed here.
Driver board with combined LEDs - triple Cree XP-G R4 (neutral white). Three modes; 100%, 20%, 2%. An extra momentary button (not supplied) allows access to four flashing modes and to manually set the middle mode anywhere in the range 0-50%. Below ~4.8 V in the output will drop out of regulation.
A new 1.55 A version is undergoing testing, as discussed here.
Boost regulator. Vin must be less than Vout. User configurable constant current, 350-1300 mA (increased from 1200 mA) at up to 29 V (increased from 24 V). uController UI, status LED. Open circuit protected, polarity protected.
Input current up to 3 A. Soft start output, current adjustable with solder bridge (350 mA, 700 mA, 1000 mA) up to 35 V. External PWM input. Claimed efficiency is maximum; typical efficiency unknown.
Boost driver, input voltage must be less than output voltage. Maximum output 80 V. Adjustable output current limit. Input current less than 5 A for optimal performance. Has open circuit and reverse polarity protection. (Note that if turned on while open circuit, output will rise to 80 V - shock hazard.)
Previous version (pre Feb 2010) maximum 1.3 A output.
Boost regulator. Vin must be less than Vout. Maximum 5 A input. User adjustable constant current output up to 2 A or 48 V (45 W max). Optional external adjustment. Open circuit protected, but if doing so, LED(s) must not be connected until output has discharged from 48 V.
Output current set by solder jumpers in 15 steps from 200 mA to 2050 mA. Tested up to 3 A output. Soft start function. Maximum input current 7 A. Maximum output voltage ~55 V. Maximum output power >100 W. Maximum claimed efficiency listed here; typical efficiency for any particular configuration unknown. Thermal protection. External PWM input and external shut down.
Output voltage 23 V. Output current variously stated to be 2.6-3.0 A and 2.5-2.8 A, and output power 50-60 W - the same as the 5 LED version; buyer beware. Input current can be up to 8 A. 3 modes; high, medium (30%), low (10%). Low voltage protection at 6 V. Thermal protection at 55-60 °C (this seems very low).
Output current variously stated as 2.5-2.8 A and 2.6-3.0 A. Output voltage 17 V (range unknown). 5 modes; high (100%), medium-high (75%), medium (50%), low (30%), very low (5%) (no strobe!). Thermal protection, low voltage warning at 6 V.
Output current variously stated as 2.5-2.8 A and 2.6-3.0 A. Output voltage 23 V (range unknown). 5 modes; high (100%), medium-high (75%), medium (50%), low (30%), very low (5%) (no strobe!). Thermal protection, low voltage warning at 6 V.
Output voltage 17 V (range unknown). Output current variously stated to be 2.6-3.0 A and 2.5-2.8 A, and output power 50-60 W - the same as the 7 LED version; buyer beware. Input current can be up to 8 A. 3 modes; high, medium (30%), low (10%). Low voltage protection at 6 V. Thermal protection at 55-60 °C (this seems very low).
Output voltage 30 V. Output current variously stated to be 2.6-3.0 A and 2.8-3.0 A, and output power 70-100 W when running on 3-4x Li-ion cells (which contradicts the claimed input voltage range); buyer beware. Input current can be up to 8 A. 3 modes; high, medium (30%), low (10%). Low voltage warning at 9 V (although a working minimum of 6 V is also stated). Thermal protection at 55-60 °C (this seems very low).
Output current variously stated as 2.6-3.0 A and 2.8-3.0 A. Output voltage 30 V (range unknown). 5 modes; high (100%), medium-high (75%), medium (50%), low (30%), very low (5%) (no strobe!). Thermal protection, low voltage warning at 9 V.
Output current varies from claimed 5 A for 1 LED (which disagrees with the claimed 8-10 W) to 3 A for 3-4 LEDs. However, 2.8 A is also claimed by sales staff answering two separate thread questions - buyer beware. 5 modes with memory; high, medium, low (no mention of ratios/duty cycle), strobe, SOS. Low voltage protection at 5.7 V, thermal protection (heatsinking possibly required).
Output current varies from claimed 5 A for 1 LED (which disagrees with the claimed 8-10 W) to 3 A for 3-4 LEDs. However, 2.8 A is also claimed by sales staff answering a thread question - buyer beware. 3 modes with memory; low, medium, high (no mention of ratios/duty cycle). Low voltage protection at 5.7 V, thermal protection (heatsinking possibly required).
Output current 5 A for 1 LED, 2.6-3.0 A for 3-4 LEDs; apparently not suited for 2 LEDs. Three modes with memory; high, medium (30%), low (5%). PWM frequency 1 kHz. Thermal protection and low voltage warning.
5 modes; high (100%), medium (30%), low (5%), SOS, strobe. Output voltage 2-7 V, manually set; possibly hence the mention of direct drive. Claimed output of 3 A is seriously dubious (it might actually be input current). See DX sku.7882 for more details on the Nanjg 18 driver.
Output voltage 80 V maximum. Note that this voltage represents a shock hazard - use with caution. PWM input. Open circuit protection. Technical info here.
Notes
Footnotes & Instructions
Video Foundry/Aqualab does not sell any of these drivers. Links
are provided to resellers.
Use the pop-up menus, check boxes, etc, in the second row of the table to filter the results.
Click on the links in the titles in the top row of the table to order the results by that information.
All prices in US$ (except where dual prices are listed in US$ and €
for some European retailers).
All driver boards from DealExtreme and KaiDomain include shipping.
Information is unfortunately not guaranteed to be correct.
any updates, corrections, omissions, etc.
However, please don't bother sending me an email to tell me about
your company's LED products. It will be treated as spam. I really
don't like spam, and SpamCop is busy enough as it is without having
to process your email as well. Putting "Re" in the front of your spam's subject does not make it any less likely your spam will be sent to SpamCop.
Recommended drivers highlighted in green.
They have a good combination of price, features and efficiency.
Drivers no longer available (sold out
or backordered) are highlighted in grey.
Recommended drivers no longer available
are highlighted in a darker green.
Drivers listed at those resellers as "Backordered" etc
for more than a month are deemed to be discontinued (although I'm happy
to later be proven wrong).
Don't connect drivers that have capacitors across their outputs to
LEDs while the driver is powered. An explanation
(on CPF) why not.
No mains driver will be completely waterproof. Those that are water resistant mostly have an IP rating (eg, IP67).
Notes
on Schottky diodes(click to
expand/contract)
Schottky diodes are diodes that have a low voltage drop across them. 0.3 V is a typical figure, compared to around 0.60-0.65 V for a typical silicon diode. This makes Schottky diodes good for rectifiers and LED drivers where high efficiency is required. Drivers that use the AX2002 such as DX 3256 can easily be modified for higher output current but the Schottky diode needs to be replaced if the output current is to exceed 1 A.
Inexpensive Schottky diodes are available from these sources:
These MR16 drivers have four 1 A (SS14) Schottky diodes on them used for the rectifier plus another for the driver (links jump to driver info in table above):