Track My Order
Frequently Asked Questions
International Shipping Info
Mon-Fri, 9am to 12pm and
1pm to 5pm U.S. Mountain Time:
Chat With Us
This product is not allowed to ship to the following countries:
images are CC BY-NC-SA 3.0
added to your
Description: Basic breakout board for the TEMT6000 Ambient Light Sensor. Only what you need, nothing you don’t. Sensor acts like a transistor - the greater the incoming light, the higher the analog voltage on the signal pin.
Added to your cart!
This is a very small light sensor. A photocell changes (also called a [photodetector](http://en.wikipedia.org/wiki/Photodetec…
This is the SparkFun RGB and Gesture Sensor, a small breakout board with a built in APDS-9960 sensor that offers ambient ligh…
If you’ve had ideas for a project that depends on the ability to sense different spectrums of visible light and react based…
This is a simple three wire cable. Great for jumping from board to board or just about anything else. There is a 3-pin JST co…
The LM358 is a great, easy-to-use dual-channel opamp. Opamps have so many [applications](http://en.wikipedia.org/wiki/Operati…
The TSL235R light-to-frequency converter outputs a square wave (50% duty cycle) with frequency directly proportional to light…
This is a small ambient light sensor that acts as an NPN transistor. The more the sensor is exposed to light, the stronger th…
A row of headers - break to fit. 40 pins that can be cut to any size. Used with custom PCBs or general custom headers.
The SparkFun Soil Moisture Sensor is a simple breakout for measuring the moisture in soil and similar materials. The soil moi…
This is the new Arduino Uno R3. In addition to all the features of the previous board, the Uno now uses an ATmega16U2 instead…
The RHT03 (also known by DHT-22) is a low cost humidity and temperature sensor with a single wire digital interface. The sens…
At SparkFun we use many Arduinos and we're always looking for the simplest, most stable one. Each board is a bit different an…
The TSL2561 SparkFun Luminosity Sensor Breakout is a sophisticated light sensor which has a flat response across most of the …
This sealed digital temperature probe lets you precisely measure temperatures in wet environments with a simple 1-Wire interf…
Resistors are a good thing, in fact, they're actually crucial in a lot of circuit designs. The only problem seems to be that …
This is the same temperature sensor that is included in our [SparkFun Inventor's Kit](http://www.sparkfun.com/products/12060)…
The SparkFun Sound Detector is a small and very easy to use audio sensing board with three different outputs. The Sound Detec…
It's blue! It's thin! It's the Arduino Pro Mini! SparkFun's minimal design approach to Arduino. This is a 5V Arduino running …
If you've ever tried to connect a 3.3V device to a 5V system, you know what a challenge it can be. The SparkFun bi-directiona…
This is a simple to use motion sensor. Power it up and wait 1-2 seconds for the sensor to get a snapshot of the still room. I…
The ML8511 breakout is an easy to use ultraviolet light sensor. The MP8511 UV (ultraviolet) Sensor works by outputing an anal…
This is your tried and true white solderless breadboard. It has 2 power buses, 10 columns, and 30 rows - a total of 400 tie i…
The Si7021 is a low-cost, easy-to-use, highly accurate, digital humidity and temperature sensor. This sensor is ideal for env…
This is a breakout board for the incredibly small TMP102 digital temperature sensor. The TMP102 is a digital sensor (I2C a.k.…
I had a question about the output this sensor gives off…
I’m using it with a basic stamp 2pe microcontroller and haven’t been sure how to convert the analog output into lux. Is there a specific equation I have to use for this or are there several (like ones that include temperature, etc)?
Although the datasheet does not provide this information, an email to Vishay got some dynamic response data. The upshot is that for the fastest response to changing light conditions one must have a high current flowing through the device. Icmax is defined at 20ma. With the 10K resistor (assuming no current out the signal line), and a 5 volt supply, than the maximum collector current is 5/10K or a tiny 500 micro amps. At this condition, rise and fall times are around 15 micro seconds. Increase Ic (by lowering the value of the resistor) and you can drop the times to bellow 10 usec.
Suggestion: Why not use the regular G/V/S layout for pinout? Gnd / Vcc / Signal? Then it’d match practically any servo connector wire pinout.
Yes, I’m using it at 3.3v. Just keep in mind, the current out of this thing is small; I’m buffering it using an op-amp.
I am using 5v with an arduino mega and this unit really impresses me. Note that this sensor reports close to 0v even when in moderate light, and you must use a bright light to get 5v out.
UPDATE: This sensor also has a very large light receiving area as even lights pointed at it from the side trigger high readings. Still happy with it!
SFE, how about a breakout board with this sensor and a logarithmic amplifier? I don’t care for the difference between 100 lux and 105 lux, which you won’t notice anyway, but I do care about the difference between 10 lux, 100 lux and 1000 lux. Log amp, please!
The ISL76671 is a newer, more sensitive analog light sensor, for very low light levels. Please make a breakout board for it! :)
why use this instead of a photoresistor?
With a photoresistor you build a voltage divider which is anything but linear, this one is linear. Also, a phototransistor has a much wider range and is faster. Phototransistors are being used to trigger slave strobe light in photostudios, a photoresistor is orders of magnitude too slow for this.
Yeah, I’m kinda wondering the same thing.
datasheet 404’d:( I found it here
What is the range of possible values that this will return? 0 - 1023?
why 10k resistor? how to calculate this?
Would i have to buy the sensor itself? or does it come with the breakout board?
It comes on the board.
Does This come with the sensor itself? or do i have to buy it seperatly?
Yes, the sensor is in place on the pcb.
U can use digitall read with it
Technically yes (you will get HIGH and LOW for certain amounts of light), but I suggest that you use analog to get an exact value.
Would this be a good device for measuring and data logging sunlight in a garden? Also, is there a waterproof version, or a good way to waterproof this without diffusing the light from hitting the sensor? Thanks!
Would anyone happen to know the bandwidth for this summabitch? I haven’t been able to find it anywhere, including Vishay’s website.
The data sheet shows an input capacitance © of 16 pF. The breakout schematic shows a 10K resistance ® in series. R*C = 160 nS; the RC time constant. Lets call it 200 so that 5 time constants is 1 microsecond. So my, rough guess, expectation is that you should be able to get at least 500 kHz “bandwidth”. My guess is that it would handle any “fast” Arduino project, for example a lightning flash sensor. Another post (Skye) indicates a 15 usec response. Still fast enough for most general light sensing. I think its time for me to get one and test it!
Exhibits wonderful non-linearity in the output… Go code yourself a correction algorithm…
Amazingly simple to use.
I’m using it as a trigger in a spectrometer, gives the go signal when the emission starts.
highly stable and incredibly easy to work with. Only problem is, my fingers are too big
Remarkable. I swapped this in place of a potentiometer in my Arduino project and it worked exactly as expected without any changes. It’s great to have this as a breakout.
Now I have to modify the software to provide some dampening.
I’m using it at 3.3v (with a “mbed - LPC1768 Development Board” bought on Sparkfun as well). Just works.
I would like to use this in an application where I need much higher resolution, but it won’t need to measure more than 2 lux or so. If I just put a big resistor on the ground pin, will that effectively multiply the voltage on the signal pin? Also, while this won’t need to actively measure more than 2 lux, it will still regularly be exposed to 100+ lux while it’s on. If putting the resistor on there will fry a 5V picaxe I/O pin, it won’t work.
If this doesn’t work, I’d appreciate any ideas for something that would. I would just use a CdS photoresistor, but linearity is very helpful.
What are you doing with it that requires significant current? I was going to sample it with a high-impedance ADC input. I’m assuming I don’t need to buffer that, right?)
Anyone know if this will work at 3.3V?
Yes, but you should then set your analog voltage reference to 3.3v for a more representative result.
Yes it will. The series resistor determines the output voltage. If there’s so much light that the output would want to go higher than 3.3V, decrease the resistor value.
Based on 3 ratings:
about a year ago
by Member #529167
Good board and clear hookup instructions. Worked great for my project!
about a year ago
by Member #726633
I got the items in less than 4 business days. very fast shipping and the item worked perfectly.
Forgot your password?
No account? Register one!