• The same basic layout of a quarter-sized breadboard (the PCB has 17 rows) turned into a beautiful PCB• The top side has a white silkscreen, & the same markings you're familiar with, to make transferring components easy• The bottom has a 4-hole pad design that matches a classic breadboard, with 4 power bus lines on the sides, & no mask so you can easily cut traces when necessary•1.2mm diameter drill holes so even parts with big leads will fit• All holes are thru-plated for strength
- these wont peel off with rework• The finish is a gold plate
- you won't get oxidation like with bare copper perf! This proto-board is the PCB you always wish you had, but never realized it! We took the basic layout of a quarter-sized breadboard (the PCB has 17 rows) & turned that into a beautiful PCB. The top side has a white silkscreen, & the same markings you're familiar with, to make transferring components easy. The bottom has a 4-hole pad design that matches a classic breadboard, with 4 power bus lines on the sides, & no mask so you can easily cut traces when necessary. We used 1.2mm diameter drill holes so even parts with big leads will fit. All holes are thru-plated for strength
- these wont peel off with rework. The finish is a gold plate
- you won't get oxidation like with bare copper perf! There are also tons of mounting holes so you can attach the PCB to your project box. Comes with one PCB & one box header, you'll need to do a little light soldering to attach the box header to the PCB but its fast & easy to do.



...

•16x 2 Character LCD• Available in both positive & negative versions (for positive version see Maplin order code A66QN)•RGB backlight•5 buttons (4-way direction pad, & one select) provide programmable inputs • Contrast control• Extra-tall 26-pin GPIO header so the plate sits above USB (Universal Serial Bus) & Ethernet jacks• Uses only two pins (I2C) on the Raspberry Pi GPIO leaving the rest available for your own Maplin Project!• Can be used with other I2C bus devices• For a detailed tutorial guide please click here This new Adafruit Pi Plate makes it easy to use an RGB 16x 2 Character LCD. We really like the RGB Character LCDs we stock in the shop. (For RGB we have RGB negative & RGB positive.) Unfortunately, these LCDs do require quite a few digital pins, 6 to control the LCD & then another 3 to control the RGB backlight for a total of 9 pins. That's nearly all the GPIO available on a Pi! With this in mind, we wanted to make it easier for people to get these LCD into their projects so we devised a Pi plate that lets you control a 16x 2 Character LCD, up to 3 backlight pins & 5 keypad pins using only the two I2C pins on the R-Pi! The best part is you don't really lose those two pins either, since you can stick i 2c-based sensors, RTCs, etc & have them share the I2C bus. This is a super slick way to add a display without all the wiring hassle. This Pi plate is perfect for when you want to build a st&-alone project with its own user interface. The 4 directional buttons plus select button allows basic control without having to attach a bulky computer. The plate is designed for both Revision 1 & Revision 2 Raspberry Pi's. It uses the I2C (SDA/SCL) pins. We have a special xtra-tall 26-pin header so the plate sits above the USB (Universal Serial Bus) & Ethernet jacks. This product comes as a kit! Included is a high quality PCB & all the components (buttons, header etc). A 16x 2 Character RGB positive LCD is included! Assembly is easy, even if you've never soldered before & the kit can be completed in 30 minutes. ...

•16x 2 Character LCD• Available in both positive & negative versions (for negative version see Maplin order code A67QN)•RGB backlight•5 buttons (4-way direction pad, & one select) provide programmable inputs • Contrast control• Extra-tall 26-pin GPIO header so the plate sits above USB (Universal Serial Bus) & Ethernet jacks• Uses only two pins (I2C) on the Raspberry Pi GPIO leaving the rest available for your own Maplin Project!• Can be used with other I2C bus devices• For a detailed tutorial guide please click here This new Adafruit Pi Plate makes it easy to use an RGB 16x 2 Character LCD. We really like the RGB Character LCDs we stock in the shop. (For RGB we have RGB negative & RGB positive.) Unfortunately, these LCDs do require quite a few digital pins, 6 to control the LCD & then another 3 to control the RGB backlight for a total of 9 pins. That's nearly all the GPIO available on a Pi! With this in mind, we wanted to make it easier for people to get these LCD into their projects so we devised a Pi plate that lets you control a 16x 2 Character LCD, up to 3 backlight pins & 5 keypad pins using only the two I2C pins on the R-Pi! The best part is you don't really lose those two pins either, since you can stick i 2c-based sensors, RTCs, etc & have them share the I2C bus. This is a super slick way to add a display without all the wiring hassle. This Pi plate is perfect for when you want to build a st&-alone project with its own user interface. The 4 directional buttons plus select button allows basic control without having to attach a bulky computer. The plate is designed for both Revision 1 & Revision 2 Raspberry Pi's. It uses the I2C (SDA/SCL) pins. We have a special xtra-tall 26-pin header so the plate sits above the USB (Universal Serial Bus) & Ethernet jacks. This product comes as a kit! Included is a high quality PCB & all the components (buttons, header etc). A 16x 2 Character RGB positive LCD is included! Assembly is easy, even if you've never soldered before & the kit can be completed in 30 minutes. ...

•RGB & Clear light sensing elements•IR blocking filter, integrated on-chip & localised to the colour sensing photodiodes allows for more accurate measurements•3, 800, 000:1 dynamic range with adjustable time & gain so suitable for use behind darkened glass•3.3V regulator so you can power with 3-5VDC safely• Level shifting for i 2c pins means you can use 3.3V or 5V logic• Neutral 4150K temperature LED with MOSFET driver onboard to illuminate what you'r trying to sense (can be turned on or off using any logic level output•20.44mm by 20.28mm Your electronics can now see in dazzling colour with this lovely colour light sensor. We found the best colour sensor on the market, the TCS34725, which has RGB & Clear light sensing elements. An IR blocking filter, integrated on-chip & localized to the colour sensing photodiodes, minimizes the IR spectral component of the incoming light & allows colour measurements to be made accurately. The filter means you'll get much truer colour than most sensors, since humans don't see IR. The sensor also has an incredible 3, 800, 000:1 dynamic range with adjustable integration time & gain so it is suited for use behind darkened glass. We add supporting circuitry as well, such as a 3.3V regulator so you can power the breakout with 3-5VDC safely & level shifting for the I2C pins so they can be used with 3.3V or 5V logic. Finally, we specified a nice neutral 4150°K temperature LED with a MOSFET driver onboard to illuminate what you're trying to sense. The LED can be easily turned on or off by any logic level output. Connect to any microcontroller with I2C & our example code will quickly get you going with 4 channel readings. We include some example code to detect light lux & temperature that we snagged from the eval board software. A detailed tutorial can be found by clicking here Click here to check out our Arduino library & follow our tutorial to install Wire up the sensor by connecting VDD to 3-5VDC, Ground to common ground, SCL to I2C Clock & SDA to I2C Data on your Arduino. Restart the IDE & select the example sketch & start putting all your favourite fruit next to the sensor element! ...

• It's a digital sensor that works over I2C so just about any microcontroller can use it• Individual visible & IR sensing elements so you can measure just about any kind of light
- we only wrote our library to printout the 'counts' rather than the calculate the exact values of IR & Visible light so if you need precision Lux measurement check out the TSL2561• If you're feeling really advanced, you can connect up an IR LED to the LED pin & use the basic proximity sensor capability that is in the SI1145 as well• Adafruit wrapped this nice little sensor up on a PCB with level shifting & regulation circuitry so you can safely use it with 3 or 5V microcontrollers.•IR Sensor Spectrum: Wavelength: 550nm-1000nm (centered on 800)• Visible Light Sensor Spectrum: Wavelength: 400nm-800nm (centered on 530)• Voltage Supply: Power with 3-5VDC• Output Type: I2C address 0x 60 (7-bit)• Operating Temperature: -40°C ~ 85°CRemember when you were a kid & there was a birthday party at the pool & your parents totally embarrassed you by slathering you all over with sunscreen & you were all "MOM I HAVE ENOUGH SUNSCREEN" & she wouldn't listen? Well, if you had this UV Index sensor connected up to an Arduino you could have said " According to this calibrated SI1145 sensor from Si Labs, the UV index right now is 4.5 which means I do not need more sunscreen" & she would have been so impressed with your project that you could have spent more time splashing around. The SI1145 is a new sensor from Si Labs with a calibrated UV sensing algorithm that can calculate UV Index. We took this outside a couple days & compared the calculated UV index with the news-reported index & found it was very accurate! It's a digital sensor that works over I2C so just about any microcontroller can use it. The sensor also has individual visible & IR sensing elements so you can measure just about any kind of light
- we only wrote our library to printout the 'counts' rather than the calculate the exact values of IR & Visible light so if you need precision Lux measurement check out the TSL2561. If you're feeling really advanced, you can connect up an IR LED to the LED pin & use the basic proximity sensor capability that is in the SI1145 as well. We wrapped this nice little sensor up on a PCB with level shifting & regulation circuitry so you can safely use it with 3 or 5V microcontrollers. If you are using an Arduino, we've got a lovely tutorial & library already written up with example code so you can quickly read sensor readings & the UV index in under 10 minutes. Each order comes with one fully assembled & tested PCB breakout & a small piece of header. You'll need to solder the header onto the PCB but it's fairly easy & takes only a few minutes even for a beginner.

...

• Requires a 5V supply• Constant current drivers for ultra-bright, consistent colour•1/16 step display dimming•I2C interface• Backpack comes with address-selection jumpers so you can connect up to four mini 8x 8's or eight 7-segments • And to view the library please click here to help you get started!• To see Adafruits tutorial showing how to solder, wire & control the display please click here What's better than a single LED? Lots of LEDs! A fun way to make a small display is to use an 8x 8 matrix or a 4-digit 7-segment display. Matrices like these are 'multiplexed'
- so to control 64 LEDs you need 16 pins. That's a lot of pins, & there are driver chips like the MAX7219 that can control a matrix for you but there's a lot of wiring to set up & they take up a ton of space. The matrices use a driver chip that does all the heavy lifting for you: They have a built in clock so they multiplex the display. They use constant-current drivers for ultra-bright, consistent colour (the images above are photographed at the dimmest setting to avoid overloading our camera!), 1/16 step display dimming, all via a simple I2C interface. These 1.2" matrix backpacks come with three address-selection jumpers so you can connect up to eight 1.2" 8x 8's together (or a combination, such as four 1.2" 8x 8's & four 7-segments, etc) on a single I2C bus.
...

• Requires a 5V supply• Constant current drivers for ultra-bright, consistent colour•1/16 step display dimming•I2C interface• Backpack comes with address-selection jumpers so you can connect up to four mini 8x 8's or eight 7-segments • And to view the library please click here to help you get started!• To see Adafruits tutorial showing how to solder, wire & control the display please click here What's better than a single LED? Lots of LEDs! A fun way to make a small display is to use an 8x 8 matrix or a 4-digit 7-segment display. Matrices like these are 'multiplexed'
- so to control 64 LEDs you need 16 pins. That's a lot of pins, & there are driver chips like the MAX7219 that can control a matrix for you but there's a lot of wiring to set up & they take up a ton of space. The matrices use a driver chip that does all the heavy lifting for you: They have a built in clock so they multiplex the display. They use constant-current drivers for ultra-bright, consistent colour (the images above are photographed at the dimmest setting to avoid overloading our camera!), 1/16 step display dimming, all via a simple I2C interface. These 1.2" matrix backpacks come with three address-selection jumpers so you can connect up to eight 1.2" 8x 8's together (or a combination, such as four 1.2" 8x 8's & four 7-segments, etc) on a single I2C bus.
...

• Requires a 5V supply• Constant current drivers for ultra-bright, consistent colour•1/16 step display dimming•I2C interface• Backpack comes with address-selection jumpers so you can connect up to four mini 8x 8's or eight 7-segments • And to view the library please click here to help you get started!• To see Adafruits tutorial showing how to solder, wire & control the display please click here What's better than a single LED? Lots of LEDs! A fun way to make a small display is to use an 8x 8 matrix or a 4-digit 7-segment display. Matrices like these are 'multiplexed'
- so to control 64 LEDs you need 16 pins. That's a lot of pins, & there are driver chips like the MAX7219 that can control a matrix for you but there's a lot of wiring to set up & they take up a ton of space. The matrices use a driver chip that does all the heavy lifting for you: They have a built in clock so they multiplex the display. They use constant-current drivers for ultra-bright, consistent colour (the images above are photographed at the dimmest setting to avoid overloading our camera!), 1/16 step display dimming, all via a simple I2C interface. These 1.2" matrix backpacks come with three address-selection jumpers so you can connect up to eight 1.2" 8x 8's together (or a combination, such as four 1.2" 8x 8's & four 7-segments, etc) on a single I2C bus.
...

• Requires a 5V supply• Constant current drivers for ultra-bright, consistent colour•1/16 step display dimming•I2C interface• Backpack comes with address-selection jumpers so you can connect up to four mini 8x 8's or eight 7-segments • And to view the library please click here to help you get started!• To see Adafruits tutorial showing how to solder, wire & control the display please click here What's better than a single LED? Lots of LEDs! A fun way to make a small display is to use an 8x 8 matrix or a 4-digit 7-segment display. Matrices like these are 'multiplexed'
- so to control 64 LEDs you need 16 pins. That's a lot of pins, & there are driver chips like the MAX7219 that can control a matrix for you but there's a lot of wiring to set up & they take up a ton of space. The matrices use a driver chip that does all the heavy lifting for you: They have a built in clock so they multiplex the display. They use constant-current drivers for ultra-bright, consistent colour (the images above are photographed at the dimmest setting to avoid overloading our camera!), 1/16 step display dimming, all via a simple I2C interface. These 1.2" matrix backpacks come with three address-selection jumpers so you can connect up to eight 1.2" 8x 8's together (or a combination, such as four 1.2" 8x 8's & four 7-segments, etc) on a single I2C bus.
...

• Requires a 5V supply• Constant current drivers for ultra-bright, consistent colour•1/16 step display dimming•I2C interface• Backpack comes with address-selection jumpers so you can connect up to four mini 8x 8's or eight 7-segments • And to view the library please click here to help you get started!• To see Adafruits tutorial showing how to solder, wire & control the display please click here What's better than a single LED? Lots of LEDs! A fun way to make a small display is to use an 8x 8 matrix or a 4-digit 7-segment display. Matrices like these are 'multiplexed'
- so to control 64 LEDs you need 16 pins. That's a lot of pins, & there are driver chips like the MAX7219 that can control a matrix for you but there's a lot of wiring to set up & they take up a ton of space. The matrices use a driver chip that does all the heavy lifting for you: They have a built in clock so they multiplex the display. They use constant-current drivers for ultra-bright, consistent colour (the images above are photographed at the dimmest setting to avoid overloading our camera!), 1/16 step display dimming, all via a simple I2C interface. These 1.2" matrix backpacks come with three address-selection jumpers so you can connect up to eight 1.2" 8x 8's together (or a combination, such as four 1.2" 8x 8's & four 7-segments, etc) on a single I2C bus.
...