sainsmart cte tft lcd sd shield supplier

This is SainSmart MEGA2560  + 7 inch TFT LCD module with the TFT LCD shield kit For arduino enthusiasts.It includes one pcs of SainSmart MEGA2560 , 7 inch TFT LCD display and a TFT LCD shield for Arduino MEGA2560.This kit helps you to avoid complicated wiring processes and save you much time to accomplish your goal. You can feel free to enjoy the touch function and SD card function by using our codes.We will provided you the whole document including the example project of the kit. We will supply you the technical support after your purchase.

The MEGA2560 R3 also adds SDA and SCL pins next to the AREF. In addition, there are two new pins placed near the RESET pin. One is the IOREF that allow the shields to adapt to the voltage provided from the board. The other is a not connected and is reserved for future purposes. The MEGA2560 R3 works with all existing shields but can adapt to new shields which use these additional pins.

It is 100% compatible with the normal MCU like ARM AVR PIC and 8051,especially on Arduino family such as Arduino Due and Arduino MEGA2560(R3). The module uses the LCD controller Chip SSD1963 with 7 inch LCD including the touchscreen.

LCD-specificed intialization code is provided, so that you can save time to optimize power control register and gamma curves for best display performance. We have test the provided code, it gives the best display performanace

This is Sainsmart TFT LCD Extend shield for arduino due .Using this shield can help you out of the bothers to use other cables. You just need to plug the module to arduino due through this shield.

The shield defines that all the the data transmit ports are PC1-PC8 and PC12-PC19,the controll pins are PD0-PD3.The perfect design could realize that the data transmits in high speed.The SPI interface is designed in the ISP header of arduino due so that the SPI transfer with DMA could be achieved in high speed with no drag.

This shiled is just for Arduno MEGA2560. If you need the LCD Extend shield for Arduino Due,you need a similar shield which is also provided from our store.

This shiled is just for 7 inch TFT LCD.If you need the LCD Extend shield for 3.2/3.5/...,you need a similar shield which is also provided from our store.

This is SainSmart 7 inch TFT LCD module with the TFT LCD shield kit For arduino enthusiasts. It includes one pcs of 7 inch TFT LCD display and a TFT LCD shield for Arduino MEGA2560(R3). We will provided you the whole document including the example project of Arduino MEGA2560(R3) with the kit. We will supply you the technical support after your purchase.

It is 100% compatible with the normal MCU like ARM AVR PIC and 8051, especially on Arduino family such as Arduino Due and Arduino MEGA2560(R3).The module uses the LCD controller Chip SSD1963 with 5 inch LCD including the touchscreen.

LCD-specificed intialization code is provided, so that you can save time to optimize power control register and gamma curves for best display performance. We have test the provided code, it gives the best display performanace

This is SainSmart TFT LCD Extend shield for Arduino MEGA2560(R3). Using this shield can help you out of the bothers to use other cables. You just need to plug the module to Arduino MEGA2560(R3) through this shield.

The shield defines that all the the data transmit ports are PC1-PC8 and PC12-PC19,the controll pins are PD0-PD3.The perfect design could realize that the data transmits in high speed. The SPI interface is designed in the ISP header of arduino due so that the SPI transfer with DMA could be achieved in high speed with no drag.

This shiled is just for Arduno MEGA2560(R3). If you need the LCD Extend shield for Arduino Due, you need a similar shield which is also provided from our webstore.

This shiled is just for 7 inch TFT LCD.If you need the LCD Extend shield for 3.2"" or 5"", you need a similar shield which is also provided from our store.

This is Sainsmart 5 inch TFT LCD module with the TFT LCD shield kit for arduino enthusiasts.It includes one piece of 5 inch TFT LCD display and a TFT LCD shield for Arduino MEGA2560 (R3).We will provided you the whole document including the example project of arduino due with the kit. We will supply you the technical support after your purchase.

LCD-specified initialization code is provided, so that you can save time to optimize power control register and gamma curves for best display performance. We have test the provided code, it gives the best display performanace

It is 100% compatible with the normal MCU like ARM AVR PIC and 8051,especially on arduino family such as arduino due and arduino mega2560(R3).The module uses the LCD controller Chip SSD1963 with 5 inch LCD including the touchscreen.

The shield defines that all the the data transmit ports are PC1-PC8 and PC12-PC19,the controll pins are PD0-PD3.The perfect design could realize that the data transmits in high speed.The SPI interface is designed in the ISP header of arduino due so that the SPI transfer with DMA could be achieved in high speed with no drag.

Hi all, have searched for help in the forum and found none on this combination. I"m using the UTFT libraries and the 320x240 example in the library. Using the 1.5.8 IDE. The code compiles fine, uploads fine, displays a white screen. I have set the pins for the Due with this shield as directed as shown here:

That is a select line for the SD card? Surely that doesn"t prevent the screen from displaying video. Where is it set? Have not found it in any of the files.

You have correctly updated HW_ARM_defines.h, the UTFT initialiser is correct "UTFT myGLCD(ITDB32S,25,26,27,28);" assuming your display is the part "TFT_320QVT" and you are sure your Sainsmart shield is CTE compatible.

Yes, all brand new. I have run sketches with the serial monitor so the Due seems to be working. The CTE shield and TFT display are of course unknowns. I do have 2 of the displays and they both react the same, lights up with white screen and no video. The back of the displays have TFT_320QVT by the SD slot and the SainSmart website by the pins.

Let us assume also your shield is ok (based on the fact it is new??), did you edit the UTFT/memorysaver.h file? Check the line #define DISABLE_SSD1289 IS commented! eg :-

You appear to have done everything to resolve this issue yourself, so I am thinking you have 3 choices, bite the bullet and order a CTE shield, send the shield and display back to Sainsmart or get out your multimeter and check out the shield manually.

Yes the SSD1289 line is commented. I guess using jumper wires to go direct to the Due would be one way to eliminate the shield and prove it is or is not bad. If it were bad, one would think only the 4 lines defined at the top of the sketch would be the issue of white screen.

Thank you Graham! I found the both pairs of 3,3v and 5v jumpers were jumped. That mistake resulted in a system voltage of 4.1v. Removing the 5v jumpers corrected the voltage to 3.3 but the result is the same. I have returned both the display and the CTE shield for refund. Based on my InSain experience I will be looking for another vendor.

BTW, I did hook up my 4x20 LCD display just to be sure the Due wasn"t damaged and works beyond "Hello World." The example LCD code in UTFT works fine once I commented out the code that has not been ported for Due.

Thats an interesting point you make! I understood there were problems with UTFT library when IDE 1.5.7 was released, and Henning issued an update to his libraries to deal with those problems, but I was not aware of any differences between 1.5.7 and 1.5.8. Can you confirm which version of UTFT you are using?

Maybe you should upgrade your version of UTFT? Based on the fact the compatibility issues I mentioned were already resolved in a later version than yours.....

So I checked and the uno was working, the LCD was working but the combo UNO, shield and LCD was not working. I noticed that the LCD is getting very hot.

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Buy SainSmart 4.3" inch TFT LCD Display for Arduino DUE MEGA 2560 UNO R3 (4.3" LCD + DUE TFT/SD Shield + DUE Board) online at a discounted price from ShopClues.com. Shop Others products @ Lowest Prices. Shop now! Enjoy Free Shipping & COD across India. EMI options available with Easy Return/Replacement Polices.

This is SainSmart 7 inch TFT LCD module with the TFT LCD shield kit For arduino enthusiasts. It includes one pcs of 7 inch TFT LCD display and a TFT LCD shield for Arduino Due.We will provided you the whole document including the example project of Arduino Due with the kit. We will supply you the technical support after your purchase.

It is 100% compatible with the normal MCU like ARM AVR PIC and 8051, especially on Arduino family such as Arduino Due and Arduino MEGA2560(R3).The module uses the LCD controller Chip SSD1963 with 5 inch LCD including the touchscreen.

LCD-specificed intialization code is provided, so that you can save time to optimize power control register and gamma curves for best display performance. We have test the provided code, it gives the best display performanace

This is SainSmart TFT LCD Extend shield for Arduino Due .Using this shield can help you out of the bothers to use other cables. You just need to plug the module to Arduino Due through this shield.

The shield defines that all the the data transmit ports are PC1-PC8 and PC12-PC19,the controll pins are PD0-PD3.The perfect design could realize that the data transmits in high speed. The SPI interface is designed in the ISP header of arduino due so that the SPI transfer with DMA could be achieved in high speed with no drag.

This shiled is just for Arduno Due. If you need the LCD Extend shield for Arduino MEGA2560(R3), you need a similar shield which is also provided from our webstore.

This shiled is just for 7 inch TFT LCD.If you need the LCD Extend shield for 3.2"" or 5"", you need a similar shield which is also provided from our store.

This is Sainsmart 2.4 inch TFT LCD module with the TFT LCD shield kit for arduino enthusiasts.It includes one piece of 2.4 inch TFT LCD display and a TFT LCD shield for Arduino MEGA2560 (R3).We will provided you the whole document including the example project of arduino due with the kit. We will supply you the technical support after your purchase.

Voltage type: 5v or 3v voltage input voltage,input is selectable. Because TFT can only work under 3.3 V voltage, so when the input voltage VIN is 5V, need through the 3.3 V voltage regulator IC step down to 3.3V , when the input voltage of 3.3 V, you need to use the zero resistance make J2 short , is equivalent to not through the voltage regulator IC for module and power supply directly.(Click here)

It is 100% compatible with the normal MCU like ARM AVR PIC and 8051,especially on arduino family such as arduino due and arduino mega2560(R3).The module uses the LCD controller Chip SSD1963 with 5 inch LCD including the touchscreen.

The shield defines that all the the data transmit ports are PC1-PC8 and PC12-PC19,the controll pins are PD0-PD3.The perfect design could realize that the data transmits in high speed.The SPI interface is designed in the ISP header of arduino due so that the SPI transfer with DMA could be achieved in high speed with no drag.

I was torn in deciding how many stars to give this. For starters, I must mention that I own 5 of these things -- 3 of the Mega2560R3 kits and 2 of the Due kits. This review is the collective findings of both varieties.I"m going to start with a key problem and warning that everyone who has bought or is thinking of buying these things should read:WARNING: The configuration jumpers on ALL five of the units I"ve received were jumpered incorrectly from the factory. The Mega2560R3 boards had both the 5v and 3.3v selection jumpers soldered, meaning if you plug it in as-is, you"ll short out the two power supplies. Their pictures of the board all show only the 3.3v jumpers selected, which is correct, but the three Mega boards I received, the LCD shield boards were jumpered wrong with both voltages selected. The two Due boards were also jumpered wrong. However, they didn"t have both jumper sets applied, they only had the 5v jumpers applied. Even if the LCD could stand 5v (and would be OK since all of its I/O pins are outputs from the processor), jumping it wrong would also mean powering the touchscreen chip from 5v causing the inputs to the Due processor to see 5v, and the input pins of the SAM micro are NOT 5v tolerant.This problem is likely why some of the other reviewers mentioned processors and things getting hot. So step one, regardless of which board set you get, check your jumpers! The LCD should be configured for 3.3v and only one voltage selection jumper should be applied per option so you don"t short out both supply voltages.Of the five units I received, one LCD screen glass was cracked. It still functions, but the crack renders the touchscreen portion somewhat unusable. Another LCD screen apparently has a panel that was wired backwards (between the driver chip and the LCD panel itself). I thought at first it was defective as the screen had the appearance of the old SSAVI style cable scrambling technique with a "torn" picture. But the pre-init white screen looked OK, so I was suspicious that it was functioning, but in a weird way. After some experimenting, I found that if I swapped the sync settings around and the horizontal/vertical addressing modes around it worked, but exactly backwards from what it should -- addressing was going the wrong way and scrolling was backwards, etc... It is usable, but only if I correct for their problem in software. I didn"t exchange either one of these because the cost and hassle of doing so wouldn"t have been worth it.I was also suspicious that the one screen that was behaving backwards simply had a different LCD driver chip. But, I read the Device ID out of all of them and they all reported 9325. So they should have all functioned the same. And, for what it"s worth, the LCD driver chip at least thinks it"s a 9325.As for software and support, I don"t understand the reviews that say there"s no software or support out there, as the item description posted on Amazon even has a link to a zip file from SainSmart with the CTE UTFT libraries already preconfigured for these screens (maybe those reviews were done before that was posted?). And in any case, this is a clone of the CTE (Cold Tears Electronics) boards and there"s plenty of documentation and software for it, including schematics and even board layouts, if you Google it.One reviewer mentioned it not being a true "CTE" board because no SPI Flash chip was installed. Well, even the original CTE boards don"t come with the flash chip by default -- that"s an optional add-on (as per their "official" website). This clone certainly has the pads, just get a chip and solder it on... Though you"ll probably still want to read the font data out and store it in memory, as the latency of reading it from flash every time text is rendered would serious slow down performance. So why not just put the font you want in the main flash of the micro? Though I guess you could use the chip to store anything you want and aren"t limited to just fonts.Another thing to look out for on the board is solder splash and cold solder joints, specifically on all of the through-hole parts. Two of my boards had a solder splash on the power input connector, shorting it out had I not seen and removed it. Various through-hole connectors were marginally soldered and needed some touch-up work. So expect to do some soldering right out of the gate. And be sure to look your board over thoroughly and fix these things before using it.The processor boards (apart from a couple of soldering issues) were fairly functional and I guess a decent value for the price. But, the Mega, for example, has a old bootloader version installed. One of the first things you"ll want to do is reflash it (via the ISP port) with the current stk500v2 bootloader. Also, it didn"t have the lock bits sets, meaning you could easily accidentally overwrite the bootloader during programming and end up with a brain-dead board until you reflashed the bootloader via the ISP port... So I suggest flashing the current bootloader and setting the lock fuses first thing.I"m suspicious, though, that the ATmega2560 processor is a counterfeit chip as the efuse bits don"t seem to want to stay set. You can program them, and they seem to program OK, even verify correctly, but later on will occasionally randomly read back as 0xFF. I have only seen that happen with the efuse bits, which is primarily just brownout voltage threshold setting, so it isn"t too critical (compared to the other fuse bits), but makes me wonder about the integrity of the processor as a whole and wonder if it"s possibly a "counterfeit chip".I haven"t done as much checking of bootloader code on the Due board, or its ARM micro. It came up and talked to the bossa loader without any issues, so I haven"t had a need to analyze it to the extent I have the Mega boards. Plus, being a newer Arduino board, it"s more likely to have a new bootloader and also the different nature of the programming process on the ARM of the Due isn"t as likely to have flash overwrite issues as the Mega does.The LCD screens themselves are decent, assuming yours isn"t cracked or wired backwards, but be aware that this 9325 chip, at least the way it"s configured on this LCD panel, does NOT support hardware scrolling in the vertical direction when in landscape mode. It does do hardware scrolling, but only vertical for portrait mode (or horizontal for landscape). If your project needs hardware scrolling in the vertical direction of landscape mode (as my project needs), this LCD screen won"t do it!The touchscreen, however, I found to work quite well -- but ONLY after you"ve calibrated it. It didn"t work at all until I did the calibration. Perhaps the reviewers saying they couldn"t get touchscreen to work didn"t calibrate it? You first need to get your LCD working with their demo. Then, load their UTouch calibration program and follow the prompts on the screen for creating the calibration parameters. Then plug those parameters into the UTouch source code, et voila. I was pleasantly surprised at how well the touchscreen seemed to function for the money -- it had good response, was accuracy and seemed repeatable, and didn"t require a lot of excess pressure, etc. From some of the other reviews I"ve seen on this screen, I wasn"t sure what to expect, but was pleasantly surprised to find the touchscreen performing well (at least on the screens I received -- maybe they too have quality control issues?).The UTFT code isn"t the best of code, but is functional and works well on both the Mega and Due. I did tweak it to work a little more efficiently and fix potential memory access faults, and to add hardware scrolling support (the library itself didn"t originally support hardware scrolling at all).A better software library to use with the screen is Andy Brown"s xmemtft, available on GitHub. To use it, you"ll have to use the Gpio16 include files for the ili9325 chip and properly set the port mapping for your processor. Speaking of port mapping, the correct settings on the UTFT library (that"s linked in the item description of these boards) for this 2.8" 320x240 TFT LCD in their example code is as follows:Mega:UTFT myGLCD(CTE28,38,39,40);UTouch myTouch(6,5,4,3,2);Due:UTFT myGLCD(CTE28,25,26,27,28);UTouch myTouch(6, 5, 32, 3, 2); (note: it will support "4" in place of the "32", but only if you add a jumper on the adapter shield)So all-in-all, it"s usable, but only if you do a little work on them, don"t get a bad LCD, and don"t need vertical scroll in landscape. It definitely isn"t a kit for a novice. Don"t expect to plug it together and start using it without doing some soldering and fixing things. And if you are new to programming, you may want to get some experience on a more ready-to-use package, like an Adafruit kit or something, first.But, if you don"t mind learning a little and working through the BS and you happen to get lucky and the one you receive isn"t defective, this is a decent deal for the money, as most vendors sell just the processor board for the cost of this entire kit.So, as a cheap, knock-off clone, it"s usable, but...

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\tools\avr\bin\avr-g++ -c -g -Os -Wall -fno-exceptions -ffunction-sections -fdata-sections -mmcu=atmega328p -DF_CPU=16000000L -DARDUINO=100 -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\cores\arduino -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\variants\standard -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX -IC:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\graphicstest.cpp -oC:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\graphicstest.cpp.o

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\tools\avr\bin\avr-gcc -c -g -Os -Wall -ffunction-sections -fdata-sections -mmcu=atmega328p -DF_CPU=16000000L -DARDUINO=100 -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\cores\arduino -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\variants\standard -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX -IC:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX\utility C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX\glcdfont.c -oC:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\Adafruit_GFX\glcdfont.c.o

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\tools\avr\bin\avr-g++ -c -g -Os -Wall -fno-exceptions -ffunction-sections -fdata-sections -mmcu=atmega328p -DF_CPU=16000000L -DARDUINO=100 -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\cores\arduino -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\variants\standard -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX -IC:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX\utility C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX\Adafruit_GFX.cpp -oC:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\Adafruit_GFX\Adafruit_GFX.cpp.o

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX\/glcdfont.c:9: warning: only initialized variables can be placed into program memory area

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\tools\avr\bin\avr-g++ -c -g -Os -Wall -fno-exceptions -ffunction-sections -fdata-sections -mmcu=atmega328p -DF_CPU=16000000L -DARDUINO=100 -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\cores\arduino -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\arduino\variants\standard -IC:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\libraries\Adafruit_GFX -IC:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD -IC:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD\utility C:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD\Adafruit_TFTLCD.cpp -oC:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\adafruit_TFTLCD\Adafruit_TFTLCD.cpp.o

C:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD\Adafruit_TFTLCD.cpp:270: warning: only initialized variables can be placed into program memory area

C:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD\Adafruit_TFTLCD.cpp:322: warning: only initialized variables can be placed into program memory area

C:\Users\Steve\Documents\Arduino\libraries\adafruit_TFTLCD\Adafruit_TFTLCD.cpp: In member function "void Adafruit_TFTLCD::drawFastLine(int16_t, int16_t, int16_t, uint16_t, uint8_t)":

C:\Users\Steve\Downloads\arduino-1.0-windows\arduino-1.0\hardware\tools\avr\bin\avr-gcc -Os -Wl,--gc-sections -mmcu=atmega328p -o C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\graphicstest.cpp.elf C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\graphicstest.cpp.o C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\Adafruit_GFX\glcdfont.c.o C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\Adafruit_GFX\Adafruit_GFX.cpp.o C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\adafruit_TFTLCD\Adafruit_TFTLCD.cpp.o C:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp\core.a -LC:\Users\Steve\AppData\Local\Temp\build8950848837838348608.tmp -lm

Copyright © 2019 Yago Hansen. All rights reserved. linkedin.com/in/radiusdoc Best gadgets for Red Team hackers https://github.com/yadox666/The-Hackers-Hardware-Toolkit 1st English edition April, 2019 Medium 138 pages Amazon KDP Paperback 9781099209468 English Claudia Hui Free for e-book distribution, but not for commercial use

6 inches Gorilla® Glass 4, Sharp full-fit dazzling screen Touchpad 1280×720 (16:9) (245ppi) (178°) Intel® Celeron® N4100 (4 cores / 4 threads) Intel® UHD Graphics 600 LPDDR4 6GB 128GB M.2 SSD, infinite capacity expansion 802.11 a/b/g/n/ac compatible 10/100/1000Mbps Ethernet card 4.2 1 1 3 1 1 Micro SDXC slot×1 153×113×23.5mm - 440g Active

7 inches Boundless Glass Touchpad FullHD 1920×1200 Retina Intel Atom x7-Z8750 processor Intel® UHD Graphics 600 8GB LPDDR3 memory 128GB eMMC 802.11 a/b/g/n/ac compatible 10/100/1000Mbps Ethernet card 4.1 1 1 3 1 1 Micro SDXC slot×1 7000mAh super large-capacity battery (up to 12h) with fast charge 180×106×18.5mm ultra-small light body - 485g Active

Broadcom BCM2837B0 quad-core A53 (ARMv8) 64-bit @ 1.4GHz Broadcom Videocore-IV 1GB LPDDR2 SDRAM Gigabit Ethernet (via USB channel), 2.4GHz and 5GHz 802.11b/g/n/ac Wi-Fi Bluetooth 4.2, Bluetooth Low Energy (BLE) Micro-SD 40-pin GPIO header, populated HDMI, 3.5mm analogue audio-video jack, 4x USB 2.0, Ethernet, Camera Serial Interface (CSI), Display Serial Interface (DSI) 82mm x 56mm x 19.5mm, 50g

Broadcom BCM2837B0, Cortex-A53 (ARMv8) 64-bit SoC @ 1.4GHz 512MB LPDDR2 SDRAM 2.4GHz and 5GHz IEEE 802.11.b/g/n/ac wireless LAN, Bluetooth 4.2/BLE Micro SD port for loading your operating system and storing data Extended 40-pin GPIO header Single USB 2.0 ports CSI camera port for connecting a Raspberry Pi Camera Module Full-size HDMI DSI display port for connecting a Raspberry Pi Touch Display 4 pole stereo output and composite video por Power: 5V/2.5A DC power input 5 V DC via GPIO header

Fully energized Raspberry Pi Sometimes, in some cases, Raspberry Pi is not enough for certain hacking projects. For these cases in which you need more CPU, GPU, faster storage access or just connecting a USB 3 device, this is your board. For the most of the projects, Raspberry Pi board is a cheap and widely supported computer, but for some of them, like GSM/4G LTE hacking projects, you will need USB3 for high grade SDR devices, like BladeRF or USRP. Also, in projects where you need to read real-time rainbow tables you will need a high speed bus to storage like EMMC or SATA. This board offers active (XU4) or passive cooling versions (XU4Q). It has support for Linux and Android OS.

Specifications Samsung Exynos5422 Corte -A7 Octa-core CPUs Mali-T628 MP6(OpenGL ES 3.1/2.0/1.1 and OpenCL 1.2 Full profile) 2Gbyte LPDDR3 RAM PoP stacked eMMC5.0 HS400 Flash Storage 2 x USB 3.0 Host, 1 x USB 2.0 Host Gigabit Ethernet port (10/100/1000Mbps Ethernet with RJ-45 Jack - Auto-MDIX support) HDMI 1.4a for display Size : 83 x 58 x 20 mm approx.(excluding cooler) Power: 5V/4A input Linux Kernel 4.14 LTS eMMC module socket : eMMC 5.0 Flash Storage (up to 64GByte) MicroSD Card Slot (up to 128GByte) Wi-Fi not included 40 pin Raspberry Pi styled connector

Linux high performance based board Sometimes, in some cases, Raspberry Pi is not enough for certain hacking projects. For these cases in which you need more CPU, GPU, faster storage access or just connecting a USB 3 device, this is your board. For the most of the projects, Raspberry Pi board is a cheap and widely supported computer, but for some of them, like GSM/4G LTE hacking projects, you will need USB3 for high grade SDR devices, like BladeRF or USRP. Also, in projects where you need to read real-time rainbow tables you will need a high speed bus to storage like EMMC or SATA. This board offers active (XU4) or passive cooling versions (XU4Q). It has support for Linux and Android OS.

AI development in a small form factor workloads at unprecedented size, power, and cost. Developers, learners, and makers can now run AI frameworks and models for applications like image classification, object detection, segmentation, and speech processing. The developer kit can be powered by micro-USB and comes with extensive I/Os, ranging from GPIO to CSI. This makes it simple for developers to power-efficient, consuming as little as 5 watts. Jetson Nano is also supported by NVIDIA JetPack, which includes a board support package (BSP), Linux OS, NVIDIA CUDA®, cuDNN, and processing, and much more. The software is even available using an easy-to-flash SD card image, making it fast and easy to get started. The same JetPack SDK is used across the entire -leading AI platform for training and deploying AI software. This proven software stack reduces complexity and overall effort for developers.

Specifications SOC i.MX6 Dual (2 cores) (optional i.MX6 Quad) 1GB 2 GB RAM (64 bit @ 1066Mbps) GPU GC2000 (OpenGL ES1.1,2.0 Quad Shader) HDMI 1080p with CEC (1.4, 3D support) Wi-Fi / Bluetooth (Built In) USB 2.0 x2 Ethernet 10/100/1000 Mbps Storage: microSD, eSata II 3Gbps RTC Optical S/PDIF Audio Out Micro USB to UART InfraRed for Remote Control (RX/TX) DC Jack 5.5mm 5V, Max 2A current

Specifications CPU: DDR3 RAM: Connectivity: USB Host: MicroSD Slot: LED: GPIO1: GPIO2: Serial Debug Port: Audio In/Out: PCB Dimension: MicroUSB: OS/Software:

Allwinner H5, Quad-core 64-bit high-performance Cortex A53 512MB 10/100/1000M Ethernet, RTL8211E-VB-CG chip USB Type A x 1 and USB pin header x 2 MicroSD x 1 for system boot and storage Power LED x 1, System LED(Blue) x 1 2.54mm pitch 24 pin-header, compatible with Raspberry Pi"s GPIO pin1 pin 24. It includes UART, SPI, I2C, IO 2.54mm pitch 12 pin-header. It includes USB, IR receiver, I2S, IO etc 2.54mm pitch 4pin-header 2.0mm pitch 4 pin-header 40 x 40mm Power input(5V/2A) and OTG u-boot,Ubuntu Core

Multi-attack tool Linux based board -source single-board computer. It can run Android 4.4, Ubuntu and Debian. It uses the AllWinner H2 SoC, and has 256MB/512MB DDR3 SDRAM (256MB version is Standard version). Since this hardware is very cheap in comparison to other models, the main problem yourself, because the included Linux version has a lot of issues.

Specifications CPU H2 Quad-core Cortex-A7 H.265/HEVC 1080P. GPU Mali400MP2 GPU @600MHz (Supports OpenGL ES 2.0) 256MB/512MB DDR3 SDRAM(Share with GPU)(256MB version is Standard version) microSD card (Max. 32GB)/ 2MB SPI Flash 10/100M Ethernet RJ45 POE is default off. WIFI XR819, IEEE 802.11 b/g/n Audio Input MIC Supports external board via 13pins USB OTG can supply power 1x USB 2.0 HOST, 1x USB 2.0 OTG Power Button 26 Pins Header, 13 Pins Header, with 2x USB, IR pin, AUDIO(MIC, AV) LED Power led & Status led Supported OS: Android, Lubuntu, Debian 48 mm × 46mm - 26g

A tiny core based motherboard for IoT The NanoPi Duo2is another ARM board designed and developed by FriendlyELEC for makers and hobbyists. It is only 55 x 25.4mm. It features Allwinner quad-core A7 processor H3, and has 256M/512M DDR3 RAM, onboard WiFi & bluetooth module and an OV5640 camera interface. It works with Linux variants such as Ubuntu Core. It takes power input from its MicroUSB port and can be booted from a Micro SD card. It works with general bread-boards. Interface pins such as USB, SPI, UART, I2C, PWM, IR, audio input & output and Fast Ethernet etc are populated. NanoPi Duo2 supports software utilities such as WiringNP and Python etc. These are all open source. It is suited for various IoT applications.

Specifications CPU: DDR3 RAM: Connectivity: USB Host: Wireless: Audio input/output Port Debug Serial Port/UART0: microSD Slot: microUSB: GPIO1: GPIO2: PCB Dimension: Power: OS:

Arduino based IoT connected boards Arduino has been known for easy-to-use and inexpensive development boards for a long time. Their relatively new MKR family of boards are especially well suited for IoT because they offer support for different connectivity options. At the time of writing, Arduino has boards currently available that support Wi-Fi, LoRa, Sigfox, and GSM Cellular. They have additional MKR boards coming soon that add support for Ethernet and NB-IoT and Cat M1 Cellular.

Specifications Espressif ESP32 SoC powerful CPU Dual processor and Wi-Fi radio system on chip Networking processor handles the Wi-Fi connectivity and the IPv6 stack Main processor is entirely free to run the user application An extra ULP-coprocessor that can monitor GPIOs, the ADC channels and control most of the internal peripherals during deep-sleep mode while only consuming 25uA Five networks: Wi-Fi, BLE, cellular LTE-CAT M1/NB1, LoRa and Sigfox 1KM Wi-Fi range MicroPython enabled (multithreading) Fits in a standard breadboard (with headers) Ultra-low power usage: a fraction compared to other connected microcontrollers 2 x UART, 2 x SPI, I2C, micro SD card Analogue channels: 8_12 bit ADCs, 2_8 bit DAC Timers: 2_64 bit with PWM with up to 16 channels DMA on all peripherals GPIO: Up to 22 RAM: 4MB Flash Memory: 8MB Hardware floating point acceleration Voltage: Input 3.3V 5.5V, Output: 3v3 capable of sourcing up to 400mA

Cheap and powerful SDR RX device This USB dongle style SDR is the most known and compatible Software Defined Radio device, with RX only capabilities. This is an RTL-SDR blog V3 software defined radio receiver with RTL2832U ADC chip, R820T2 tuner, 1PPM TCXO, SMA F connector and aluminium case with passive cooling. Tunes from 500 kHz to 1.7 GHz with up to 3.2 MHz (2.4 MHz stable) of bandwidth. (HF works in direct sampling mode). Perfect for use as a computer based radio scanner with free software like SDR#, HDSDR, SDR-Radio, GQRX or SDR Touch on Android. Works on Windows, OSX, Linux, Android and computers like the Raspberry Pi. Great for many applications including general radio, air traffic control, public safety, ADS-B aircraft radar, ACARS, trunked radio, P25/MotoTRBO digital voice, POCSAG, weather balloons, APRS, NOAA APT/Meteor M2 weather satellites, radio astronomy, DAB, classroom learning, or as a low cost panadapter with a ham radio. This model has several improvements over other brands. It uses the improved R820T2 tuner, a 1PPM TCXO, better components, a redesigned lower noise PCB, cooling improvements, extra ESD protection and an SMA F connector. It also has a software bias-tee for powering LNA"s and active antennas. Remember to buy the version 3 (V3) that includes new important features (bias tee, etc.)

Broadcast FM Bandstop Filter for SDR A high-quality, high-performance band-stop filter designed for software defined radio (SDR) applications. Designed and manufactured by NooElec. Broadcast FM can be particularly problematic due to the high-powered transmitters used for broadcasting in some areas. These signals can overload the front end of an SDR, causing imaging and a number of other issues. It provides sufficient attenuation for broadcast FM frequencies (>40dB typical) while ensuring adjacent bands, such as the important VHF airband (108-137MHz) are minimally affected. The -3dB rolloff of the filter is 80MHz and 115MHz. Minimal out-of-band insertion loss means the filter can stay in place for most any application. As a true band-stop filter, you are able to passthrough DC (bias power) when it is required. DC current handling is 250mA (min), and the maximum recommended signal level is +18dBm (5Vp-p), so there is no issue using the filter for higher-power applications.

Broadcast AM notch Filter for SDR A high-quality, high-performance bandstop filter designed for software defined radio (SDR) applications. Designed and manufactured by NooElec. Broadcast AM can be particularly problematic due to the high-powered transmitters used for broadcasting in some areas. These signals can overload the front end of an SDR, causing imaging and a number of other issues. As such, Flamingo AM makes a great companion to our Ham It Up series of HF upconverters. It provides sufficient attenuation for broadcast AM frequencies (>40dB typical) while ensuring adjacent bands, such as 160m, are minimally affected. The -3dB rolloff of the filter is 350kHz and 1900kHz. Minimal out-of-band insertion loss means the filter can stay in place for most any application, though we do recommend removing Distill:AM from your setup when not listening to HF frequencies. As a true bandstop filter, you are able to pass-through DC (bias power) when it is required. DC current handling is 250mA (min), and the maximum recommended signal level is +18dBm (5Vp-p), so there is no issue using the filter for higherpower applications. Flamingo AM has its filter circuitry fully shielded with an EMI frame, and has its front end protected by an ESD diode meant for RF applications. 2 mounting holes are available on the PCB for various mounting options, and the SMA hardware (washer and nut) is included.

Specifications 1 MHz to 6 GHz operating frequency Half-duplex transceiver Up to 20 million samples per second 8-bit quadrature samples (8-bit I and 8-bit Q) Compatible with GNU Radio, SDR#, and more Software-configurable RX and TX gain and baseband filter Software-controlled antenna port power (50 mA at 3.3 V) SMA female antenna connector SMA female clock input and output for synchronization Convenient buttons for user programming Internal pin headers for expansion Hi-Speed USB 2.0 USB-powered Open source hardware based licensing

Converts HackRF in a handheld device Add a PortaPack H1 to your HackRF One software-defined radio, and leave your laptop behind! The PortaPack H1 attaches to your HackRF and adds a touchscreen LCD, navigation controls, headphone jack, 2.5ppm clock reference, real-time clock, micro SD card slot, and custom aluminium case. Just add a USB battery, and you"re ready to explore radio spectrum wherever you are. The PortaPack firmware runs on the fast ARM processors in your HackRF. No computer is necessary (except for reprogramming its firmware). There are two main forks in github for this adapter, since the most powerful one is: https://github.com/furrtek/portapack-havoc This firmware offers many different standalone functionalities that will improve your HackRF One and it also permits working in SDR mode from your computer.

Specifications 2.4 inch, 240 x 320 RGB LCD with resistive touch panel. Four-way arrow keys, rotary jog wheel, and select button. Headphone/microphone jack, compatible with recent Samsung and Apple mobile headsets. 2.5 parts-per-million temperature-compensated clock reference. Coin battery for preserving settings and date/time. Micro SD card slot for data and code storage. Custom milled aluminium case, anodized black. SSB, AM, narrowband FM, wideband FM audio reception, with spectrum waterfall. [Details] Wideband (18MHz) spectrum analysis and waterfall. Monitoring of boat (AIS), automobile (TPMS), and utility meter transponders (ITRON ERT). HackRF mode runs HackRF firmware for use with host computer SDR software. PPM calibration for more accurate tuning.. Sleep mode saves power by turning off just the display.

USB 2.4GHz transceiver next generation The nRF52840 Dongle is a small, low-cost USB dongle that supports Bluetooth 5, Bluetooth mesh, Thread, ZigBee, 802.15.4, ANT and 2.4 GHz proprietary protocols. The Dongle is the perfect target hardware for use with nRF Connect for Desktop as it is low-cost but still support all the short range wireless standards used with Nordic devices. The dongle has been designed to be used as a wireless HW device together with nRF Connect for Desktop. For other use cases please do note that there is no debug support on the Dongle, only support for programming the device and communicating through USB. It is supported by most of the nRF Connect for Desktop apps and will automatically be programmed if needed. In addition custom applications can be compiled and downloaded to the Dongle. It has a user programmable RGB LED, a green LED, a user programmable button as well as 15 GPIO accessible from castellated solder points along the edge. Example applications are available in the nRF5 SDK under the board name PCA10059. The nRF52840 Dongle is supported by nRF Connect for Desktop as well as programming through nRFUtil.

Specifications Supports Bluetooth stack v4.0 USB 2.0 Supports Bluetooth DUN, FAX, SPP, HID, FTP, OPP, SDP, HCRP, LAN, OBEX FTP, OBEX OPP, OBEX BIP, BIP, AVRCP, A2DP, HSP, HFP, PAN, BPP, Headset, AVCTP, AVDTP, HDP, Find Me, Proximity, Health Thermometer, Heart Rate, HID OVER GATT profiles Supports up to 7 simultaneous connections Easy to use Windows configuration tool available Bluetooth driver needed (Bluesoleil based driver) Easy to use Windows configuration tool available Working distance (In an open field): Normally 300 meters, up to 600 meters using 5 dipole antenna Accessible RP-SMA antenna connector for switching to other antenna types

Another high RF quality SDR device The BladeRF 2.0 micro xA4 is the next generation Software Defined Radio (SDR) offering a frequency range of 47MHz to 6GHz, 61.44MHz sampling rate, and 2×2 MIMO streaming. Packed into a small form factor, the BladeRF 2.0 micro was designed for high performance as well as mobile applications. Through libbladeRF the BladeRF 2.0 micro is compatible with GNURadio, GQRX, SDR-Radio, SDR#, gr-fosphor, SoapySDR, and more on Windows, Linux and MacOS. The optional RF shield cap protects sensitive RF components from Electromagnetic Interference (EMI) and provides additional thermal dissipation, allowing the BladeRF 2.0 micro to operate in challenging environments. All of the RF SMA ports are capable of providing power over bias-tee circuitry to wideband amplifiers and pre-amps. Power to bias-tee peripherals is fully software controllable, providing maximal operational flexibility. Currently, the official bias-tee peripherals include the BT-100, a wideband power amplifier for TX, and the BT-200, a wideband low noise amplifier for RX.

High RF quality SDR device The BladeRF 2.0 micro xA4 is the next generation Software Defined Radio (SDR) offering a frequency range of 47MHz to 6GHz, 61.44MHz sampling rate, and 2×2 MIMO streaming. Packed into a small form factor, the BladeRF 2.0 micro was designed for high performance as well as mobile applications. Through libbladeRF the BladeRF 2.0 micro is compatible with GNURadio, GQRX, SDR-Radio, SDR#, gr-fosphor, SoapySDR, and more on Windows, Linux and MacOS. The RF shield cap protects sensitive RF components from Electromagnetic Interference (EMI) and provides additional thermal dissipation, allowing the BladeRF 2.0 micro to operate in challenging environments. All of the RF SMA ports are capable of providing power over bias-tee circuitry to wideband amplifiers and pre-amps. Power to bias-tee peripherals is fully software controllable, providing maximal operational flexibility. Currently, the official bias-tee peripherals include the BT-100, a wideband power amplifier for TX, and the BT-200, a wideband low noise amplifier for RX.

ANT500 from Great Scott Gadgets is a telescopic antenna designed for operation from 75 MHz to 1 GHz. Its total length is configurable from 20 cm to 88 cm. ANT500 is constructed of stainless steel and features an SMA male connector, rotating shaft, and adjustable elbow. ANT500 is a 50 ohm general purpose antenna. It is the perfect first antenna for use with HackRF One or YARD Stick One.

Blue Shark and extended range antennas Owning a Proxmark3 RDV4 means owning the most powerful and complete device for RFID / NFC (LF & HF) testing in the frequencies of 125KHz / 134KHz / 13.56MHz. Therefore, investing the extended range antennas for LF and HF, giving some extra centimeters for reading cards Another new and nice upgrade for it, is the Blue Shark Bluetooth 2.0 upgrade, that permits controlling the proxmark3 wirelessly plus adding an external battery to create an autonomous proxmark3 that can be connected and controlled from your computer or smartphone. The Walrus NFC application has been updated to permit control by Bluetooth. It also fixes the high temperature concerns adding a metal cooler. https://www.patreon.com/posts/26897335

400 mAh 3.5h StandBy; 2.9h LF-On; 50min HF-On; 200mA (plug in USB default charging) 2.5h 4dBm, -85 [email protected] 6m (depending on the environment and device orientation) 54.4mm * 29.4mm * 13.5mm 24g

Sniffer / reader / writer/ emulator for HF The HydraNFC is an incredibly powerful and flexible 13.56MHz NFC for sniffing / reading / writing / emulating platform for HF based tags. The Hydra NFC is less expensive, more powerful/extensible than Proxmark3 Hardware and does not require an FPGA, since all is done by the MCU Cortex [email protected] with the help of HydraBus with an ultra-fast unique algorithm to sniff & decode in real-time PICC/PCD NFC cards. It also supports Wiegand protocol for sniffing BLE data transfer operations inside NFC

Specifications Supports NFC Standards NFCIP-1 (ISO/IEC 18092) and NFCIP-2 (ISO/IEC 21481) Completely Integrated Protocol Handling for ISO15693, ISO18000-3, ISO14443A/B, and FeliCa Integrated Encoders, Decoders, and Data Framing for NFC Initiator, Active and Passive Target Operation for All Three-Bit Rates (106 kbps, 212 kbps, 424 kbps) and Card Emulation RF Field Detector With Programmable Wake-Up Levels for NFC Passive Transponder Emulation Programmable System Clock Frequency Output (RF, RF/2, RF/4) from 13.56-MHz Crystal Programmable Modulation Depth Ambient In-Band Noise Detection Programmable Output Power: +20 dBm (100 mW), +23 dBm (200 mW) Support any protocols under 13.56 MHz with modulation depth OOK (100%) or ASK (from 7% to 30%) Support low-level Direct Mode 0 (Raw RF Sub-Carrier Data Stream) or intermediate level (for special tags, not using ISO encoders/decoders without protocol framing Support of microSD (FAT16/FAT32) card up to 32GB to store the readings and scripts Basic UID read for Vicinity/ISO15693 Basic UID read for ISO14443-A/MIFARE ® card 4 or 7bytes UID Read MIFARE Ultra light® tag content (full dump) Tag Emulation UID ISO14443A & MIFARE Classic® 1K Sniffer mode in an autonomous/stand-alone mode to store all readed UIDs. Real-time ISO14443A sniffer mode

The most complete Rubberducky This brand new USB rubberducky or badusb device offers many new possibilities, since it includes both interesting functionalities (microSD for payload storage and html pages and WiFi interface for controlling it from the distance). It will create a Wi-Fi AP in which you connect with the smartphone or computer. Then you have to open your browser and enter the IP address http://192.168.4.1 and you will control it You can find the firmware and the instructions for flashing it in the following github: https://github.com/joelsernamoreno/badusb_sd_wifi There is more info on: https://github.com/puckk/CJMCU-3212

Specifications Microcontroller ATMEGA32u4 SOC ESP8266 (ESP-12E) Storage: MicroSD card (FAT32 format) Exposed GPIO ports for upgrading features PCB based 2400 MHz antenna Also known as CJMCU-3212 Virtual Keyboard Module

Badusb with SD card for your payloads This is one of the last developments related to rubberducky or badusb devices. This device is based on the ATMEGA32U4 microprocessor which is able to emulate many USB modes like HID, used for injecting key presses to the target system. The main processor is based on Arduino Leonardo R3 development board. The improvement is that a microSD card slot is included to allow storing many different payloads. The microSD card has to be FAT32 formatted in order to be recognized.

Specifications Cable Physical Characteristics Length: 1 m , Colour: white Connector options: Micro-USB, USB Type-C, Lightning Voltage range: 4-25 V (supports fast charging) Current consumption: 10 mA (typical) Full-rate USB data transmission Remote Control High-powered Bluetooth wireless (customizable name and password) Battery: 3.6 V, 40 mAh, rechargeable Transmission current: 30 mA Range (under ideal conditions with antenna): 30 m with 2 dBi, 3 cm antenna 50 m with 3 dBi, 11 cm antenna 100 m with 18 dBi directional panel antenna Mobile App Alternative to remote control for triggering payload Open source and freely available

OpenWRT/LEDE router Pinapple These small router based in OpenWRT (now named as LEDE) operating system are the best option for those who need a very small platform with low power consumption that run Linux. The included hardware is based on Qualcom SOC, which includes a Wi-Fi interface compatible with monitor mode, what allows scanning Wi-Fi APs and stations. The CPU do MiTM, etc. Especially the AR150 model uses a very similar hardware to the Hak5 Pineapple Nano device but for a much reduced price. Therefore a hacker migrated the Pineapple firmware to this device: https://www.securityaddicted.com/2016/11/17/weaponizing-gl-inet-gl-ar150/ https://github.com/SecurityAddicted/pineapple-ar150

OpenWRT/LEDE 4G router with battery This small sized 4G LTE router offers a very good option for creating a hacking device that also needs to be connected to internet. The hardware is based on an Atheros SOC that includes a Wi-Fi interface that allows monitor mode for scanning and capturing raw Wi-Fi information. It also offers free GPIO, UART ports for connecting a GPS or any other device. The 4G connectivity option is based on an internal PCIe port that is populated with a Quectel EC25 4G WWAN card. All the firmware, SDK and code is open sourced and available through github. It also has an internal battery and charger, so it can be used in standalone mode. There is a slot for the SIM card and another for a microSD card, what allows to store captures, files, payloads, etc. There is also a free USB-A connector for attaching an extra Wi-Fi card or other peripheral devices.

Specifications CPU Atheros AR9331, @400MHz Memory/Storage DDR 64MB/ FLASH 16MB Interfaces 1 WAN, 1LAN, 1 USB2.0, 1 micro USB (power), SIM card slot, MicroSD card slot, Antenna SMA mount holes Frequency 2.4GHz Transmission rate 150Mbps Max TX Power 18dBm Protocol 802.11 b/g/n External Storage support FAT32/EXFAT/EXT4/EXT3/EXT2/NTFS Power input 5V/2A Power consumption <3W Dimension, Weight 105*72*27mm, 170g

Quectel EC25 Mini PCIe is a series of LTE category 4 module adopting standard PCI Express® MiniCard form factor (MiniPCIe). It is optimized specially for M2M and IoT applications, and delivers 150Mbps downlink and 50Mbps uplink data rates. EC25 Mini PCIe contains 5 variants: EC25-J Mini PCIe, EC25-E Mini PCIe, EC25-AU Mini PCIe, EC25-V Mini PCIe and EC25-A Mini PCIe. This makes it backward-compatible with existing EDGE and GSM/GPRS networks, ensuring that it can be connected even in remote areas devoid of 4G or 3G coverage. EC25 Galileo and QZSS). The integrated GNSS greatly simplifies product design, and provides quicker, more accurate and more dependable positioning. A rich set of Internet protocols, industry-standard interfaces and abundant functionalities (USB drivers for Windows XP, Windows Vista, Windows 7, Windows 8/8.1, Windows 10, Linux, Android/eCall*) extend the applicability of the module to a wide range of M2M applications such as industrial router, industrial PDA, rugged tablet PC, video surveillance and digital signage.

4G/3G/2G/GSM/GPRS + GPS/GNSS When designing your own hacking devices and integrating mobile network based technologies you will need to find an antenna that meets your needs. This small PCB antenna incorporates an UFL connector that is very usual in embedded devices. PCB antennas are an adequate solution f antennas. This antenna will work in all the necessary bands for including 4G / 3G/ 2G/ GSM/ GPRS + GPS/GNSS applications that need to be connected to the same RF circuit.

Last and most powerful NF device Every prototype starts with a Bus Pirate. One open source development tool. So many features. Only $30 bucks. Bus Pirate v3 is a universal bus interface that talks to electronics from a PC serial terminal. Get to know a chip without writing code. Eliminates a ton of early prototyping effort with new or unknown chips. A laser cut acrylic case for Bus Pirate v3.6 is also available. This board provides 1-Wire, I2C, SPI, JTAG, asynchronous serial (UART), MIDI, PC keyboard, HD44780 LCDs, and generic 2- and 3-wire libraries for custom protocols. forget to buy the cable kit from the same store. http://dangerousprototypes.com/docs/Features_overview

Damn Insecure and Vulnerable Application DIVA [Damn Insecure and Vulnerable Application] board is a connected IoT device and a vulnerable target board designed to teach the basics of IoT security. DIVA integrates an ARM cortex M4 microcontroller and a 802.15.4 radio on the board. It comes with many more onboard peripherals including, SPI and I2C EEPROMS, IR receiver, temperature sensor, RGB LED, input switches etc. The board provides a standard JTAG debug interface as well as a SWD port that can be used to debug programs from the host PC. The inbuilt USB port can be used for accessing the serial console and for firmware upgrades in DFU mode. Some challenges are preloaded in the firmware. New firmware with updated challenges will be available at: https://expliot.io/collections/boards/products/diva-iot-board

Specifications USB 2.0 to TTL UART 6PIN CP2102 Module Serial Converter USB specification 2.0 compatible with full speed 12Mbps Standard USB type A male and TTL 5pin connector 5pins for 3.3V, TXD, RXD, GND & 5V Baud rates: 300 bps to 1.5 Mbps Byte receive buffer; 640 byte transmit buffer Hardware or X-On/X-Off handshaking supported Event character support Line break transmission USB suspend states supported via SUSPEND pins Temperature Range: -40°C to +85°C. Supports Windows 98SE, 2000, XP, Vista, Window7, Mac OS 9, Mac OS X, Linux > 2.40

Programmer/debugger for ATmega micros This new version uses an SMD 5x2 header. This is a simple to use USB AVR programmer. It is low cost, easy to use, works great with AVRDude and Magspoof, and is tested extensively on a Windows desktop. Based on Dick Steefland"s USBtiny and Limor Fried"s USBtinyISP. It works well with Windows, Linux and Mac boxes. For out-of-the-box compatibility with other operating systems and machines, checkout the AVR ISP2 USB programmer from Digikey. This programmer works really well for ATmega168 and ATmega328 and should work with all the AVR micros supported by AVRDUDE. This board is buffered and power protected so that you can do some really evil things to the programmer without killing it. It is fast! Comparable speed to the AVR ISP2 USB programmer from Digikey. One of the greatest features of this board is the ability to power the target (up to 500mA) from the programmer. To use this programmer, attach to a Windows machine and install the drivers listed below. Open a command prompt. Assuming WinAVR (and therefore AVRDUDE) have been installed, type: avrdude -c usbtiny -B 1 -patmega328 -U flash:w:main.hex Be sure to include the "-B 1" flag as this will significantly increase the programming speed! You may need to change -p flag to your appropriate microcontroller.

Specifications Standard AVR ISP programmer ATtiny2313 with USBtiny firmware preloaded Buffered output PTC fuse protected power Programmer can power target (up to 500mA) Programming cable included (10-pin and 6-pin targets supported), USB cable not included Supports ATmega168/328 and some others not based on i2c like AD9833 and MPU9255 Windows, MacOS and Linux support

Last and most powerful NF device The RS485 is in use in many applications like industrial and home automation (for example MODBUS), lighting control (DMX), video surveillance (for example Pelco-D). Some RS485 shields are already available for the Raspberry Pi on the market, but these extensions are not suitable for professional use, because they come without a galvanic isolation between the RS485 bus and the Raspberry Pi. Without such isolation a damaging of the Raspberry Pi or malfunction of the device is possible, because of the large distances of a RS485 bus. Furthermore a full-duplex mode (RS422) is also not integrated. If you like to know more about RS485 visit this website: http://www.radio-electronics.com/info/telecommunications_networks/rs485/rs-485-tutorialbasics.php

CAN bus for Raspberry Pi model Zero W The RS485 is in use in many applications like industrial and home automation (for example MODBUS), lighting control (DMX), video surveillance (for example Pelco-D). Some RS485 shields are already available for the Raspberry Pi on the market, but these extensions are not suitable for professional use, because they come without a galvanic isolation between the RS485 bus and the Raspberry Pi. The RS485 CAN HAT enables your Pi to communicate with other devices stably in long-distance via RS485/CAN functions. If you like to know more about RS485 visit this website: http://www.radio-electronics.com/info/telecommunications_networks/rs485/rs-485-tutorialbasics.php

Specifications CANtact is based around the ST STM32F042C6 microcontroller A Microchip MCP2561 CAN transceiver provides an interface to a standard high speed CAN bus. CANtact acts as a virtual serial port, and uses the LAWICEL protocol to send and receive frames. CANtact can operate at speeds much higher than 115200 bps The DE9 connector of the CANtact allows for two pin mappings for different use cases: Pins 7 (CAN high), 2 (CAN low), and 3 (ground) for standard CAN connections Pins 3 (CAN high), 5 (CAN low), and 1 (ground) for use with an OBD-II to DB9 cable. Compatible with the Sparkfun OBD-II to serial cable The final jumper is for CAN termination. Place the jumper besides the "CTE" marking to place 120 ohms across CAN high and CAN low. This is commonly used in development, when you are only interfacing with a single CAN device.

Specifications 32kb EEPROM + MicroSD card socket 2 CANBUS channels, 2 LIN/K-Line channels, Single-wire CAN interface Arduino 84MHz 32-bit Atmel SAM3X8E ARM Cortex M3 processor DIGI XBee form factor expansion port Expandable through optional breadboard 6 general purpose driver circuits Up to 1 amp of current at 12 volts 2x User programmable buttons, 2 hard buttons, 1x RGB LED, 5x colour LED 56.4mm x 40.6mm x 15.7mm

This is the Quimat QC35C LCD Display Kit with 40PIN Raspberry Pi styled GPIO extension connector. It is fully compatible with Raspbian Linux distribution and Kali Linux 2019.1 ARM -tftLCD screen type. You can also configure root auto-login or onscreen touch screen. For configuring it: https://www.youtube.com/watch?v=kBtnQdD_ssM There is also a screen touch menu project available from: https://whitedome.com.au/re4son/kali-pi/

Specifications Touch Screen LCD Display kit designed for using the GPIO pins of raspberry pi Directly plug and play while the main board is running Can connect other 40 pin GPIO components at the same time Supports multiple systems: includes Raspberry Pi 3 2 Model B B+ A A+, Raspbian, Kali, Ubuntu, Retropie, PiPlayer, windows10, Orange PI, Nanop Pi M1, and Banana PI M2 Input native resolution 480*320 Touch pen included

This is an IPS LCD display HAT for Raspberry Pi, 1.3inch diagonal, 240x240 pixels, with embedded controller, communicating via SPI interface. Trying to add a control interface for your Pi? This compact display would be the ideal choice. Standard Raspberry Pi connectivity, compatible with Raspberry Pi Zero/Zero W/Zero WH/2B/3B/3B+. IPS screen, wide viewing angle, better display. High definition in small size. 1x joystick, 3x pushbuttons, handy and useful. Comes with development resources and manual (examples for Raspberry Pi/Arduino/STM32).

The thermal printer module is available in Arduino shield format (R2Z5000) and in Raspberry hat format (R2Z5001). Both variants have UART interface connected to his specific pinout pins. USB can be optionally connected with a Micro USB cable. The shield has an independent power connector that powers both printer and Arduino/Raspberry board. Please note that Arduino/Raspberry power source is insufficient and shall not be used with the printer connected. This is a thermal printer hat for Raspberry Pi The printer shall be powered directly through his power connector within a minimum voltage of 12V/1A and a maximum of 18V. The integrated regulator will forward a proper stabilised 5V to the Arduino/Raspberry main board that does not need to be powered separately. Do NOT use Raspberry"s micro-USB power connector because current and voltage are totally insufficient for both devices.

Specifications Onboard power supply with 12-18V input voltage at 1A (will power both Raspberry and Printer hat) Serial communication over USB (standard COM port, no driver needed, will work on any OS) and UART interface (TTL 5V) TTY-like control protocol Paper jam status control Paper feed button Status leds 7 dots hot printing head 105 dots per line Text mode printing with 7x5 dots characters Graphical printing with 105x7 dots contiguous areas Paper width of 37 mm

Simultaneous Charging & Transmission This small sized USB hub has the