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nblocks:n-pro-40 [2020/02/05 05:18]
faizan
nblocks:n-pro-40 [2020/06/02 12:33] (current)
engineer
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 <WRAP centeralign>​ <WRAP centeralign>​
 n-PRO-40</​WRAP>​ n-PRO-40</​WRAP>​
-| License ​       | GPL 2.0 | +| License ​       | GPL 2.0                                                      
-| Status ​        | Tested | +| Status ​        | Tested ​                                                      ​
-| Buy at:        |   ​+| Buy at:        |                                                              
-| Categories ​    ​| ​ +| Categories ​    ​| ​                                                             
-| Hardware repo  | [[https://​bitbucket.org/​nimbus_it/​prj_n-pro-40|Bitbucket]] | +| Hardware repo  | [[https://​bitbucket.org/​nimbus_it/​pcba-n-pro-40|Bitbucket]] ​ 
-| Firmware repo  | [[https://​bitbucket.org/​nimbus_it/​prj_n-pro-40|Bitbucket]] ​|+| Firmware repo  |                                                              |
 </​WRAP>​ </​WRAP>​
  
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 ===== Overview===== ===== Overview=====
 <​poem>​ <​poem>​
-[[nblocks:​n-PN LoRaWAN|n-PRO-40]] board is a low-cost and easy-to-use development kit for quick evaluation and  to start some development with LoRaWAN protocol. It uses an ARM® 32-bit Cortex™-M and is totally compatible with n-Best ecosystem. It is based on Murata CMWX1ZZABZ LoRa module and also features STM32L082 microcontroller. The exclusive combination of an Arm® Cortex®-M0+ core and STM32 ultra-low-power features, makes the STM32L082 the best fit for applications operating on batteries or supplied by energy harvesting. ​ It is the ideal solution for the users having no or little experience of networking to design Ultra Low-power IoT projects.+[[nblocks:​n-PN LoRaWAN|n-PRO-40]] board is a low-cost and easy-to-use development kit for quick evaluation and  to start some development with LoRaWAN protocol. It uses an ARM® 32-bit Cortex™-M and is totally compatible with n-Blocks ​ecosystem. It is based on Murata CMWX1ZZABZ LoRa module and also features STM32L082 microcontroller. The exclusive combination of an Arm® Cortex®-M0+ core and STM32 ultra-low-power features, makes the STM32L082 the best fit for applications operating on batteries or supplied by energy harvesting. ​ It is the ideal solution for the users having no or little experience of networking to design Ultra Low-power IoT projects.
  
 Communication with the module can be achieved via UART, SPI, or I2C peripheral interfaces. GPIOs provide plenty of flexibility for connecting sensors, switches and status LEDs, and the module is powered from a 1.6 to 3.6 VDC supply. ​ Communication with the module can be achieved via UART, SPI, or I2C peripheral interfaces. GPIOs provide plenty of flexibility for connecting sensors, switches and status LEDs, and the module is powered from a 1.6 to 3.6 VDC supply. ​
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 <WRAP centeralign>​{{nblocks:​n-pro-40-v22.jpg?​300|}}</​WRAP>​ <WRAP centeralign>​{{nblocks:​n-pro-40-v22.jpg?​300|}}</​WRAP>​
 \\ \\
 +<WRAP centeralign>​{{:​nblocks:​n-pro-40-nbusa.jpg|}}</​WRAP>​ 
 +\\ 
 +<WRAP centeralign>​{{:​nblocks:​n-pro-40-nbusb.jpg|}} </​WRAP>​ 
 +\\ 
 +<WRAP centeralign>​{{:​nblocks:​n-pro-40-nbusc.jpg|}}</​WRAP>​ 
 +\\ 
 +<WRAP centeralign>​{{:​nblocks:​n-pro-40-nbusd.jpg|}}</​WRAP>​
  
  
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 \\ \\
 \\ \\
-**NBUS1** 
- 
-<csv> 
-Pin No.,Pin Name,​Description 
-2,​GND, ​                 ​ 
-4,​RXD-1, ​                   
-5,TXD-1, 
-6,SDA, 
-7,SCL, 
-8,MISO, 
-9,MOSI, 
-10,SCK, 
-11,SS, 
-12,​RESET-CPU,​ 
-23,SLEEP, 
-24,​SENSOR-1,​ 
-25,​SENSOR-2,​ 
-26,​SENSOR-3,​ 
-27,​SENSOR-4,​ 
-28,5V-IN, 
-29,GND, 
-30,​3.3V-LOAD,​ 
-31,​3.3V-LOAD,​ 
-32,GND, 
-33,5V-IN, 
-51,​ADC5/​DAC2,​ 
-59,GND, 
-60,1WIRE, 
- 
-</​csv>​ 
- 
-**NBUS2** 
-<csv> 
-Pin No.,Pin Name,​Description 
-2,​GND, ​                     
-12,​RESET-CPU,​ 
-28,5V-IN 
-29,GND 
-30,​3.3V-LOAD 
-31,​3.3V-LOAD,​ 
-32,GND, 
-33,5V-IN, 
-47,SWCLK, 
-49,SWDIO, 
-57,BOOT0, 
-59,GND, 
-60,​1-WIREON,​ 
-</​csv>​ 
- 
-**NBUS3** 
- 
-<csv> 
-Pin No.,Pin Name,​Description 
-2,​GND, ​                 ​ 
-4,​RXD-2, ​                   
-5,TXD-2, 
-6,SDA, 
-7,SCL, 
-12,​RESET-CPU,​ 
-23,SLEEP, 
-24,​SENSOR-1,​ 
-25,​SENSOR-2,​ 
-26,​SENSOR-3,​ 
-27,​SENSOR-4,​ 
-28,5V-IN, 
-29,GND, 
-30,​3.3V-LOAD,​ 
-31,​3.3V-LOAD,​ 
-32,GND, 
-33,5V-IN, 
-51,​ADC4/​DAC1,​ 
-59,GND, 
-60,1WIRE, 
- 
-</​csv>​ 
  
-**NBUS4** 
-<csv> 
-Pin No.,Pin Name,​Description 
-2,​GND, ​                     
-28,5V-IN 
-29,GND 
-30,​3.3V-LOAD 
-31,​3.3V-LOAD,​ 
-32,GND, 
-33,5V-IN, 
-47,SWCLK, 
-49,SWDIO, 
-57,BOOT0, 
-59,GND, 
-60,​1-WIREON,​ 
-</​csv>​ 
 ===== Getting started===== ===== Getting started=====
 [[http://​www.n-blocks.net/​nmodules/​doku.php?​id=nblocks:​lorawan_setup|LoRaWAN Setup]] [[http://​www.n-blocks.net/​nmodules/​doku.php?​id=nblocks:​lorawan_setup|LoRaWAN Setup]]
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   * Open Any Example folder (Temperature_Humidity folder for this example) and open MDK-ARM folder.\\   * Open Any Example folder (Temperature_Humidity folder for this example) and open MDK-ARM folder.\\
-{{:​nblocks:​n-pn_gs1.png?700|}}+{{:​nblocks:​n-pro-40-sc1.jpg}}
   * Open N-PN folder.\\   * Open N-PN folder.\\
-{{:​nblocks:​n-pn_gs2.png?700|}}+{{:​nblocks:​n-pro-40-sc2.jpg}}
   * Open Temperature_Humidity project (Double click on Temperature_Humidity.uvprojx).\\   * Open Temperature_Humidity project (Double click on Temperature_Humidity.uvprojx).\\
-{{:​nblocks:​n-pn_gs3.png?700|}}+{{:​nblocks:​n-pro-40-sc3.jpg}}
   * The project is ready to be tested.\\   * The project is ready to be tested.\\
-{{:​nblocks:​n-pn_gs4.png?700|}}+{{:​nblocks:​n-pro-40-sc4.jpg}}
    
  
nblocks/n-pro-40.1580897897.txt.gz · Last modified: 2020/02/05 05:18 by faizan