quickstart: add riscv64-noelv-fpga target

Based on branch lukileczko/ci-475
JIRA: CI-475

index.md

@@ -33,8 +33,9 @@ The ARINC653 execution environment (APEX) is under development.
     8. [Running system on `ia32-generic-qemu`](quickstart/ia32-generic-qemu.md)
     9. [Running system on `riscv64-generic-qemu`](quickstart/riscv64-generic-qemu.md)
     10. [Running system on `riscv64-generic-spike`](quickstart/riscv64-generic-spike.md)
-    11. [Running system on `sparcv8leon3-gr716-mini`](quickstart/sparcv8leon3-gr716-mini.md)
-    12. [Running system on `sparcv8leon3-gr712rc-board`](quickstart/sparcv8leon3-gr712rc-board)
+    11. [Running system on riscv64-noelv-fpga](quickstart/riscv64-noelv-fpga.md)
+    12. [Running system on `sparcv8leon3-gr716-mini`](quickstart/sparcv8leon3-gr716-mini.md)
+    13. [Running system on `sparcv8leon3-gr712rc-board`](quickstart/sparcv8leon3-gr712rc-board)
 5. [Loader](loader/index.md)
     1. [Architecture](loader/architecture.md)
     2. [Command-line interface](loader/cli.md)

quickstart/index.md

@@ -16,9 +16,10 @@ and building artifacts are available in the `_boot` directory. The building proc
 8. [Running system on ia32-generic-qemu](ia32-generic-qemu.md)
 9. [Running system on riscv64-generic-qemu](riscv64-generic-qemu.md)
 10. [Running system on riscv64-generic-spike](riscv64-generic-spike.md)
-11. [Running system on sparcv8leon3-gr716-mini](sparcv8leon3-gr716-mini.md)
-12. [Running system on sparcv8leon3-gr712rc-board](sparcv8leon3-gr712rc-board.md)
-12. [Table of Contents](../index.md)
+11. [Running system on riscv64-noelv-fpga](riscv64-noelv-fpga.md)
+12. [Running system on sparcv8leon3-gr716-mini](sparcv8leon3-gr716-mini.md)
+13. [Running system on sparcv8leon3-gr712rc-board](sparcv8leon3-gr712rc-board.md)
+14. [Table of Contents](../index.md)
 
 ```{toctree}
 :maxdepth: 1
@@ -37,6 +38,7 @@ armv8r52-mps3an536-qemu.md
 ia32-generic-qemu.md
 riscv64-generic-qemu.md
 riscv64-generic-spike.md
+riscv64-noelv-fpga.md
 sparcv8leon3-gr716-mini.md
 sparcv8leon3-gr712rc-board
 ```

quickstart/riscv64-noelv-fpga.md

@@ -0,0 +1,117 @@
+# Running system on <nobr>riscv64-noelv-fpga</nobr>
+
+These instructions describe how to run Phoenix-RTOS on the NOEL-V processor configured on the Digilent Arty A7-100T
+FPGA - `riscv64-noelv-fpga` target. Note that the build artifacts, including the system image should be provided in the
+`_boot` directory. If you have not built the system image yet, please refer to the
+[Building Phoenix-RTOS image](../building/index.md) section.
+
+## Connecting the board
+
+Connect the board to the computer using 1 micro USB cable that provides power and UART communication, like on image
+below:
+
+![Image](_images/ArtyA7_Board.bmp)
+
+## Loading the Phoenix-RTOS system image
+
+To load the Phoenix-RTOS system image to the board, you will need to use the `GRMON` debug monitor.
+
+<details>
+<summary>How to get GRMON</summary>
+
+- Download the GRMON software from the [official website](https://www.gaisler.com/index.php/downloads/debug-tools)
+
+- After downloading the archive, extract it and optionally add the `grmon` binary to the `PATH` variable
+(You can also copy its binary to `/bin` with sudo).
+
+- Install Digilent Adept Runtime for debug link connection:
+
+  - On Linux systems, the Digilent Adept2 Runtime must be installed on the host computer, which can be downloaded
+  from Digilent's website.
+  - More detailed information you can be found in the
+  [GRMON User's Manual](https://www.gaisler.com/doc/grmon-eval/grmon3.pdf)
+  & [Digilent Adept 2](https://digilent.com/reference/software/adept/start).
+
+</details>
+</br>
+
+Launch the `GRMON` monitor using the following command:
+
+```console
+grmon -digilent
+```
+
+Note: The `-digilent` parameter specifies the Digilent JTAG adapter.
+
+If the board is correctly plugged in and Adept2 is present on the system, grmon will display something similar to this:
+
+![Image](_images/GRmon_start.png)
+
+In case of bad connection or problem with Adept2 you may get simmilar output:
+
+![Image](_images/GRmon_bad_connect.png)
+
+Load the Phoenix-RTOS system image into the RAM by running the following commands in the `GRMON`:
+
+- Load supervisor binary interface for RISC-V:
+
+```console
+load phoenix-rtos-project/_boot/riscv64-noelv-fpga/sbi-noelv.elf
+```
+
+![Image](_images/GRmon_SBI.png)
+
+- Load Phoenix-RTOS system:
+
+```console
+load -binary phoenix-rtos-project/_boot/riscv64-noelv-fpga/phoenix.disk 0x08000000
+```
+
+![Image](_images/GRmon_Phoenix.png)
+
+Determine entry point of the program:
+
+```console
+ep 0x0
+```
+
+![Image](_images/GRmon_Entry.png)
+
+Check on which port the board is connected to the computer. To do this, run the following command:
+
+```console
+ls -l /dev/serial/by-id
+```
+
+![Image](_images/noelv-ls.png)
+
+In this case, the serial port to use is `/dev/ttyUSB1`. Open the terminal emulator and connect to the board using the
+following command:
+
+```console
+picocom -b 115200 --imap lfcrlf /dev/ttyUSB1
+```
+
+To start the Phoenix-RTOS system, execute the following command in the `GRMON` monitor:
+
+```console
+run
+```
+
+## Using the Phoenix-RTOS
+
+After executing the `run` command, Phoenix-RTOS will be launched and the `psh` shell command prompt will appear in the
+terminal.
+
+![Image](_images/noelv-start.png)
+
+Note: Keep in mind that it is necessary to have grmon running in background. In case of closing or accidental
+terminating `run` command, it will shut down the connection with the board.
+Grmon will inform you of such an event:
+
+![Image](_images/GRmon_run_termin.png)
+
+## See also
+
+1. [Running system on targets](index.md)
+2. [Table of Contents](../index.md)