Crates.io | ebyte-e32-ui |
lib.rs | ebyte-e32-ui |
version | 0.5.0 |
source | src |
created_at | 2022-10-31 19:08:00.292277 |
updated_at | 2022-11-18 18:03:52.458353 |
description | CLI + GUI for interacting with EByte E32 LoRa modules |
homepage | |
repository | https://github.com/barafael/ebyte-e32-ui |
max_upload_size | |
id | 702358 |
size | 939,476 |
Ebyte E32 Command Line Interface + minimal GUI.
Works with Ebyte-E32 LoRa modules with configurable pin assignment.
The 3 GPIOs are controlled via linux cdev, and
the serial port is controlled by a normal /dev/ttyXXX
character device.
Uses ebyte-e32-rs as a driver, plus some traits from embedded-hal and their implementations from linux-embedded-hal.
For the CLI, clap is used.
For the GUI, on top of clap, klask is used.
Configurable with Config.toml
in the same directory as the binary
(or set the option config
):
serial_path = "/dev/ttyAMA0"
baudrate = 9600
parity = "None"
data_bits = 8
stop_bits = 1
gpiochip_path = "/dev/gpiochip0"
aux_pin = 18
m0_pin = 23
m1_pin = 24
Ebyte Pin | Raspberry Pi Pin (BCM pin number) |
---|---|
VCC | 3v3 |
GND | GND |
AUX | 18 |
M0 | 23 |
M1 | 24 |
TX | 15 (RX) |
RX | 14 (TX) |
In these examples, you can substitute ebyte-e32-cli
with cargo run --bin ebyte-e32-cli
if you are in the project root directory.
This directory also contains an example Config.toml
.
Reading model data or parameters (good first test):
ebyte-e32-cli {read-model-data|read-parameters}
Listen for transmissions:
ebyte-e32-cli listen
Configure for address 1, channel 16, no forward error correction, permanent persistence:
ebyte-e32-cli configure --address 1 --channel 16 --fec off --persistence permanent
For send
mode, enter your messages in the prompt or pipe them in via stdin
.
The GUI is the default target, meaning you can launch it with cargo run
.
For sending data, the data provided in the Input
tab is used (where you can also select a file to read the input from).
With the Configuration
subcommand, the module parameters can be adjusted.
Note that your module settings have to match the other module's settings for any transmission to be successful.
With the persistence
option of the Configuration
subcommand, the settings can be saved (temporary
or permanent
).
In permanent
mode, the settings will be persisted onto the module.
You can run the GUI on your normal OS for testing.
These screenshots are slightly outdated but show the features of the GUI and CLI:
The underlying driver (ebyte-e32-rs) is platform-agnostic
(doesn't require linux, just implementations of embedded-hal
).
This program requires a linux character device and 3 CDEV GPIO lines.
For the character device, it should be available as /dev/ttyABC
.
Note that (depending on your distribution)
you may have to add your user to certain groups
to be able to use the serial port, like dialout
.
For the GPIO lines, find your boards gpiochipXXX
in
/sys/class/gpio/gpiochipXXX
, then
find the lines you want to connect and
enter the info in Config.toml
.
The AUX line must support being an input line, the M0 and M1 lines must support being output lines.
Top-level help:
ebyte-e32-ui 0.5.0
CLI + GUI for interacting with EByte E32 LoRa modules
USAGE:
ebyte-e32-cli [OPTIONS] <SUBCOMMAND>
OPTIONS:
--config <CONFIG> Configuration file [default: Config.toml]
-h, --help Print help information
-V, --version Print version information
SUBCOMMANDS:
configure Write Ebyte module parameters
help Print this message or the help of the given subcommand(s)
listen Listen for incoming data on the Ebyte module
read-model-data Read Ebyte module data and print to stdout
read-parameters Read Ebyte module parameters and print to stdout
send Send data from stdin over the Ebyte module
Configuration subcommand help (ebyte-e32-cli help configure
):
ebyte-e32-cli-configure
Write Ebyte module parameters
USAGE:
ebyte-e32-cli configure [OPTIONS] --address <ADDRESS> --channel <CHANNEL>
OPTIONS:
-a, --address <ADDRESS>
Module Address (16 Bit)
--air-rate <AIR_RATE>
Air Baudrate [default: bps2400] [possible values: bps300, bps1200, bps2400, bps4800,
bps9600, bps19200]
-c, --channel <CHANNEL>
Channel (8 Bit)
--fec <FEC>
Forward Error Correction Mode [default: on] [possible values: on, off]
-h, --help
Print help information
--io-drive-mode <IO_DRIVE_MODE>
IO drive Mode for AUX pin [default: push-pull] [possible values: push-pull,
open-collector]
--persistence <PERSISTENCE>
Whether settings should be saved persistently on the module [default: temporary]
[possible values: temporary, permanent]
--transmission-mode <TRANSMISSION_MODE>
Transmission Mode [default: transparent] [possible values: transparent, fixed]
--transmission-power <TRANSMISSION_POWER>
Transmission Power [default: dbm30] [possible values: dbm30, dbm27, dbm24, dbm21]
--uart-parity <UART_PARITY>
UART Parity [default: none] [possible values: none, odd, even]
--uart-rate <UART_RATE>
UART Baudrate [default: bps9600] [possible values: bps1200, bps2400, bps4800, bps9600,
bps19200, bps38400, bps57600, bps115200]
--wakeup-time <WAKEUP_TIME>
Wireless Wakeup Time [default: ms250] [possible values: ms250, ms500, ms750, ms1000,
ms1250, ms1500, ms1750, ms2000]
The other subcommands have no further options.
The serial port hardware peripheral must be enabled (but without login shell).