use super::{ButtplugDeviceResultFuture, ButtplugProtocol, ButtplugProtocolCommandHandler};
use crate::{
core::messages::{self, ButtplugDeviceCommandMessageUnion, MessageAttributesMap},
device::{
protocol::{generic_command_manager::GenericCommandManager, ButtplugProtocolProperties},
DeviceImpl,
DeviceWriteCmd,
Endpoint,
},
};
use async_mutex::Mutex;
use std::sync::Arc;
#[derive(ButtplugProtocolProperties)]
pub struct Aneros {
name: String,
message_attributes: MessageAttributesMap,
manager: Arc<Mutex<GenericCommandManager>>,
stop_commands: Vec<ButtplugDeviceCommandMessageUnion>,
}
impl ButtplugProtocol for Aneros {
fn new_protocol(name: &str, message_attributes: MessageAttributesMap) -> Box<dyn ButtplugProtocol>
where
Self: Sized,
{
let manager = GenericCommandManager::new(&message_attributes);
Box::new(Self {
name: name.to_owned(),
message_attributes,
stop_commands: manager.get_stop_commands(),
manager: Arc::new(Mutex::new(manager)),
})
}
}
impl ButtplugProtocolCommandHandler for Aneros {
fn handle_vibrate_cmd(
&self,
device: Arc<Box<dyn DeviceImpl>>,
message: messages::VibrateCmd,
) -> ButtplugDeviceResultFuture {
let manager = self.manager.clone();
Box::pin(async move {
let result = manager.lock().await.update_vibration(&message, false)?;
let mut fut_vec = vec![];
if let Some(cmds) = result {
for (index, cmd) in cmds.iter().enumerate() {
if let Some(speed) = cmd {
fut_vec.push(device.write_value(DeviceWriteCmd::new(
Endpoint::Tx,
vec![0xF1 + (index as u8), *speed as u8],
false,
)));
}
}
}
for fut in fut_vec {
fut.await?;
}
Ok(messages::Ok::default().into())
})
}
}
#[cfg(test)]
mod test {
use crate::{
core::messages::{StopDeviceCmd, VibrateCmd, VibrateSubcommand},
device::{DeviceImplCommand, DeviceWriteCmd, Endpoint},
test::{check_recv_value, new_bluetoothle_test_device},
util::async_manager,
};
#[test]
pub fn test_aneros_protocol() {
async_manager::block_on(async move {
let (device, test_device) = new_bluetoothle_test_device("Massage Demo").await.unwrap();
let command_receiver = test_device
.get_endpoint_channel(&Endpoint::Tx)
.unwrap()
.receiver;
device
.parse_message(VibrateCmd::new(0, vec![VibrateSubcommand::new(0, 0.5)]).into())
.await
.unwrap();
check_recv_value(
&command_receiver,
DeviceImplCommand::Write(DeviceWriteCmd::new(Endpoint::Tx, vec![0xF1, 64], false)),
)
.await;
device
.parse_message(VibrateCmd::new(0, vec![VibrateSubcommand::new(0, 0.5)]).into())
.await
.unwrap();
assert!(command_receiver.is_empty());
device
.parse_message(
VibrateCmd::new(
0,
vec![
VibrateSubcommand::new(0, 0.1),
VibrateSubcommand::new(1, 0.5),
],
)
.into(),
)
.await
.unwrap();
check_recv_value(
&command_receiver,
DeviceImplCommand::Write(DeviceWriteCmd::new(Endpoint::Tx, vec![0xF1, 13], false)),
)
.await;
check_recv_value(
&command_receiver,
DeviceImplCommand::Write(DeviceWriteCmd::new(Endpoint::Tx, vec![0xF2, 64], false)),
)
.await;
device
.parse_message(StopDeviceCmd::new(0).into())
.await
.unwrap();
check_recv_value(
&command_receiver,
DeviceImplCommand::Write(DeviceWriteCmd::new(Endpoint::Tx, vec![0xF1, 0], false)),
)
.await;
check_recv_value(
&command_receiver,
DeviceImplCommand::Write(DeviceWriteCmd::new(Endpoint::Tx, vec![0xF2, 0], false)),
)
.await;
});
}
}