Compare commits

..

4 Commits

Author SHA1 Message Date
23422f9641 DRY up the factory methods
use optional functions to set address functions
2026-02-07 14:23:46 +00:00
3c47d12719 we no longer need to pass in the kind
remove option function WithKind
2026-02-07 13:58:37 +00:00
8a452c83b9 pass base addresses to factory methods 2026-02-07 09:24:41 +00:00
abfb1bf08d implement x32 matrix commands 2026-02-07 08:49:23 +00:00
16 changed files with 678 additions and 179 deletions

View File

@ -51,6 +51,7 @@ type CLI struct {
Raw RawCmd `help:"Send raw OSC messages to the mixer." cmd:"" group:"Raw"` Raw RawCmd `help:"Send raw OSC messages to the mixer." cmd:"" group:"Raw"`
Main MainCmdGroup `help:"Control the Main L/R output" cmd:"" group:"Main"` Main MainCmdGroup `help:"Control the Main L/R output" cmd:"" group:"Main"`
Mainmono MainMonoCmdGroup `help:"Control the Main Mono output" cmd:"" group:"MainMono"` Mainmono MainMonoCmdGroup `help:"Control the Main Mono output" cmd:"" group:"MainMono"`
Matrix MatrixCmdGroup `help:"Control the matrix outputs." cmd:"" group:"Matrix"`
Strip StripCmdGroup `help:"Control the strips." cmd:"" group:"Strip"` Strip StripCmdGroup `help:"Control the strips." cmd:"" group:"Strip"`
Bus BusCmdGroup `help:"Control the buses." cmd:"" group:"Bus"` Bus BusCmdGroup `help:"Control the buses." cmd:"" group:"Bus"`
Headamp HeadampCmdGroup `help:"Control input gain and phantom power." cmd:"" group:"Headamp"` Headamp HeadampCmdGroup `help:"Control input gain and phantom power." cmd:"" group:"Headamp"`
@ -120,7 +121,6 @@ func connect(config Config) (*xair.X32Client, error) {
client, err := xair.NewX32Client( client, err := xair.NewX32Client(
config.Host, config.Host,
config.Port, config.Port,
xair.WithKind("x32"),
xair.WithTimeout(config.Timeout), xair.WithTimeout(config.Timeout),
) )
if err != nil { if err != nil {

499
cmd/x32-cli/matrix.go Normal file
View File

@ -0,0 +1,499 @@
package main
import (
"fmt"
"time"
"github.com/alecthomas/kong"
)
// MatrixCmdGroup defines the command group for controlling the Matrix outputs, including commands for mute state, fader level, and fade-in/fade-out times.
type MatrixCmdGroup struct {
Index struct {
Index int `arg:"" help:"The index of the Matrix output (1-6)."`
Mute MatrixMuteCmd `help:"Get or set the mute state of the Matrix output." cmd:""`
Fader MatrixFaderCmd `help:"Get or set the fader level of the Matrix output." cmd:""`
Fadein MatrixFadeinCmd `help:"Fade in the Matrix output over a specified duration." cmd:""`
Fadeout MatrixFadeoutCmd `help:"Fade out the Matrix output over a specified duration." cmd:""`
Eq MatrixEqCmdGroup `help:"Commands for controlling the equalizer settings of the Matrix output." cmd:"eq"`
Comp MatrixCompCmdGroup `help:"Commands for controlling the compressor settings of the Matrix output." cmd:"comp"`
} `help:"Commands for controlling individual Matrix outputs." arg:""`
}
func (cmd *MatrixCmdGroup) Validate(ctx kong.Context) error {
if cmd.Index.Index < 1 || cmd.Index.Index > 6 {
return fmt.Errorf("invalid Matrix output index: %d. Valid range is 1-6", cmd.Index.Index)
}
return nil
}
// MatrixMuteCmd defines the command for getting or setting the mute state of the Matrix output, allowing users to specify the desired state as "true"/"on" or "false"/"off".
type MatrixMuteCmd struct {
Mute *string `arg:"" help:"The mute state to set. If not provided, the current state will be printed." optional:"" enum:"true,false"`
}
// Run executes the MatrixMuteCmd command, either retrieving the current mute state of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixMuteCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Mute == nil {
resp, err := ctx.Client.Matrix.Mute(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix mute state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix mute state: %t\n", resp)
return nil
}
if err := ctx.Client.Matrix.SetMute(matrix.Index.Index, *cmd.Mute == "true"); err != nil {
return fmt.Errorf("failed to set Matrix mute state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix mute state set to: %s\n", *cmd.Mute)
return nil
}
// MatrixFaderCmd defines the command for getting or setting the fader level of the Matrix output, allowing users to specify the desired level in dB.
type MatrixFaderCmd struct {
Level *float64 `arg:"" help:"The fader level to set. If not provided, the current level will be printed." optional:""`
}
// Run executes the MatrixFaderCmd command, either retrieving the current fader level of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixFaderCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Level == nil {
resp, err := ctx.Client.Matrix.Fader(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix fader level: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix fader level: %.2f\n", resp)
return nil
}
if err := ctx.Client.Matrix.SetFader(matrix.Index.Index, *cmd.Level); err != nil {
return fmt.Errorf("failed to set Matrix fader level: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix fader level set to: %.2f\n", *cmd.Level)
return nil
}
// MatrixFadeinCmd defines the command for getting or setting the fade-in time of the Matrix output, allowing users to specify the desired duration for the fade-in effect.
type MatrixFadeinCmd struct {
Duration time.Duration `flag:"" help:"The duration of the fade-in. (in seconds.)" default:"5s"`
Target float64 ` help:"The target level for the fade-in. If not provided, the current target level will be printed." default:"0.0" arg:""`
}
// Run executes the MatrixFadeinCmd command, either retrieving the current fade-in time of the Matrix output or setting it based on the provided argument, with an optional target level for the fade-in effect.
func (cmd *MatrixFadeinCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
currentLevel, err := ctx.Client.Matrix.Fader(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix fader level: %w", err)
}
if currentLevel >= cmd.Target {
return fmt.Errorf(
"current fader level (%.2f) is already at or above the target level (%.2f)",
currentLevel,
cmd.Target,
)
}
totalSteps := float64(cmd.Target - currentLevel)
stepDuration := time.Duration(cmd.Duration.Seconds()*1000/totalSteps) * time.Millisecond
for currentLevel < cmd.Target {
currentLevel++
if err := ctx.Client.Matrix.SetFader(matrix.Index.Index, currentLevel); err != nil {
return fmt.Errorf("failed to set Matrix fader level: %w", err)
}
time.Sleep(stepDuration)
}
fmt.Fprintf(ctx.Out, "Matrix fade-in completed. Final level: %.2f\n", currentLevel)
return nil
}
// MatrixFadeoutCmd defines the command for getting or setting the fade-out time of the Matrix output, allowing users to specify the desired duration for the fade-out effect and an optional target level to fade out to.
type MatrixFadeoutCmd struct {
Duration time.Duration `flag:"" help:"The duration of the fade-out. (in seconds.)" default:"5s"`
Target float64 ` help:"The target level for the fade-out. If not provided, the current target level will be printed." default:"-90.0" arg:""`
}
// Run executes the MatrixFadeoutCmd command, either retrieving the current fade-out time of the Matrix output or setting it based on the provided argument, with an optional target level for the fade-out effect.
func (cmd *MatrixFadeoutCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
currentLevel, err := ctx.Client.Matrix.Fader(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix fader level: %w", err)
}
if currentLevel <= cmd.Target {
return fmt.Errorf(
"current fader level (%.2f) is already at or below the target level (%.2f)",
currentLevel,
cmd.Target,
)
}
totalSteps := float64(currentLevel - cmd.Target)
stepDuration := time.Duration(cmd.Duration.Seconds()*1000/totalSteps) * time.Millisecond
for currentLevel > cmd.Target {
currentLevel--
if err := ctx.Client.Matrix.SetFader(matrix.Index.Index, currentLevel); err != nil {
return fmt.Errorf("failed to set Matrix fader level: %w", err)
}
time.Sleep(stepDuration)
}
fmt.Fprintf(ctx.Out, "Matrix fade-out completed. Final level: %.2f\n", currentLevel)
return nil
}
// MatrixEqCmdGroup defines the command group for controlling the equalizer settings of the Matrix output, including commands for getting or setting the EQ parameters.
type MatrixEqCmdGroup struct {
On MatrixEqOnCmd `help:"Get or set the EQ on/off state of the Matrix output." cmd:"on"`
Band struct {
Band int `arg:"" help:"The EQ band number."`
Gain MatrixEqBandGainCmd `help:"Get or set the gain of the specified EQ band." cmd:"gain"`
Freq MatrixEqBandFreqCmd `help:"Get or set the frequency of the specified EQ band." cmd:"freq"`
Q MatrixEqBandQCmd `help:"Get or set the Q factor of the specified EQ band." cmd:"q"`
Type MatrixEqBandTypeCmd `help:"Get or set the type of the specified EQ band." cmd:"type"`
} `help:"Commands for controlling individual EQ bands of the Matrix output." arg:""`
}
// Validate checks if the provided EQ band number is within the valid range (1-6) for the Matrix output.
func (cmd *MatrixEqCmdGroup) Validate(ctx kong.Context) error {
if cmd.Band.Band < 1 || cmd.Band.Band > 6 {
return fmt.Errorf("invalid EQ band number: %d. Valid range is 1-6", cmd.Band.Band)
}
return nil
}
// MatrixEqOnCmd defines the command for getting or setting the EQ on/off state of the Matrix output, allowing users to specify the desired state as "true"/"on" or "false"/"off".
type MatrixEqOnCmd struct {
Enable *string `arg:"" help:"The EQ on/off state to set. If not provided, the current state will be printed." optional:"" enum:"true,false"`
}
// Run executes the MatrixEqOnCmd command, either retrieving the current EQ on/off state of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixEqOnCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Enable == nil {
resp, err := ctx.Client.Matrix.Eq.On(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix EQ on/off state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ on/off state: %t\n", resp)
return nil
}
if err := ctx.Client.Matrix.Eq.SetOn(matrix.Index.Index, *cmd.Enable == "true"); err != nil {
return fmt.Errorf("failed to set Matrix EQ on/off state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ on/off state set to: %t\n", *cmd.Enable == "true")
return nil
}
// MatrixEqBandGainCmd defines the command for getting or setting the gain of a specific EQ band on the Matrix output, allowing users to specify the desired gain in dB.
type MatrixEqBandGainCmd struct {
Level *float64 `arg:"" help:"The gain level to set for the specified EQ band. If not provided, the current gain will be printed." optional:""`
}
// Run executes the MatrixEqBandGainCmd command, either retrieving the current gain of a specific EQ band on the Matrix output or setting it based on the provided argument.
func (cmd *MatrixEqBandGainCmd) Run(ctx *context, matrix *MatrixCmdGroup, matrixEq *MatrixEqCmdGroup) error {
if cmd.Level == nil {
resp, err := ctx.Client.Matrix.Eq.Gain(matrix.Index.Index, matrixEq.Band.Band)
if err != nil {
return fmt.Errorf("failed to get Matrix EQ band %d gain: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d gain: %.2f dB\n", matrixEq.Band.Band, resp)
return nil
}
if err := ctx.Client.Matrix.Eq.SetGain(matrix.Index.Index, matrixEq.Band.Band, *cmd.Level); err != nil {
return fmt.Errorf("failed to set Matrix EQ band %d gain: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d gain set to: %.2f dB\n", matrixEq.Band.Band, *cmd.Level)
return nil
}
// MatrixEqBandFreqCmd defines the command for getting or setting the frequency of a specific EQ band on the Matrix output, allowing users to specify the desired frequency in Hz.
type MatrixEqBandFreqCmd struct {
Frequency *float64 `arg:"" help:"The frequency to set for the specified EQ band. If not provided, the current frequency will be printed." optional:""`
}
// Run executes the MatrixEqBandFreqCmd command, either retrieving the current frequency of a specific EQ band on the Matrix output or setting it based on the provided argument.
func (cmd *MatrixEqBandFreqCmd) Run(ctx *context, matrix *MatrixCmdGroup, matrixEq *MatrixEqCmdGroup) error {
if cmd.Frequency == nil {
resp, err := ctx.Client.Matrix.Eq.Frequency(matrix.Index.Index, matrixEq.Band.Band)
if err != nil {
return fmt.Errorf("failed to get Matrix EQ band %d frequency: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d frequency: %.2f Hz\n", matrixEq.Band.Band, resp)
return nil
}
if err := ctx.Client.Matrix.Eq.SetFrequency(matrix.Index.Index, matrixEq.Band.Band, *cmd.Frequency); err != nil {
return fmt.Errorf("failed to set Matrix EQ band %d frequency: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d frequency set to: %.2f Hz\n", matrixEq.Band.Band, *cmd.Frequency)
return nil
}
// MatrixEqBandQCmd defines the command for getting or setting the Q factor of a specific EQ band on the Matrix output, allowing users to specify the desired Q factor.
type MatrixEqBandQCmd struct {
Q *float64 `arg:"" help:"The Q factor to set for the specified EQ band. If not provided, the current Q factor will be printed." optional:""`
}
// Run executes the MatrixEqBandQCmd command, either retrieving the current Q factor of a specific EQ band on the Matrix output or setting it based on the provided argument.
func (cmd *MatrixEqBandQCmd) Run(ctx *context, matrix *MatrixCmdGroup, matrixEq *MatrixEqCmdGroup) error {
if cmd.Q == nil {
resp, err := ctx.Client.Matrix.Eq.Q(matrix.Index.Index, matrixEq.Band.Band)
if err != nil {
return fmt.Errorf("failed to get Matrix EQ band %d Q factor: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d Q factor: %.2f\n", matrixEq.Band.Band, resp)
return nil
}
if err := ctx.Client.Matrix.Eq.SetQ(matrix.Index.Index, matrixEq.Band.Band, *cmd.Q); err != nil {
return fmt.Errorf("failed to set Matrix EQ band %d Q factor: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d Q factor set to: %.2f\n", matrixEq.Band.Band, *cmd.Q)
return nil
}
// MatrixEqBandTypeCmd defines the command for getting or setting the type of a specific EQ band on the Matrix output, allowing users to specify the desired type as "peaking", "low_shelf", "high_shelf", "low_pass", or "high_pass".
type MatrixEqBandTypeCmd struct {
Type *string `arg:"" help:"The type to set for the specified EQ band. If not provided, the current type will be printed." optional:"" enum:"peaking,low_shelf,high_shelf,low_pass,high_pass"`
}
// Run executes the MatrixEqBandTypeCmd command, either retrieving the current type of a specific EQ band on the Matrix output or setting it based on the provided argument.
func (cmd *MatrixEqBandTypeCmd) Run(ctx *context, matrix *MatrixCmdGroup, matrixEq *MatrixEqCmdGroup) error {
if cmd.Type == nil {
resp, err := ctx.Client.Matrix.Eq.Type(matrix.Index.Index, matrixEq.Band.Band)
if err != nil {
return fmt.Errorf("failed to get Matrix EQ band %d type: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d type: %s\n", matrixEq.Band.Band, resp)
return nil
}
if err := ctx.Client.Matrix.Eq.SetType(matrix.Index.Index, matrixEq.Band.Band, *cmd.Type); err != nil {
return fmt.Errorf("failed to set Matrix EQ band %d type: %w", matrixEq.Band.Band, err)
}
fmt.Fprintf(ctx.Out, "Matrix EQ band %d type set to: %s\n", matrixEq.Band.Band, *cmd.Type)
return nil
}
// MatrixCompCmdGroup defines the command group for controlling the compressor settings of the Matrix output, including commands for getting or setting the compressor parameters.
type MatrixCompCmdGroup struct {
On MatrixCompOnCmd `help:"Get or set the compressor on/off state of the Matrix output." cmd:"on"`
Mode MatrixCompModeCmd `help:"Get or set the compressor mode of the Matrix output." cmd:"mode"`
Threshold MatrixCompThresholdCmd `help:"Get or set the compressor threshold of the Matrix output." cmd:"threshold"`
Ratio MatrixCompRatioCmd `help:"Get or set the compressor ratio of the Matrix output." cmd:"ratio"`
Mix MatrixCompMixCmd `help:"Get or set the compressor mix level of the Matrix output." cmd:"mix"`
Makeup MatrixCompMakeupCmd `help:"Get or set the compressor makeup gain of the Matrix output." cmd:"makeup"`
Attack MatrixCompAttackCmd `help:"Get or set the compressor attack time of the Matrix output." cmd:"attack"`
Hold MatrixCompHoldCmd `help:"Get or set the compressor hold time of the Matrix output." cmd:"hold"`
Release MatrixCompReleaseCmd `help:"Get or set the compressor release time of the Matrix output." cmd:"release"`
}
// MatrixCompOnCmd defines the command for getting or setting the compressor on/off state of the Matrix output, allowing users to specify the desired state as "true"/"on" or "false"/"off".
type MatrixCompOnCmd struct {
Enable *string `arg:"" help:"The compressor on/off state to set. If not provided, the current state will be printed." optional:"" enum:"true,false"`
}
// Run executes the MatrixCompOnCmd command, either retrieving the current compressor on/off state of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompOnCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Enable == nil {
resp, err := ctx.Client.Matrix.Comp.On(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor on/off state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor on/off state: %t\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetOn(matrix.Index.Index, *cmd.Enable == "true"); err != nil {
return fmt.Errorf("failed to set Matrix compressor on/off state: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor on/off state set to: %t\n", *cmd.Enable == "true")
return nil
}
// MatrixCompModeCmd defines the command for getting or setting the compressor mode of the Matrix output, allowing users to specify the desired mode as "comp" or "exp".
type MatrixCompModeCmd struct {
Mode *string `arg:"" help:"The compressor mode to set. If not provided, the current mode will be printed." optional:"" enum:"comp,exp"`
}
// Run executes the MatrixCompModeCmd command, either retrieving the current compressor mode of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompModeCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Mode == nil {
resp, err := ctx.Client.Matrix.Comp.Mode(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor mode: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor mode: %s\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetMode(matrix.Index.Index, *cmd.Mode); err != nil {
return fmt.Errorf("failed to set Matrix compressor mode: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor mode set to: %s\n", *cmd.Mode)
return nil
}
// MatrixCompThresholdCmd defines the command for getting or setting the compressor threshold of the Matrix output, allowing users to specify the desired threshold in dB.
type MatrixCompThresholdCmd struct {
Threshold *float64 `arg:"" help:"The compressor threshold to set. If not provided, the current threshold will be printed." optional:""`
}
// Run executes the MatrixCompThresholdCmd command, either retrieving the current compressor threshold of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompThresholdCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Threshold == nil {
resp, err := ctx.Client.Matrix.Comp.Threshold(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor threshold: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor threshold: %.2f dB\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetThreshold(matrix.Index.Index, *cmd.Threshold); err != nil {
return fmt.Errorf("failed to set Matrix compressor threshold: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor threshold set to: %.2f dB\n", *cmd.Threshold)
return nil
}
// MatrixCompRatioCmd defines the command for getting or setting the compressor ratio of the Matrix output, allowing users to specify the desired ratio.
type MatrixCompRatioCmd struct {
Ratio *float64 `arg:"" help:"The compressor ratio to set. If not provided, the current ratio will be printed." optional:""`
}
// Run executes the MatrixCompRatioCmd command, either retrieving the current compressor ratio of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompRatioCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Ratio == nil {
resp, err := ctx.Client.Matrix.Comp.Ratio(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor ratio: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor ratio: %.2f\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetRatio(matrix.Index.Index, *cmd.Ratio); err != nil {
return fmt.Errorf("failed to set Matrix compressor ratio: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor ratio set to: %.2f\n", *cmd.Ratio)
return nil
}
// MatrixCompMixCmd defines the command for getting or setting the compressor mix level of the Matrix output, allowing users to specify the desired mix level in percentage.
type MatrixCompMixCmd struct {
Mix *float64 `arg:"" help:"The compressor mix level to set. If not provided, the current mix level will be printed." optional:""`
}
// Run executes the MatrixCompMixCmd command, either retrieving the current compressor mix level of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompMixCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Mix == nil {
resp, err := ctx.Client.Matrix.Comp.Mix(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor mix level: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor mix level: %.2f%%\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetMix(matrix.Index.Index, *cmd.Mix); err != nil {
return fmt.Errorf("failed to set Matrix compressor mix level: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor mix level set to: %.2f%%\n", *cmd.Mix)
return nil
}
// MatrixCompMakeupCmd defines the command for getting or setting the compressor makeup gain of the Matrix output, allowing users to specify the desired makeup gain in dB.
type MatrixCompMakeupCmd struct {
Makeup *float64 `arg:"" help:"The compressor makeup gain to set. If not provided, the current makeup gain will be printed." optional:""`
}
// Run executes the MatrixCompMakeupCmd command, either retrieving the current compressor makeup gain of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompMakeupCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Makeup == nil {
resp, err := ctx.Client.Matrix.Comp.Makeup(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor makeup gain: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor makeup gain: %.2f dB\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetMakeup(matrix.Index.Index, *cmd.Makeup); err != nil {
return fmt.Errorf("failed to set Matrix compressor makeup gain: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor makeup gain set to: %.2f dB\n", *cmd.Makeup)
return nil
}
// MatrixCompAttackCmd defines the command for getting or setting the compressor attack time of the Matrix output, allowing users to specify the desired attack time in milliseconds.
type MatrixCompAttackCmd struct {
Attack *float64 `arg:"" help:"The compressor attack time to set. If not provided, the current attack time will be printed." optional:""`
}
// Run executes the MatrixCompAttackCmd command, either retrieving the current compressor attack time of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompAttackCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Attack == nil {
resp, err := ctx.Client.Matrix.Comp.Attack(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor attack time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor attack time: %.2f ms\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetAttack(matrix.Index.Index, *cmd.Attack); err != nil {
return fmt.Errorf("failed to set Matrix compressor attack time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor attack time set to: %.2f ms\n", *cmd.Attack)
return nil
}
// MatrixCompHoldCmd defines the command for getting or setting the compressor hold time of the Matrix output, allowing users to specify the desired hold time in milliseconds.
type MatrixCompHoldCmd struct {
Hold *float64 `arg:"" help:"The compressor hold time to set. If not provided, the current hold time will be printed." optional:""`
}
// Run executes the MatrixCompHoldCmd command, either retrieving the current compressor hold time of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompHoldCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Hold == nil {
resp, err := ctx.Client.Matrix.Comp.Hold(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor hold time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor hold time: %.2f ms\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetHold(matrix.Index.Index, *cmd.Hold); err != nil {
return fmt.Errorf("failed to set Matrix compressor hold time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor hold time set to: %.2f ms\n", *cmd.Hold)
return nil
}
// MatrixCompReleaseCmd defines the command for getting or setting the compressor release time of the Matrix output, allowing users to specify the desired release time in milliseconds.
type MatrixCompReleaseCmd struct {
Release *float64 `arg:"" help:"The compressor release time to set. If not provided, the current release time will be printed." optional:""`
}
// Run executes the MatrixCompReleaseCmd command, either retrieving the current compressor release time of the Matrix output or setting it based on the provided argument.
func (cmd *MatrixCompReleaseCmd) Run(ctx *context, matrix *MatrixCmdGroup) error {
if cmd.Release == nil {
resp, err := ctx.Client.Matrix.Comp.Release(matrix.Index.Index)
if err != nil {
return fmt.Errorf("failed to get Matrix compressor release time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor release time: %.2f ms\n", resp)
return nil
}
if err := ctx.Client.Matrix.Comp.SetRelease(matrix.Index.Index, *cmd.Release); err != nil {
return fmt.Errorf("failed to set Matrix compressor release time: %w", err)
}
fmt.Fprintf(ctx.Out, "Matrix compressor release time set to: %.2f ms\n", *cmd.Release)
return nil
}

View File

@ -119,7 +119,6 @@ func connect(config Config) (*xair.XAirClient, error) {
client, err := xair.NewXAirClient( client, err := xair.NewXAirClient(
config.Host, config.Host,
config.Port, config.Port,
xair.WithKind("xair"),
xair.WithTimeout(config.Timeout), xair.WithTimeout(config.Timeout),
) )
if err != nil { if err != nil {

View File

@ -18,9 +18,9 @@ var x32AddressMap = map[string]string{
"snapshot": "/-snap", "snapshot": "/-snap",
} }
func addressMapForMixerKind(kind MixerKind) map[string]string { func addressMapFromMixerKind(kind mixerKind) map[string]string {
switch kind { switch kind {
case KindX32: case kindX32:
return x32AddressMap return x32AddressMap
default: default:
return xairAddressMap return xairAddressMap

View File

@ -9,12 +9,13 @@ type Bus struct {
Comp *Comp Comp *Comp
} }
// newBus creates a new Bus instance
func newBus(c *Client) *Bus { func newBus(c *Client) *Bus {
return &Bus{ return &Bus{
client: c, client: c,
baseAddress: c.addressMap["bus"], baseAddress: c.addressMap["bus"],
Eq: newEqForBus(c), Eq: newEq(c, c.addressMap["bus"]),
Comp: newCompForBus(c), Comp: newComp(c, c.addressMap["bus"]),
} }
} }

View File

@ -2,7 +2,6 @@ package xair
import ( import (
"fmt" "fmt"
"net"
"time" "time"
"github.com/charmbracelet/log" "github.com/charmbracelet/log"
@ -11,9 +10,10 @@ import (
) )
type Client struct { type Client struct {
engine *engine
} }
// XAirClient is a client for controlling XAir mixers
type XAirClient struct { type XAirClient struct {
Client Client
Main *Main Main *Main
@ -23,6 +23,7 @@ type XAirClient struct {
Snapshot *Snapshot Snapshot *Snapshot
} }
// X32Client is a client for controlling X32 mixers
type X32Client struct { type X32Client struct {
Client Client
Main *Main Main *Main
@ -34,50 +35,15 @@ type X32Client struct {
Snapshot *Snapshot Snapshot *Snapshot
} }
func createEngine(mixerIP string, mixerPort int, opts ...Option) (*engine, error) { // NewX32Client creates a new X32Client instance with optional engine configuration
localAddr, err := net.ResolveUDPAddr("udp", fmt.Sprintf(":%d", 0)) func NewX32Client(mixerIP string, mixerPort int, opts ...EngineOption) (*X32Client, error) {
if err != nil { e, err := newEngine(mixerIP, mixerPort, kindX32, opts...)
return nil, fmt.Errorf("failed to resolve local address: %v", err)
}
conn, err := net.ListenUDP("udp", localAddr)
if err != nil {
return nil, fmt.Errorf("failed to create UDP connection: %v", err)
}
mixerAddr, err := net.ResolveUDPAddr("udp", fmt.Sprintf("%s:%d", mixerIP, mixerPort))
if err != nil {
conn.Close()
return nil, fmt.Errorf("failed to resolve mixer address: %v", err)
}
log.Debugf("Local UDP connection: %s ", conn.LocalAddr().String())
e := &engine{
timeout: 100 * time.Millisecond,
conn: conn,
mixerAddr: mixerAddr,
parser: newParser(),
done: make(chan bool),
respChan: make(chan *osc.Message, 100),
}
for _, opt := range opts {
opt(e)
}
return e, nil
}
// NewX32Client creates a new X32Client instance
func NewX32Client(mixerIP string, mixerPort int, opts ...Option) (*X32Client, error) {
e, err := createEngine(mixerIP, mixerPort, opts...)
if err != nil { if err != nil {
return nil, err return nil, err
} }
c := &X32Client{ c := &X32Client{
Client: Client{*e}, Client: Client{e},
} }
c.Main = newMainStereo(&c.Client) c.Main = newMainStereo(&c.Client)
c.MainMono = newMainMono(&c.Client) c.MainMono = newMainMono(&c.Client)
@ -90,15 +56,15 @@ func NewX32Client(mixerIP string, mixerPort int, opts ...Option) (*X32Client, er
return c, nil return c, nil
} }
// NewXAirClient creates a new XAirClient instance // NewXAirClient creates a new XAirClient instance with optional engine configuration
func NewXAirClient(mixerIP string, mixerPort int, opts ...Option) (*XAirClient, error) { func NewXAirClient(mixerIP string, mixerPort int, opts ...EngineOption) (*XAirClient, error) {
e, err := createEngine(mixerIP, mixerPort, opts...) e, err := newEngine(mixerIP, mixerPort, kindXAir, opts...)
if err != nil { if err != nil {
return nil, err return nil, err
} }
c := &XAirClient{ c := &XAirClient{
Client: Client{*e}, Client: Client{e},
} }
c.Main = newMainStereo(&c.Client) c.Main = newMainStereo(&c.Client)
c.Strip = newStrip(&c.Client) c.Strip = newStrip(&c.Client)

View File

@ -2,53 +2,31 @@ package xair
import "fmt" import "fmt"
// Comp represents the compressor parameters.
type Comp struct { type Comp struct {
client *Client client *Client
baseAddress string baseAddress string
AddressFunc func(fmtString string, args ...any) string AddressFunc func(fmtString string, args ...any) string
} }
// Factory function to create Comp instance for Main // Factory function to create Comp instance with optional configuration
func newCompForMain(c *Client) *Comp { func newComp(c *Client, baseAddress string, opts ...CompOption) *Comp {
return &Comp{ comp := &Comp{
client: c, client: c,
baseAddress: c.addressMap["main"], baseAddress: fmt.Sprintf("%s/dyn", baseAddress),
AddressFunc: func(fmtString string, args ...any) string {
return fmtString
},
}
}
// Factory function to create Comp instance for Strip
func newCompForStrip(c *Client) *Comp {
return &Comp{
client: c,
baseAddress: c.addressMap["strip"],
AddressFunc: fmt.Sprintf, AddressFunc: fmt.Sprintf,
} }
for _, opt := range opts {
opt(comp)
} }
// Factory function to create Comp instance for Bus return comp
func newCompForBus(c *Client) *Comp {
return &Comp{
client: c,
baseAddress: c.addressMap["bus"],
AddressFunc: fmt.Sprintf,
}
}
// Factory function to create Comp instance for Matrix
func newCompForMatrix(c *Client) *Comp {
return &Comp{
client: c,
baseAddress: c.addressMap["matrix"],
AddressFunc: fmt.Sprintf,
}
} }
// On retrieves the on/off status of the Compressor for a specific strip or bus (1-based indexing). // On retrieves the on/off status of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) On(index int) (bool, error) { func (c *Comp) On(index int) (bool, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/on" address := c.AddressFunc(c.baseAddress, index) + "/on"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return false, err return false, err
@ -67,7 +45,7 @@ func (c *Comp) On(index int) (bool, error) {
// SetOn sets the on/off status of the Compressor for a specific strip or bus (1-based indexing). // SetOn sets the on/off status of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetOn(index int, on bool) error { func (c *Comp) SetOn(index int, on bool) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/on" address := c.AddressFunc(c.baseAddress, index) + "/on"
var value int32 var value int32
if on { if on {
value = 1 value = 1
@ -77,7 +55,7 @@ func (c *Comp) SetOn(index int, on bool) error {
// Mode retrieves the current mode of the Compressor for a specific strip or bus (1-based indexing). // Mode retrieves the current mode of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Mode(index int) (string, error) { func (c *Comp) Mode(index int) (string, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mode" address := c.AddressFunc(c.baseAddress, index) + "/mode"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return "", err return "", err
@ -98,14 +76,14 @@ func (c *Comp) Mode(index int) (string, error) {
// SetMode sets the mode of the Compressor for a specific strip or bus (1-based indexing). // SetMode sets the mode of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetMode(index int, mode string) error { func (c *Comp) SetMode(index int, mode string) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mode" address := c.AddressFunc(c.baseAddress, index) + "/mode"
possibleModes := []string{"comp", "exp"} possibleModes := []string{"comp", "exp"}
return c.client.SendMessage(address, int32(indexOf(possibleModes, mode))) return c.client.SendMessage(address, int32(indexOf(possibleModes, mode)))
} }
// Threshold retrieves the threshold value of the Compressor for a specific strip or bus (1-based indexing). // Threshold retrieves the threshold value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Threshold(index int) (float64, error) { func (c *Comp) Threshold(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/thr" address := c.AddressFunc(c.baseAddress, index) + "/thr"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -124,13 +102,13 @@ func (c *Comp) Threshold(index int) (float64, error) {
// SetThreshold sets the threshold value of the Compressor for a specific strip or bus (1-based indexing). // SetThreshold sets the threshold value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetThreshold(index int, threshold float64) error { func (c *Comp) SetThreshold(index int, threshold float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/thr" address := c.AddressFunc(c.baseAddress, index) + "/thr"
return c.client.SendMessage(address, float32(linSet(-60, 0, threshold))) return c.client.SendMessage(address, float32(linSet(-60, 0, threshold)))
} }
// Ratio retrieves the ratio value of the Compressor for a specific strip or bus (1-based indexing). // Ratio retrieves the ratio value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Ratio(index int) (float32, error) { func (c *Comp) Ratio(index int) (float32, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/ratio" address := c.AddressFunc(c.baseAddress, index) + "/ratio"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -152,7 +130,7 @@ func (c *Comp) Ratio(index int) (float32, error) {
// SetRatio sets the ratio value of the Compressor for a specific strip or bus (1-based indexing). // SetRatio sets the ratio value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetRatio(index int, ratio float64) error { func (c *Comp) SetRatio(index int, ratio float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/ratio" address := c.AddressFunc(c.baseAddress, index) + "/ratio"
possibleValues := []float32{1.1, 1.3, 1.5, 2.0, 2.5, 3.0, 4.0, 5.0, 7.0, 10, 20, 100} possibleValues := []float32{1.1, 1.3, 1.5, 2.0, 2.5, 3.0, 4.0, 5.0, 7.0, 10, 20, 100}
return c.client.SendMessage(address, int32(indexOf(possibleValues, float32(ratio)))) return c.client.SendMessage(address, int32(indexOf(possibleValues, float32(ratio))))
@ -160,7 +138,7 @@ func (c *Comp) SetRatio(index int, ratio float64) error {
// Attack retrieves the attack time of the Compressor for a specific strip or bus (1-based indexing). // Attack retrieves the attack time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Attack(index int) (float64, error) { func (c *Comp) Attack(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/attack" address := c.AddressFunc(c.baseAddress, index) + "/attack"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -179,13 +157,13 @@ func (c *Comp) Attack(index int) (float64, error) {
// SetAttack sets the attack time of the Compressor for a specific strip or bus (1-based indexing). // SetAttack sets the attack time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetAttack(index int, attack float64) error { func (c *Comp) SetAttack(index int, attack float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/attack" address := c.AddressFunc(c.baseAddress, index) + "/attack"
return c.client.SendMessage(address, float32(linSet(0, 120, attack))) return c.client.SendMessage(address, float32(linSet(0, 120, attack)))
} }
// Hold retrieves the hold time of the Compressor for a specific strip or bus (1-based indexing). // Hold retrieves the hold time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Hold(index int) (float64, error) { func (c *Comp) Hold(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/hold" address := c.AddressFunc(c.baseAddress, index) + "/hold"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -204,13 +182,13 @@ func (c *Comp) Hold(index int) (float64, error) {
// SetHold sets the hold time of the Compressor for a specific strip or bus (1-based indexing). // SetHold sets the hold time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetHold(index int, hold float64) error { func (c *Comp) SetHold(index int, hold float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/hold" address := c.AddressFunc(c.baseAddress, index) + "/hold"
return c.client.SendMessage(address, float32(logSet(0.02, 2000, hold))) return c.client.SendMessage(address, float32(logSet(0.02, 2000, hold)))
} }
// Release retrieves the release time of the Compressor for a specific strip or bus (1-based indexing). // Release retrieves the release time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Release(index int) (float64, error) { func (c *Comp) Release(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/release" address := c.AddressFunc(c.baseAddress, index) + "/release"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -229,13 +207,13 @@ func (c *Comp) Release(index int) (float64, error) {
// SetRelease sets the release time of the Compressor for a specific strip or bus (1-based indexing). // SetRelease sets the release time of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetRelease(index int, release float64) error { func (c *Comp) SetRelease(index int, release float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/release" address := c.AddressFunc(c.baseAddress, index) + "/release"
return c.client.SendMessage(address, float32(logSet(4, 4000, release))) return c.client.SendMessage(address, float32(logSet(4, 4000, release)))
} }
// Makeup retrieves the makeup gain of the Compressor for a specific strip or bus (1-based indexing). // Makeup retrieves the makeup gain of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Makeup(index int) (float64, error) { func (c *Comp) Makeup(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mgain" address := c.AddressFunc(c.baseAddress, index) + "/mgain"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -254,13 +232,13 @@ func (c *Comp) Makeup(index int) (float64, error) {
// SetMakeup sets the makeup gain of the Compressor for a specific strip or bus (1-based indexing). // SetMakeup sets the makeup gain of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetMakeup(index int, makeup float64) error { func (c *Comp) SetMakeup(index int, makeup float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mgain" address := c.AddressFunc(c.baseAddress, index) + "/mgain"
return c.client.SendMessage(address, float32(linSet(0, 24, makeup))) return c.client.SendMessage(address, float32(linSet(0, 24, makeup)))
} }
// Mix retrieves the mix value of the Compressor for a specific strip or bus (1-based indexing). // Mix retrieves the mix value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) Mix(index int) (float64, error) { func (c *Comp) Mix(index int) (float64, error) {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mix" address := c.AddressFunc(c.baseAddress, index) + "/mix"
err := c.client.SendMessage(address) err := c.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -279,6 +257,6 @@ func (c *Comp) Mix(index int) (float64, error) {
// SetMix sets the mix value of the Compressor for a specific strip or bus (1-based indexing). // SetMix sets the mix value of the Compressor for a specific strip or bus (1-based indexing).
func (c *Comp) SetMix(index int, mix float64) error { func (c *Comp) SetMix(index int, mix float64) error {
address := c.AddressFunc(c.baseAddress, index) + "/dyn/mix" address := c.AddressFunc(c.baseAddress, index) + "/mix"
return c.client.SendMessage(address, float32(linSet(0, 100, mix))) return c.client.SendMessage(address, float32(linSet(0, 100, mix)))
} }

View File

@ -14,7 +14,7 @@ type parser interface {
} }
type engine struct { type engine struct {
Kind MixerKind Kind mixerKind
timeout time.Duration timeout time.Duration
conn *net.UDPConn conn *net.UDPConn
mixerAddr *net.UDPAddr mixerAddr *net.UDPAddr
@ -26,6 +26,42 @@ type engine struct {
respChan chan *osc.Message respChan chan *osc.Message
} }
func newEngine(mixerIP string, mixerPort int, kind mixerKind, opts ...EngineOption) (*engine, error) {
localAddr, err := net.ResolveUDPAddr("udp", fmt.Sprintf(":%d", 0))
if err != nil {
return nil, fmt.Errorf("failed to resolve local address: %v", err)
}
conn, err := net.ListenUDP("udp", localAddr)
if err != nil {
return nil, fmt.Errorf("failed to create UDP connection: %v", err)
}
mixerAddr, err := net.ResolveUDPAddr("udp", fmt.Sprintf("%s:%d", mixerIP, mixerPort))
if err != nil {
conn.Close()
return nil, fmt.Errorf("failed to resolve mixer address: %v", err)
}
log.Debugf("Local UDP connection: %s ", conn.LocalAddr().String())
e := &engine{
timeout: 100 * time.Millisecond,
conn: conn,
mixerAddr: mixerAddr,
parser: newParser(),
addressMap: addressMapFromMixerKind(kind),
done: make(chan bool),
respChan: make(chan *osc.Message, 100),
}
for _, opt := range opts {
opt(e)
}
return e, nil
}
// receiveLoop handles incoming OSC messages // receiveLoop handles incoming OSC messages
func (e *engine) receiveLoop() { func (e *engine) receiveLoop() {
buffer := make([]byte, 4096) buffer := make([]byte, 4096)

View File

@ -4,53 +4,31 @@ import (
"fmt" "fmt"
) )
// Eq represents the EQ parameters.
type Eq struct { type Eq struct {
client *Client client *Client
baseAddress string baseAddress string
AddressFunc func(fmtString string, args ...any) string AddressFunc func(fmtString string, args ...any) string
} }
// Factory function to create Eq instance for Main // Factory function to create Eq instance with optional configuration
func newEqForMain(c *Client) *Eq { func newEq(c *Client, baseAddress string, opts ...EqOption) *Eq {
return &Eq{ eq := &Eq{
client: c, client: c,
baseAddress: c.addressMap["main"], baseAddress: fmt.Sprintf("%s/eq", baseAddress),
AddressFunc: func(fmtString string, args ...any) string {
return fmtString
},
}
}
// Factory function to create Eq instance for Strip
func newEqForStrip(c *Client) *Eq {
return &Eq{
client: c,
baseAddress: c.addressMap["strip"],
AddressFunc: fmt.Sprintf, AddressFunc: fmt.Sprintf,
} }
for _, opt := range opts {
opt(eq)
} }
// Factory function to create Eq instance for Bus return eq
func newEqForBus(c *Client) *Eq {
return &Eq{
client: c,
baseAddress: c.addressMap["bus"],
AddressFunc: fmt.Sprintf,
}
}
// Factory function to create Eq instance for Matrix
func newEqForMatrix(c *Client) *Eq {
return &Eq{
client: c,
baseAddress: c.addressMap["matrix"],
AddressFunc: fmt.Sprintf,
}
} }
// On retrieves the on/off status of the EQ for a specific strip or bus (1-based indexing). // On retrieves the on/off status of the EQ for a specific strip or bus (1-based indexing).
func (e *Eq) On(index int) (bool, error) { func (e *Eq) On(index int) (bool, error) {
address := e.AddressFunc(e.baseAddress, index) + "/eq/on" address := e.AddressFunc(e.baseAddress, index) + "/on"
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return false, err return false, err
@ -69,7 +47,7 @@ func (e *Eq) On(index int) (bool, error) {
// SetOn sets the on/off status of the EQ for a specific strip or bus (1-based indexing). // SetOn sets the on/off status of the EQ for a specific strip or bus (1-based indexing).
func (e *Eq) SetOn(index int, on bool) error { func (e *Eq) SetOn(index int, on bool) error {
address := e.AddressFunc(e.baseAddress, index) + "/eq/on" address := e.AddressFunc(e.baseAddress, index) + "/on"
var value int32 var value int32
if on { if on {
value = 1 value = 1
@ -78,7 +56,7 @@ func (e *Eq) SetOn(index int, on bool) error {
} }
func (e *Eq) Mode(index int) (string, error) { func (e *Eq) Mode(index int) (string, error) {
address := e.AddressFunc(e.baseAddress, index) + "/eq/mode" address := e.AddressFunc(e.baseAddress, index) + "/mode"
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return "", err return "", err
@ -98,14 +76,14 @@ func (e *Eq) Mode(index int) (string, error) {
} }
func (e *Eq) SetMode(index int, mode string) error { func (e *Eq) SetMode(index int, mode string) error {
address := e.AddressFunc(e.baseAddress, index) + "/eq/mode" address := e.AddressFunc(e.baseAddress, index) + "/mode"
possibleModes := []string{"peq", "geq", "teq"} possibleModes := []string{"peq", "geq", "teq"}
return e.client.SendMessage(address, int32(indexOf(possibleModes, mode))) return e.client.SendMessage(address, int32(indexOf(possibleModes, mode)))
} }
// Gain retrieves the gain for a specific EQ band on a strip or bus (1-based indexing). // Gain retrieves the gain for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) Gain(index int, band int) (float64, error) { func (e *Eq) Gain(index int, band int) (float64, error) {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/g", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/g", band)
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -124,13 +102,13 @@ func (e *Eq) Gain(index int, band int) (float64, error) {
// SetGain sets the gain for a specific EQ band on a strip or bus (1-based indexing). // SetGain sets the gain for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) SetGain(index int, band int, gain float64) error { func (e *Eq) SetGain(index int, band int, gain float64) error {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/g", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/g", band)
return e.client.SendMessage(address, float32(linSet(-15, 15, gain))) return e.client.SendMessage(address, float32(linSet(-15, 15, gain)))
} }
// Frequency retrieves the frequency for a specific EQ band on a strip or bus (1-based indexing). // Frequency retrieves the frequency for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) Frequency(index int, band int) (float64, error) { func (e *Eq) Frequency(index int, band int) (float64, error) {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/f", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/f", band)
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -149,13 +127,13 @@ func (e *Eq) Frequency(index int, band int) (float64, error) {
// SetFrequency sets the frequency for a specific EQ band on a strip or bus (1-based indexing). // SetFrequency sets the frequency for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) SetFrequency(index int, band int, frequency float64) error { func (e *Eq) SetFrequency(index int, band int, frequency float64) error {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/f", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/f", band)
return e.client.SendMessage(address, float32(logSet(20, 20000, frequency))) return e.client.SendMessage(address, float32(logSet(20, 20000, frequency)))
} }
// Q retrieves the Q factor for a specific EQ band on a strip or bus (1-based indexing). // Q retrieves the Q factor for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) Q(index int, band int) (float64, error) { func (e *Eq) Q(index int, band int) (float64, error) {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/q", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/q", band)
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -174,13 +152,13 @@ func (e *Eq) Q(index int, band int) (float64, error) {
// SetQ sets the Q factor for a specific EQ band on a strip or bus (1-based indexing). // SetQ sets the Q factor for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) SetQ(index int, band int, q float64) error { func (e *Eq) SetQ(index int, band int, q float64) error {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/q", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/q", band)
return e.client.SendMessage(address, float32(1.0-logSet(0.3, 10, q))) return e.client.SendMessage(address, float32(1.0-logSet(0.3, 10, q)))
} }
// Type retrieves the type for a specific EQ band on a strip or bus (1-based indexing). // Type retrieves the type for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) Type(index int, band int) (string, error) { func (e *Eq) Type(index int, band int) (string, error) {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/type", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/type", band)
err := e.client.SendMessage(address) err := e.client.SendMessage(address)
if err != nil { if err != nil {
return "", err return "", err
@ -201,7 +179,7 @@ func (e *Eq) Type(index int, band int) (string, error) {
// SetType sets the type for a specific EQ band on a strip or bus (1-based indexing). // SetType sets the type for a specific EQ band on a strip or bus (1-based indexing).
func (e *Eq) SetType(index int, band int, eqType string) error { func (e *Eq) SetType(index int, band int, eqType string) error {
address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/eq/%d/type", band) address := e.AddressFunc(e.baseAddress, index) + fmt.Sprintf("/%d/type", band)
possibleTypes := []string{"lcut", "lshv", "peq", "veq", "hshv", "hcut"} possibleTypes := []string{"lcut", "lshv", "peq", "veq", "hshv", "hcut"}
return e.client.SendMessage(address, int32(indexOf(possibleTypes, eqType))) return e.client.SendMessage(address, int32(indexOf(possibleTypes, eqType)))
} }

View File

@ -2,22 +2,31 @@ package xair
import "fmt" import "fmt"
// Gate represents the gate parameters.
type Gate struct { type Gate struct {
client *Client client *Client
baseAddress string baseAddress string
AddressFunc func(fmtString string, args ...any) string
} }
// Factory function to create Gate instance for Strip // Factory function to create Gate instance with optional configuration
func newGateForStrip(c *Client) *Gate { func newGate(c *Client, baseAddress string, opts ...GateOption) *Gate {
return &Gate{ gate := &Gate{
client: c, client: c,
baseAddress: c.addressMap["strip"], baseAddress: fmt.Sprintf("%s/gate", baseAddress),
AddressFunc: fmt.Sprintf,
} }
for _, opt := range opts {
opt(gate)
}
return gate
} }
// On retrieves the on/off status of the Gate for a specific strip (1-based indexing). // On retrieves the on/off status of the Gate for a specific strip (1-based indexing).
func (g *Gate) On(index int) (bool, error) { func (g *Gate) On(index int) (bool, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/on" address := g.AddressFunc(g.baseAddress, index) + "/on"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return false, err return false, err
@ -36,7 +45,7 @@ func (g *Gate) On(index int) (bool, error) {
// SetOn sets the on/off status of the Gate for a specific strip (1-based indexing). // SetOn sets the on/off status of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetOn(index int, on bool) error { func (g *Gate) SetOn(index int, on bool) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/on" address := g.AddressFunc(g.baseAddress, index) + "/on"
var value int32 var value int32
if on { if on {
value = 1 value = 1
@ -46,7 +55,7 @@ func (g *Gate) SetOn(index int, on bool) error {
// Mode retrieves the current mode of the Gate for a specific strip (1-based indexing). // Mode retrieves the current mode of the Gate for a specific strip (1-based indexing).
func (g *Gate) Mode(index int) (string, error) { func (g *Gate) Mode(index int) (string, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/mode" address := g.AddressFunc(g.baseAddress, index) + "/mode"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return "", err return "", err
@ -67,7 +76,7 @@ func (g *Gate) Mode(index int) (string, error) {
// SetMode sets the mode of the Gate for a specific strip (1-based indexing). // SetMode sets the mode of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetMode(index int, mode string) error { func (g *Gate) SetMode(index int, mode string) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/mode" address := g.AddressFunc(g.baseAddress, index) + "/mode"
possibleModes := []string{"exp2", "exp3", "exp4", "gate", "duck"} possibleModes := []string{"exp2", "exp3", "exp4", "gate", "duck"}
return g.client.SendMessage(address, int32(indexOf(possibleModes, mode))) return g.client.SendMessage(address, int32(indexOf(possibleModes, mode)))
@ -75,7 +84,7 @@ func (g *Gate) SetMode(index int, mode string) error {
// Threshold retrieves the threshold value of the Gate for a specific strip (1-based indexing). // Threshold retrieves the threshold value of the Gate for a specific strip (1-based indexing).
func (g *Gate) Threshold(index int) (float64, error) { func (g *Gate) Threshold(index int) (float64, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/thr" address := g.AddressFunc(g.baseAddress, index) + "/thr"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -94,13 +103,13 @@ func (g *Gate) Threshold(index int) (float64, error) {
// SetThreshold sets the threshold value of the Gate for a specific strip (1-based indexing). // SetThreshold sets the threshold value of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetThreshold(index int, threshold float64) error { func (g *Gate) SetThreshold(index int, threshold float64) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/thr" address := g.AddressFunc(g.baseAddress, index) + "/thr"
return g.client.SendMessage(address, float32(linSet(-80, 0, threshold))) return g.client.SendMessage(address, float32(linSet(-80, 0, threshold)))
} }
// Range retrieves the range value of the Gate for a specific strip (1-based indexing). // Range retrieves the range value of the Gate for a specific strip (1-based indexing).
func (g *Gate) Range(index int) (float64, error) { func (g *Gate) Range(index int) (float64, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/range" address := g.AddressFunc(g.baseAddress, index) + "/range"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -119,13 +128,13 @@ func (g *Gate) Range(index int) (float64, error) {
// SetRange sets the range value of the Gate for a specific strip (1-based indexing). // SetRange sets the range value of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetRange(index int, rangeVal float64) error { func (g *Gate) SetRange(index int, rangeVal float64) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/range" address := g.AddressFunc(g.baseAddress, index) + "/range"
return g.client.SendMessage(address, float32(linSet(3, 60, rangeVal))) return g.client.SendMessage(address, float32(linSet(3, 60, rangeVal)))
} }
// Attack retrieves the attack time of the Gate for a specific strip (1-based indexing). // Attack retrieves the attack time of the Gate for a specific strip (1-based indexing).
func (g *Gate) Attack(index int) (float64, error) { func (g *Gate) Attack(index int) (float64, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/attack" address := g.AddressFunc(g.baseAddress, index) + "/attack"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -144,13 +153,13 @@ func (g *Gate) Attack(index int) (float64, error) {
// SetAttack sets the attack time of the Gate for a specific strip (1-based indexing). // SetAttack sets the attack time of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetAttack(index int, attack float64) error { func (g *Gate) SetAttack(index int, attack float64) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/attack" address := g.AddressFunc(g.baseAddress, index) + "/attack"
return g.client.SendMessage(address, float32(linSet(0, 120, attack))) return g.client.SendMessage(address, float32(linSet(0, 120, attack)))
} }
// Hold retrieves the hold time of the Gate for a specific strip (1-based indexing). // Hold retrieves the hold time of the Gate for a specific strip (1-based indexing).
func (g *Gate) Hold(index int) (float64, error) { func (g *Gate) Hold(index int) (float64, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/hold" address := g.AddressFunc(g.baseAddress, index) + "/hold"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -169,13 +178,13 @@ func (g *Gate) Hold(index int) (float64, error) {
// SetHold sets the hold time of the Gate for a specific strip (1-based indexing). // SetHold sets the hold time of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetHold(index int, hold float64) error { func (g *Gate) SetHold(index int, hold float64) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/hold" address := g.AddressFunc(g.baseAddress, index) + "/hold"
return g.client.SendMessage(address, float32(logSet(0.02, 2000, hold))) return g.client.SendMessage(address, float32(logSet(0.02, 2000, hold)))
} }
// Release retrieves the release time of the Gate for a specific strip (1-based indexing). // Release retrieves the release time of the Gate for a specific strip (1-based indexing).
func (g *Gate) Release(index int) (float64, error) { func (g *Gate) Release(index int) (float64, error) {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/release" address := g.AddressFunc(g.baseAddress, index) + "/release"
err := g.client.SendMessage(address) err := g.client.SendMessage(address)
if err != nil { if err != nil {
return 0, err return 0, err
@ -194,6 +203,6 @@ func (g *Gate) Release(index int) (float64, error) {
// SetRelease sets the release time of the Gate for a specific strip (1-based indexing). // SetRelease sets the release time of the Gate for a specific strip (1-based indexing).
func (g *Gate) SetRelease(index int, release float64) error { func (g *Gate) SetRelease(index int, release float64) error {
address := fmt.Sprintf(g.baseAddress, index) + "/gate/release" address := g.AddressFunc(g.baseAddress, index) + "/release"
return g.client.SendMessage(address, float32(logSet(5, 4000, release))) return g.client.SendMessage(address, float32(logSet(5, 4000, release)))
} }

View File

@ -1,8 +1,8 @@
package xair package xair
type MixerKind string type mixerKind string
const ( const (
KindXAir MixerKind = "xair" kindXAir mixerKind = "xair"
KindX32 MixerKind = "x32" kindX32 mixerKind = "x32"
) )

View File

@ -11,19 +11,29 @@ type Main struct {
// newMainStereo creates a new Main instance for stereo main output // newMainStereo creates a new Main instance for stereo main output
func newMainStereo(c *Client) *Main { func newMainStereo(c *Client) *Main {
addressFunc := func(fmtString string, args ...any) string {
return fmtString
}
return &Main{ return &Main{
client: c, client: c,
baseAddress: c.addressMap["main"], baseAddress: c.addressMap["main"],
Eq: newEqForMain(c), Eq: newEq(c, c.addressMap["main"], WithEqAddressFunc(addressFunc)),
Comp: newCompForMain(c), Comp: newComp(c, c.addressMap["main"], WithCompAddressFunc(addressFunc)),
} }
} }
// newMainMono creates a new MainMono instance for mono main output (X32 only) // newMainMono creates a new MainMono instance for mono main output (X32 only)
func newMainMono(c *Client) *Main { func newMainMono(c *Client) *Main {
addressFunc := func(fmtString string, args ...any) string {
return fmtString
}
return &Main{ return &Main{
baseAddress: c.addressMap["mainmono"], baseAddress: c.addressMap["mainmono"],
client: c, client: c,
Eq: newEq(c, c.addressMap["mainmono"], WithEqAddressFunc(addressFunc)),
Comp: newComp(c, c.addressMap["mainmono"], WithCompAddressFunc(addressFunc)),
} }
} }

View File

@ -14,8 +14,8 @@ func newMatrix(c *Client) *Matrix {
return &Matrix{ return &Matrix{
client: c, client: c,
baseAddress: c.addressMap["matrix"], baseAddress: c.addressMap["matrix"],
Eq: newEqForMatrix(c), Eq: newEq(c, c.addressMap["matrix"]),
Comp: newCompForMatrix(c), Comp: newComp(c, c.addressMap["matrix"]),
} }
} }

View File

@ -2,17 +2,38 @@ package xair
import "time" import "time"
type Option func(*engine) type EngineOption func(*engine)
func WithKind(kind string) Option { // WithTimeout sets the timeout duration for OSC message responses
return func(e *engine) { func WithTimeout(timeout time.Duration) EngineOption {
e.Kind = MixerKind(kind)
e.addressMap = addressMapForMixerKind(e.Kind)
}
}
func WithTimeout(timeout time.Duration) Option {
return func(e *engine) { return func(e *engine) {
e.timeout = timeout e.timeout = timeout
} }
} }
type CompOption func(*Comp)
// WithCompAddressFunc allows customization of the OSC address formatting for Comp parameters
func WithCompAddressFunc(f func(fmtString string, args ...any) string) CompOption {
return func(c *Comp) {
c.AddressFunc = f
}
}
type EqOption func(*Eq)
// WithEqAddressFunc allows customization of the OSC address formatting for Eq parameters
func WithEqAddressFunc(f func(fmtString string, args ...any) string) EqOption {
return func(e *Eq) {
e.AddressFunc = f
}
}
type GateOption func(*Gate)
// WithGateAddressFunc allows customization of the OSC address formatting for Gate parameters
func WithGateAddressFunc(f func(fmtString string, args ...any) string) GateOption {
return func(g *Gate) {
g.AddressFunc = f
}
}

View File

@ -7,6 +7,7 @@ type Snapshot struct {
baseAddress string baseAddress string
} }
// newSnapshot creates a new Snapshot instance
func newSnapshot(c *Client) *Snapshot { func newSnapshot(c *Client) *Snapshot {
return &Snapshot{ return &Snapshot{
client: c, client: c,

View File

@ -10,13 +10,14 @@ type Strip struct {
Comp *Comp Comp *Comp
} }
// newStrip creates a new Strip instance
func newStrip(c *Client) *Strip { func newStrip(c *Client) *Strip {
return &Strip{ return &Strip{
client: c, client: c,
baseAddress: c.addressMap["strip"], baseAddress: c.addressMap["strip"],
Gate: newGateForStrip(c), Gate: newGate(c, c.addressMap["strip"]),
Eq: newEqForStrip(c), Eq: newEq(c, c.addressMap["strip"]),
Comp: newCompForStrip(c), Comp: newComp(c, c.addressMap["strip"]),
} }
} }