public static void ApplyBindingOverride(this InputAction action, int bindingIndex, InputBinding bindingOverride)
{
if (action == null)
{
throw new ArgumentNullException(nameof(action));
}
var indexOnMap = action.BindingIndexOnActionToBindingIndexOnMap(bindingIndex);
bindingOverride.action = action.name;
ApplyBindingOverride(action.GetOrCreateActionMap(), indexOnMap, bindingOverride);
}
private void SetUpBindingArrayForEachAction()
{
// Handle case where we don't have any bindings.
if (m_Bindings == null)
{
return;
}
if (m_SingletonAction != null)
{
// Dead simple case: map is internally owned by action. The entire
// list of bindings is specific to the action.
Debug.Assert(m_Bindings == m_SingletonAction.m_SingletonActionBindings);
m_BindingsForEachAction = m_Bindings;
m_ActionForEachBinding = null; // No point in having this for singleton actions.
m_SingletonAction.m_BindingsStartIndex = 0;
m_SingletonAction.m_BindingsCount = m_Bindings.Length;
}
else
{
// Go through all bindings and slice them out to individual actions.
Debug.Assert(m_Actions != null); // Action isn't a singleton so this has to be true.
// Allocate array to retain resolved actions, if need be.
var totalBindingsCount = m_Bindings.Length;
if (m_ActionForEachBinding == null || m_ActionForEachBinding.Length != totalBindingsCount)
{
m_ActionForEachBinding = new InputAction[totalBindingsCount];
}
// Reset state on each action. Important we have actions that are no longer
// referred to by bindings.
for (var i = 0; i < m_Actions.Length; ++i)
{
m_Actions[i].m_BindingsCount = 0;
m_Actions[i].m_BindingsStartIndex = 0;
}
// Collect actions and count bindings.
// After this loop, we can have one of two situations:
// 1) The bindings for any action X start at some index N and occupy the next m_BindingsCount slots.
// 2) The bindings for some or all actions are scattered across non-contiguous chunks of the array.
for (var i = 0; i < m_Bindings.Length; ++i)
{
// Look up action.
var actionForBinding = TryGetAction(m_Bindings[i].action);
m_ActionForEachBinding[i] = actionForBinding;
if (actionForBinding == null)
{
continue;
}
++actionForBinding.m_BindingsCount;
}
// Collect the bindings and bundle them into chunks.
var newBindingsArrayIndex = 0;
InputBinding[] newBindingsArray = null;
for (var sourceBindingIndex = 0; sourceBindingIndex < m_Bindings.Length;)
{
var currentAction = m_ActionForEachBinding[sourceBindingIndex];
if (currentAction == null || currentAction.m_BindingsStartIndex != 0)
{
// Skip bindings not targeting an action or bindings whose actions we
// have already processed (when gathering bindings for a single actions scattered
// across the array we may be skipping ahead).
++sourceBindingIndex;
continue;
}
// Bindings for current action start at current index.
currentAction.m_BindingsStartIndex = newBindingsArray != null
? newBindingsArrayIndex
: sourceBindingIndex;
// Collect all bindings for the action.
var bindingCountForCurrentAction = currentAction.m_BindingsCount;
var sourceBindingToCopy = sourceBindingIndex;
for (var i = 0; i < bindingCountForCurrentAction; ++i)
{
if (m_ActionForEachBinding[sourceBindingToCopy] != currentAction)
{
// If this is the first action that has its bindings scattered around, switch to
// having a separate bindings array and copy whatever bindings we already processed
// over to it.
if (newBindingsArray == null)
{
newBindingsArray = new InputBinding[totalBindingsCount];
newBindingsArrayIndex = sourceBindingToCopy;
Array.Copy(m_Bindings, 0, newBindingsArray, 0, sourceBindingToCopy);
}
// Find the next binding belonging to the action. We've counted bindings for
// the action in the previous pass so we know exactly how many bindings we
// can expect.
do
{
++sourceBindingToCopy;
Debug.Assert(sourceBindingToCopy < m_ActionForEachBinding.Length);
}while (m_ActionForEachBinding[sourceBindingToCopy] != currentAction);
}
else if (sourceBindingIndex == sourceBindingToCopy)
{
++sourceBindingIndex;
}
// Copy binding over to new bindings array, if need be.
if (newBindingsArray != null)
{
newBindingsArray[newBindingsArrayIndex++] = m_Bindings[sourceBindingToCopy];
}
++sourceBindingToCopy;
}
}
if (newBindingsArray == null)
{
// Bindings are already clustered by action in m_Bindings
// so we can just stick to having one array only.
m_BindingsForEachAction = m_Bindings;
}
else
{
// Bindings are not clustered by action in m_Bindings so
// we had to allocate a separate array where the bindings are sorted.
m_BindingsForEachAction = newBindingsArray;
}
}
}
/// <summary>
/// Collect data from <see cref="m_Bindings"/> and <see cref="m_Actions"/> such that we can
/// we can cleanly expose it from <see cref="InputAction.bindings"/> and <see cref="InputAction.controls"/>.
/// </summary>
/// <remarks>
/// We set up per-action caches the first time their information is requested. Internally, we do not
/// use those arrays and thus they will not get set up by default.
///
/// Note that it is important to allow to call this method at a point where we have not resolved
/// controls yet (i.e. <see cref="m_State"/> is <c>null</c>). Otherwise, using <see cref="InputAction.bindings"/>
/// may trigger a control resolution which would be surprising.
/// </remarks>
private void SetUpPerActionCachedBindingData()
{
// Handle case where we don't have any bindings.
if (m_Bindings == null)
{
return;
}
if (m_SingletonAction != null)
{
// Dead simple case: map is internally owned by action. The entire
// list of bindings is specific to the action.
Debug.Assert(m_Bindings == m_SingletonAction.m_SingletonActionBindings);
m_BindingsForEachAction = m_Bindings;
m_ControlsForEachAction = m_State != null ? m_State.controls : null;
m_SingletonAction.m_BindingsStartIndex = 0;
m_SingletonAction.m_BindingsCount = m_Bindings.Length;
m_SingletonAction.m_ControlStartIndex = 0;
m_SingletonAction.m_ControlCount = m_State != null ? m_State.totalControlCount : 0;
}
else
{
// Go through all bindings and slice them out to individual actions.
Debug.Assert(m_Actions != null); // Action isn't a singleton so this has to be true.
var mapIndices = m_State != null
? m_State.FetchMapIndices(this)
: new InputActionMapState.ActionMapIndices();
// Reset state on each action. Important if we have actions that are no longer
// referred to by bindings.
for (var i = 0; i < m_Actions.Length; ++i)
{
var action = m_Actions[i];
action.m_BindingsCount = 0;
action.m_BindingsStartIndex = -1;
action.m_ControlCount = 0;
action.m_ControlStartIndex = -1;
}
// Count bindings on each action.
// After this loop, we can have one of two situations:
// 1) The bindings for any action X start at some index N and occupy the next m_BindingsCount slots.
// 2) The bindings for some or all actions are scattered across non-contiguous chunks of the array.
var bindingCount = m_Bindings.Length;
for (var i = 0; i < bindingCount; ++i)
{
var action = TryGetAction(m_Bindings[i].action);
if (action != null)
{
++action.m_BindingsCount;
}
}
// Collect the bindings and controls and bundle them into chunks.
var newBindingsArrayIndex = 0;
if (m_State != null && (m_ControlsForEachAction == null || m_ControlsForEachAction.Length != mapIndices.controlCount))
{
if (mapIndices.controlCount == 0)
{
m_ControlsForEachAction = null;
}
else
{
m_ControlsForEachAction = new InputControl[mapIndices.controlCount];
}
}
InputBinding[] newBindingsArray = null;
var currentControlIndex = 0;
for (var currentBindingIndex = 0; currentBindingIndex < m_Bindings.Length;)
{
var currentAction = TryGetAction(m_Bindings[currentBindingIndex].action);
if (currentAction == null || currentAction.m_BindingsStartIndex != -1)
{
// Skip bindings not targeting an action or bindings we have already processed
// (when gathering bindings for a single actions scattered across the array we may have
// skipping ahead).
++currentBindingIndex;
continue;
}
// Bindings for current action start at current index.
currentAction.m_BindingsStartIndex = newBindingsArray != null
? newBindingsArrayIndex
: currentBindingIndex;
currentAction.m_ControlStartIndex = currentControlIndex;
// Collect all bindings for the action. As part of that, also copy the controls
// for each binding over to m_ControlsForEachAction.
var bindingCountForCurrentAction = currentAction.m_BindingsCount;
Debug.Assert(bindingCountForCurrentAction > 0);
var sourceBindingToCopy = currentBindingIndex;
for (var i = 0; i < bindingCountForCurrentAction; ++i)
{
// See if we've come across a binding that isn't belong to our currently looked at action.
if (TryGetAction(m_Bindings[sourceBindingToCopy].action) != currentAction)
{
// Yes, we have. Means the bindings for our actions are scattered in m_Bindings and
// we need to collect them.
// If this is the first action that has its bindings scattered around, switch to
// having a separate bindings array and copy whatever bindings we already processed
// over to it.
if (newBindingsArray == null)
{
newBindingsArray = new InputBinding[mapIndices.bindingCount];
newBindingsArrayIndex = sourceBindingToCopy;
Array.Copy(m_Bindings, 0, newBindingsArray, 0, sourceBindingToCopy);
}
// Find the next binding belonging to the action. We've counted bindings for
// the action in the previous pass so we know exactly how many bindings we
// can expect.
do
{
++sourceBindingToCopy;
Debug.Assert(sourceBindingToCopy < mapIndices.bindingCount);
}while (TryGetAction(m_Bindings[sourceBindingToCopy].action) != currentAction);
}
else if (currentBindingIndex == sourceBindingToCopy)
{
++currentBindingIndex;
}
// Copy binding over to new bindings array, if need be.
if (newBindingsArray != null)
{
newBindingsArray[newBindingsArrayIndex++] = m_Bindings[sourceBindingToCopy];
}
// Copy controls for binding, if we have resolved controls already.
if (m_State != null)
{
var controlCountForBinding = m_State
.bindingStates[mapIndices.bindingStartIndex + sourceBindingToCopy].controlCount;
if (controlCountForBinding > 0)
{
Array.Copy(m_State.controls,
m_State.bindingStates[mapIndices.bindingStartIndex + sourceBindingToCopy]
.controlStartIndex,
m_ControlsForEachAction, currentControlIndex, controlCountForBinding);
currentControlIndex += controlCountForBinding;
currentAction.m_ControlCount += controlCountForBinding;
}
}
++sourceBindingToCopy;
}
}
if (newBindingsArray == null)
{
// Bindings are already clustered by action in m_Bindings
// so we can just stick to having one array only.
m_BindingsForEachAction = m_Bindings;
}
else
{
// Bindings are not clustered by action in m_Bindings so
// we had to allocate a separate array where the bindings are sorted.
m_BindingsForEachAction = newBindingsArray;
}
}
}
public static void ApplyBindingOverride(this InputActionMap actionMap, int bindingIndex, InputBinding bindingOverride)
{
if (actionMap == null)
{
throw new ArgumentNullException(nameof(actionMap));
}
var bindingsCount = actionMap.m_Bindings?.Length ?? 0;
if (bindingIndex < 0 || bindingIndex >= bindingsCount)
{
throw new ArgumentOutOfRangeException(
$"Cannot apply override to binding at index {bindingIndex} in map '{actionMap}' with only {bindingsCount} bindings", "bindingIndex");
}
actionMap.m_Bindings[bindingIndex].overridePath = bindingOverride.overridePath;
actionMap.m_Bindings[bindingIndex].overrideInteractions = bindingOverride.overrideInteractions;
actionMap.LazyResolveBindings();
}
public static void ApplyBindingOverride(this InputActionMap actionMap, int bindingIndex, InputBinding bindingOverride)
{
if (actionMap == null)
{
throw new ArgumentNullException("actionMap");
}
var bindingsCount = actionMap.m_Bindings != null ? actionMap.m_Bindings.Length : 0;
if (bindingIndex < 0 || bindingIndex >= bindingsCount)
{
throw new ArgumentOutOfRangeException(
string.Format("Cannot apply override to binding at index {0} in map '{1}' with only {2} bindings",
bindingIndex, actionMap, bindingsCount), "bindingIndex");
}
actionMap.m_Bindings[bindingIndex].overridePath = bindingOverride.overridePath;
actionMap.m_Bindings[bindingIndex].overrideInteractions = bindingOverride.overrideInteractions;
actionMap.InvalidateResolvedData();
}
public static void ApplyBindingOverride(this InputAction action, int bindingIndex, InputBinding bindingOverride)
{
if (action == null)
{
throw new ArgumentNullException("action");
}
// We don't want to hit InputAction.bindings here as this requires setting up per-action
// binding info which we then nuke as part of the override process. Calling ApplyBindingOverride
// repeatedly with an index would thus cause the same data to be computed and thrown away
// over and over.
// Instead we manually search through the map's bindings to find the right binding index
// in the map.
var actionMap = action.GetOrCreateActionMap();
var bindingsInMap = actionMap.m_Bindings;
var bindingCountInMap = bindingsInMap != null ? bindingsInMap.Length : 0;
var actionName = action.name;
var currentBindingIndexOnAction = -1;
for (var i = 0; i < bindingCountInMap; ++i)
{
if (string.Compare(bindingsInMap[i].action, actionName, StringComparison.InvariantCultureIgnoreCase) != 0)
{
continue;
}
++currentBindingIndexOnAction;
if (currentBindingIndexOnAction == bindingIndex)
{
bindingOverride.action = actionName;
ApplyBindingOverride(actionMap, i, bindingOverride);
return;
}
}
throw new ArgumentOutOfRangeException(
string.Format("Binding index {0} is out of range for action '{1}' with {2} bindings", bindingIndex,
action, currentBindingIndexOnAction), "bindingIndex");
}
static GenericMenu GetMenu <C, T>(InputBinding <C, T> binding, IControlDomainSource domainSource, Action <InputBinding <C, T> > action) where C : InputControl <T>
{
GenericMenu menu = new GenericMenu();
Type[] derivedTypes = null;
string[] derivedNames = null;
Dictionary <Type, int> indicesOfDerivedTypes = null;
TypeGUI.GetDerivedTypesInfo(typeof(InputBinding <C, T>), out derivedTypes, out derivedNames, out indicesOfDerivedTypes);
Type bindingType = typeof(ControlReferenceBinding <C, T>);
Type existingType = binding == null ? null : binding.GetType();
var reference = binding as ControlReferenceBinding <C, T>;
// Add control references for devices.
bool hasReferences = false;
if (derivedTypes.Contains(bindingType))
{
hasReferences = true;
List <DomainEntry> domainEntries = domainSource.GetDomainEntries();
for (int i = 0; i < domainEntries.Count; i++)
{
int domainHash = domainEntries[i].hash;
List <DomainEntry> controlEntries = domainSource.GetControlEntriesOfType(domainHash, typeof(C));
bool showFlatList = (domainEntries.Count <= 1 && controlEntries.Count <= 20);
string prefix = showFlatList ? string.Empty : domainEntries[i].name + "/";
bool nonStandardizedSectionStart = false;
for (int j = 0; j < controlEntries.Count; j++)
{
bool selected = (reference != null &&
reference.deviceKey == domainHash &&
reference.controlHash == controlEntries[j].hash);
if (!nonStandardizedSectionStart && !controlEntries[j].standardized)
{
nonStandardizedSectionStart = true;
menu.AddSeparator(prefix);
}
GUIContent name = new GUIContent(prefix + controlEntries[j].name);
int index = j; // See "close over the loop variable".
menu.AddItem(name, selected,
() => {
var newReference = new ControlReferenceBinding <C, T>();
newReference.deviceKey = domainHash;
newReference.controlHash = controlEntries[index].hash;
action(newReference);
});
}
}
}
if (derivedTypes.Length <= (hasReferences ? 1 : 0))
{
return(menu);
}
menu.AddSeparator("");
// Add other control types.
for (int i = 0; i < derivedTypes.Length; i++)
{
if (derivedTypes[i] != bindingType)
{
bool selected = (existingType == derivedTypes[i]);
string name = NicifyBindingName(derivedNames[i]);
int index = i; // See "close over the loop variable".
menu.AddItem(new GUIContent(name), selected,
() => {
var newBinding = Activator.CreateInstance(derivedTypes[index]) as InputBinding <C, T>;
action(newBinding);
});
}
}
return(menu);
}
// For convenience for instances created manually (hardcoded).
public AxisFromButtonsBinding(InputBinding <ButtonControl, float> negative, InputBinding <ButtonControl, float> positive)
{
this.negative = negative;
this.positive = positive;
}
public static void ControlField <C, T>(Rect position, InputBinding <C, T> binding, GUIContent label, IControlDomainSource domainSource, Action <InputBinding <C, T> > action, SerializedProperty prop = null) where C : InputControl <T>
{
if (prop != null)
{
label = EditorGUI.BeginProperty(position, label, prop);
}
position.height = EditorGUIUtility.singleLineHeight;
Rect buttonPosition = EditorGUI.PrefixLabel(position, label);
Rect detectPosition = buttonPosition;
ControlScheme scheme = domainSource as ControlScheme;
bool detectionSupport = (scheme != null);
if (detectionSupport)
{
detectPosition.xMin = detectPosition.xMax - 20;
buttonPosition.xMax -= (20 + 4);
}
if (EditorGUI.DropdownButton(buttonPosition, new GUIContent(GetName(binding, domainSource) ?? "None"), FocusType.Keyboard))
{
GenericMenu menu = GetMenu(
binding, domainSource,
a =>
{
if (prop != null)
{
Undo.RecordObjects(prop.serializedObject.targetObjects, "Control");
}
action(a);
if (prop != null)
{
// Flushing seems necessaary to have prefab property override status change without lag.
Undo.FlushUndoRecordObjects();
prop.serializedObject.SetIsDifferentCacheDirty();
}
});
menu.DropDown(buttonPosition);
// GenericMenu doesn't modify GUI.changed because it relies on a callback, so let's assume that something was changed, so target object dirtying doesn't go missing
GUI.changed = true;
}
if (detectionSupport)
{
EditorGUI.BeginDisabledGroup(s_Binding != null);
//if (Event.current.type == EventType.repaint)
// EditorStyles.miniButton.Draw(detectPosition, "O", false, false, s_Binding == binding, false);
if (GUI.Toggle(detectPosition, s_Binding == binding, "O", EditorStyles.miniButton) && s_Binding == null)
{
EditorWindow window = EditorWindow.focusedWindow;
window.ShowNotification(new GUIContent("Waiting for input."));
s_BindingListener = (InputControl control) =>
{
if (!(control is C))
{
window.ShowNotification(new GUIContent("Incompatible control type."));
window.Repaint();
return(false);
}
DeviceSlot match = null;
Type controlProviderType = control.provider.GetType();
for (int slotIndex = 0; slotIndex < scheme.deviceSlots.Count; slotIndex++)
{
Type deviceType = scheme.deviceSlots[slotIndex].type.value;
if (deviceType == null)
{
continue;
}
if (deviceType.IsAssignableFrom(controlProviderType))
{
match = scheme.deviceSlots[slotIndex];
break;
}
}
if (match == null)
{
window.ShowNotification(new GUIContent("Incompatible device type."));
window.Repaint();
return(false);
}
var newReference = new ControlReferenceBinding <C, T>();
newReference.deviceKey = match.key;
newReference.controlHash = control.provider.GetHashForControlIndex(control.index);
action(newReference);
StopListening(window);
return(true);
};
InputSystem.ListenForBinding(s_BindingListener);
s_Binding = binding;
float time = Time.realtimeSinceStartup;
s_UpdateCallback = () => {
if (Time.realtimeSinceStartup > time + 3)
{
StopListening(window);
}
};
EditorApplication.update += s_UpdateCallback;
}
EditorGUI.EndDisabledGroup();
}
if (binding != null && !(binding is ControlReferenceBinding <C, T>))
{
EditorGUI.indentLevel++;
position.y += EditorGUIUtility.singleLineHeight + EditorGUIUtility.standardVerticalSpacing;
binding.OnGUI(position, domainSource);
EditorGUI.indentLevel--;
}
if (prop != null)
{
EditorGUI.EndProperty();
}
}
// For convenience for instances created manually (hardcoded).
public Vector2FromAxesBinding(InputBinding <AxisControl, float> x, InputBinding <AxisControl, float> y)
{
m_X = x;
m_Y = y;
}
public override void OnGUI(Rect position, IControlDomainSource domainSource)
{
position.height = ControlGUIUtility.GetControlHeight(m_X, s_XContent);
ControlGUIUtility.ControlField(position, m_X, s_XContent, domainSource, b => m_X = b);
position.y += position.height + EditorGUIUtility.standardVerticalSpacing;
position.height = ControlGUIUtility.GetControlHeight(m_Y, s_YContent);
ControlGUIUtility.ControlField(position, m_Y, s_YContent, domainSource, b => m_Y = b);
}
internal bool HaveBindingFilterMatching(ref InputBinding bindingFilter)
{
throw new NotImplementedException();
}
public override void OnGUI(Rect position, IControlDomainSource domainSource)
{
// Bindings
for (int i = 0; i < sources.Count; i++)
{
InputBinding <C, T> source = sources[i];
position.height = ControlGUIUtility.GetControlHeight(source, Styles.bindingContent);
DrawSourceSettings(position, i, domainSource);
position.y += position.height + EditorGUIUtility.standardVerticalSpacing;
}
// Bindings remove and add buttons
position.height = EditorGUIUtility.singleLineHeight;
Rect buttonPosition = position;
buttonPosition.width = Styles.iconToolbarMinus.image.width;
if (GUI.Button(buttonPosition, Styles.iconToolbarMinus, GUIStyle.none))
{
var selected = m_Selected as InputBinding <C, T>;
if (sources.Contains(selected))
{
sources.Remove(selected);
}
}
buttonPosition.x += buttonPosition.width;
if (GUI.Button(buttonPosition, Styles.iconToolbarPlus, GUIStyle.none))
{
var source = new ControlReferenceBinding <C, T>();
sources.Add(source);
m_Selected = source;
}
position.y += position.height + Styles.k_Spacing;
position.height = EditorGUIUtility.singleLineHeight;
GUI.Label(position, "Processors");
position.y += position.height + Styles.k_Spacing;
// Processors
for (int i = 0; i < processors.Count; i++)
{
InputBindingProcessor <C, T> processor = processors[i];
position.height = processor.GetPropertyHeight();
DrawProcessorSettings(position, i);
position.y += position.height + EditorGUIUtility.standardVerticalSpacing;
}
// Processors remove and add buttons
position.height = EditorGUIUtility.singleLineHeight;
buttonPosition = position;
buttonPosition.width = Styles.iconToolbarMinus.image.width;
if (GUI.Button(buttonPosition, Styles.iconToolbarMinus, GUIStyle.none))
{
var selected = m_Selected as InputBindingProcessor <C, T>;
if (selected != null && processors.Contains(selected))
{
processors.Remove(selected);
}
}
buttonPosition.x += buttonPosition.width;
if (GUI.Button(buttonPosition, Styles.iconToolbarPlus, GUIStyle.none))
{
InputBindingProcessor <C, T> .ShowAddProcessorDropdown(buttonPosition, p => processors.Add(p));
}
}
