Merge pull request #7008 from jsoref/spelling

spelling fixes (round 3)
This commit is contained in:
Daniel Rosenwasser
2016-02-10 15:01:17 -08:00
2 changed files with 34 additions and 34 deletions

View File

@@ -12,7 +12,7 @@ namespace ts {
}
const enum Reachability {
Unintialized = 1 << 0,
Uninitialized = 1 << 0,
Reachable = 1 << 1,
Unreachable = 1 << 2,
ReportedUnreachable = 1 << 3
@@ -393,7 +393,7 @@ namespace ts {
// the getLocalNameOfContainer function in the type checker to validate that the local name
// used for a container is unique.
function bindChildren(node: Node) {
// Before we recurse into a node's chilren, we first save the existing parent, container
// Before we recurse into a node's children, we first save the existing parent, container
// and block-container. Then after we pop out of processing the children, we restore
// these saved values.
const saveParent = parent;
@@ -418,7 +418,7 @@ namespace ts {
// Finally, if this is a block-container, then we clear out any existing .locals object
// it may contain within it. This happens in incremental scenarios. Because we can be
// reusing a node from a previous compilation, that node may have had 'locals' created
// for it. We must clear this so we don't accidently move any stale data forward from
// for it. We must clear this so we don't accidentally move any stale data forward from
// a previous compilation.
const containerFlags = getContainerFlags(node);
if (containerFlags & ContainerFlags.IsContainer) {
@@ -699,7 +699,7 @@ namespace ts {
const hasDefault = forEach(n.caseBlock.clauses, c => c.kind === SyntaxKind.DefaultClause);
// post switch state is unreachable if switch is exaustive (has a default case ) and does not have fallthrough from the last case
// post switch state is unreachable if switch is exhaustive (has a default case ) and does not have fallthrough from the last case
const postSwitchState = hasDefault && currentReachabilityState !== Reachability.Reachable ? Reachability.Unreachable : preSwitchState;
popImplicitLabel(postSwitchLabel, postSwitchState);
@@ -766,7 +766,7 @@ namespace ts {
case SyntaxKind.Block:
// do not treat blocks directly inside a function as a block-scoped-container.
// Locals that reside in this block should go to the function locals. Othewise 'x'
// Locals that reside in this block should go to the function locals. Otherwise 'x'
// would not appear to be a redeclaration of a block scoped local in the following
// example:
//
@@ -956,7 +956,7 @@ namespace ts {
const identifier = <Identifier>prop.name;
// ECMA-262 11.1.5 Object Initialiser
// ECMA-262 11.1.5 Object Initializer
// If previous is not undefined then throw a SyntaxError exception if any of the following conditions are true
// a.This production is contained in strict code and IsDataDescriptor(previous) is true and
// IsDataDescriptor(propId.descriptor) is true.
@@ -1629,14 +1629,14 @@ namespace ts {
if (hasProperty(labelIndexMap, name.text)) {
return false;
}
labelIndexMap[name.text] = labelStack.push(Reachability.Unintialized) - 1;
labelIndexMap[name.text] = labelStack.push(Reachability.Uninitialized) - 1;
return true;
}
function pushImplicitLabel(): number {
initializeReachabilityStateIfNecessary();
const index = labelStack.push(Reachability.Unintialized) - 1;
const index = labelStack.push(Reachability.Uninitialized) - 1;
implicitLabels.push(index);
return index;
}
@@ -1666,7 +1666,7 @@ namespace ts {
}
function setCurrentStateAtLabel(innerMergedState: Reachability, outerState: Reachability, label: Identifier): void {
if (innerMergedState === Reachability.Unintialized) {
if (innerMergedState === Reachability.Uninitialized) {
if (label && !options.allowUnusedLabels) {
file.bindDiagnostics.push(createDiagnosticForNode(label, Diagnostics.Unused_label));
}
@@ -1687,7 +1687,7 @@ namespace ts {
return false;
}
const stateAtLabel = labelStack[index];
labelStack[index] = stateAtLabel === Reachability.Unintialized ? outerState : or(stateAtLabel, outerState);
labelStack[index] = stateAtLabel === Reachability.Uninitialized ? outerState : or(stateAtLabel, outerState);
return true;
}

View File

@@ -577,7 +577,7 @@ namespace ts {
scanner.setText("");
scanner.setOnError(undefined);
// Clear any data. We don't want to accidently hold onto it for too long.
// Clear any data. We don't want to accidentally hold onto it for too long.
parseDiagnostics = undefined;
sourceFile = undefined;
identifiers = undefined;
@@ -1442,8 +1442,8 @@ namespace ts {
// We can only reuse a node if it was parsed under the same strict mode that we're
// currently in. i.e. if we originally parsed a node in non-strict mode, but then
// the user added 'using strict' at the top of the file, then we can't use that node
// again as the presense of strict mode may cause us to parse the tokens in the file
// differetly.
// again as the presence of strict mode may cause us to parse the tokens in the file
// differently.
//
// Note: we *can* reuse tokens when the strict mode changes. That's because tokens
// are unaffected by strict mode. It's just the parser will decide what to do with it
@@ -1456,7 +1456,7 @@ namespace ts {
}
// Ok, we have a node that looks like it could be reused. Now verify that it is valid
// in the currest list parsing context that we're currently at.
// in the current list parsing context that we're currently at.
if (!canReuseNode(node, parsingContext)) {
return undefined;
}
@@ -1719,7 +1719,7 @@ namespace ts {
};
// Parses a comma-delimited list of elements
function parseDelimitedList<T extends Node>(kind: ParsingContext, parseElement: () => T, considerSemicolonAsDelimeter?: boolean): NodeArray<T> {
function parseDelimitedList<T extends Node>(kind: ParsingContext, parseElement: () => T, considerSemicolonAsDelimiter?: boolean): NodeArray<T> {
const saveParsingContext = parsingContext;
parsingContext |= 1 << kind;
const result = <NodeArray<T>>[];
@@ -1748,7 +1748,7 @@ namespace ts {
// parse errors. For example, this can happen when people do things like use
// a semicolon to delimit object literal members. Note: we'll have already
// reported an error when we called parseExpected above.
if (considerSemicolonAsDelimeter && token === SyntaxKind.SemicolonToken && !scanner.hasPrecedingLineBreak()) {
if (considerSemicolonAsDelimiter && token === SyntaxKind.SemicolonToken && !scanner.hasPrecedingLineBreak()) {
nextToken();
}
continue;
@@ -2221,7 +2221,7 @@ namespace ts {
method.name = name;
method.questionToken = questionToken;
// Method signatues don't exist in expression contexts. So they have neither
// Method signatures don't exist in expression contexts. So they have neither
// [Yield] nor [Await]
fillSignature(SyntaxKind.ColonToken, /*yieldContext*/ false, /*awaitContext*/ false, /*requireCompleteParameterList*/ false, method);
parseTypeMemberSemicolon();
@@ -2719,7 +2719,7 @@ namespace ts {
function isYieldExpression(): boolean {
if (token === SyntaxKind.YieldKeyword) {
// If we have a 'yield' keyword, and htis is a context where yield expressions are
// If we have a 'yield' keyword, and this is a context where yield expressions are
// allowed, then definitely parse out a yield expression.
if (inYieldContext()) {
return true;
@@ -2738,7 +2738,7 @@ namespace ts {
//
// for now we just check if the next token is an identifier. More heuristics
// can be added here later as necessary. We just need to make sure that we
// don't accidently consume something legal.
// don't accidentally consume something legal.
return lookAhead(nextTokenIsIdentifierOrKeywordOrNumberOnSameLine);
}
@@ -2767,7 +2767,7 @@ namespace ts {
}
else {
// if the next token is not on the same line as yield. or we don't have an '*' or
// the start of an expressin, then this is just a simple "yield" expression.
// the start of an expression, then this is just a simple "yield" expression.
return finishNode(node);
}
}
@@ -3060,7 +3060,7 @@ namespace ts {
// Check the precedence to see if we should "take" this operator
// - For left associative operator (all operator but **), consume the operator,
// recursively call the function below, and parse binaryExpression as a rightOperand
// of the caller if the new precendence of the operator is greater then or equal to the current precendence.
// of the caller if the new precedence of the operator is greater then or equal to the current precedence.
// For example:
// a - b - c;
// ^token; leftOperand = b. Return b to the caller as a rightOperand
@@ -3069,8 +3069,8 @@ namespace ts {
// a - b * c;
// ^token; leftOperand = b. Return b * c to the caller as a rightOperand
// - For right associative operator (**), consume the operator, recursively call the function
// and parse binaryExpression as a rightOperand of the caller if the new precendence of
// the operator is strictly grater than the current precendence
// and parse binaryExpression as a rightOperand of the caller if the new precedence of
// the operator is strictly grater than the current precedence
// For example:
// a ** b ** c;
// ^^token; leftOperand = b. Return b ** c to the caller as a rightOperand
@@ -3311,7 +3311,7 @@ namespace ts {
*/
function isIncrementExpression(): boolean {
// This function is called inside parseUnaryExpression to decide
// whether to call parseSimpleUnaryExpression or call parseIncrmentExpression directly
// whether to call parseSimpleUnaryExpression or call parseIncrementExpression directly
switch (token) {
case SyntaxKind.PlusToken:
case SyntaxKind.MinusToken:
@@ -3799,7 +3799,7 @@ namespace ts {
return undefined;
}
// If we have a '<', then only parse this as a arugment list if the type arguments
// If we have a '<', then only parse this as a argument list if the type arguments
// are complete and we have an open paren. if we don't, rewind and return nothing.
return typeArguments && canFollowTypeArgumentsInExpression()
? typeArguments
@@ -3996,7 +3996,7 @@ namespace ts {
node.multiLine = true;
}
node.properties = parseDelimitedList(ParsingContext.ObjectLiteralMembers, parseObjectLiteralElement, /*considerSemicolonAsDelimeter*/ true);
node.properties = parseDelimitedList(ParsingContext.ObjectLiteralMembers, parseObjectLiteralElement, /*considerSemicolonAsDelimiter*/ true);
parseExpected(SyntaxKind.CloseBraceToken);
return finishNode(node);
}
@@ -4792,8 +4792,8 @@ namespace ts {
// off. The grammar would look something like this:
//
// MemberVariableDeclaration[Yield]:
// AccessibilityModifier_opt PropertyName TypeAnnotation_opt Initialiser_opt[In];
// AccessibilityModifier_opt static_opt PropertyName TypeAnnotation_opt Initialiser_opt[In, ?Yield];
// AccessibilityModifier_opt PropertyName TypeAnnotation_opt Initializer_opt[In];
// AccessibilityModifier_opt static_opt PropertyName TypeAnnotation_opt Initializer_opt[In, ?Yield];
//
// The checker may still error in the static case to explicitly disallow the yield expression.
property.initializer = modifiers && modifiers.flags & NodeFlags.Static
@@ -5394,7 +5394,7 @@ namespace ts {
// ImportSpecifier:
// BindingIdentifier
// IdentifierName as BindingIdentifier
// ExportSpecififer:
// ExportSpecifier:
// IdentifierName
// IdentifierName as IdentifierName
let checkIdentifierIsKeyword = isKeyword(token) && !isIdentifier();
@@ -6238,7 +6238,7 @@ namespace ts {
}
// Make sure we're not trying to incrementally update a source file more than once. Once
// we do an update the original source file is considered unusbale from that point onwards.
// we do an update the original source file is considered unusable from that point onwards.
//
// This is because we do incremental parsing in-place. i.e. we take nodes from the old
// tree and give them new positions and parents. From that point on, trusting the old
@@ -6369,7 +6369,7 @@ namespace ts {
// We have an element that intersects the change range in some way. It may have its
// start, or its end (or both) in the changed range. We want to adjust any part
// that intersects such that the final tree is in a consistent state. i.e. all
// chlidren have spans within the span of their parent, and all siblings are ordered
// children have spans within the span of their parent, and all siblings are ordered
// properly.
// We may need to update both the 'pos' and the 'end' of the element.
@@ -6391,7 +6391,7 @@ namespace ts {
// -------------------ZZZ-----------------
//
// In this case, any element that started in the 'X' range will keep its position.
// However any element htat started after that will have their pos adjusted to be
// However any element that started after that will have their pos adjusted to be
// at the end of the new range. i.e. any node that started in the 'Y' range will
// be adjusted to have their start at the end of the 'Z' range.
//
@@ -6416,7 +6416,7 @@ namespace ts {
// -------------------ZZZ-----------------
//
// In this case, any element that ended in the 'X' range will keep its position.
// However any element htat ended after that will have their pos adjusted to be
// However any element that ended after that will have their pos adjusted to be
// at the end of the new range. i.e. any node that ended in the 'Y' range will
// be adjusted to have their end at the end of the 'Z' range.
if (element.end >= changeRangeOldEnd) {
@@ -6746,7 +6746,7 @@ namespace ts {
// Position was within this node. Keep searching deeper to find the node.
forEachChild(node, visitNode, visitArray);
// don't procede any futher in the search.
// don't proceed any further in the search.
return true;
}