glsl2: Fix spelling of "sentinel."

This commit is contained in:
Eric Anholt 2010-07-29 13:52:25 -07:00
parent fa33d0b854
commit 62c4763b70
7 changed files with 31 additions and 31 deletions

View File

@ -398,7 +398,7 @@ constant_record_constructor(const glsl_type *constructor_type,
for (unsigned i = 0; i < constructor_type->length; i++) {
ir_instruction *ir = (ir_instruction *) node;
if (node->is_tail_sentinal()) {
if (node->is_tail_sentinel()) {
_mesa_glsl_error(loc, state,
"insufficient parameters to constructor for `%s'",
constructor_type->name);
@ -531,7 +531,7 @@ single_scalar_parameter(exec_list *parameters)
const ir_rvalue *const p = (ir_rvalue *) parameters->head;
assert(((ir_rvalue *)p)->as_rvalue() != NULL);
return (p->type->is_scalar() && p->next->is_tail_sentinal());
return (p->type->is_scalar() && p->next->is_tail_sentinel());
}
@ -763,7 +763,7 @@ emit_inline_matrix_constructor(const glsl_type *type,
* identity matrix. If a matrix argument is given to a matrix
* constructor, it is an error to have any other arguments."
*/
assert(first_param->next->is_tail_sentinal());
assert(first_param->next->is_tail_sentinel());
ir_rvalue *const src_matrix = first_param;
/* If the source matrix is smaller, pre-initialize the relavent parts of

View File

@ -295,7 +295,7 @@ ir_constant::ir_constant(const struct glsl_type *type, exec_list *value_list)
*/
for (unsigned i = 0; i < type->components(); /* empty */) {
assert(value->as_constant() != NULL);
assert(!value->is_tail_sentinal());
assert(!value->is_tail_sentinel());
for (unsigned j = 0; j < value->type->components(); j++) {
switch (type->base_type) {
@ -433,7 +433,7 @@ ir_constant::get_record_field(const char *name)
/* If the end of the list is encountered before the element matching the
* requested field is found, return NULL.
*/
if (node->is_tail_sentinal())
if (node->is_tail_sentinel())
return NULL;
}
@ -459,8 +459,8 @@ ir_constant::has_value(const ir_constant *c) const
const exec_node *a_node = this->components.head;
const exec_node *b_node = c->components.head;
while (!a_node->is_tail_sentinal()) {
assert(!b_node->is_tail_sentinal());
while (!a_node->is_tail_sentinel()) {
assert(!b_node->is_tail_sentinel());
const ir_constant *const a_field = (ir_constant *) a_node;
const ir_constant *const b_field = (ir_constant *) b_node;

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@ -330,7 +330,7 @@ ir_constant::clone(struct hash_table *ht) const
c->type = this->type;
for (exec_node *node = this->components.head
; !node->is_tail_sentinal()
; !node->is_tail_sentinel()
; node = node->next) {
ir_constant *const orig = (ir_constant *) node;

View File

@ -94,13 +94,13 @@ parameter_lists_match(const exec_list *list_a, const exec_list *list_b)
int total_score = 0;
for (/* empty */
; !node_a->is_tail_sentinal()
; !node_a->is_tail_sentinel()
; node_a = node_a->next, node_b = node_b->next) {
/* If all of the parameters from the other parameter list have been
* exhausted, the lists have different length and, by definition,
* do not match.
*/
if (node_b->is_tail_sentinal())
if (node_b->is_tail_sentinel())
return -1;
@ -151,7 +151,7 @@ parameter_lists_match(const exec_list *list_a, const exec_list *list_b)
* exhausted, the lists have different length and, by definition, do not
* match.
*/
if (!node_b->is_tail_sentinal())
if (!node_b->is_tail_sentinel())
return -1;
return total_score;
@ -192,7 +192,7 @@ parameter_lists_match_exact(const exec_list *list_a, const exec_list *list_b)
const exec_node *node_b = list_b->head;
for (/* empty */
; !node_a->is_tail_sentinal() && !node_b->is_tail_sentinal()
; !node_a->is_tail_sentinel() && !node_b->is_tail_sentinel()
; node_a = node_a->next, node_b = node_b->next) {
ir_variable *a = (ir_variable *) node_a;
ir_variable *b = (ir_variable *) node_b;
@ -207,7 +207,7 @@ parameter_lists_match_exact(const exec_list *list_a, const exec_list *list_b)
/* Unless both lists are exhausted, they differ in length and, by
* definition, do not match.
*/
return (node_a->is_tail_sentinal() == node_b->is_tail_sentinal());
return (node_a->is_tail_sentinel() == node_b->is_tail_sentinel());
}
ir_function_signature *

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@ -96,7 +96,7 @@ replace_return_with_assignment(ir_instruction *ir, void *data)
/* un-valued return has to be the last return, or we shouldn't
* have reached here. (see can_inline()).
*/
assert(!ret->next->is_tail_sentinal());
assert(!ret->next->is_tail_sentinel());
ret->remove();
}
}

View File

@ -542,7 +542,7 @@ remap_variables(ir_instruction *inst, glsl_symbol_table *symbols,
* Move non-declarations from one instruction stream to another
*
* The intended usage pattern of this function is to pass the pointer to the
* head sentinal of a list (i.e., a pointer to the list cast to an \c exec_node
* head sentinel of a list (i.e., a pointer to the list cast to an \c exec_node
* pointer) for \c last and \c false for \c make_copies on the first
* call. Successive calls pass the return value of the previous call for
* \c last and \c true for \c make_copies.

View File

@ -25,28 +25,28 @@
* \file list.h
* \brief Doubly-linked list abstract container type.
*
* Each doubly-linked list has a sentinal head and tail node. These nodes
* contain no data. The head sentinal can be identified by its \c prev
* pointer being \c NULL. The tail sentinal can be identified by its
* Each doubly-linked list has a sentinel head and tail node. These nodes
* contain no data. The head sentinel can be identified by its \c prev
* pointer being \c NULL. The tail sentinel can be identified by its
* \c next pointer being \c NULL.
*
* A list is empty if either the head sentinal's \c next pointer points to the
* tail sentinal or the tail sentinal's \c prev poiner points to the head
* sentinal.
* A list is empty if either the head sentinel's \c next pointer points to the
* tail sentinel or the tail sentinel's \c prev poiner points to the head
* sentinel.
*
* Instead of tracking two separate \c node structures and a \c list structure
* that points to them, the sentinal nodes are in a single structure. Noting
* that each sentinal node always has one \c NULL pointer, the \c NULL
* that points to them, the sentinel nodes are in a single structure. Noting
* that each sentinel node always has one \c NULL pointer, the \c NULL
* pointers occupy the same memory location. In the \c list structure
* contains a the following:
*
* - A \c head pointer that represents the \c next pointer of the
* head sentinal node.
* head sentinel node.
* - A \c tail pointer that represents the \c prev pointer of the head
* sentinal node and the \c next pointer of the tail sentinal node. This
* sentinel node and the \c next pointer of the tail sentinel node. This
* pointer is \b always \c NULL.
* - A \c tail_prev pointer that represents the \c prev pointer of the
* tail sentinal node.
* tail sentinel node.
*
* Therefore, if \c head->next is \c NULL or \c tail_prev->prev is \c NULL,
* the list is empty.
@ -178,17 +178,17 @@ struct exec_node {
}
/**
* Is this the sentinal at the tail of the list?
* Is this the sentinel at the tail of the list?
*/
bool is_tail_sentinal() const
bool is_tail_sentinel() const
{
return this->next == NULL;
}
/**
* Is this the sentinal at the head of the list?
* Is this the sentinel at the head of the list?
*/
bool is_head_sentinal() const
bool is_head_sentinel() const
{
return this->prev == NULL;
}
@ -320,7 +320,7 @@ struct exec_list {
*
* - Check to see if the \c head points to the \c tail.
* - Check to see if the \c tail_pred points to the \c head.
* - Check to see if the \c head is the sentinal node by test whether its
* - Check to see if the \c head is the sentinel node by test whether its
* \c next pointer is \c NULL.
*
* The first two methods tend to generate better code on modern systems