return mt->ma_flags & ~MT_FLAGS_HEIGHT_MASK;
}
-static inline enum maple_type mte_node_type(const struct maple_enode *entry)
+static __always_inline enum maple_type mte_node_type(
+ const struct maple_enode *entry)
{
return ((unsigned long)entry >> MAPLE_NODE_TYPE_SHIFT) &
MAPLE_NODE_TYPE_MASK;
}
-static inline bool ma_is_dense(const enum maple_type type)
+static __always_inline bool ma_is_dense(const enum maple_type type)
{
return type < maple_leaf_64;
}
-static inline bool ma_is_leaf(const enum maple_type type)
+static __always_inline bool ma_is_leaf(const enum maple_type type)
{
return type < maple_range_64;
}
-static inline bool mte_is_leaf(const struct maple_enode *entry)
+static __always_inline bool mte_is_leaf(const struct maple_enode *entry)
{
return ma_is_leaf(mte_node_type(entry));
}
* We also reserve values with the bottom two bits set to '10' which are
* below 4096
*/
-static inline bool mt_is_reserved(const void *entry)
+static __always_inline bool mt_is_reserved(const void *entry)
{
return ((unsigned long)entry < MAPLE_RESERVED_RANGE) &&
xa_is_internal(entry);
return true;
}
-static inline struct maple_node *mte_to_node(const struct maple_enode *entry)
+static __always_inline struct maple_node *mte_to_node(
+ const struct maple_enode *entry)
{
return (struct maple_node *)((unsigned long)entry & ~MAPLE_NODE_MASK);
}
return (unsigned long)node & MAPLE_ENODE_NULL;
}
-static inline bool ma_is_root(struct maple_node *node)
+static __always_inline bool ma_is_root(struct maple_node *node)
{
return ((unsigned long)node->parent & MA_ROOT_PARENT);
}
-static inline bool mte_is_root(const struct maple_enode *node)
+static __always_inline bool mte_is_root(const struct maple_enode *node)
{
return ma_is_root(mte_to_node(node));
}
return !mas->min && mas->max == ULONG_MAX;
}
-static inline bool mt_is_alloc(struct maple_tree *mt)
+static __always_inline bool mt_is_alloc(struct maple_tree *mt)
{
return (mt->ma_flags & MT_FLAGS_ALLOC_RANGE);
}
*
* Return: The slot in the parent node where @enode resides.
*/
-static inline unsigned int mte_parent_slot(const struct maple_enode *enode)
+static __always_inline
+unsigned int mte_parent_slot(const struct maple_enode *enode)
{
unsigned long val = (unsigned long)mte_to_node(enode)->parent;
- if (val & MA_ROOT_PARENT)
+ if (unlikely(val & MA_ROOT_PARENT))
return 0;
/*
*
* Return: The parent maple node.
*/
-static inline struct maple_node *mte_parent(const struct maple_enode *enode)
+static __always_inline
+struct maple_node *mte_parent(const struct maple_enode *enode)
{
return (void *)((unsigned long)
(mte_to_node(enode)->parent) & ~MAPLE_NODE_MASK);
*
* Return: true if dead, false otherwise.
*/
-static inline bool ma_dead_node(const struct maple_node *node)
+static __always_inline bool ma_dead_node(const struct maple_node *node)
{
struct maple_node *parent;
*
* Return: true if dead, false otherwise.
*/
-static inline bool mte_dead_node(const struct maple_enode *enode)
+static __always_inline bool mte_dead_node(const struct maple_enode *enode)
{
struct maple_node *parent, *node;
* Return: The pivot at @piv within the limit of the @pivots array, @mas->max
* otherwise.
*/
-static inline unsigned long
+static __always_inline unsigned long
mas_safe_pivot(const struct ma_state *mas, unsigned long *pivots,
unsigned char piv, enum maple_type type)
{
lockdep_is_held(&mt->ma_lock);
}
-static inline bool mt_locked(const struct maple_tree *mt)
+static __always_inline bool mt_locked(const struct maple_tree *mt)
{
return mt_external_lock(mt) ? mt_lock_is_held(mt) :
lockdep_is_held(&mt->ma_lock);
}
-static inline void *mt_slot(const struct maple_tree *mt,
+static __always_inline void *mt_slot(const struct maple_tree *mt,
void __rcu **slots, unsigned char offset)
{
return rcu_dereference_check(slots[offset], mt_locked(mt));
}
-static inline void *mt_slot_locked(struct maple_tree *mt, void __rcu **slots,
- unsigned char offset)
+static __always_inline void *mt_slot_locked(struct maple_tree *mt,
+ void __rcu **slots, unsigned char offset)
{
return rcu_dereference_protected(slots[offset], mt_write_locked(mt));
}
*
* Return: The entry stored in @slots at the @offset.
*/
-static inline void *mas_slot_locked(struct ma_state *mas, void __rcu **slots,
- unsigned char offset)
+static __always_inline void *mas_slot_locked(struct ma_state *mas,
+ void __rcu **slots, unsigned char offset)
{
return mt_slot_locked(mas->tree, slots, offset);
}
*
* Return: The entry stored in @slots at the @offset
*/
-static inline void *mas_slot(struct ma_state *mas, void __rcu **slots,
- unsigned char offset)
+static __always_inline void *mas_slot(struct ma_state *mas, void __rcu **slots,
+ unsigned char offset)
{
return mt_slot(mas->tree, slots, offset);
}
*
* Return: The pointer to the root of the tree
*/
-static inline void *mas_root(struct ma_state *mas)
+static __always_inline void *mas_root(struct ma_state *mas)
{
return rcu_dereference_check(mas->tree->ma_root, mt_locked(mas->tree));
}
* Uses metadata to find the end of the data when possible.
* Return: The zero indexed last slot with data (may be null).
*/
-static inline unsigned char ma_data_end(struct maple_node *node,
- enum maple_type type,
- unsigned long *pivots,
- unsigned long max)
+static __always_inline unsigned char ma_data_end(struct maple_node *node,
+ enum maple_type type, unsigned long *pivots, unsigned long max)
{
unsigned char offset;
}
-static inline void mas_rewalk(struct ma_state *mas, unsigned long index)
+static __always_inline void mas_rewalk(struct ma_state *mas, unsigned long index)
{
retry:
mas_set(mas, index);
goto retry;
}
-static inline bool mas_rewalk_if_dead(struct ma_state *mas,
+static __always_inline bool mas_rewalk_if_dead(struct ma_state *mas,
struct maple_node *node, const unsigned long index)
{
if (unlikely(ma_dead_node(node))) {
* The prev node value will be mas->node[mas->offset] or MAS_NONE.
* Return: 1 if the node is dead, 0 otherwise.
*/
-static inline int mas_prev_node(struct ma_state *mas, unsigned long min)
+static int mas_prev_node(struct ma_state *mas, unsigned long min)
{
enum maple_type mt;
int offset, level;
* The next value will be mas->node[mas->offset] or MAS_NONE.
* Return: 1 on dead node, 0 otherwise.
*/
-static inline int mas_next_node(struct ma_state *mas, struct maple_node *node,
- unsigned long max)
+static int mas_next_node(struct ma_state *mas, struct maple_node *node,
+ unsigned long max)
{
unsigned long min;
unsigned long *pivots;
}
EXPORT_SYMBOL_GPL(mas_expected_entries);
-static inline bool mas_next_setup(struct ma_state *mas, unsigned long max,
+static bool mas_next_setup(struct ma_state *mas, unsigned long max,
void **entry)
{
bool was_none = mas_is_none(mas);
}
EXPORT_SYMBOL_GPL(mt_next);
-static inline bool mas_prev_setup(struct ma_state *mas, unsigned long min,
- void **entry)
+static bool mas_prev_setup(struct ma_state *mas, unsigned long min, void **entry)
{
if (unlikely(mas->index <= min)) {
mas->node = MAS_UNDERFLOW;
*
* Returns: True if entry is the answer, false otherwise.
*/
-static inline bool mas_find_setup(struct ma_state *mas, unsigned long max,
- void **entry)
+static __always_inline bool mas_find_setup(struct ma_state *mas, unsigned long max, void **entry)
{
if (mas_is_active(mas)) {
if (mas->last < max)
*
* Returns: True if entry is the answer, false otherwise.
*/
-static inline bool mas_find_rev_setup(struct ma_state *mas, unsigned long min,
+static bool mas_find_rev_setup(struct ma_state *mas, unsigned long min,
void **entry)
{
if (mas_is_active(mas)) {