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Commit 6ba2ef7b authored by Rusty Russell's avatar Rusty Russell
Browse files

cpumask: Move deprecated functions to end of header. 



The new ones have pretty kerneldoc.  Move the old ones to the end to
avoid confusing people.

Signed-off-by: default avatarRusty Russell <rusty@rustcorp.com.au>
Cc: benh@kernel.crashing.org
parent 4b805b17

include/linux/cpumask.h

+252 −341
Original line number Diff line number Diff line
@@ -3,328 +3,37 @@ 


/*

 * Cpumasks provide a bitmap suitable for representing the

 * set of CPU's in a system, one bit position per CPU number.

 *

 * The new cpumask_ ops take a "struct cpumask *"; the old ones

 * use cpumask_t.

 *

 * See detailed comments in the file linux/bitmap.h describing the

 * data type on which these cpumasks are based.

 *

 * For details of cpumask_scnprintf() and cpumask_parse_user(),

 * see bitmap_scnprintf() and bitmap_parse_user() in lib/bitmap.c.

 * For details of cpulist_scnprintf() and cpulist_parse(), see

 * bitmap_scnlistprintf() and bitmap_parselist(), also in bitmap.c.

 *

 * . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

 * Note: The alternate operations with the suffix "_nr" are used

 *       to limit the range of the loop to nr_cpu_ids instead of

 *       NR_CPUS when NR_CPUS > 64 for performance reasons.

 *       If NR_CPUS is <= 64 then most assembler bitmask

 *       operators execute faster with a constant range, so

 *       the operator will continue to use NR_CPUS.

 *

 *       Another consideration is that nr_cpu_ids is initialized

 *       to NR_CPUS and isn't lowered until the possible cpus are

 *       discovered (including any disabled cpus).  So early uses

 *       will span the entire range of NR_CPUS.

 * . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

 *

 * The obsolescent cpumask operations are:

 *

 * void cpu_set(cpu, mask)		turn on bit 'cpu' in mask

 * void cpu_clear(cpu, mask)		turn off bit 'cpu' in mask

 * void cpus_setall(mask)		set all bits

 * void cpus_clear(mask)		clear all bits

 * int cpu_isset(cpu, mask)		true iff bit 'cpu' set in mask

 * int cpu_test_and_set(cpu, mask)	test and set bit 'cpu' in mask

 *

 * int cpus_and(dst, src1, src2)	dst = src1 & src2  [intersection]

 * void cpus_or(dst, src1, src2)	dst = src1 | src2  [union]

 * void cpus_xor(dst, src1, src2)	dst = src1 ^ src2

 * int cpus_andnot(dst, src1, src2)	dst = src1 & ~src2

 *

 * int cpus_equal(mask1, mask2)		Does mask1 == mask2?

 * int cpus_intersects(mask1, mask2)	Do mask1 and mask2 intersect?

 * int cpus_subset(mask1, mask2)	Is mask1 a subset of mask2?

 * int cpus_empty(mask)			Is mask empty (no bits sets)?

 * int cpus_weight(mask)		Hamming weigh - number of set bits

 *

 * void cpus_shift_left(dst, src, n)	Shift left

 *

 * int first_cpu(mask)			Number lowest set bit, or NR_CPUS

 * int next_cpu(cpu, mask)		Next cpu past 'cpu', or NR_CPUS

 *

 * cpumask_t cpumask_of_cpu(cpu)	Return cpumask with bit 'cpu' set

 *					(can be used as an lvalue)

 * CPU_MASK_ALL				Initializer - all bits set

 * CPU_MASK_NONE			Initializer - no bits set

 * unsigned long *cpus_addr(mask)	Array of unsigned long's in mask

 *

 * int cpumask_scnprintf(buf, len, mask) Format cpumask for printing

 * int cpumask_parse_user(ubuf, ulen, mask)	Parse ascii string as cpumask

 * int cpulist_scnprintf(buf, len, mask) Format cpumask as list for printing

 * int cpulist_parse(buf, map)		Parse ascii string as cpulist

 *

 * for_each_cpu_mask(cpu, mask)		for-loop cpu over mask using NR_CPUS

 * for_each_cpu_mask_nr(cpu, mask)	for-loop cpu over mask using nr_cpu_ids

 *

 * int num_online_cpus()		Number of online CPUs

 * int num_possible_cpus()		Number of all possible CPUs

 * int num_present_cpus()		Number of present CPUs

 *

 * int cpu_online(cpu)			Is some cpu online?

 * int cpu_possible(cpu)		Is some cpu possible?

 * int cpu_present(cpu)			Is some cpu present (can schedule)?

 *

 * int any_online_cpu(mask)		First online cpu in mask

 *

 * for_each_possible_cpu(cpu)		for-loop cpu over cpu_possible_map

 * for_each_online_cpu(cpu)		for-loop cpu over cpu_online_map

 * for_each_present_cpu(cpu)		for-loop cpu over cpu_present_map

 *

 * Subtlety:

 * 1) The 'type-checked' form of cpu_isset() causes gcc (3.3.2, anyway)

 *    to generate slightly worse code.  Note for example the additional

 *    40 lines of assembly code compiling the "for each possible cpu"

 *    loops buried in the disk_stat_read() macros calls when compiling

 *    drivers/block/genhd.c (arch i386, CONFIG_SMP=y).  So use a simple

 *    one-line #define for cpu_isset(), instead of wrapping an inline

 *    inside a macro, the way we do the other calls.

 * set of CPU's in a system, one bit position per CPU number.  In general,

 * only nr_cpu_ids (<= NR_CPUS) bits are valid.

 */



#include <linux/kernel.h>

#include <linux/threads.h>

#include <linux/bitmap.h>



typedef struct cpumask { DECLARE_BITMAP(bits, NR_CPUS); } cpumask_t;



#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

#define cpu_set(cpu, dst) __cpu_set((cpu), &(dst))

static inline void __cpu_set(int cpu, volatile cpumask_t *dstp)

{

	set_bit(cpu, dstp->bits);

}



#define cpu_clear(cpu, dst) __cpu_clear((cpu), &(dst))

static inline void __cpu_clear(int cpu, volatile cpumask_t *dstp)

{

	clear_bit(cpu, dstp->bits);

}



#define cpus_setall(dst) __cpus_setall(&(dst), NR_CPUS)

static inline void __cpus_setall(cpumask_t *dstp, int nbits)

{

	bitmap_fill(dstp->bits, nbits);

}



#define cpus_clear(dst) __cpus_clear(&(dst), NR_CPUS)

static inline void __cpus_clear(cpumask_t *dstp, int nbits)

{

	bitmap_zero(dstp->bits, nbits);

}



/* No static inline type checking - see Subtlety (1) above. */

#define cpu_isset(cpu, cpumask) test_bit((cpu), (cpumask).bits)



#define cpu_test_and_set(cpu, cpumask) __cpu_test_and_set((cpu), &(cpumask))

static inline int __cpu_test_and_set(int cpu, cpumask_t *addr)

{

	return test_and_set_bit(cpu, addr->bits);

}



#define cpus_and(dst, src1, src2) __cpus_and(&(dst), &(src1), &(src2), NR_CPUS)

static inline int __cpus_and(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_and(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_or(dst, src1, src2) __cpus_or(&(dst), &(src1), &(src2), NR_CPUS)

static inline void __cpus_or(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	bitmap_or(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_xor(dst, src1, src2) __cpus_xor(&(dst), &(src1), &(src2), NR_CPUS)

static inline void __cpus_xor(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	bitmap_xor(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_andnot(dst, src1, src2) \

				__cpus_andnot(&(dst), &(src1), &(src2), NR_CPUS)

static inline int __cpus_andnot(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_andnot(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_equal(src1, src2) __cpus_equal(&(src1), &(src2), NR_CPUS)

static inline int __cpus_equal(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_equal(src1p->bits, src2p->bits, nbits);

}



#define cpus_intersects(src1, src2) __cpus_intersects(&(src1), &(src2), NR_CPUS)

static inline int __cpus_intersects(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_intersects(src1p->bits, src2p->bits, nbits);

}



#define cpus_subset(src1, src2) __cpus_subset(&(src1), &(src2), NR_CPUS)

static inline int __cpus_subset(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_subset(src1p->bits, src2p->bits, nbits);

}



#define cpus_empty(src) __cpus_empty(&(src), NR_CPUS)

static inline int __cpus_empty(const cpumask_t *srcp, int nbits)

{

	return bitmap_empty(srcp->bits, nbits);

}



#define cpus_weight(cpumask) __cpus_weight(&(cpumask), NR_CPUS)

static inline int __cpus_weight(const cpumask_t *srcp, int nbits)

{

	return bitmap_weight(srcp->bits, nbits);

}



#define cpus_shift_left(dst, src, n) \

			__cpus_shift_left(&(dst), &(src), (n), NR_CPUS)

static inline void __cpus_shift_left(cpumask_t *dstp,

					const cpumask_t *srcp, int n, int nbits)

{

	bitmap_shift_left(dstp->bits, srcp->bits, n, nbits);

}

#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */



/**

 * to_cpumask - convert an NR_CPUS bitmap to a struct cpumask *

 * @bitmap: the bitmap

 * cpumask_bits - get the bits in a cpumask

 * @maskp: the struct cpumask *

 *

 * There are a few places where cpumask_var_t isn't appropriate and

 * static cpumasks must be used (eg. very early boot), yet we don't

 * expose the definition of 'struct cpumask'.

 *

 * This does the conversion, and can be used as a constant initializer.

 * You should only assume nr_cpu_ids bits of this mask are valid.  This is

 * a macro so it's const-correct.

 */

#define to_cpumask(bitmap)						\

	((struct cpumask *)(1 ? (bitmap)				\

			    : (void *)sizeof(__check_is_bitmap(bitmap))))



static inline int __check_is_bitmap(const unsigned long *bitmap)

{

	return 1;

}



/*

 * Special-case data structure for "single bit set only" constant CPU masks.

 *

 * We pre-generate all the 64 (or 32) possible bit positions, with enough

 * padding to the left and the right, and return the constant pointer

 * appropriately offset.

 */

extern const unsigned long

	cpu_bit_bitmap[BITS_PER_LONG+1][BITS_TO_LONGS(NR_CPUS)];



static inline const struct cpumask *get_cpu_mask(unsigned int cpu)

{

	const unsigned long *p = cpu_bit_bitmap[1 + cpu % BITS_PER_LONG];

	p -= cpu / BITS_PER_LONG;

	return to_cpumask(p);

}



#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

/*

 * In cases where we take the address of the cpumask immediately,

 * gcc optimizes it out (it's a constant) and there's no huge stack

 * variable created:

 */

#define cpumask_of_cpu(cpu) (*get_cpu_mask(cpu))





#define CPU_MASK_LAST_WORD BITMAP_LAST_WORD_MASK(NR_CPUS)



#if NR_CPUS <= BITS_PER_LONG



#define CPU_MASK_ALL							\

(cpumask_t) { {								\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD			\

} }



#else



#define CPU_MASK_ALL							\

(cpumask_t) { {								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-2] = ~0UL,			\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD			\

} }



#endif



#define CPU_MASK_NONE							\

(cpumask_t) { {								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-1] =  0UL				\

} }



#define CPU_MASK_CPU0							\

(cpumask_t) { {								\

	[0] =  1UL							\

} }



#define cpus_addr(src) ((src).bits)



#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */

#define cpumask_bits(maskp) ((maskp)->bits)



#if NR_CPUS == 1



#define nr_cpu_ids		1

#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

#define first_cpu(src)		({ (void)(src); 0; })

#define next_cpu(n, src)	({ (void)(src); 1; })

#define any_online_cpu(mask)	0

#define for_each_cpu_mask(cpu, mask)	\

	for ((cpu) = 0; (cpu) < 1; (cpu)++, (void)mask)

#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */

#else /* NR_CPUS > 1 */



#else

extern int nr_cpu_ids;

#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

int __first_cpu(const cpumask_t *srcp);

int __next_cpu(int n, const cpumask_t *srcp);

int __any_online_cpu(const cpumask_t *mask);



#define first_cpu(src)		__first_cpu(&(src))

#define next_cpu(n, src)	__next_cpu((n), &(src))

#define any_online_cpu(mask) __any_online_cpu(&(mask))

#define for_each_cpu_mask(cpu, mask)			\

	for ((cpu) = -1;				\

		(cpu) = next_cpu((cpu), (mask)),	\

		(cpu) < NR_CPUS; )

#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */

#endif



#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

#if NR_CPUS <= 64



#define for_each_cpu_mask_nr(cpu, mask)	for_each_cpu_mask(cpu, mask)



#else /* NR_CPUS > 64 */



int __next_cpu_nr(int n, const cpumask_t *srcp);

#define for_each_cpu_mask_nr(cpu, mask)			\

	for ((cpu) = -1;				\

		(cpu) = __next_cpu_nr((cpu), &(mask)),	\

		(cpu) < nr_cpu_ids; )



#endif /* NR_CPUS > 64 */

#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */

#ifdef CONFIG_CPUMASK_OFFSTACK

/* Assuming NR_CPUS is huge, a runtime limit is more efficient.  Also,

 * not all bits may be allocated. */

#define nr_cpumask_bits	nr_cpu_ids

#else

#define nr_cpumask_bits	NR_CPUS

#endif



/*

 * The following particular system cpumasks and operations manage
@@ -371,12 +80,6 @@ extern const struct cpumask *const cpu_online_mask; 
extern const struct cpumask *const cpu_present_mask;

extern const struct cpumask *const cpu_active_mask;



/* These strip const, as traditionally they weren't const. */

#define cpu_possible_map	(*(cpumask_t *)cpu_possible_mask)

#define cpu_online_map		(*(cpumask_t *)cpu_online_mask)

#define cpu_present_map		(*(cpumask_t *)cpu_present_mask)

#define cpu_active_map		(*(cpumask_t *)cpu_active_mask)



#if NR_CPUS > 1

#define num_online_cpus()	cpumask_weight(cpu_online_mask)

#define num_possible_cpus()	cpumask_weight(cpu_possible_mask)
@@ -395,35 +98,6 @@ extern const struct cpumask *const cpu_active_mask; 
#define cpu_active(cpu)		((cpu) == 0)

#endif



#define cpu_is_offline(cpu)	unlikely(!cpu_online(cpu))



/* These are the new versions of the cpumask operators: passed by pointer.

 * The older versions will be implemented in terms of these, then deleted. */

#define cpumask_bits(maskp) ((maskp)->bits)



#if NR_CPUS <= BITS_PER_LONG

#define CPU_BITS_ALL						\

{								\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD	\

}



#else /* NR_CPUS > BITS_PER_LONG */



#define CPU_BITS_ALL						\

{								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-2] = ~0UL,		\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD		\

}

#endif /* NR_CPUS > BITS_PER_LONG */



#ifdef CONFIG_CPUMASK_OFFSTACK

/* Assuming NR_CPUS is huge, a runtime limit is more efficient.  Also,

 * not all bits may be allocated. */

#define nr_cpumask_bits	nr_cpu_ids

#else

#define nr_cpumask_bits	NR_CPUS

#endif



/* verify cpu argument to cpumask_* operators */

static inline unsigned int cpumask_check(unsigned int cpu)

{
@@ -984,4 +658,241 @@ void set_cpu_active(unsigned int cpu, bool active); 
void init_cpu_present(const struct cpumask *src);

void init_cpu_possible(const struct cpumask *src);

void init_cpu_online(const struct cpumask *src);



/**

 * to_cpumask - convert an NR_CPUS bitmap to a struct cpumask *

 * @bitmap: the bitmap

 *

 * There are a few places where cpumask_var_t isn't appropriate and

 * static cpumasks must be used (eg. very early boot), yet we don't

 * expose the definition of 'struct cpumask'.

 *

 * This does the conversion, and can be used as a constant initializer.

 */

#define to_cpumask(bitmap)						\

	((struct cpumask *)(1 ? (bitmap)				\

			    : (void *)sizeof(__check_is_bitmap(bitmap))))



static inline int __check_is_bitmap(const unsigned long *bitmap)

{

	return 1;

}



/*

 * Special-case data structure for "single bit set only" constant CPU masks.

 *

 * We pre-generate all the 64 (or 32) possible bit positions, with enough

 * padding to the left and the right, and return the constant pointer

 * appropriately offset.

 */

extern const unsigned long

	cpu_bit_bitmap[BITS_PER_LONG+1][BITS_TO_LONGS(NR_CPUS)];



static inline const struct cpumask *get_cpu_mask(unsigned int cpu)

{

	const unsigned long *p = cpu_bit_bitmap[1 + cpu % BITS_PER_LONG];

	p -= cpu / BITS_PER_LONG;

	return to_cpumask(p);

}



#define cpu_is_offline(cpu)	unlikely(!cpu_online(cpu))



#if NR_CPUS <= BITS_PER_LONG

#define CPU_BITS_ALL						\

{								\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD	\

}



#else /* NR_CPUS > BITS_PER_LONG */



#define CPU_BITS_ALL						\

{								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-2] = ~0UL,		\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD		\

}

#endif /* NR_CPUS > BITS_PER_LONG */



/*

 *

 * From here down, all obsolete.  Use cpumask_ variants!

 *

 */

#ifndef CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS

/* These strip const, as traditionally they weren't const. */

#define cpu_possible_map	(*(cpumask_t *)cpu_possible_mask)

#define cpu_online_map		(*(cpumask_t *)cpu_online_mask)

#define cpu_present_map		(*(cpumask_t *)cpu_present_mask)

#define cpu_active_map		(*(cpumask_t *)cpu_active_mask)



#define cpumask_of_cpu(cpu) (*get_cpu_mask(cpu))



#define CPU_MASK_LAST_WORD BITMAP_LAST_WORD_MASK(NR_CPUS)



#if NR_CPUS <= BITS_PER_LONG



#define CPU_MASK_ALL							\

(cpumask_t) { {								\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD			\

} }



#else



#define CPU_MASK_ALL							\

(cpumask_t) { {								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-2] = ~0UL,			\

	[BITS_TO_LONGS(NR_CPUS)-1] = CPU_MASK_LAST_WORD			\

} }



#endif



#define CPU_MASK_NONE							\

(cpumask_t) { {								\

	[0 ... BITS_TO_LONGS(NR_CPUS)-1] =  0UL				\

} }



#define CPU_MASK_CPU0							\

(cpumask_t) { {								\

	[0] =  1UL							\

} }



#if NR_CPUS == 1

#define first_cpu(src)		({ (void)(src); 0; })

#define next_cpu(n, src)	({ (void)(src); 1; })

#define any_online_cpu(mask)	0

#define for_each_cpu_mask(cpu, mask)	\

	for ((cpu) = 0; (cpu) < 1; (cpu)++, (void)mask)

#else /* NR_CPUS > 1 */

int __first_cpu(const cpumask_t *srcp);

int __next_cpu(int n, const cpumask_t *srcp);

int __any_online_cpu(const cpumask_t *mask);



#define first_cpu(src)		__first_cpu(&(src))

#define next_cpu(n, src)	__next_cpu((n), &(src))

#define any_online_cpu(mask) __any_online_cpu(&(mask))

#define for_each_cpu_mask(cpu, mask)			\

	for ((cpu) = -1;				\

		(cpu) = next_cpu((cpu), (mask)),	\

		(cpu) < NR_CPUS; )

#endif /* SMP */



#if NR_CPUS <= 64



#define for_each_cpu_mask_nr(cpu, mask)	for_each_cpu_mask(cpu, mask)



#else /* NR_CPUS > 64 */



int __next_cpu_nr(int n, const cpumask_t *srcp);

#define for_each_cpu_mask_nr(cpu, mask)			\

	for ((cpu) = -1;				\

		(cpu) = __next_cpu_nr((cpu), &(mask)),	\

		(cpu) < nr_cpu_ids; )



#endif /* NR_CPUS > 64 */



#define cpus_addr(src) ((src).bits)



#define cpu_set(cpu, dst) __cpu_set((cpu), &(dst))

static inline void __cpu_set(int cpu, volatile cpumask_t *dstp)

{

	set_bit(cpu, dstp->bits);

}



#define cpu_clear(cpu, dst) __cpu_clear((cpu), &(dst))

static inline void __cpu_clear(int cpu, volatile cpumask_t *dstp)

{

	clear_bit(cpu, dstp->bits);

}



#define cpus_setall(dst) __cpus_setall(&(dst), NR_CPUS)

static inline void __cpus_setall(cpumask_t *dstp, int nbits)

{

	bitmap_fill(dstp->bits, nbits);

}



#define cpus_clear(dst) __cpus_clear(&(dst), NR_CPUS)

static inline void __cpus_clear(cpumask_t *dstp, int nbits)

{

	bitmap_zero(dstp->bits, nbits);

}



/* No static inline type checking - see Subtlety (1) above. */

#define cpu_isset(cpu, cpumask) test_bit((cpu), (cpumask).bits)



#define cpu_test_and_set(cpu, cpumask) __cpu_test_and_set((cpu), &(cpumask))

static inline int __cpu_test_and_set(int cpu, cpumask_t *addr)

{

	return test_and_set_bit(cpu, addr->bits);

}



#define cpus_and(dst, src1, src2) __cpus_and(&(dst), &(src1), &(src2), NR_CPUS)

static inline int __cpus_and(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_and(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_or(dst, src1, src2) __cpus_or(&(dst), &(src1), &(src2), NR_CPUS)

static inline void __cpus_or(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	bitmap_or(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_xor(dst, src1, src2) __cpus_xor(&(dst), &(src1), &(src2), NR_CPUS)

static inline void __cpus_xor(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	bitmap_xor(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_andnot(dst, src1, src2) \

				__cpus_andnot(&(dst), &(src1), &(src2), NR_CPUS)

static inline int __cpus_andnot(cpumask_t *dstp, const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_andnot(dstp->bits, src1p->bits, src2p->bits, nbits);

}



#define cpus_equal(src1, src2) __cpus_equal(&(src1), &(src2), NR_CPUS)

static inline int __cpus_equal(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_equal(src1p->bits, src2p->bits, nbits);

}



#define cpus_intersects(src1, src2) __cpus_intersects(&(src1), &(src2), NR_CPUS)

static inline int __cpus_intersects(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_intersects(src1p->bits, src2p->bits, nbits);

}



#define cpus_subset(src1, src2) __cpus_subset(&(src1), &(src2), NR_CPUS)

static inline int __cpus_subset(const cpumask_t *src1p,

					const cpumask_t *src2p, int nbits)

{

	return bitmap_subset(src1p->bits, src2p->bits, nbits);

}



#define cpus_empty(src) __cpus_empty(&(src), NR_CPUS)

static inline int __cpus_empty(const cpumask_t *srcp, int nbits)

{

	return bitmap_empty(srcp->bits, nbits);

}



#define cpus_weight(cpumask) __cpus_weight(&(cpumask), NR_CPUS)

static inline int __cpus_weight(const cpumask_t *srcp, int nbits)

{

	return bitmap_weight(srcp->bits, nbits);

}



#define cpus_shift_left(dst, src, n) \

			__cpus_shift_left(&(dst), &(src), (n), NR_CPUS)

static inline void __cpus_shift_left(cpumask_t *dstp,

					const cpumask_t *srcp, int n, int nbits)

{

	bitmap_shift_left(dstp->bits, srcp->bits, n, nbits);

}

#endif /* !CONFIG_DISABLE_OBSOLETE_CPUMASK_FUNCTIONS */



#endif /* __LINUX_CPUMASK_H */