| /fs/jffs2/ |
| A D | compr_lzo.c | 135 #define PTR(a) ((lzo_ptr_t) (a)) argument 136 #define PTR_LINEAR(a) PTR(a) argument 137 #define PTR_ALIGNED_4(a) ((PTR_LINEAR(a) & 3) == 0) argument 138 #define PTR_ALIGNED_8(a) ((PTR_LINEAR(a) & 7) == 0) argument 139 #define PTR_ALIGNED2_4(a,b) (((PTR_LINEAR(a) | PTR_LINEAR(b)) & 3) == 0) argument 140 #define PTR_ALIGNED2_8(a,b) (((PTR_LINEAR(a) | PTR_LINEAR(b)) & 7) == 0) argument 141 #define PTR_LT(a,b) (PTR(a) < PTR(b)) argument 142 #define PTR_GE(a,b) (PTR(a) >= PTR(b)) argument 143 #define PTR_DIFF(a,b) ((lzo_ptrdiff_t) (PTR(a) - PTR(b))) argument 144 #define pd(a,b) ((lzo_uint) ((a)-(b))) argument
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| A D | LICENCE | 16 You should have received a copy of the GNU General Public License along 20 As a special exception, if other files instantiate templates or use 22 files and link them with other works to produce a work based on these 28 This exception does not invalidate any other reasons why a work based on
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| A D | Kconfig | 5 Flash File System version 2). JFFS2 is a log-structured file system 25 If you boot from a partition which is mounted writable, and you 30 which is more or less a bubble sort. That algorithm is known to be
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| /fs/zfs/ |
| A D | zfs_sha256.c | 78 uint32_t a, b, c, d, e, f, g, h, t, T1, T2, W[64]; in SHA256Transform() local 87 a = H[0]; b = H[1]; c = H[2]; d = H[3]; in SHA256Transform() 92 T2 = SIGMA0(a) + Maj(a, b, c); in SHA256Transform() 94 d = c; c = b; b = a; a = T1 + T2; in SHA256Transform() 97 H[0] += a; H[1] += b; H[2] += c; H[3] += d; in SHA256Transform()
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| A D | zfs_fletcher.c | 60 uint64_t a, b, c, d; in fletcher_4_endian() local 62 for (a = b = c = d = 0; ip < ipend; ip++) { in fletcher_4_endian() 63 a += zfs_to_cpu32(ip[0], endian); in fletcher_4_endian() 64 b += a; in fletcher_4_endian() 69 zcp->zc_word[0] = cpu_to_zfs64(a, endian); in fletcher_4_endian()
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| /fs/cbfs/ |
| A D | Kconfig | 4 Define this to enable support for reading from a Coreboot 5 filesystem. This is a ROM-based filesystem used for accessing files 14 Define this to enable support for reading from a Coreboot 15 filesystem. This is a ROM-based filesystem used for accessing files 20 those which accept a cbfs_priv * can be used, since BSS is not
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| /fs/exfat/ |
| A D | compiler.h | 63 #define CONCAT2(a, b) a ## b argument 64 #define CONCAT1(a, b) CONCAT2(a, b) argument
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| A D | lookup.c | 62 static int compare_char(struct exfat* ef, uint16_t a, uint16_t b) in compare_char() argument 64 return (int) ef->upcase[a] - (int) ef->upcase[b]; in compare_char() 67 static int compare_name(struct exfat* ef, const le16_t* a, const le16_t* b) in compare_name() argument 69 while (le16_to_cpu(*a) && le16_to_cpu(*b)) in compare_name() 71 int rc = compare_char(ef, le16_to_cpu(*a), le16_to_cpu(*b)); in compare_name() 74 a++; in compare_name() 77 return compare_char(ef, le16_to_cpu(*a), le16_to_cpu(*b)); in compare_name()
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| A D | cluster.c | 457 cluster_t* a, cluster_t* b) in find_used_clusters() argument 462 for (*a = *b + 1; *a < end; (*a)++) in find_used_clusters() 463 if (BMAP_GET(ef->cmap.chunk, *a - EXFAT_FIRST_DATA_CLUSTER)) in find_used_clusters() 465 if (*a >= end) in find_used_clusters() 469 for (*b = *a; *b < end; (*b)++) in find_used_clusters() 479 int exfat_find_used_sectors(const struct exfat* ef, off_t* a, off_t* b) in exfat_find_used_sectors() argument 483 if (*a == 0 && *b == 0) in exfat_find_used_sectors() 487 ca = s2c(ef, *a); in exfat_find_used_sectors() 492 if (*a != 0 || *b != 0) in exfat_find_used_sectors() 493 *a = c2s(ef, ca); in exfat_find_used_sectors()
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| A D | exfat.h | 54 #define MIN(a, b) ((a) < (b) ? (a) : (b)) argument 55 #define MAX(a, b) ((a) > (b) ? (a) : (b)) argument 200 int exfat_find_used_sectors(const struct exfat* ef, off_t* a, off_t* b);
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| A D | byteorder.h | 65 #error Wow! You have a PDP machine?!
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| /fs/ubifs/ |
| A D | key.h | 51 uint32_t a = 0; in key_r5_hash() local 55 a += *str << 4; in key_r5_hash() 56 a += *str >> 4; in key_r5_hash() 57 a *= 11; in key_r5_hash() 61 return key_mask_hash(a); in key_r5_hash() 71 uint32_t a = 0; in key_test_hash() local 74 memcpy(&a, str, len); in key_test_hash() 75 return key_mask_hash(a); in key_test_hash()
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| A D | gc.c | 117 static int data_nodes_cmp(void *priv, struct list_head *a, struct list_head *b) in data_nodes_cmp() argument 124 if (a == b) in data_nodes_cmp() 127 sa = list_entry(a, struct ubifs_scan_node, list); in data_nodes_cmp() 160 static int nondata_nodes_cmp(void *priv, struct list_head *a, in nondata_nodes_cmp() argument 168 if (a == b) in nondata_nodes_cmp() 171 sa = list_entry(a, struct ubifs_scan_node, list); in nondata_nodes_cmp()
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| A D | replay.c | 271 static int replay_entries_cmp(void *priv, struct list_head *a, in replay_entries_cmp() argument 277 if (a == b) in replay_entries_cmp() 280 ra = list_entry(a, struct replay_entry, list); in replay_entries_cmp()
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| /fs/btrfs/ |
| A D | conv-funcs.h | 38 # define DEFINE_CONV_ALT(n,a,...) \ argument 39 static inline struct n *n##_to_disk_##a(struct n * r) \ 43 static inline struct n *n##_to_cpu_##a(struct n * r) \ 114 # define DEFINE_CONV_ALT(n,a,...) \ argument 115 DEFINE_CONV_ONE(n,n##_to_disk_##a,DEFINE_CONV_CPU_TO_LE, \ 117 DEFINE_CONV_ONE(n,n##_to_cpu_##a,DEFINE_CONV_LE_TO_CPU,##__VA_ARGS__)
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| A D | Kconfig | 11 This provides a single-device read-only BTRFS support. BTRFS is a
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| A D | volumes.c | 921 static inline int parity_smaller(u64 a, u64 b) in parity_smaller() argument 923 return a > b; in parity_smaller()
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| /fs/fat/ |
| A D | Kconfig | 5 (FAT) filesystem. FAT filesystem is a legacy, lightweight filesystem. 20 This provides support for renaming and moving files within a 29 is the smallest amount of disk space that can be used to hold a
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| /fs/squashfs/ |
| A D | Kconfig | 6 Squashfs is a compressed read-only filesystem for Linux. 9 filesystem use, for archival use (i.e. in cases where a .tar.gz file
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| /fs/ext4/ |
| A D | Kconfig | 6 ext4 is a widely used general-purpose filesystem for Linux.
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| /fs/erofs/ |
| A D | Kconfig | 5 EROFS (Enhanced Read-Only File System) is a lightweight read-only
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