static int handle_opendir(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr, const struct fuse_open_in* req)
{
struct node* node;
char path[PATH_MAX];
struct fuse_open_out out;
struct dirhandle *h;
pthread_mutex_lock(&fuse->lock);
node = lookup_node_and_path_by_id_locked(fuse, hdr->nodeid, path, sizeof(path));
TRACE("[%d] OPENDIR @ %llx (%s)\n", handler->token,
hdr->nodeid, node ? node->name : "?");
pthread_mutex_unlock(&fuse->lock);
if (!node) {
return -ENOENT;
}
h = malloc(sizeof(*h));
if (!h) {
return -ENOMEM;
}
TRACE("[%d] OPENDIR %s\n", handler->token, path);
h->d = opendir(path);
if (!h->d) {
free(h);
return -errno;
}
out.fh = ptr_to_id(h);
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_readdir(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr, const struct fuse_read_in* req)
{
char buffer[8192];
struct fuse_dirent *fde = (struct fuse_dirent*) buffer;
struct dirent *de;
struct dirhandle *h = id_to_ptr(req->fh);
TRACE("[%d] READDIR %p\n", handler->token, h);
if (req->offset == 0) {
/* rewinddir() might have been called above us, so rewind here too */
TRACE("[%d] calling rewinddir()\n", handler->token);
rewinddir(h->d);
}
de = readdir(h->d);
if (!de) {
return 0;
}
fde->ino = FUSE_UNKNOWN_INO;
/* increment the offset so we can detect when rewinddir() seeks back to the beginning */
fde->off = req->offset + 1;
fde->type = de->d_type;
fde->namelen = strlen(de->d_name);
memcpy(fde->name, de->d_name, fde->namelen + 1);
fuse_reply(fuse, hdr->unique, fde,
FUSE_DIRENT_ALIGN(sizeof(struct fuse_dirent) + fde->namelen));
return NO_STATUS;
}
static int handle_read(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr, const struct fuse_read_in* req)
{
struct handle *h = id_to_ptr(req->fh);
__u64 unique = hdr->unique;
__u32 size = req->size;
__u64 offset = req->offset;
int res;
/* Don't access any other fields of hdr or req beyond this point, the read buffer
* overlaps the request buffer and will clobber data in the request. This
* saves us 128KB per request handler thread at the cost of this scary comment. */
TRACE("[%d] READ %p(%d) %u@%llu\n", handler->token,
h, h->fd, size, offset);
if (size > sizeof(handler->read_buffer)) {
return -EINVAL;
}
res = pread64(h->fd, handler->read_buffer, size, offset);
if (res < 0) {
return -errno;
}
fuse_reply(fuse, unique, handler->read_buffer, res);
return NO_STATUS;
}
static int handle_statfs(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr)
{
char path[PATH_MAX];
struct statfs stat;
struct fuse_statfs_out out;
int res;
pthread_mutex_lock(&fuse->lock);
TRACE("[%d] STATFS\n", handler->token);
res = get_node_path_locked(&fuse->root, path, sizeof(path));
pthread_mutex_unlock(&fuse->lock);
if (res < 0) {
return -ENOENT;
}
if (statfs(fuse->root.name, &stat) < 0) {
return -errno;
}
memset(&out, 0, sizeof(out));
out.st.blocks = stat.f_blocks;
out.st.bfree = stat.f_bfree;
out.st.bavail = stat.f_bavail;
out.st.files = stat.f_files;
out.st.ffree = stat.f_ffree;
out.st.bsize = stat.f_bsize;
out.st.namelen = stat.f_namelen;
out.st.frsize = stat.f_frsize;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int fuse_reply_entry(struct fuse* fuse, __u64 unique,
struct node* parent, const char* name, const char* actual_name,
const char* path)
{
struct node* node;
struct fuse_entry_out out;
struct stat s;
if (lstat(path, &s) < 0) {
return -errno;
}
pthread_mutex_lock(&fuse->lock);
node = acquire_or_create_child_locked(fuse, parent, name, actual_name);
if (!node) {
pthread_mutex_unlock(&fuse->lock);
return -ENOMEM;
}
memset(&out, 0, sizeof(out));
attr_from_stat(&out.attr, &s, node->nid);
out.attr_valid = 10;
out.entry_valid = 10;
out.nodeid = node->nid;
out.generation = node->gen;
pthread_mutex_unlock(&fuse->lock);
fuse_reply(fuse, unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_open(void* /* data */, struct fuse_data* fd, const struct fuse_in_header* hdr) {
if (hdr->nodeid != PACKAGE_FILE_ID) return -ENOENT;
struct fuse_open_out out;
memset(&out, 0, sizeof(out));
out.fh = 10; // an arbitrary number; we always use the same handle
fuse_reply(fd, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int fuse_reply_attr(struct fuse* fuse, __u64 unique, __u64 nid,
const char* path)
{
struct fuse_attr_out out;
struct stat s;
if (lstat(path, &s) < 0) {
return -errno;
}
memset(&out, 0, sizeof(out));
attr_from_stat(&out.attr, &s, nid);
out.attr_valid = 10;
fuse_reply(fuse, unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_init(void* data, struct fuse_data* fd, const struct fuse_in_header* hdr) {
const struct fuse_init_in* req = data;
struct fuse_init_out out;
out.major = FUSE_KERNEL_VERSION;
out.minor = FUSE_KERNEL_MINOR_VERSION;
out.max_readahead = req->max_readahead;
out.flags = 0;
out.max_background = 32;
out.congestion_threshold = 32;
out.max_write = 4096;
fuse_reply(fd, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_getattr(void* /* data */, struct fuse_data* fd, const struct fuse_in_header* hdr) {
struct fuse_attr_out out;
memset(&out, 0, sizeof(out));
out.attr_valid = 10;
if (hdr->nodeid == FUSE_ROOT_ID) {
fill_attr(&(out.attr), fd, hdr->nodeid, 4096, S_IFDIR | 0555);
} else if (hdr->nodeid == PACKAGE_FILE_ID) {
fill_attr(&(out.attr), fd, PACKAGE_FILE_ID, fd->file_size, S_IFREG | 0444);
} else {
return -ENOENT;
}
fuse_reply(fd, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_init(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr, const struct fuse_init_in* req)
{
struct fuse_init_out out;
TRACE("[%d] INIT ver=%d.%d maxread=%d flags=%x\n",
handler->token, req->major, req->minor, req->max_readahead, req->flags);
out.major = FUSE_KERNEL_VERSION;
out.minor = FUSE_KERNEL_MINOR_VERSION;
out.max_readahead = req->max_readahead;
out.flags = FUSE_ATOMIC_O_TRUNC | FUSE_BIG_WRITES;
out.max_background = 32;
out.congestion_threshold = 32;
out.max_write = MAX_WRITE;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_write(struct fuse* fuse, struct fuse_handler* handler,
const struct fuse_in_header* hdr, const struct fuse_write_in* req,
const void* buffer)
{
struct fuse_write_out out;
struct handle *h = id_to_ptr(req->fh);
int res;
TRACE("[%d] WRITE %p(%d) %u@%llu\n", handler->token,
h, h->fd, req->size, req->offset);
res = pwrite64(h->fd, buffer, req->size, req->offset);
if (res < 0) {
return -errno;
}
out.size = res;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_lookup(void* data, struct fuse_data* fd,
const struct fuse_in_header* hdr) {
struct fuse_entry_out out;
memset(&out, 0, sizeof(out));
out.entry_valid = 10;
out.attr_valid = 10;
if (strncmp(FUSE_SIDELOAD_HOST_FILENAME, reinterpret_cast<const char*>(data),
sizeof(FUSE_SIDELOAD_HOST_FILENAME)) == 0) {
out.nodeid = PACKAGE_FILE_ID;
out.generation = PACKAGE_FILE_ID;
fill_attr(&(out.attr), fd, PACKAGE_FILE_ID, fd->file_size, S_IFREG | 0444);
} else {
return -ENOENT;
}
fuse_reply(fd, hdr->unique, &out, sizeof(out));
return NO_STATUS;
}
static int handle_init(void* data, struct fuse_data* fd, const struct fuse_in_header* hdr) {
const struct fuse_init_in* req = reinterpret_cast<const struct fuse_init_in*>(data);
struct fuse_init_out out;
size_t fuse_struct_size;
/* Kernel 2.6.16 is the first stable kernel with struct fuse_init_out
* defined (fuse version 7.6). The structure is the same from 7.6 through
* 7.22. Beginning with 7.23, the structure increased in size and added
* new parameters.
*/
if (req->major != FUSE_KERNEL_VERSION || req->minor < 6) {
printf("Fuse kernel version mismatch: Kernel version %d.%d, Expected at least %d.6",
req->major, req->minor, FUSE_KERNEL_VERSION);
return -1;
}
out.minor = MIN(req->minor, FUSE_KERNEL_MINOR_VERSION);
fuse_struct_size = sizeof(out);
#if defined(FUSE_COMPAT_22_INIT_OUT_SIZE)
/* FUSE_KERNEL_VERSION >= 23. */
/* If the kernel only works on minor revs older than or equal to 22,
* then use the older structure size since this code only uses the 7.22
* version of the structure. */
if (req->minor <= 22) {
fuse_struct_size = FUSE_COMPAT_22_INIT_OUT_SIZE;
}
#endif
out.major = FUSE_KERNEL_VERSION;
out.max_readahead = req->max_readahead;
out.flags = 0;
out.max_background = 32;
out.congestion_threshold = 32;
out.max_write = 4096;
fuse_reply(fd, hdr->unique, &out, fuse_struct_size);
return NO_STATUS;
}
void lookup_entry(struct fuse *fuse, struct node *node,
const char *name, __u64 unique)
{
struct fuse_entry_out out;
memset(&out, 0, sizeof(out));
node = node_lookup(fuse, node, name, &out.attr);
if (!node) {
fuse_status(fuse, unique, -ENOENT);
return;
}
node->refcount++;
// fprintf(stderr,"ACQUIRE %p (%s) rc=%d\n", node, node->name, node->refcount);
out.nodeid = node->nid;
out.generation = node->gen;
out.entry_valid = 10;
out.attr_valid = 10;
fuse_reply(fuse, unique, &out, sizeof(out));
}
void handle_fuse_request(struct fuse *fuse, struct fuse_in_header *hdr, void *data, unsigned len)
{
struct node *node;
if ((len < sizeof(*hdr)) || (hdr->len != len)) {
ERROR("malformed header\n");
return;
}
len -= hdr->len;
if (hdr->nodeid) {
node = lookup_by_inode(fuse, hdr->nodeid);
if (!node) {
fuse_status(fuse, hdr->unique, -ENOENT);
return;
}
} else {
node = 0;
}
switch (hdr->opcode) {
case FUSE_LOOKUP: { /* bytez[] -> entry_out */
TRACE("LOOKUP %llx %s\n", hdr->nodeid, (char*) data);
lookup_entry(fuse, node, (char*) data, hdr->unique);
return;
}
case FUSE_FORGET: {
struct fuse_forget_in *req = data;
TRACE("FORGET %llx (%s) #%lld\n", hdr->nodeid, node->name, req->nlookup);
/* no reply */
while (req->nlookup--)
node_release(node);
return;
}
case FUSE_GETATTR: { /* getattr_in -> attr_out */
struct fuse_getattr_in *req = data;
struct fuse_attr_out out;
TRACE("GETATTR flags=%x fh=%llx\n", req->getattr_flags, req->fh);
memset(&out, 0, sizeof(out));
node_get_attr(node, &out.attr);
out.attr_valid = 10;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
case FUSE_SETATTR: { /* setattr_in -> attr_out */
struct fuse_setattr_in *req = data;
struct fuse_attr_out out;
char *path, buffer[PATH_BUFFER_SIZE];
int res = 0;
struct timespec times[2];
TRACE("SETATTR fh=%llx id=%llx valid=%x\n",
req->fh, hdr->nodeid, req->valid);
/* XXX: incomplete implementation on purpose. chmod/chown
* should NEVER be implemented.*/
path = node_get_path(node, buffer, 0);
if (req->valid & FATTR_SIZE)
res = truncate(path, req->size);
if (res)
goto getout;
/* Handle changing atime and mtime. If FATTR_ATIME_and FATTR_ATIME_NOW
* are both set, then set it to the current time. Else, set it to the
* time specified in the request. Same goes for mtime. Use utimensat(2)
* as it allows ATIME and MTIME to be changed independently, and has
* nanosecond resolution which fuse also has.
*/
if (req->valid & (FATTR_ATIME | FATTR_MTIME)) {
times[0].tv_nsec = UTIME_OMIT;
times[1].tv_nsec = UTIME_OMIT;
if (req->valid & FATTR_ATIME) {
if (req->valid & FATTR_ATIME_NOW) {
times[0].tv_nsec = UTIME_NOW;
} else {
times[0].tv_sec = req->atime;
times[0].tv_nsec = req->atimensec;
}
}
if (req->valid & FATTR_MTIME) {
if (req->valid & FATTR_MTIME_NOW) {
times[1].tv_nsec = UTIME_NOW;
} else {
times[1].tv_sec = req->mtime;
times[1].tv_nsec = req->mtimensec;
}
}
TRACE("Calling utimensat on %s with atime %ld, mtime=%ld\n", path, times[0].tv_sec, times[1].tv_sec);
res = utimensat(-1, path, times, 0);
}
getout:
memset(&out, 0, sizeof(out));
node_get_attr(node, &out.attr);
out.attr_valid = 10;
if (res)
fuse_status(fuse, hdr->unique, -errno);
else
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
// case FUSE_READLINK:
// case FUSE_SYMLINK:
case FUSE_MKNOD: { /* mknod_in, bytez[] -> entry_out */
struct fuse_mknod_in *req = data;
char *path, buffer[PATH_BUFFER_SIZE];
char *name = ((char*) data) + sizeof(*req);
int res;
TRACE("MKNOD %s @ %llx\n", name, hdr->nodeid);
path = node_get_path(node, buffer, name);
req->mode = (req->mode & (~0777)) | 0664;
res = mknod(path, req->mode, req->rdev); /* XXX perm?*/
if (res < 0) {
fuse_status(fuse, hdr->unique, -errno);
} else {
lookup_entry(fuse, node, name, hdr->unique);
}
return;
}
case FUSE_MKDIR: { /* mkdir_in, bytez[] -> entry_out */
struct fuse_mkdir_in *req = data;
struct fuse_entry_out out;
char *path, buffer[PATH_BUFFER_SIZE];
char *name = ((char*) data) + sizeof(*req);
int res;
TRACE("MKDIR %s @ %llx 0%o\n", name, hdr->nodeid, req->mode);
path = node_get_path(node, buffer, name);
req->mode = (req->mode & (~0777)) | 0775;
res = mkdir(path, req->mode);
if (res < 0) {
fuse_status(fuse, hdr->unique, -errno);
} else {
lookup_entry(fuse, node, name, hdr->unique);
}
return;
}
case FUSE_UNLINK: { /* bytez[] -> */
char *path, buffer[PATH_BUFFER_SIZE];
int res;
TRACE("UNLINK %s @ %llx\n", (char*) data, hdr->nodeid);
path = node_get_path(node, buffer, (char*) data);
res = unlink(path);
fuse_status(fuse, hdr->unique, res ? -errno : 0);
return;
}
case FUSE_RMDIR: { /* bytez[] -> */
char *path, buffer[PATH_BUFFER_SIZE];
int res;
TRACE("RMDIR %s @ %llx\n", (char*) data, hdr->nodeid);
path = node_get_path(node, buffer, (char*) data);
res = rmdir(path);
fuse_status(fuse, hdr->unique, res ? -errno : 0);
return;
}
case FUSE_RENAME: { /* rename_in, oldname, newname -> */
struct fuse_rename_in *req = data;
char *oldname = ((char*) data) + sizeof(*req);
char *newname = oldname + strlen(oldname) + 1;
char *oldpath, oldbuffer[PATH_BUFFER_SIZE];
char *newpath, newbuffer[PATH_BUFFER_SIZE];
struct node *target;
struct node *newparent;
int res;
TRACE("RENAME %s->%s @ %llx\n", oldname, newname, hdr->nodeid);
target = lookup_child_by_name(node, oldname);
if (!target) {
fuse_status(fuse, hdr->unique, -ENOENT);
return;
}
oldpath = node_get_path(node, oldbuffer, oldname);
newparent = lookup_by_inode(fuse, req->newdir);
if (!newparent) {
fuse_status(fuse, hdr->unique, -ENOENT);
return;
}
if (newparent == node) {
/* Special case for renaming a file where destination
* is same path differing only by case.
* In this case we don't want to look for a case insensitive match.
* This allows commands like "mv foo FOO" to work as expected.
*/
newpath = do_node_get_path(newparent, newbuffer, newname, NO_CASE_SENSITIVE_MATCH);
} else {
newpath = node_get_path(newparent, newbuffer, newname);
}
if (!remove_child(node, target->nid)) {
ERROR("RENAME remove_child not found");
fuse_status(fuse, hdr->unique, -ENOENT);
return;
}
if (!rename_node(target, newname)) {
fuse_status(fuse, hdr->unique, -ENOMEM);
return;
}
add_node_to_parent(target, newparent);
res = rename(oldpath, newpath);
TRACE("RENAME result %d\n", res);
fuse_status(fuse, hdr->unique, res ? -errno : 0);
return;
}
// case FUSE_LINK:
case FUSE_OPEN: { /* open_in -> open_out */
struct fuse_open_in *req = data;
struct fuse_open_out out;
char *path, buffer[PATH_BUFFER_SIZE];
struct handle *h;
h = malloc(sizeof(*h));
if (!h) {
fuse_status(fuse, hdr->unique, -ENOMEM);
return;
}
path = node_get_path(node, buffer, 0);
TRACE("OPEN %llx '%s' 0%o fh=%p\n", hdr->nodeid, path, req->flags, h);
h->fd = open(path, req->flags);
if (h->fd < 0) {
ERROR("ERROR\n");
fuse_status(fuse, hdr->unique, -errno);
free(h);
return;
}
out.fh = ptr_to_id(h);
out.open_flags = 0;
out.padding = 0;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
case FUSE_READ: { /* read_in -> byte[] */
char buffer[128 * 1024];
struct fuse_read_in *req = data;
struct handle *h = id_to_ptr(req->fh);
int res;
TRACE("READ %p(%d) %u@%llu\n", h, h->fd, req->size, req->offset);
if (req->size > sizeof(buffer)) {
fuse_status(fuse, hdr->unique, -EINVAL);
return;
}
res = pread64(h->fd, buffer, req->size, req->offset);
if (res < 0) {
fuse_status(fuse, hdr->unique, -errno);
return;
}
fuse_reply(fuse, hdr->unique, buffer, res);
return;
}
case FUSE_WRITE: { /* write_in, byte[write_in.size] -> write_out */
struct fuse_write_in *req = data;
struct fuse_write_out out;
struct handle *h = id_to_ptr(req->fh);
int res;
TRACE("WRITE %p(%d) %u@%llu\n", h, h->fd, req->size, req->offset);
res = pwrite64(h->fd, ((char*) data) + sizeof(*req), req->size, req->offset);
if (res < 0) {
fuse_status(fuse, hdr->unique, -errno);
return;
}
out.size = res;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
goto oops;
}
case FUSE_STATFS: { /* getattr_in -> attr_out */
struct statfs stat;
struct fuse_statfs_out out;
int res;
TRACE("STATFS\n");
if (statfs(fuse->root.name, &stat)) {
fuse_status(fuse, hdr->unique, -errno);
return;
}
memset(&out, 0, sizeof(out));
out.st.blocks = stat.f_blocks;
out.st.bfree = stat.f_bfree;
out.st.bavail = stat.f_bavail;
out.st.files = stat.f_files;
out.st.ffree = stat.f_ffree;
out.st.bsize = stat.f_bsize;
out.st.namelen = stat.f_namelen;
out.st.frsize = stat.f_frsize;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
case FUSE_RELEASE: { /* release_in -> */
struct fuse_release_in *req = data;
struct handle *h = id_to_ptr(req->fh);
TRACE("RELEASE %p(%d)\n", h, h->fd);
close(h->fd);
free(h);
fuse_status(fuse, hdr->unique, 0);
return;
}
// case FUSE_FSYNC:
// case FUSE_SETXATTR:
// case FUSE_GETXATTR:
// case FUSE_LISTXATTR:
// case FUSE_REMOVEXATTR:
case FUSE_FLUSH:
fuse_status(fuse, hdr->unique, 0);
return;
case FUSE_OPENDIR: { /* open_in -> open_out */
struct fuse_open_in *req = data;
struct fuse_open_out out;
char *path, buffer[PATH_BUFFER_SIZE];
struct dirhandle *h;
h = malloc(sizeof(*h));
if (!h) {
fuse_status(fuse, hdr->unique, -ENOMEM);
return;
}
path = node_get_path(node, buffer, 0);
TRACE("OPENDIR %llx '%s'\n", hdr->nodeid, path);
h->d = opendir(path);
if (h->d == 0) {
ERROR("ERROR\n");
fuse_status(fuse, hdr->unique, -errno);
free(h);
return;
}
out.fh = ptr_to_id(h);
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
case FUSE_READDIR: {
struct fuse_read_in *req = data;
char buffer[8192];
struct fuse_dirent *fde = (struct fuse_dirent*) buffer;
struct dirent *de;
struct dirhandle *h = id_to_ptr(req->fh);
TRACE("READDIR %p\n", h);
if (req->offset == 0) {
/* rewinddir() might have been called above us, so rewind here too */
TRACE("calling rewinddir()\n");
rewinddir(h->d);
}
de = readdir(h->d);
if (!de) {
fuse_status(fuse, hdr->unique, 0);
return;
}
fde->ino = FUSE_UNKNOWN_INO;
/* increment the offset so we can detect when rewinddir() seeks back to the beginning */
fde->off = req->offset + 1;
fde->type = de->d_type;
fde->namelen = strlen(de->d_name);
memcpy(fde->name, de->d_name, fde->namelen + 1);
fuse_reply(fuse, hdr->unique, fde,
FUSE_DIRENT_ALIGN(sizeof(struct fuse_dirent) + fde->namelen));
return;
}
case FUSE_RELEASEDIR: { /* release_in -> */
struct fuse_release_in *req = data;
struct dirhandle *h = id_to_ptr(req->fh);
TRACE("RELEASEDIR %p\n",h);
closedir(h->d);
free(h);
fuse_status(fuse, hdr->unique, 0);
return;
}
// case FUSE_FSYNCDIR:
case FUSE_INIT: { /* init_in -> init_out */
struct fuse_init_in *req = data;
struct fuse_init_out out;
TRACE("INIT ver=%d.%d maxread=%d flags=%x\n",
req->major, req->minor, req->max_readahead, req->flags);
out.major = FUSE_KERNEL_VERSION;
out.minor = FUSE_KERNEL_MINOR_VERSION;
out.max_readahead = req->max_readahead;
out.flags = FUSE_ATOMIC_O_TRUNC | FUSE_BIG_WRITES;
out.max_background = 32;
out.congestion_threshold = 32;
out.max_write = 256 * 1024;
fuse_reply(fuse, hdr->unique, &out, sizeof(out));
return;
}
default: {
struct fuse_out_header h;
ERROR("NOTIMPL op=%d uniq=%llx nid=%llx\n",
hdr->opcode, hdr->unique, hdr->nodeid);
oops:
h.len = sizeof(h);
h.error = -ENOSYS;
h.unique = hdr->unique;
write(fuse->fd, &h, sizeof(h));
break;
}
}
}
