{
struct nlm_host *host = req->a_host;
struct rpc_clnt *clnt;
- int status = -ENOLCK;
dprintk("lockd: call procedure %d on %s (async)\n",
(int)proc, host->h_name);
msg->rpc_proc = &clnt->cl_procinfo[proc];
/* bootstrap and kick off the async RPC call */
- status = rpc_call_async(clnt, msg, RPC_TASK_ASYNC, tk_ops, req);
- if (status == 0)
- return 0;
+ return rpc_call_async(clnt, msg, RPC_TASK_ASYNC, tk_ops, req);
out_err:
- nlm_release_call(req);
- return status;
+ tk_ops->rpc_release(req);
+ return -ENOLCK;
}
int nlm_async_call(struct nlm_rqst *req, u32 proc, const struct rpc_call_ops *tk_ops)
/* Call the client */
kref_get(&block->b_count);
- if (nlm_async_call(block->b_call, NLMPROC_GRANTED_MSG,
- &nlmsvc_grant_ops) < 0)
- nlmsvc_release_block(block);
+ nlm_async_call(block->b_call, NLMPROC_GRANTED_MSG, &nlmsvc_grant_ops);
}
/*
static int nfs_create_rpc_client(struct nfs_client *clp, int proto,
unsigned int timeo,
unsigned int retrans,
- rpc_authflavor_t flavor)
+ rpc_authflavor_t flavor,
+ int flags)
{
struct rpc_timeout timeparms;
struct rpc_clnt *clnt = NULL;
.program = &nfs_program,
.version = clp->rpc_ops->version,
.authflavor = flavor,
+ .flags = flags,
};
if (!IS_ERR(clp->cl_rpcclient))
* - RFC 2623, sec 2.3.2
*/
error = nfs_create_rpc_client(clp, proto, data->timeo, data->retrans,
- RPC_AUTH_UNIX);
+ RPC_AUTH_UNIX, 0);
if (error < 0)
goto error;
nfs_mark_client_ready(clp, NFS_CS_READY);
/* Check NFS protocol revision and initialize RPC op vector */
clp->rpc_ops = &nfs_v4_clientops;
- error = nfs_create_rpc_client(clp, proto, timeo, retrans, authflavour);
+ error = nfs_create_rpc_client(clp, proto, timeo, retrans, authflavour,
+ RPC_CLNT_CREATE_DISCRTRY);
if (error < 0)
goto error;
memcpy(clp->cl_ipaddr, ip_addr, sizeof(clp->cl_ipaddr));
* Create an NFS4 referral server record
*/
struct nfs_server *nfs4_create_referral_server(struct nfs_clone_mount *data,
- struct nfs_fh *fh)
+ struct nfs_fh *mntfh)
{
struct nfs_client *parent_client;
struct nfs_server *server, *parent_server;
BUG_ON(!server->nfs_client->rpc_ops);
BUG_ON(!server->nfs_client->rpc_ops->file_inode_ops);
+ /* Probe the root fh to retrieve its FSID and filehandle */
+ error = nfs4_path_walk(server, mntfh, data->mnt_path);
+ if (error < 0)
+ goto error;
+
/* probe the filesystem info for this server filesystem */
- error = nfs_probe_fsinfo(server, fh, &fattr);
+ error = nfs_probe_fsinfo(server, mntfh, &fattr);
if (error < 0)
goto error;
* In the case it has, we assume that the dentries are untrustworthy
* and may need to be looked up again.
*/
-static inline int nfs_check_verifier(struct inode *dir, struct dentry *dentry)
+static int nfs_check_verifier(struct inode *dir, struct dentry *dentry)
{
if (IS_ROOT(dentry))
return 1;
dentry->d_fsdata = (void *)verf;
}
+static void nfs_refresh_verifier(struct dentry * dentry, unsigned long verf)
+{
+ if (time_after(verf, (unsigned long)dentry->d_fsdata))
+ nfs_set_verifier(dentry, verf);
+}
+
/*
* Whenever an NFS operation succeeds, we know that the dentry
* is valid, so we update the revalidation timestamp.
goto out_bad;
nfs_renew_times(dentry);
- nfs_set_verifier(dentry, verifier);
+ nfs_refresh_verifier(dentry, verifier);
out_valid:
unlock_kernel();
dput(parent);
verifier = nfs_save_change_attribute(dir);
ret = nfs4_open_revalidate(dir, dentry, openflags, nd);
if (!ret)
- nfs_set_verifier(dentry, verifier);
+ nfs_refresh_verifier(dentry, verifier);
unlock_kernel();
out:
dput(parent);
}
name.hash = full_name_hash(name.name, name.len);
dentry = d_lookup(parent, &name);
- if (dentry != NULL)
- return dentry;
+ if (dentry != NULL) {
+ /* Is this a positive dentry that matches the readdir info? */
+ if (dentry->d_inode != NULL &&
+ (NFS_FILEID(dentry->d_inode) == entry->ino ||
+ d_mountpoint(dentry))) {
+ if (!desc->plus || entry->fh->size == 0)
+ return dentry;
+ if (nfs_compare_fh(NFS_FH(dentry->d_inode),
+ entry->fh) == 0)
+ goto out_renew;
+ }
+ /* No, so d_drop to allow one to be created */
+ d_drop(dentry);
+ dput(dentry);
+ }
if (!desc->plus || !(entry->fattr->valid & NFS_ATTR_FATTR))
return NULL;
/* Note: caller is already holding the dir->i_mutex! */
nfs_renew_times(dentry);
nfs_set_verifier(dentry, nfs_save_change_attribute(dir));
return dentry;
+out_renew:
+ nfs_renew_times(dentry);
+ nfs_refresh_verifier(dentry, nfs_save_change_attribute(dir));
+ return dentry;
}
/*
if (atomic_read(&dentry->d_count) > 1) {
spin_unlock(&dentry->d_lock);
spin_unlock(&dcache_lock);
+ /* Start asynchronous writeout of the inode */
+ write_inode_now(dentry->d_inode, 0);
error = nfs_sillyrename(dir, dentry);
unlock_kernel();
return error;
if (!error) {
d_move(old_dentry, new_dentry);
nfs_renew_times(new_dentry);
- nfs_set_verifier(new_dentry, nfs_save_change_attribute(new_dir));
+ nfs_refresh_verifier(new_dentry, nfs_save_change_attribute(new_dir));
}
/* new dentry created? */
rpc_execute(&data->task);
- dfprintk(VFS, "NFS: %5u initiated direct read call (req %s/%Ld, %zu bytes @ offset %Lu)\n",
+ dprintk("NFS: %5u initiated direct read call "
+ "(req %s/%Ld, %zu bytes @ offset %Lu)\n",
data->task.tk_pid,
inode->i_sb->s_id,
(long long)NFS_FILEID(inode),
rpc_execute(&data->task);
- dfprintk(VFS, "NFS: %5u initiated direct write call (req %s/%Ld, %zu bytes @ offset %Lu)\n",
+ dprintk("NFS: %5u initiated direct write call "
+ "(req %s/%Ld, %zu bytes @ offset %Lu)\n",
data->task.tk_pid,
inode->i_sb->s_id,
(long long)NFS_FILEID(inode),
const char __user *buf = iov[0].iov_base;
size_t count = iov[0].iov_len;
- dfprintk(VFS, "nfs: direct write(%s/%s, %lu@%Ld)\n",
+ dprintk("nfs: direct write(%s/%s, %lu@%Ld)\n",
file->f_path.dentry->d_parent->d_name.name,
file->f_path.dentry->d_name.name,
(unsigned long) count, (long long) pos);
struct nfs_fh lastfh;
struct qstr name;
int ret;
- //int referral_count = 0;
dprintk("--> nfs4_path_walk(,,%s)\n", path);
fsinfo.fattr = &fattr;
nfs_fattr_init(&fattr);
- if (*path++ != '/') {
- dprintk("nfs4_get_root: Path does not begin with a slash\n");
- return -EINVAL;
- }
+ /* Eat leading slashes */
+ while (*path == '/')
+ path++;
/* Start by getting the root filehandle from the server */
ret = server->nfs_client->rpc_ops->getroot(server, mntfh, &fsinfo);
return -ENOTDIR;
}
+ /* FIXME: It is quite valid for the server to return a referral here */
if (fattr.valid & NFS_ATTR_FATTR_V4_REFERRAL) {
printk(KERN_ERR "nfs4_get_root:"
" getroot obtained referral\n");
goto eat_dot_dir;
}
+ /* FIXME: Why shouldn't the user be able to use ".." in the path? */
if (path[0] == '.' && path[1] == '.' && (path[2] == '/' || !path[2])
) {
printk(KERN_ERR "nfs4_get_root:"
return -ENOTDIR;
}
+ /* FIXME: Referrals are quite valid here too */
if (fattr.valid & NFS_ATTR_FATTR_V4_REFERRAL) {
printk(KERN_ERR "nfs4_get_root:"
" lookupfh obtained referral\n");
int nfs_write_inode(struct inode *inode, int sync)
{
- int flags = sync ? FLUSH_SYNC : 0;
int ret;
- ret = nfs_commit_inode(inode, flags);
- if (ret < 0)
- return ret;
- return 0;
+ if (sync) {
+ ret = filemap_fdatawait(inode->i_mapping);
+ if (ret == 0)
+ ret = nfs_commit_inode(inode, FLUSH_SYNC);
+ } else
+ ret = nfs_commit_inode(inode, 0);
+ if (ret >= 0)
+ return 0;
+ __mark_inode_dirty(inode, I_DIRTY_DATASYNC);
+ return ret;
}
void nfs_clear_inode(struct inode *inode)
if (inode->i_state & I_NEW) {
struct nfs_inode *nfsi = NFS_I(inode);
+ unsigned long now = jiffies;
/* We set i_ino for the few things that still rely on it,
* such as stat(2) */
init_special_inode(inode, inode->i_mode, fattr->rdev);
nfsi->read_cache_jiffies = fattr->time_start;
- nfsi->last_updated = jiffies;
+ nfsi->last_updated = now;
+ nfsi->cache_change_attribute = now;
inode->i_atime = fattr->atime;
inode->i_mtime = fattr->mtime;
inode->i_ctime = fattr->ctime;
inode->i_blocks = fattr->du.nfs2.blocks;
}
nfsi->attrtimeo = NFS_MINATTRTIMEO(inode);
- nfsi->attrtimeo_timestamp = jiffies;
+ nfsi->attrtimeo_timestamp = now;
memset(nfsi->cookieverf, 0, sizeof(nfsi->cookieverf));
nfsi->access_cache = RB_ROOT;
static void nfs_wcc_update_inode(struct inode *inode, struct nfs_fattr *fattr)
{
struct nfs_inode *nfsi = NFS_I(inode);
+ unsigned long now = jiffies;
/* If we have atomic WCC data, we may update some attributes */
if ((fattr->valid & NFS_ATTR_WCC) != 0) {
if (timespec_equal(&inode->i_ctime, &fattr->pre_ctime)) {
memcpy(&inode->i_ctime, &fattr->ctime, sizeof(inode->i_ctime));
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
if (timespec_equal(&inode->i_mtime, &fattr->pre_mtime)) {
memcpy(&inode->i_mtime, &fattr->mtime, sizeof(inode->i_mtime));
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
if (inode->i_size == fattr->pre_size && nfsi->npages == 0) {
inode->i_size = fattr->size;
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
}
}
struct nfs_inode *nfsi = NFS_I(inode);
loff_t cur_isize, new_isize;
unsigned int invalid = 0;
+ unsigned long now = jiffies;
int data_stable;
dfprintk(VFS, "NFS: %s(%s/%ld ct=%d info=0x%x)\n",
* Update the read time so we don't revalidate too often.
*/
nfsi->read_cache_jiffies = fattr->time_start;
- nfsi->last_updated = jiffies;
+ nfsi->last_updated = now;
+
+ /* Fix a wraparound issue with nfsi->cache_change_attribute */
+ if (time_before(now, nfsi->cache_change_attribute))
+ nfsi->cache_change_attribute = now - 600*HZ;
/* Are we racing with known updates of the metadata on the server? */
data_stable = nfs_verify_change_attribute(inode, fattr->time_start);
inode->i_size = new_isize;
invalid |= NFS_INO_INVALID_ATTR|NFS_INO_INVALID_DATA;
}
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
dprintk("NFS: isize change on server for file %s/%ld\n",
inode->i_sb->s_id, inode->i_ino);
}
dprintk("NFS: mtime change on server for file %s/%ld\n",
inode->i_sb->s_id, inode->i_ino);
invalid |= NFS_INO_INVALID_ATTR|NFS_INO_INVALID_DATA;
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
/* If ctime has changed we should definitely clear access+acl caches */
if (!timespec_equal(&inode->i_ctime, &fattr->ctime)) {
invalid |= NFS_INO_INVALID_ACCESS|NFS_INO_INVALID_ACL;
memcpy(&inode->i_ctime, &fattr->ctime, sizeof(inode->i_ctime));
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
memcpy(&inode->i_atime, &fattr->atime, sizeof(inode->i_atime));
inode->i_sb->s_id, inode->i_ino);
nfsi->change_attr = fattr->change_attr;
invalid |= NFS_INO_INVALID_ATTR|NFS_INO_INVALID_DATA|NFS_INO_INVALID_ACCESS|NFS_INO_INVALID_ACL;
- nfsi->cache_change_attribute = jiffies;
+ nfsi->cache_change_attribute = now;
}
/* Update attrtimeo value if we're out of the unstable period */
if (invalid & NFS_INO_INVALID_ATTR) {
nfs_inc_stats(inode, NFSIOS_ATTRINVALIDATE);
nfsi->attrtimeo = NFS_MINATTRTIMEO(inode);
- nfsi->attrtimeo_timestamp = jiffies;
- } else if (time_after(jiffies, nfsi->attrtimeo_timestamp+nfsi->attrtimeo)) {
+ nfsi->attrtimeo_timestamp = now;
+ } else if (time_after(now, nfsi->attrtimeo_timestamp+nfsi->attrtimeo)) {
if ((nfsi->attrtimeo <<= 1) > NFS_MAXATTRTIMEO(inode))
nfsi->attrtimeo = NFS_MAXATTRTIMEO(inode);
- nfsi->attrtimeo_timestamp = jiffies;
+ nfsi->attrtimeo_timestamp = now;
}
/* Don't invalidate the data if we were to blame */
if (!(S_ISREG(inode->i_mode) || S_ISDIR(inode->i_mode)
return NULL;
nfsi->flags = 0UL;
nfsi->cache_validity = 0UL;
- nfsi->cache_change_attribute = jiffies;
#ifdef CONFIG_NFS_V3_ACL
nfsi->acl_access = ERR_PTR(-EAGAIN);
nfsi->acl_default = ERR_PTR(-EAGAIN);
/* nfs4proc.c */
#ifdef CONFIG_NFS_V4
extern struct rpc_procinfo nfs4_procedures[];
-
-extern int nfs4_proc_fs_locations(struct inode *dir, struct dentry *dentry,
- struct nfs4_fs_locations *fs_locations,
- struct page *page);
#endif
/* dir.c */
return status;
}
-static int nfs3_proc_read(struct nfs_read_data *rdata)
-{
- int flags = rdata->flags;
- struct inode * inode = rdata->inode;
- struct nfs_fattr * fattr = rdata->res.fattr;
- struct rpc_message msg = {
- .rpc_proc = &nfs3_procedures[NFS3PROC_READ],
- .rpc_argp = &rdata->args,
- .rpc_resp = &rdata->res,
- .rpc_cred = rdata->cred,
- };
- int status;
-
- dprintk("NFS call read %d @ %Ld\n", rdata->args.count,
- (long long) rdata->args.offset);
- nfs_fattr_init(fattr);
- status = rpc_call_sync(NFS_CLIENT(inode), &msg, flags);
- if (status >= 0)
- nfs_refresh_inode(inode, fattr);
- dprintk("NFS reply read: %d\n", status);
- return status;
-}
-
/*
* Create a regular file.
* For now, we don't implement O_EXCL.
.lookup = nfs3_proc_lookup,
.access = nfs3_proc_access,
.readlink = nfs3_proc_readlink,
- .read = nfs3_proc_read,
.create = nfs3_proc_create,
.remove = nfs3_proc_remove,
.unlink_setup = nfs3_proc_unlink_setup,
extern struct dentry *nfs4_atomic_open(struct inode *, struct dentry *, struct nameidata *);
extern int nfs4_open_revalidate(struct inode *, struct dentry *, int, struct nameidata *);
extern int nfs4_server_capabilities(struct nfs_server *server, struct nfs_fh *fhandle);
-extern int nfs4_proc_fs_locations(struct inode *dir, struct dentry *dentry,
+extern int nfs4_proc_fs_locations(struct inode *dir, struct qstr *name,
struct nfs4_fs_locations *fs_locations, struct page *page);
extern struct nfs4_state_recovery_ops nfs4_reboot_recovery_ops;
#include <linux/vfs.h>
#include <linux/inet.h>
#include "internal.h"
+#include "nfs4_fs.h"
#define NFSDBG_FACILITY NFSDBG_VFS
.authflavor = NFS_SB(mnt_parent->mnt_sb)->client->cl_auth->au_flavor,
};
char *page = NULL, *page2 = NULL;
- char *devname;
int loc, s, error;
if (locations == NULL || locations->nlocations <= 0)
goto out;
}
- devname = nfs_devname(mnt_parent, dentry, page, PAGE_SIZE);
- if (IS_ERR(devname)) {
- mnt = (struct vfsmount *)devname;
- goto out;
- }
-
loc = 0;
while (loc < locations->nlocations && IS_ERR(mnt)) {
const struct nfs4_fs_location *location = &locations->locations[loc];
addr.sin_port = htons(NFS_PORT);
mountdata.addr = &addr;
- mnt = vfs_kern_mount(&nfs4_referral_fs_type, 0, devname, &mountdata);
+ snprintf(page, PAGE_SIZE, "%s:%s",
+ mountdata.hostname,
+ mountdata.mnt_path);
+
+ mnt = vfs_kern_mount(&nfs4_referral_fs_type, 0, page, &mountdata);
if (!IS_ERR(mnt)) {
break;
}
dprintk("%s: getting locations for %s/%s\n",
__FUNCTION__, parent->d_name.name, dentry->d_name.name);
- err = nfs4_proc_fs_locations(parent->d_inode, dentry, fs_locations, page);
+ err = nfs4_proc_fs_locations(parent->d_inode, &dentry->d_name, fs_locations, page);
dput(parent);
if (err != 0 ||
fs_locations->nlocations <= 0 ||
break;
case -NFS4ERR_STALE_STATEID:
case -NFS4ERR_EXPIRED:
- nfs4_schedule_state_recovery(server->nfs_client);
break;
default:
if (nfs4_async_handle_error(task, server) == -EAGAIN) {
int status = -ENOMEM;
struct page *page = NULL;
struct nfs4_fs_locations *locations = NULL;
- struct dentry dentry = {};
page = alloc_page(GFP_KERNEL);
if (page == NULL)
if (locations == NULL)
goto out;
- dentry.d_name.name = name->name;
- dentry.d_name.len = name->len;
- status = nfs4_proc_fs_locations(dir, &dentry, locations, page);
+ status = nfs4_proc_fs_locations(dir, name, locations, page);
if (status != 0)
goto out;
/* Make sure server returned a different fsid for the referral */
return err;
}
-static int _nfs4_proc_read(struct nfs_read_data *rdata)
-{
- int flags = rdata->flags;
- struct inode *inode = rdata->inode;
- struct nfs_fattr *fattr = rdata->res.fattr;
- struct nfs_server *server = NFS_SERVER(inode);
- struct rpc_message msg = {
- .rpc_proc = &nfs4_procedures[NFSPROC4_CLNT_READ],
- .rpc_argp = &rdata->args,
- .rpc_resp = &rdata->res,
- .rpc_cred = rdata->cred,
- };
- unsigned long timestamp = jiffies;
- int status;
-
- dprintk("NFS call read %d @ %Ld\n", rdata->args.count,
- (long long) rdata->args.offset);
-
- nfs_fattr_init(fattr);
- status = rpc_call_sync(server->client, &msg, flags);
- if (!status)
- renew_lease(server, timestamp);
- dprintk("NFS reply read: %d\n", status);
- return status;
-}
-
-static int nfs4_proc_read(struct nfs_read_data *rdata)
-{
- struct nfs4_exception exception = { };
- int err;
- do {
- err = nfs4_handle_exception(NFS_SERVER(rdata->inode),
- _nfs4_proc_read(rdata),
- &exception);
- } while (exception.retry);
- return err;
-}
-
/*
* Got race?
* We will need to arrange for the VFS layer to provide an atomic open.
might_sleep();
+ rwsem_acquire(&clp->cl_sem.dep_map, 0, 0, _RET_IP_);
+
rpc_clnt_sigmask(clnt, &oldset);
res = wait_on_bit(&clp->cl_state, NFS4CLNT_STATE_RECOVER,
nfs4_wait_bit_interruptible,
TASK_INTERRUPTIBLE);
rpc_clnt_sigunmask(clnt, &oldset);
+
+ rwsem_release(&clp->cl_sem.dep_map, 1, _RET_IP_);
return res;
}
switch (err) {
case -NFS4ERR_STALE_STATEID:
case -NFS4ERR_EXPIRED:
- nfs4_schedule_state_recovery(server->nfs_client);
case 0:
return 0;
}
break;
case -NFS4ERR_STALE_STATEID:
case -NFS4ERR_EXPIRED:
- nfs4_schedule_state_recovery(calldata->server->nfs_client);
break;
default:
- if (nfs4_async_handle_error(task, calldata->server) == -EAGAIN) {
+ if (nfs4_async_handle_error(task, calldata->server) == -EAGAIN)
rpc_restart_call(task);
- }
}
}
return len;
}
-int nfs4_proc_fs_locations(struct inode *dir, struct dentry *dentry,
+int nfs4_proc_fs_locations(struct inode *dir, struct qstr *name,
struct nfs4_fs_locations *fs_locations, struct page *page)
{
struct nfs_server *server = NFS_SERVER(dir);
};
struct nfs4_fs_locations_arg args = {
.dir_fh = NFS_FH(dir),
- .name = &dentry->d_name,
+ .name = name,
.page = page,
.bitmask = bitmask,
};
int status;
dprintk("%s: start\n", __FUNCTION__);
- fs_locations->fattr.valid = 0;
+ nfs_fattr_init(&fs_locations->fattr);
fs_locations->server = server;
fs_locations->nlocations = 0;
status = rpc_call_sync(server->client, &msg, 0);
.lookup = nfs4_proc_lookup,
.access = nfs4_proc_access,
.readlink = nfs4_proc_readlink,
- .read = nfs4_proc_read,
.create = nfs4_proc_create,
.remove = nfs4_proc_remove,
.unlink_setup = nfs4_proc_unlink_setup,
decode_putfh_maxsz + \
op_decode_hdr_maxsz + 12)
#define NFS4_enc_server_caps_sz (compound_encode_hdr_maxsz + \
+ encode_putfh_maxsz + \
encode_getattr_maxsz)
#define NFS4_dec_server_caps_sz (compound_decode_hdr_maxsz + \
+ decode_putfh_maxsz + \
decode_getattr_maxsz)
#define NFS4_enc_delegreturn_sz (compound_encode_hdr_maxsz + \
encode_putfh_maxsz + \
return status;
}
-static int nfs_proc_read(struct nfs_read_data *rdata)
-{
- int flags = rdata->flags;
- struct inode * inode = rdata->inode;
- struct nfs_fattr * fattr = rdata->res.fattr;
- struct rpc_message msg = {
- .rpc_proc = &nfs_procedures[NFSPROC_READ],
- .rpc_argp = &rdata->args,
- .rpc_resp = &rdata->res,
- .rpc_cred = rdata->cred,
- };
- int status;
-
- dprintk("NFS call read %d @ %Ld\n", rdata->args.count,
- (long long) rdata->args.offset);
- nfs_fattr_init(fattr);
- status = rpc_call_sync(NFS_CLIENT(inode), &msg, flags);
- if (status >= 0) {
- nfs_refresh_inode(inode, fattr);
- /* Emulate the eof flag, which isn't normally needed in NFSv2
- * as it is guaranteed to always return the file attributes
- */
- if (rdata->args.offset + rdata->args.count >= fattr->size)
- rdata->res.eof = 1;
- }
- dprintk("NFS reply read: %d\n", status);
- return status;
-}
-
static int
nfs_proc_create(struct inode *dir, struct dentry *dentry, struct iattr *sattr,
int flags, struct nameidata *nd)
.lookup = nfs_proc_lookup,
.access = NULL, /* access */
.readlink = nfs_proc_readlink,
- .read = nfs_proc_read,
.create = nfs_proc_create,
.remove = nfs_proc_remove,
.unlink_setup = nfs_proc_unlink_setup,
*
* Partial copy of Linus' read cache modifications to fs/nfs/file.c
* modified for async RPC by okir@monad.swb.de
- *
- * We do an ugly hack here in order to return proper error codes to the
- * user program when a read request failed: since generic_file_read
- * only checks the return value of inode->i_op->readpage() which is always 0
- * for async RPC, we set the error bit of the page to 1 when an error occurs,
- * and make nfs_readpage transmit requests synchronously when encountering this.
- * This is only a small problem, though, since we now retry all operations
- * within the RPC code when root squashing is suspected.
*/
#include <linux/time.h>
}
}
-/*
- * Read a page synchronously.
- */
-static int nfs_readpage_sync(struct nfs_open_context *ctx, struct inode *inode,
- struct page *page)
-{
- unsigned int rsize = NFS_SERVER(inode)->rsize;
- unsigned int count = PAGE_CACHE_SIZE;
- int result = -ENOMEM;
- struct nfs_read_data *rdata;
-
- rdata = nfs_readdata_alloc(count);
- if (!rdata)
- goto out_unlock;
-
- memset(rdata, 0, sizeof(*rdata));
- rdata->flags = (IS_SWAPFILE(inode)? NFS_RPC_SWAPFLAGS : 0);
- rdata->cred = ctx->cred;
- rdata->inode = inode;
- INIT_LIST_HEAD(&rdata->pages);
- rdata->args.fh = NFS_FH(inode);
- rdata->args.context = ctx;
- rdata->args.pages = &page;
- rdata->args.pgbase = 0UL;
- rdata->args.count = rsize;
- rdata->res.fattr = &rdata->fattr;
-
- dprintk("NFS: nfs_readpage_sync(%p)\n", page);
-
- /*
- * This works now because the socket layer never tries to DMA
- * into this buffer directly.
- */
- do {
- if (count < rsize)
- rdata->args.count = count;
- rdata->res.count = rdata->args.count;
- rdata->args.offset = page_offset(page) + rdata->args.pgbase;
-
- dprintk("NFS: nfs_proc_read(%s, (%s/%Ld), %Lu, %u)\n",
- NFS_SERVER(inode)->nfs_client->cl_hostname,
- inode->i_sb->s_id,
- (long long)NFS_FILEID(inode),
- (unsigned long long)rdata->args.pgbase,
- rdata->args.count);
-
- lock_kernel();
- result = NFS_PROTO(inode)->read(rdata);
- unlock_kernel();
-
- /*
- * Even if we had a partial success we can't mark the page
- * cache valid.
- */
- if (result < 0) {
- if (result == -EISDIR)
- result = -EINVAL;
- goto io_error;
- }
- count -= result;
- rdata->args.pgbase += result;
- nfs_add_stats(inode, NFSIOS_SERVERREADBYTES, result);
-
- /* Note: result == 0 should only happen if we're caching
- * a write that extends the file and punches a hole.
- */
- if (rdata->res.eof != 0 || result == 0)
- break;
- } while (count);
- spin_lock(&inode->i_lock);
- NFS_I(inode)->cache_validity |= NFS_INO_INVALID_ATIME;
- spin_unlock(&inode->i_lock);
-
- if (rdata->res.eof || rdata->res.count == rdata->args.count) {
- SetPageUptodate(page);
- if (rdata->res.eof && count != 0)
- memclear_highpage_flush(page, rdata->args.pgbase, count);
- }
- result = 0;
-
-io_error:
- nfs_readdata_free(rdata);
-out_unlock:
- unlock_page(page);
- return result;
-}
-
static int nfs_readpage_async(struct nfs_open_context *ctx, struct inode *inode,
struct page *page)
{
data->task.tk_cookie = (unsigned long)inode;
- dprintk("NFS: %4d initiated read call (req %s/%Ld, %u bytes @ offset %Lu)\n",
+ dprintk("NFS: %5u initiated read call (req %s/%Ld, %u bytes @ offset %Lu)\n",
data->task.tk_pid,
inode->i_sb->s_id,
(long long)NFS_FILEID(inode),
{
int status;
- dprintk("%s: %4d, (status %d)\n", __FUNCTION__, task->tk_pid,
+ dprintk("NFS: %s: %5u, (status %d)\n", __FUNCTION__, task->tk_pid,
task->tk_status);
status = NFS_PROTO(data->inode)->read_done(task, data);
} else
ctx = get_nfs_open_context((struct nfs_open_context *)
file->private_data);
- if (!IS_SYNC(inode)) {
- error = nfs_readpage_async(ctx, inode, page);
- goto out;
- }
- error = nfs_readpage_sync(ctx, inode, page);
- if (error < 0 && IS_SWAPFILE(inode))
- printk("Aiee.. nfs swap-in of page failed!\n");
-out:
+ error = nfs_readpage_async(ctx, inode, page);
+
put_nfs_open_context(ctx);
return error;
nfs4_fill_super(s);
}
- mntroot = nfs4_get_root(s, data->fh);
+ mntroot = nfs4_get_root(s, &mntfh);
if (IS_ERR(mntroot)) {
error = PTR_ERR(mntroot);
goto error_splat_super;
/*
* linux/fs/nfs/write.c
*
- * Writing file data over NFS.
- *
- * We do it like this: When a (user) process wishes to write data to an
- * NFS file, a write request is allocated that contains the RPC task data
- * plus some info on the page to be written, and added to the inode's
- * write chain. If the process writes past the end of the page, an async
- * RPC call to write the page is scheduled immediately; otherwise, the call
- * is delayed for a few seconds.
- *
- * Just like readahead, no async I/O is performed if wsize < PAGE_SIZE.
- *
- * Write requests are kept on the inode's writeback list. Each entry in
- * that list references the page (portion) to be written. When the
- * cache timeout has expired, the RPC task is woken up, and tries to
- * lock the page. As soon as it manages to do so, the request is moved
- * from the writeback list to the writelock list.
- *
- * Note: we must make sure never to confuse the inode passed in the
- * write_page request with the one in page->inode. As far as I understand
- * it, these are different when doing a swap-out.
- *
- * To understand everything that goes on here and in the NFS read code,
- * one should be aware that a page is locked in exactly one of the following
- * cases:
- *
- * - A write request is in progress.
- * - A user process is in generic_file_write/nfs_update_page
- * - A user process is in generic_file_read
- *
- * Also note that because of the way pages are invalidated in
- * nfs_revalidate_inode, the following assertions hold:
- *
- * - If a page is dirty, there will be no read requests (a page will
- * not be re-read unless invalidated by nfs_revalidate_inode).
- * - If the page is not uptodate, there will be no pending write
- * requests, and no process will be in nfs_update_page.
- *
- * FIXME: Interaction with the vmscan routines is not optimal yet.
- * Either vmscan must be made nfs-savvy, or we need a different page
- * reclaim concept that supports something like FS-independent
- * buffer_heads with a b_ops-> field.
+ * Write file data over NFS.
*
* Copyright (C) 1996, 1997, Olaf Kirch <okir@monad.swb.de>
*/
unsigned int, unsigned int);
static void nfs_mark_request_dirty(struct nfs_page *req);
static int nfs_wait_on_write_congestion(struct address_space *, int);
-static int nfs_wait_on_requests(struct inode *, unsigned long, unsigned int);
static long nfs_flush_mapping(struct address_space *mapping, struct writeback_control *wbc, int how);
static const struct rpc_call_ops nfs_write_partial_ops;
static const struct rpc_call_ops nfs_write_full_ops;
i_size_write(inode, end);
}
+/* A writeback failed: mark the page as bad, and invalidate the page cache */
+static void nfs_set_pageerror(struct page *page)
+{
+ SetPageError(page);
+ nfs_zap_mapping(page->mapping->host, page->mapping);
+}
+
/* We can set the PG_uptodate flag if we see that a write request
* covers the full page.
*/
err = 0;
out:
if (!wbc->for_writepages)
- nfs_flush_mapping(page->mapping, wbc, wb_priority(wbc));
+ nfs_flush_mapping(page->mapping, wbc, FLUSH_STABLE|wb_priority(wbc));
return err;
}
if (err < 0)
goto out;
nfs_add_stats(inode, NFSIOS_WRITEPAGES, err);
- if (!wbc->nonblocking && wbc->sync_mode == WB_SYNC_ALL) {
- err = nfs_wait_on_requests(inode, 0, 0);
- if (err < 0)
- goto out;
- }
- err = nfs_commit_inode(inode, wb_priority(wbc));
- if (err > 0)
- err = 0;
+ err = 0;
out:
clear_bit(BDI_write_congested, &bdi->state);
wake_up_all(&nfs_write_congestion);
return res;
}
-static int nfs_wait_on_requests(struct inode *inode, unsigned long idx_start, unsigned int npages)
-{
- struct nfs_inode *nfsi = NFS_I(inode);
- int ret;
-
- spin_lock(&nfsi->req_lock);
- ret = nfs_wait_on_requests_locked(inode, idx_start, npages);
- spin_unlock(&nfsi->req_lock);
- return ret;
-}
-
static void nfs_cancel_dirty_list(struct list_head *head)
{
struct nfs_page *req;
dprintk("NFS: nfs_updatepage returns %d (isize %Ld)\n",
status, (long long)i_size_read(inode));
if (status < 0)
- ClearPageUptodate(page);
+ nfs_set_pageerror(page);
return status;
}
data->task.tk_priority = flush_task_priority(how);
data->task.tk_cookie = (unsigned long)inode;
- dprintk("NFS: %4d initiated write call (req %s/%Ld, %u bytes @ offset %Lu)\n",
+ dprintk("NFS: %5u initiated write call "
+ "(req %s/%Ld, %u bytes @ offset %Lu)\n",
data->task.tk_pid,
inode->i_sb->s_id,
(long long)NFS_FILEID(inode),
return;
if (task->tk_status < 0) {
- ClearPageUptodate(page);
- SetPageError(page);
+ nfs_set_pageerror(page);
req->wb_context->error = task->tk_status;
dprintk(", error = %d\n", task->tk_status);
} else {
(long long)req_offset(req));
if (task->tk_status < 0) {
- ClearPageUptodate(page);
- SetPageError(page);
+ nfs_set_pageerror(page);
req->wb_context->error = task->tk_status;
end_page_writeback(page);
nfs_inode_remove_request(req);
struct nfs_writeres *resp = &data->res;
int status;
- dprintk("NFS: %4d nfs_writeback_done (status %d)\n",
+ dprintk("NFS: %5u nfs_writeback_done (status %d)\n",
task->tk_pid, task->tk_status);
/*
data->task.tk_priority = flush_task_priority(how);
data->task.tk_cookie = (unsigned long)inode;
- dprintk("NFS: %4d initiated commit call\n", data->task.tk_pid);
+ dprintk("NFS: %5u initiated commit call\n", data->task.tk_pid);
}
/*
struct nfs_write_data *data = calldata;
struct nfs_page *req;
- dprintk("NFS: %4d nfs_commit_done (status %d)\n",
+ dprintk("NFS: %5u nfs_commit_done (status %d)\n",
task->tk_pid, task->tk_status);
/* Call the NFS version-specific code */
if (ret < 0)
goto out;
}
+ if (!PagePrivate(page))
+ return 0;
ret = nfs_sync_mapping_wait(page->mapping, &wbc, how);
if (ret >= 0)
return 0;
#include <linux/magic.h>
-/*
- * Enable debugging support for nfs client.
- * Requires RPC_DEBUG.
- */
-#ifdef RPC_DEBUG
-# define NFS_DEBUG
-#endif
-
/* Default timeout values */
#define NFS_MAX_UDP_TIMEOUT (60*HZ)
#define NFS_MAX_TCP_TIMEOUT (600*HZ)
#define NFSDBG_ALL 0xFFFF
#ifdef __KERNEL__
+
+/*
+ * Enable debugging support for nfs client.
+ * Requires RPC_DEBUG.
+ */
+#ifdef RPC_DEBUG
+# define NFS_DEBUG
+#endif
+
# undef ifdebug
# ifdef NFS_DEBUG
# define ifdebug(fac) if (unlikely(nfs_debug & NFSDBG_##fac))
int (*access) (struct inode *, struct nfs_access_entry *);
int (*readlink)(struct inode *, struct page *, unsigned int,
unsigned int);
- int (*read) (struct nfs_read_data *);
int (*create) (struct inode *, struct dentry *,
struct iattr *, int, struct nameidata *);
int (*remove) (struct inode *, struct qstr *);
unsigned int cl_softrtry : 1,/* soft timeouts */
cl_intr : 1,/* interruptible */
+ cl_discrtry : 1,/* disconnect before retry */
cl_autobind : 1,/* use getport() */
cl_oneshot : 1,/* dispose after use */
cl_dead : 1;/* abandoned */
#define RPC_CLNT_CREATE_ONESHOT (1UL << 3)
#define RPC_CLNT_CREATE_NONPRIVPORT (1UL << 4)
#define RPC_CLNT_CREATE_NOPING (1UL << 5)
+#define RPC_CLNT_CREATE_DISCRTRY (1UL << 6)
struct rpc_clnt *rpc_create(struct rpc_create_args *args);
struct rpc_clnt *rpc_bind_new_program(struct rpc_clnt *,
void rpc_exit_task(struct rpc_task *);
void rpc_release_calldata(const struct rpc_call_ops *, void *);
void rpc_killall_tasks(struct rpc_clnt *);
-int rpc_execute(struct rpc_task *);
+void rpc_execute(struct rpc_task *);
void rpc_init_priority_wait_queue(struct rpc_wait_queue *, const char *);
void rpc_init_wait_queue(struct rpc_wait_queue *, const char *);
void rpc_sleep_on(struct rpc_wait_queue *, struct rpc_task *,
struct rpc_cred *cred;
int i;
- dprintk("RPC: gc'ing RPC credentials for auth %p\n", auth);
+ dprintk("RPC: gc'ing RPC credentials for auth %p\n", auth);
for (i = 0; i < RPC_CREDCACHE_NR; i++) {
hlist_for_each_safe(pos, next, &cache->hashtable[i]) {
cred = hlist_entry(pos, struct rpc_cred, cr_hash);
};
struct rpc_cred *ret;
- dprintk("RPC: looking up %s cred\n",
+ dprintk("RPC: looking up %s cred\n",
auth->au_ops->au_name);
get_group_info(acred.group_info);
ret = auth->au_ops->lookup_cred(auth, &acred, flags);
struct rpc_cred *ret;
int flags = 0;
- dprintk("RPC: %4d looking up %s cred\n",
+ dprintk("RPC: %5u looking up %s cred\n",
task->tk_pid, task->tk_auth->au_ops->au_name);
get_group_info(acred.group_info);
if (task->tk_flags & RPC_TASK_ROOTCREDS)
void
rpcauth_holdcred(struct rpc_task *task)
{
- dprintk("RPC: %4d holding %s cred %p\n",
- task->tk_pid, task->tk_auth->au_ops->au_name, task->tk_msg.rpc_cred);
+ dprintk("RPC: %5u holding %s cred %p\n",
+ task->tk_pid, task->tk_auth->au_ops->au_name,
+ task->tk_msg.rpc_cred);
if (task->tk_msg.rpc_cred)
get_rpccred(task->tk_msg.rpc_cred);
}
{
struct rpc_cred *cred = task->tk_msg.rpc_cred;
- dprintk("RPC: %4d releasing %s cred %p\n",
+ dprintk("RPC: %5u releasing %s cred %p\n",
task->tk_pid, task->tk_auth->au_ops->au_name, cred);
put_rpccred(cred);
{
struct rpc_cred *cred = task->tk_msg.rpc_cred;
- dprintk("RPC: %4d marshaling %s cred %p\n",
+ dprintk("RPC: %5u marshaling %s cred %p\n",
task->tk_pid, task->tk_auth->au_ops->au_name, cred);
return cred->cr_ops->crmarshal(task, p);
{
struct rpc_cred *cred = task->tk_msg.rpc_cred;
- dprintk("RPC: %4d validating %s cred %p\n",
+ dprintk("RPC: %5u validating %s cred %p\n",
task->tk_pid, task->tk_auth->au_ops->au_name, cred);
return cred->cr_ops->crvalidate(task, p);
{
struct rpc_cred *cred = task->tk_msg.rpc_cred;
- dprintk("RPC: %4d using %s cred %p to wrap rpc data\n",
+ dprintk("RPC: %5u using %s cred %p to wrap rpc data\n",
task->tk_pid, cred->cr_ops->cr_name, cred);
if (cred->cr_ops->crwrap_req)
return cred->cr_ops->crwrap_req(task, encode, rqstp, data, obj);
{
struct rpc_cred *cred = task->tk_msg.rpc_cred;
- dprintk("RPC: %4d using %s cred %p to unwrap rpc data\n",
+ dprintk("RPC: %5u using %s cred %p to unwrap rpc data\n",
task->tk_pid, cred->cr_ops->cr_name, cred);
if (cred->cr_ops->crunwrap_resp)
return cred->cr_ops->crunwrap_resp(task, decode, rqstp,
struct rpc_cred *cred = task->tk_msg.rpc_cred;
int err;
- dprintk("RPC: %4d refreshing %s cred %p\n",
+ dprintk("RPC: %5u refreshing %s cred %p\n",
task->tk_pid, task->tk_auth->au_ops->au_name, cred);
err = cred->cr_ops->crrefresh(task);
void
rpcauth_invalcred(struct rpc_task *task)
{
- dprintk("RPC: %4d invalidating %s cred %p\n",
+ dprintk("RPC: %5u invalidating %s cred %p\n",
task->tk_pid, task->tk_auth->au_ops->au_name, task->tk_msg.rpc_cred);
spin_lock(&rpc_credcache_lock);
if (task->tk_msg.rpc_cred)
}
return q;
err:
- dprintk("RPC: gss_fill_context returning %ld\n", -PTR_ERR(p));
+ dprintk("RPC: gss_fill_context returning %ld\n", -PTR_ERR(p));
return p;
}
if (pos->uid != uid)
continue;
atomic_inc(&pos->count);
- dprintk("RPC: gss_find_upcall found msg %p\n", pos);
+ dprintk("RPC: gss_find_upcall found msg %p\n", pos);
return pos;
}
- dprintk("RPC: gss_find_upcall found nothing\n");
+ dprintk("RPC: gss_find_upcall found nothing\n");
return NULL;
}
struct gss_upcall_msg *gss_msg;
int err = 0;
- dprintk("RPC: %4u gss_refresh_upcall for uid %u\n", task->tk_pid, cred->cr_uid);
+ dprintk("RPC: %5u gss_refresh_upcall for uid %u\n", task->tk_pid,
+ cred->cr_uid);
gss_msg = gss_setup_upcall(task->tk_client, gss_auth, cred);
if (IS_ERR(gss_msg)) {
err = PTR_ERR(gss_msg);
spin_unlock(&gss_auth->lock);
gss_release_msg(gss_msg);
out:
- dprintk("RPC: %4u gss_refresh_upcall for uid %u result %d\n", task->tk_pid,
- cred->cr_uid, err);
+ dprintk("RPC: %5u gss_refresh_upcall for uid %u result %d\n",
+ task->tk_pid, cred->cr_uid, err);
return err;
}
DEFINE_WAIT(wait);
int err = 0;
- dprintk("RPC: gss_upcall for uid %u\n", cred->cr_uid);
+ dprintk("RPC: gss_upcall for uid %u\n", cred->cr_uid);
gss_msg = gss_setup_upcall(gss_auth->client, gss_auth, cred);
if (IS_ERR(gss_msg)) {
err = PTR_ERR(gss_msg);
finish_wait(&gss_msg->waitqueue, &wait);
gss_release_msg(gss_msg);
out:
- dprintk("RPC: gss_create_upcall for uid %u result %d\n", cred->cr_uid, err);
+ dprintk("RPC: gss_create_upcall for uid %u result %d\n",
+ cred->cr_uid, err);
return err;
}
}
gss_put_ctx(ctx);
kfree(buf);
- dprintk("RPC: gss_pipe_downcall returning length %Zu\n", mlen);
+ dprintk("RPC: gss_pipe_downcall returning length %Zu\n", mlen);
return mlen;
err_put_ctx:
gss_put_ctx(ctx);
err:
kfree(buf);
out:
- dprintk("RPC: gss_pipe_downcall returning %d\n", err);
+ dprintk("RPC: gss_pipe_downcall returning %d\n", err);
return err;
}
static unsigned long ratelimit;
if (msg->errno < 0) {
- dprintk("RPC: gss_pipe_destroy_msg releasing msg %p\n",
+ dprintk("RPC: gss_pipe_destroy_msg releasing msg %p\n",
gss_msg);
atomic_inc(&gss_msg->count);
gss_unhash_msg(gss_msg);
struct rpc_auth * auth;
int err = -ENOMEM; /* XXX? */
- dprintk("RPC: creating GSS authenticator for client %p\n",clnt);
+ dprintk("RPC: creating GSS authenticator for client %p\n", clnt);
if (!try_module_get(THIS_MODULE))
return ERR_PTR(err);
{
struct gss_auth *gss_auth;
- dprintk("RPC: destroying GSS authenticator %p flavor %d\n",
- auth, auth->au_flavor);
+ dprintk("RPC: destroying GSS authenticator %p flavor %d\n",
+ auth, auth->au_flavor);
gss_auth = container_of(auth, struct gss_auth, rpc_auth);
rpc_unlink(gss_auth->dentry);
static void
gss_destroy_ctx(struct gss_cl_ctx *ctx)
{
- dprintk("RPC: gss_destroy_ctx\n");
+ dprintk("RPC: gss_destroy_ctx\n");
if (ctx->gc_gss_ctx)
gss_delete_sec_context(&ctx->gc_gss_ctx);
{
struct gss_cred *cred = container_of(rc, struct gss_cred, gc_base);
- dprintk("RPC: gss_destroy_cred \n");
+ dprintk("RPC: gss_destroy_cred \n");
if (cred->gc_ctx)
gss_put_ctx(cred->gc_ctx);
struct gss_cred *cred = NULL;
int err = -ENOMEM;
- dprintk("RPC: gss_create_cred for uid %d, flavor %d\n",
+ dprintk("RPC: gss_create_cred for uid %d, flavor %d\n",
acred->uid, auth->au_flavor);
if (!(cred = kzalloc(sizeof(*cred), GFP_KERNEL)))
return &cred->gc_base;
out_err:
- dprintk("RPC: gss_create_cred failed with error %d\n", err);
+ dprintk("RPC: gss_create_cred failed with error %d\n", err);
return ERR_PTR(err);
}
struct kvec iov;
struct xdr_buf verf_buf;
- dprintk("RPC: %4u gss_marshal\n", task->tk_pid);
+ dprintk("RPC: %5u gss_marshal\n", task->tk_pid);
*p++ = htonl(RPC_AUTH_GSS);
cred_len = p++;
u32 flav,len;
u32 maj_stat;
- dprintk("RPC: %4u gss_validate\n", task->tk_pid);
+ dprintk("RPC: %5u gss_validate\n", task->tk_pid);
flav = ntohl(*p++);
if ((len = ntohl(*p++)) > RPC_MAX_AUTH_SIZE)
* calculate the length of the verifier: */
task->tk_auth->au_verfsize = XDR_QUADLEN(len) + 2;
gss_put_ctx(ctx);
- dprintk("RPC: %4u GSS gss_validate: gss_verify_mic succeeded.\n",
+ dprintk("RPC: %5u gss_validate: gss_verify_mic succeeded.\n",
task->tk_pid);
return p + XDR_QUADLEN(len);
out_bad:
gss_put_ctx(ctx);
- dprintk("RPC: %4u gss_validate failed.\n", task->tk_pid);
+ dprintk("RPC: %5u gss_validate failed.\n", task->tk_pid);
return NULL;
}
struct gss_cl_ctx *ctx = gss_cred_get_ctx(cred);
int status = -EIO;
- dprintk("RPC: %4u gss_wrap_req\n", task->tk_pid);
+ dprintk("RPC: %5u gss_wrap_req\n", task->tk_pid);
if (ctx->gc_proc != RPC_GSS_PROC_DATA) {
/* The spec seems a little ambiguous here, but I think that not
* wrapping context destruction requests makes the most sense.
}
out:
gss_put_ctx(ctx);
- dprintk("RPC: %4u gss_wrap_req returning %d\n", task->tk_pid, status);
+ dprintk("RPC: %5u gss_wrap_req returning %d\n", task->tk_pid, status);
return status;
}
status = decode(rqstp, p, obj);
out:
gss_put_ctx(ctx);
- dprintk("RPC: %4u gss_unwrap_resp returning %d\n", task->tk_pid,
+ dprintk("RPC: %5u gss_unwrap_resp returning %d\n", task->tk_pid,
status);
return status;
}
goto out;
if (crypto_blkcipher_ivsize(tfm) > 16) {
- dprintk("RPC: gss_k5encrypt: tfm iv size to large %d\n",
- crypto_blkcipher_ivsize(tfm));
+ dprintk("RPC: gss_k5encrypt: tfm iv size to large %d\n",
+ crypto_blkcipher_ivsize(tfm));
goto out;
}
ret = crypto_blkcipher_encrypt_iv(&desc, sg, sg, length);
out:
- dprintk("RPC: krb5_encrypt returns %d\n",ret);
+ dprintk("RPC: krb5_encrypt returns %d\n", ret);
return ret;
}
goto out;
if (crypto_blkcipher_ivsize(tfm) > 16) {
- dprintk("RPC: gss_k5decrypt: tfm iv size to large %d\n",
+ dprintk("RPC: gss_k5decrypt: tfm iv size to large %d\n",
crypto_blkcipher_ivsize(tfm));
goto out;
}
ret = crypto_blkcipher_decrypt_iv(&desc, sg, sg, length);
out:
- dprintk("RPC: gss_k5decrypt returns %d\n",ret);
+ dprintk("RPC: gss_k5decrypt returns %d\n",ret);
return ret;
}
}
ctx_id->internal_ctx_id = ctx;
- dprintk("RPC: Successfully imported new context.\n");
+
+ dprintk("RPC: Successfully imported new context.\n");
return 0;
out_err_free_key2:
s32 now;
u32 seq_send;
- dprintk("RPC: gss_krb5_seal\n");
+ dprintk("RPC: gss_krb5_seal\n");
now = get_seconds();
s32 code;
unsigned char plain[8];
- dprintk("RPC: krb5_get_seq_num:\n");
+ dprintk("RPC: krb5_get_seq_num:\n");
if ((code = krb5_decrypt(key, cksum, buf, plain, 8)))
return code;
unsigned char *ptr = (unsigned char *)read_token->data;
int bodysize;
- dprintk("RPC: krb5_read_token\n");
+ dprintk("RPC: krb5_read_token\n");
if (g_verify_token_header(&ctx->mech_used, &bodysize, &ptr,
read_token->len))
struct page **tmp_pages;
u32 seq_send;
- dprintk("RPC: gss_wrap_kerberos\n");
+ dprintk("RPC: gss_wrap_kerberos\n");
now = get_seconds();
int data_len;
int blocksize;
- dprintk("RPC: gss_unwrap_kerberos\n");
+ dprintk("RPC: gss_unwrap_kerberos\n");
ptr = (u8 *)buf->head[0].iov_base + offset;
if (g_verify_token_header(&kctx->mech_used, &bodysize, &ptr,
spin_lock(®istered_mechs_lock);
list_add(&gm->gm_list, ®istered_mechs);
spin_unlock(®istered_mechs_lock);
- dprintk("RPC: registered gss mechanism %s\n", gm->gm_name);
+ dprintk("RPC: registered gss mechanism %s\n", gm->gm_name);
return 0;
}
spin_lock(®istered_mechs_lock);
list_del(&gm->gm_list);
spin_unlock(®istered_mechs_lock);
- dprintk("RPC: unregistered gss mechanism %s\n", gm->gm_name);
+ dprintk("RPC: unregistered gss mechanism %s\n", gm->gm_name);
gss_mech_free(gm);
}
u32
gss_delete_sec_context(struct gss_ctx **context_handle)
{
- dprintk("RPC: gss_delete_sec_context deleting %p\n",
+ dprintk("RPC: gss_delete_sec_context deleting %p\n",
*context_handle);
if (!*context_handle)
if (IS_ERR(p))
goto out_err_free_ctx;
if (version != 1) {
- dprintk("RPC: unknown spkm3 token format: obsolete nfs-utils?\n");
+ dprintk("RPC: unknown spkm3 token format: "
+ "obsolete nfs-utils?\n");
goto out_err_free_ctx;
}
ctx_id->internal_ctx_id = ctx;
- dprintk("Successfully imported new spkm context.\n");
+ dprintk("RPC: Successfully imported new spkm context.\n");
return 0;
out_err_free_intg_key:
maj_stat = spkm3_read_token(sctx, checksum, signbuf, SPKM_MIC_TOK);
- dprintk("RPC: gss_verify_mic_spkm3 returning %d\n", maj_stat);
+ dprintk("RPC: gss_verify_mic_spkm3 returning %d\n", maj_stat);
return maj_stat;
}
err = spkm3_make_token(sctx, message_buffer,
message_token, SPKM_MIC_TOK);
- dprintk("RPC: gss_get_mic_spkm3 returning %d\n", err);
+ dprintk("RPC: gss_get_mic_spkm3 returning %d\n", err);
return err;
}
now = jiffies;
if (ctx->ctx_id.len != 16) {
- dprintk("RPC: spkm3_make_token BAD ctx_id.len %d\n",
+ dprintk("RPC: spkm3_make_token BAD ctx_id.len %d\n",
ctx->ctx_id.len);
goto out_err;
}
if (!g_OID_equal(&ctx->intg_alg, &hmac_md5_oid)) {
- dprintk("RPC: gss_spkm3_seal: unsupported I-ALG algorithm."
- "only support hmac-md5 I-ALG.\n");
+ dprintk("RPC: gss_spkm3_seal: unsupported I-ALG "
+ "algorithm. only support hmac-md5 I-ALG.\n");
goto out_err;
} else
checksum_type = CKSUMTYPE_HMAC_MD5;
if (!g_OID_equal(&ctx->conf_alg, &cast5_cbc_oid)) {
- dprintk("RPC: gss_spkm3_seal: unsupported C-ALG algorithm\n");
+ dprintk("RPC: gss_spkm3_seal: unsupported C-ALG "
+ "algorithm\n");
goto out_err;
}
spkm3_make_mic_token(&ptr, tokenlen, &mic_hdr, &md5cksum, md5elen, md5zbit);
} else if (toktype == SPKM_WRAP_TOK) { /* Not Supported */
- dprintk("RPC: gss_spkm3_seal: SPKM_WRAP_TOK not supported\n");
+ dprintk("RPC: gss_spkm3_seal: SPKM_WRAP_TOK "
+ "not supported\n");
goto out_err;
}
cksumname = "md5";
break;
default:
- dprintk("RPC: spkm3_make_checksum:"
+ dprintk("RPC: spkm3_make_checksum:"
" unsupported checksum %d", cksumtype);
return GSS_S_FAILURE;
}
/* spkm3 innercontext token preamble */
if ((ptr[0] != 0xa4) || (ptr[2] != 0x30)) {
- dprintk("RPC: BAD SPKM ictoken preamble\n");
+ dprintk("RPC: BAD SPKM ictoken preamble\n");
goto out;
}
/* token type */
if ((ptr[4] != 0x02) || (ptr[5] != 0x02)) {
- dprintk("RPC: BAD asn1 SPKM3 token type\n");
+ dprintk("RPC: BAD asn1 SPKM3 token type\n");
goto out;
}
/* only support SPKM_MIC_TOK */
if((ptr[6] != 0x01) || (ptr[7] != 0x01)) {
- dprintk("RPC: ERROR unsupported SPKM3 token \n");
+ dprintk("RPC: ERROR unsupported SPKM3 token \n");
goto out;
}
/* contextid */
if (ptr[8] != 0x03) {
- dprintk("RPC: BAD SPKM3 asn1 context-id type\n");
+ dprintk("RPC: BAD SPKM3 asn1 context-id type\n");
goto out;
}
ctxelen = ptr[9];
if (ctxelen > 17) { /* length includes asn1 zbit octet */
- dprintk("RPC: BAD SPKM3 contextid len %d\n", ctxelen);
+ dprintk("RPC: BAD SPKM3 contextid len %d\n", ctxelen);
goto out;
}
*/
if (*mic_hdrlen != 6 + ctxelen) {
- dprintk("RPC: BAD SPKM_ MIC_TOK header len %d: we only support default int-alg (should be absent) and do not support snd-seq\n", *mic_hdrlen);
+ dprintk("RPC: BAD SPKM_ MIC_TOK header len %d: we only "
+ "support default int-alg (should be absent) "
+ "and do not support snd-seq\n", *mic_hdrlen);
goto out;
}
/* checksum */
/* decode the token */
if (toktype != SPKM_MIC_TOK) {
- dprintk("RPC: BAD SPKM3 token type: %d\n", toktype);
+ dprintk("RPC: BAD SPKM3 token type: %d\n", toktype);
goto out;
}
goto out;
if (*cksum++ != 0x03) {
- dprintk("RPC: spkm3_read_token BAD checksum type\n");
+ dprintk("RPC: spkm3_read_token BAD checksum type\n");
goto out;
}
md5elen = *cksum++;
*/
ret = GSS_S_DEFECTIVE_TOKEN;
if (!g_OID_equal(&ctx->intg_alg, &hmac_md5_oid)) {
- dprintk("RPC: gss_spkm3_seal: unsupported I-ALG algorithm\n");
+ dprintk("RPC: gss_spkm3_seal: unsupported I-ALG "
+ "algorithm\n");
goto out;
}
ret = GSS_S_BAD_SIG;
code = memcmp(md5cksum.data, wire_cksum.data, wire_cksum.len);
if (code) {
- dprintk("RPC: bad MIC checksum\n");
+ dprintk("RPC: bad MIC checksum\n");
goto out;
}
}
if (gc->gc_seq > MAXSEQ) {
- dprintk("RPC: svcauth_gss: discarding request with large sequence number %d\n",
- gc->gc_seq);
+ dprintk("RPC: svcauth_gss: discarding request with "
+ "large sequence number %d\n", gc->gc_seq);
*authp = rpcsec_gsserr_ctxproblem;
return SVC_DENIED;
}
if (!gss_check_seq_num(rsci, gc->gc_seq)) {
- dprintk("RPC: svcauth_gss: discarding request with old sequence number %d\n",
- gc->gc_seq);
+ dprintk("RPC: svcauth_gss: discarding request with "
+ "old sequence number %d\n", gc->gc_seq);
return SVC_DROP;
}
return SVC_OK;
__be32 *reject_stat = resv->iov_base + resv->iov_len;
int ret;
- dprintk("RPC: svcauth_gss: argv->iov_len = %zd\n",argv->iov_len);
+ dprintk("RPC: svcauth_gss: argv->iov_len = %zd\n",
+ argv->iov_len);
*authp = rpc_autherr_badcred;
if (!svcdata)
static struct rpc_auth *
unx_create(struct rpc_clnt *clnt, rpc_authflavor_t flavor)
{
- dprintk("RPC: creating UNIX authenticator for client %p\n", clnt);
+ dprintk("RPC: creating UNIX authenticator for client %p\n",
+ clnt);
if (atomic_inc_return(&unix_auth.au_count) == 0)
unix_cred_cache.nextgc = jiffies + (unix_cred_cache.expire >> 1);
return &unix_auth;
static void
unx_destroy(struct rpc_auth *auth)
{
- dprintk("RPC: destroying UNIX authenticator %p\n", auth);
+ dprintk("RPC: destroying UNIX authenticator %p\n", auth);
rpcauth_free_credcache(auth);
}
struct unx_cred *cred;
int i;
- dprintk("RPC: allocating UNIX cred for uid %d gid %d\n",
- acred->uid, acred->gid);
+ dprintk("RPC: allocating UNIX cred for uid %d gid %d\n",
+ acred->uid, acred->gid);
if (!(cred = kmalloc(sizeof(*cred), GFP_KERNEL)))
return ERR_PTR(-ENOMEM);
if (rv == -EAGAIN)
rv = -ENOENT;
} else if (rv == -EAGAIN || age > refresh_age/2) {
- dprintk("Want update, refage=%ld, age=%ld\n", refresh_age, age);
+ dprintk("RPC: Want update, refage=%ld, age=%ld\n",
+ refresh_age, age);
if (!test_and_set_bit(CACHE_PENDING, &h->flags)) {
switch (cache_make_upcall(detail, h)) {
case -EINVAL:
# define RPCDBG_FACILITY RPCDBG_CALL
#endif
+#define dprint_status(t) \
+ dprintk("RPC: %5u %s (status %d)\n", t->tk_pid, \
+ __FUNCTION__, t->tk_status)
+
static DECLARE_WAIT_QUEUE_HEAD(destroy_wait);
int err;
int len;
- dprintk("RPC: creating %s client for %s (xprt %p)\n",
- program->name, servname, xprt);
+ dprintk("RPC: creating %s client for %s (xprt %p)\n",
+ program->name, servname, xprt);
err = -EINVAL;
if (!xprt)
xprt->resvport = 0;
dprintk("RPC: creating %s client for %s (xprt %p)\n",
- args->program->name, args->servername, xprt);
+ args->program->name, args->servername, xprt);
clnt = rpc_new_client(xprt, args->servername, args->program,
args->version, args->authflavor);
clnt->cl_autobind = 1;
if (args->flags & RPC_CLNT_CREATE_ONESHOT)
clnt->cl_oneshot = 1;
+ if (args->flags & RPC_CLNT_CREATE_DISCRTRY)
+ clnt->cl_discrtry = 1;
return clnt;
}
out_no_stats:
kfree(new);
out_no_clnt:
- dprintk("RPC: %s returned error %d\n", __FUNCTION__, err);
+ dprintk("RPC: %s: returned error %d\n", __FUNCTION__, err);
return ERR_PTR(err);
}
int
rpc_shutdown_client(struct rpc_clnt *clnt)
{
- dprintk("RPC: shutting down %s client for %s, tasks=%d\n",
+ dprintk("RPC: shutting down %s client for %s, tasks=%d\n",
clnt->cl_protname, clnt->cl_server,
atomic_read(&clnt->cl_users));
return 1;
BUG_ON(atomic_read(&clnt->cl_users) != 0);
- dprintk("RPC: destroying %s client for %s\n",
+ dprintk("RPC: destroying %s client for %s\n",
clnt->cl_protname, clnt->cl_server);
if (clnt->cl_auth) {
rpcauth_destroy(clnt->cl_auth);
void
rpc_release_client(struct rpc_clnt *clnt)
{
- dprintk("RPC: rpc_release_client(%p, %d)\n",
- clnt, atomic_read(&clnt->cl_users));
+ dprintk("RPC: rpc_release_client(%p, %d)\n",
+ clnt, atomic_read(&clnt->cl_users));
if (!atomic_dec_and_test(&clnt->cl_users))
return;
/* Mask signals on RPC calls _and_ GSS_AUTH upcalls */
rpc_task_sigmask(task, &oldset);
- rpc_call_setup(task, msg, 0);
-
/* Set up the call info struct and execute the task */
+ rpc_call_setup(task, msg, 0);
+ if (task->tk_status == 0) {
+ atomic_inc(&task->tk_count);
+ rpc_execute(task);
+ }
status = task->tk_status;
- if (status != 0)
- goto out;
- atomic_inc(&task->tk_count);
- status = rpc_execute(task);
- if (status == 0)
- status = task->tk_status;
-out:
rpc_put_task(task);
rpc_restore_sigmask(&oldset);
return status;
{
struct rpc_clnt *clnt = task->tk_client;
- dprintk("RPC: %4d call_start %s%d proc %d (%s)\n", task->tk_pid,
- clnt->cl_protname, clnt->cl_vers, task->tk_msg.rpc_proc->p_proc,
- (RPC_IS_ASYNC(task) ? "async" : "sync"));
+ dprintk("RPC: %5u call_start %s%d proc %d (%s)\n", task->tk_pid,
+ clnt->cl_protname, clnt->cl_vers,
+ task->tk_msg.rpc_proc->p_proc,
+ (RPC_IS_ASYNC(task) ? "async" : "sync"));
/* Increment call count */
task->tk_msg.rpc_proc->p_count++;
static void
call_reserve(struct rpc_task *task)
{
- dprintk("RPC: %4d call_reserve\n", task->tk_pid);
+ dprint_status(task);
if (!rpcauth_uptodatecred(task)) {
task->tk_action = call_refresh;
{
int status = task->tk_status;
- dprintk("RPC: %4d call_reserveresult (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
/*
* After a call to xprt_reserve(), we must have either
struct rpc_xprt *xprt = task->tk_xprt;
unsigned int bufsiz;
- dprintk("RPC: %4d call_allocate (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
+
task->tk_action = call_bind;
if (req->rq_buffer)
return;
if (xprt->ops->buf_alloc(task, bufsiz << 1) != NULL)
return;
- printk(KERN_INFO "RPC: buffer allocation failed for task %p\n", task);
+
+ dprintk("RPC: %5u rpc_buffer allocation failed\n", task->tk_pid);
if (RPC_IS_ASYNC(task) || !signalled()) {
xprt_release(task);
kxdrproc_t encode;
__be32 *p;
- dprintk("RPC: %4d call_encode (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
/* Default buffer setup */
bufsiz = req->rq_bufsize >> 1;
{
struct rpc_xprt *xprt = task->tk_xprt;
- dprintk("RPC: %4d call_bind (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
task->tk_action = call_connect;
if (!xprt_bound(xprt)) {
int status = -EACCES;
if (task->tk_status >= 0) {
- dprintk("RPC: %4d call_bind_status (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
task->tk_status = 0;
task->tk_action = call_connect;
return;
switch (task->tk_status) {
case -EACCES:
- dprintk("RPC: %4d remote rpcbind: RPC program/version unavailable\n",
- task->tk_pid);
+ dprintk("RPC: %5u remote rpcbind: RPC program/version "
+ "unavailable\n", task->tk_pid);
rpc_delay(task, 3*HZ);
goto retry_timeout;
case -ETIMEDOUT:
- dprintk("RPC: %4d rpcbind request timed out\n",
+ dprintk("RPC: %5u rpcbind request timed out\n",
task->tk_pid);
goto retry_timeout;
case -EPFNOSUPPORT:
- dprintk("RPC: %4d remote rpcbind service unavailable\n",
+ dprintk("RPC: %5u remote rpcbind service unavailable\n",
task->tk_pid);
break;
case -EPROTONOSUPPORT:
- dprintk("RPC: %4d remote rpcbind version 2 unavailable\n",
+ dprintk("RPC: %5u remote rpcbind version 2 unavailable\n",
task->tk_pid);
break;
default:
- dprintk("RPC: %4d unrecognized rpcbind error (%d)\n",
+ dprintk("RPC: %5u unrecognized rpcbind error (%d)\n",
task->tk_pid, -task->tk_status);
status = -EIO;
}
{
struct rpc_xprt *xprt = task->tk_xprt;
- dprintk("RPC: %4d call_connect xprt %p %s connected\n",
+ dprintk("RPC: %5u call_connect xprt %p %s connected\n",
task->tk_pid, xprt,
(xprt_connected(xprt) ? "is" : "is not"));
struct rpc_clnt *clnt = task->tk_client;
int status = task->tk_status;
- dprintk("RPC: %5u call_connect_status (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
task->tk_status = 0;
if (status >= 0) {
static void
call_transmit(struct rpc_task *task)
{
- dprintk("RPC: %4d call_transmit (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
task->tk_action = call_status;
if (task->tk_status < 0)
if (req->rq_received > 0 && !req->rq_bytes_sent)
task->tk_status = req->rq_received;
- dprintk("RPC: %4d call_status (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprint_status(task);
status = task->tk_status;
if (status >= 0) {
struct rpc_clnt *clnt = task->tk_client;
if (xprt_adjust_timeout(task->tk_rqstp) == 0) {
- dprintk("RPC: %4d call_timeout (minor)\n", task->tk_pid);
+ dprintk("RPC: %5u call_timeout (minor)\n", task->tk_pid);
goto retry;
}
- dprintk("RPC: %4d call_timeout (major)\n", task->tk_pid);
+ dprintk("RPC: %5u call_timeout (major)\n", task->tk_pid);
task->tk_timeouts++;
if (RPC_IS_SOFT(task)) {
kxdrproc_t decode = task->tk_msg.rpc_proc->p_decode;
__be32 *p;
- dprintk("RPC: %4d call_decode (status %d)\n",
- task->tk_pid, task->tk_status);
+ dprintk("RPC: %5u call_decode (status %d)\n",
+ task->tk_pid, task->tk_status);
if (task->tk_flags & RPC_CALL_MAJORSEEN) {
printk(KERN_NOTICE "%s: server %s OK\n",
clnt->cl_stats->rpcretrans++;
goto out_retry;
}
- dprintk("%s: too small RPC reply size (%d bytes)\n",
- clnt->cl_protname, task->tk_status);
+ dprintk("RPC: %s: too small RPC reply size (%d bytes)\n",
+ clnt->cl_protname, task->tk_status);
task->tk_action = call_timeout;
goto out_retry;
}
task->tk_msg.rpc_resp);
unlock_kernel();
}
- dprintk("RPC: %4d call_decode result %d\n", task->tk_pid,
- task->tk_status);
+ dprintk("RPC: %5u call_decode result %d\n", task->tk_pid,
+ task->tk_status);
return;
out_retry:
req->rq_received = req->rq_private_buf.len = 0;
static void
call_refresh(struct rpc_task *task)
{
- dprintk("RPC: %4d call_refresh\n", task->tk_pid);
+ dprint_status(task);
xprt_release(task); /* Must do to obtain new XID */
task->tk_action = call_refreshresult;
call_refreshresult(struct rpc_task *task)
{
int status = task->tk_status;
- dprintk("RPC: %4d call_refreshresult (status %d)\n",
- task->tk_pid, task->tk_status);
+
+ dprint_status(task);
task->tk_status = 0;
task->tk_action = call_reserve;
case RPC_AUTH_ERROR:
break;
case RPC_MISMATCH:
- dprintk("%s: RPC call version mismatch!\n", __FUNCTION__);
+ dprintk("RPC: %5u %s: RPC call version "
+ "mismatch!\n",
+ task->tk_pid, __FUNCTION__);
error = -EPROTONOSUPPORT;
goto out_err;
default:
- dprintk("%s: RPC call rejected, unknown error: %x\n", __FUNCTION__, n);
+ dprintk("RPC: %5u %s: RPC call rejected, "
+ "unknown error: %x\n",
+ task->tk_pid, __FUNCTION__, n);
goto out_eio;
}
if (--len < 0)
if (!task->tk_cred_retry)
break;
task->tk_cred_retry--;
- dprintk("RPC: %4d call_verify: retry stale creds\n",
- task->tk_pid);
+ dprintk("RPC: %5u %s: retry stale creds\n",
+ task->tk_pid, __FUNCTION__);
rpcauth_invalcred(task);
task->tk_action = call_refresh;
goto out_retry;
if (!task->tk_garb_retry)
break;
task->tk_garb_retry--;
- dprintk("RPC: %4d call_verify: retry garbled creds\n",
- task->tk_pid);
+ dprintk("RPC: %5u %s: retry garbled creds\n",
+ task->tk_pid, __FUNCTION__);
task->tk_action = call_bind;
goto out_retry;
case RPC_AUTH_TOOWEAK:
printk(KERN_WARNING "call_verify: unknown auth error: %x\n", n);
error = -EIO;
}
- dprintk("RPC: %4d call_verify: call rejected %d\n",
- task->tk_pid, n);
+ dprintk("RPC: %5u %s: call rejected %d\n",
+ task->tk_pid, __FUNCTION__, n);
goto out_err;
}
if (!(p = rpcauth_checkverf(task, p))) {
case RPC_SUCCESS:
return p;
case RPC_PROG_UNAVAIL:
- dprintk("RPC: call_verify: program %u is unsupported by server %s\n",
+ dprintk("RPC: %5u %s: program %u is unsupported by server %s\n",
+ task->tk_pid, __FUNCTION__,
(unsigned int)task->tk_client->cl_prog,
task->tk_client->cl_server);
error = -EPFNOSUPPORT;
goto out_err;
case RPC_PROG_MISMATCH:
- dprintk("RPC: call_verify: program %u, version %u unsupported by server %s\n",
+ dprintk("RPC: %5u %s: program %u, version %u unsupported by "
+ "server %s\n", task->tk_pid, __FUNCTION__,
(unsigned int)task->tk_client->cl_prog,
(unsigned int)task->tk_client->cl_vers,
task->tk_client->cl_server);
error = -EPROTONOSUPPORT;
goto out_err;
case RPC_PROC_UNAVAIL:
- dprintk("RPC: call_verify: proc %p unsupported by program %u, version %u on server %s\n",
+ dprintk("RPC: %5u %s: proc %p unsupported by program %u, "
+ "version %u on server %s\n",
+ task->tk_pid, __FUNCTION__,
task->tk_msg.rpc_proc,
task->tk_client->cl_prog,
task->tk_client->cl_vers,
error = -EOPNOTSUPP;
goto out_err;
case RPC_GARBAGE_ARGS:
- dprintk("RPC: %4d %s: server saw garbage\n", task->tk_pid, __FUNCTION__);
+ dprintk("RPC: %5u %s: server saw garbage\n",
+ task->tk_pid, __FUNCTION__);
break; /* retry */
default:
printk(KERN_WARNING "call_verify: server accept status: %x\n", n);
task->tk_client->cl_stats->rpcgarbage++;
if (task->tk_garb_retry) {
task->tk_garb_retry--;
- dprintk("RPC %s: retrying %4d\n", __FUNCTION__, task->tk_pid);
+ dprintk("RPC: %5u %s: retrying\n",
+ task->tk_pid, __FUNCTION__);
task->tk_action = call_bind;
out_retry:
return ERR_PTR(-EAGAIN);
static void pmap_map_release(void *data)
{
- pmap_map_free(data);
+ struct portmap_args *map = data;
+
+ xprt_put(map->pm_xprt);
+ pmap_map_free(map);
}
static const struct rpc_call_ops pmap_getport_ops = {
struct rpc_task *child;
int status;
- dprintk("RPC: %4d rpc_getport(%s, %u, %u, %d)\n",
+ dprintk("RPC: %5u rpc_getport(%s, %u, %u, %d)\n",
task->tk_pid, clnt->cl_server,
clnt->cl_prog, clnt->cl_vers, xprt->prot);
status = -EIO;
child = rpc_run_task(pmap_clnt, RPC_TASK_ASYNC, &pmap_getport_ops, map);
if (IS_ERR(child))
- goto bailout;
+ goto bailout_nofree;
rpc_put_task(child);
task->tk_xprt->stat.bind_count++;
char hostname[32];
int status;
- dprintk("RPC: rpc_getport_external(%u.%u.%u.%u, %u, %u, %d)\n",
+ dprintk("RPC: rpc_getport_external(%u.%u.%u.%u, %u, %u, %d)\n",
NIPQUAD(sin->sin_addr.s_addr), prog, vers, prot);
sprintf(hostname, "%u.%u.%u.%u", NIPQUAD(sin->sin_addr.s_addr));
status = 0;
}
- dprintk("RPC: %4d pmap_getport_done(status %d, port %u)\n",
+ dprintk("RPC: %5u pmap_getport_done(status %d, port %u)\n",
child->tk_pid, status, map->pm_port);
pmap_wake_portmap_waiters(xprt, status);
- xprt_put(xprt);
}
/**
struct rpc_clnt *pmap_clnt;
int error = 0;
- dprintk("RPC: registering (%u, %u, %d, %u) with portmapper.\n",
+ dprintk("RPC: registering (%u, %u, %d, %u) with portmapper.\n",
prog, vers, prot, port);
pmap_clnt = pmap_create("localhost", &sin, IPPROTO_UDP, 1);
if (IS_ERR(pmap_clnt)) {
error = PTR_ERR(pmap_clnt);
- dprintk("RPC: couldn't create pmap client. Error = %d\n", error);
+ dprintk("RPC: couldn't create pmap client. Error = %d\n",
+ error);
return error;
}
"RPC: failed to contact portmap (errno %d).\n",
error);
}
- dprintk("RPC: registration status %d/%d\n", error, *okay);
+ dprintk("RPC: registration status %d/%d\n", error, *okay);
/* Client deleted automatically because cl_oneshot == 1 */
return error;
*/
static int xdr_encode_mapping(struct rpc_rqst *req, __be32 *p, struct portmap_args *map)
{
- dprintk("RPC: xdr_encode_mapping(%u, %u, %u, %u)\n",
- map->pm_prog, map->pm_vers, map->pm_prot, map->pm_port);
+ dprintk("RPC: xdr_encode_mapping(%u, %u, %u, %u)\n",
+ map->pm_prog, map->pm_vers,
+ map->pm_prot, map->pm_port);
*p++ = htonl(map->pm_prog);
*p++ = htonl(map->pm_vers);
*p++ = htonl(map->pm_prot);
{
struct inode *inode;
- inode = rpc_get_inode(dir->i_sb, S_IFDIR | S_IRUSR | S_IXUSR);
+ inode = rpc_get_inode(dir->i_sb, S_IFDIR | S_IRUGO | S_IXUGO);
if (!inode)
goto out_err;
inode->i_ino = iunique(dir->i_sb, 100);
static inline void
__rpc_disable_timer(struct rpc_task *task)
{
- dprintk("RPC: %4d disabling timer\n", task->tk_pid);
+ dprintk("RPC: %5u disabling timer\n", task->tk_pid);
task->tk_timeout_fn = NULL;
task->tk_timeout = 0;
}
callback = task->tk_timeout_fn;
task->tk_timeout_fn = NULL;
if (callback && RPC_IS_QUEUED(task)) {
- dprintk("RPC: %4d running timer\n", task->tk_pid);
+ dprintk("RPC: %5u running timer\n", task->tk_pid);
callback(task);
}
smp_mb__before_clear_bit();
if (!task->tk_timeout)
return;
- dprintk("RPC: %4d setting alarm for %lu ms\n",
+ dprintk("RPC: %5u setting alarm for %lu ms\n",
task->tk_pid, task->tk_timeout * 1000 / HZ);
if (timer)
return;
if (test_and_clear_bit(RPC_TASK_HAS_TIMER, &task->tk_runstate)) {
del_singleshot_timer_sync(&task->tk_timer);
- dprintk("RPC: %4d deleting timer\n", task->tk_pid);
+ dprintk("RPC: %5u deleting timer\n", task->tk_pid);
}
}
queue->qlen++;
rpc_set_queued(task);
- dprintk("RPC: %4d added to queue %p \"%s\"\n",
- task->tk_pid, queue, rpc_qname(queue));
+ dprintk("RPC: %5u added to queue %p \"%s\"\n",
+ task->tk_pid, queue, rpc_qname(queue));
}
/*
else
list_del(&task->u.tk_wait.list);
queue->qlen--;
- dprintk("RPC: %4d removed from queue %p \"%s\"\n",
- task->tk_pid, queue, rpc_qname(queue));
+ dprintk("RPC: %5u removed from queue %p \"%s\"\n",
+ task->tk_pid, queue, rpc_qname(queue));
}
static inline void rpc_set_waitqueue_priority(struct rpc_wait_queue *queue, int priority)
static void __rpc_sleep_on(struct rpc_wait_queue *q, struct rpc_task *task,
rpc_action action, rpc_action timer)
{
- dprintk("RPC: %4d sleep_on(queue \"%s\" time %ld)\n", task->tk_pid,
- rpc_qname(q), jiffies);
+ dprintk("RPC: %5u sleep_on(queue \"%s\" time %lu)\n",
+ task->tk_pid, rpc_qname(q), jiffies);
if (!RPC_IS_ASYNC(task) && !RPC_IS_ACTIVATED(task)) {
printk(KERN_ERR "RPC: Inactive synchronous task put to sleep!\n");
*/
static void __rpc_do_wake_up_task(struct rpc_task *task)
{
- dprintk("RPC: %4d __rpc_wake_up_task (now %ld)\n", task->tk_pid, jiffies);
+ dprintk("RPC: %5u __rpc_wake_up_task (now %lu)\n",
+ task->tk_pid, jiffies);
#ifdef RPC_DEBUG
BUG_ON(task->tk_magic != RPC_TASK_MAGIC_ID);
rpc_make_runnable(task);
- dprintk("RPC: __rpc_wake_up_task done\n");
+ dprintk("RPC: __rpc_wake_up_task done\n");
}
/*
static void
__rpc_default_timer(struct rpc_task *task)
{
- dprintk("RPC: %d timeout (default timer)\n", task->tk_pid);
+ dprintk("RPC: %5u timeout (default timer)\n", task->tk_pid);
task->tk_status = -ETIMEDOUT;
rpc_wake_up_task(task);
}
{
struct rpc_task *task = NULL;
- dprintk("RPC: wake_up_next(%p \"%s\")\n", queue, rpc_qname(queue));
+ dprintk("RPC: wake_up_next(%p \"%s\")\n",
+ queue, rpc_qname(queue));
rcu_read_lock_bh();
spin_lock(&queue->lock);
if (RPC_IS_PRIORITY(queue))
/*
* This is the RPC `scheduler' (or rather, the finite state machine).
*/
-static int __rpc_execute(struct rpc_task *task)
+static void __rpc_execute(struct rpc_task *task)
{
int status = 0;
- dprintk("RPC: %4d rpc_execute flgs %x\n",
- task->tk_pid, task->tk_flags);
+ dprintk("RPC: %5u __rpc_execute flags=0x%x\n",
+ task->tk_pid, task->tk_flags);
BUG_ON(RPC_IS_QUEUED(task));
if (RPC_IS_ASYNC(task)) {
/* Careful! we may have raced... */
if (RPC_IS_QUEUED(task))
- return 0;
+ return;
if (rpc_test_and_set_running(task))
- return 0;
+ return;
continue;
}
/* sync task: sleep here */
- dprintk("RPC: %4d sync task going to sleep\n", task->tk_pid);
+ dprintk("RPC: %5u sync task going to sleep\n", task->tk_pid);
/* Note: Caller should be using rpc_clnt_sigmask() */
status = out_of_line_wait_on_bit(&task->tk_runstate,
RPC_TASK_QUEUED, rpc_wait_bit_interruptible,
* clean up after sleeping on some queue, we don't
* break the loop here, but go around once more.
*/
- dprintk("RPC: %4d got signal\n", task->tk_pid);
+ dprintk("RPC: %5u got signal\n", task->tk_pid);
task->tk_flags |= RPC_TASK_KILLED;
rpc_exit(task, -ERESTARTSYS);
rpc_wake_up_task(task);
}
rpc_set_running(task);
- dprintk("RPC: %4d sync task resuming\n", task->tk_pid);
+ dprintk("RPC: %5u sync task resuming\n", task->tk_pid);
}
- dprintk("RPC: %4d, return %d, status %d\n", task->tk_pid, status, task->tk_status);
+ dprintk("RPC: %5u return %d, status %d\n", task->tk_pid, status,
+ task->tk_status);
/* Release all resources associated with the task */
rpc_release_task(task);
- return status;
}
/*
* released. In particular note that tk_release() will have
* been called, so your task memory may have been freed.
*/
-int
-rpc_execute(struct rpc_task *task)
+void rpc_execute(struct rpc_task *task)
{
rpc_set_active(task);
rpc_set_running(task);
- return __rpc_execute(task);
+ __rpc_execute(task);
}
static void rpc_async_schedule(struct work_struct *work)
/* starting timestamp */
task->tk_start = jiffies;
- dprintk("RPC: %4d new task procpid %d\n", task->tk_pid,
+ dprintk("RPC: new task initialized, procpid %u\n",
current->pid);
}
static void rpc_free_task(struct rcu_head *rcu)
{
struct rpc_task *task = container_of(rcu, struct rpc_task, u.tk_rcu);
- dprintk("RPC: %4d freeing task\n", task->tk_pid);
+ dprintk("RPC: %5u freeing task\n", task->tk_pid);
mempool_free(task, rpc_task_mempool);
}
rpc_init_task(task, clnt, flags, tk_ops, calldata);
- dprintk("RPC: %4d allocated task\n", task->tk_pid);
+ dprintk("RPC: allocated task %p\n", task);
task->tk_flags |= RPC_TASK_DYNAMIC;
out:
return task;
#ifdef RPC_DEBUG
BUG_ON(task->tk_magic != RPC_TASK_MAGIC_ID);
#endif
- dprintk("RPC: %4d release task\n", task->tk_pid);
+ dprintk("RPC: %5u release task\n", task->tk_pid);
/* Remove from global task list */
spin_lock(&rpc_sched_lock);
struct rpc_task *rovr;
struct list_head *le;
- dprintk("RPC: killing all tasks for client %p\n", clnt);
+ dprintk("RPC: killing all tasks for client %p\n", clnt);
/*
* Spin lock all_tasks to prevent changes...
rpc_killall_tasks(NULL);
flush_workqueue(rpciod_workqueue);
if (!list_empty(&all_tasks)) {
- dprintk("rpciod_killall: waiting for tasks to exit\n");
+ dprintk("RPC: rpciod_killall: waiting for tasks "
+ "to exit\n");
yield();
}
}
int error = 0;
mutex_lock(&rpciod_mutex);
- dprintk("rpciod_up: users %d\n", rpciod_users);
+ dprintk("RPC: rpciod_up: users %u\n", rpciod_users);
rpciod_users++;
if (rpciod_workqueue)
goto out;
* If there's no pid, we should be the first user.
*/
if (rpciod_users > 1)
- printk(KERN_WARNING "rpciod_up: no workqueue, %d users??\n", rpciod_users);
+ printk(KERN_WARNING "rpciod_up: no workqueue, %u users??\n", rpciod_users);
/*
* Create the rpciod thread and wait for it to start.
*/
rpciod_down(void)
{
mutex_lock(&rpciod_mutex);
- dprintk("rpciod_down sema %d\n", rpciod_users);
+ dprintk("RPC: rpciod_down sema %u\n", rpciod_users);
if (rpciod_users) {
if (--rpciod_users)
goto out;
printk(KERN_WARNING "rpciod_down: no users??\n");
if (!rpciod_workqueue) {
- dprintk("rpciod_down: Nothing to do!\n");
+ dprintk("RPC: rpciod_down: Nothing to do!\n");
goto out;
}
rpciod_killall();
if (RPC_IS_QUEUED(t))
rpc_waitq = rpc_qname(t->u.tk_wait.rpc_waitq);
- printk("%05d %04d %04x %06d %8p %6d %8p %08ld %8s %8p %8p\n",
+ printk("%5u %04d %04x %6d %8p %6d %8p %8ld %8s %8p %8p\n",
t->tk_pid,
(t->tk_msg.rpc_proc ? t->tk_msg.rpc_proc->p_proc : -1),
t->tk_flags, t->tk_status,
struct proc_dir_entry *ent;
rpc_proc_init();
- dprintk("RPC: registering /proc/net/rpc/%s\n", name);
+ dprintk("RPC: registering /proc/net/rpc/%s\n", name);
ent = create_proc_entry(name, 0, proc_net_rpc);
if (ent) {
void
rpc_proc_init(void)
{
- dprintk("RPC: registering /proc/net/rpc\n");
+ dprintk("RPC: registering /proc/net/rpc\n");
if (!proc_net_rpc) {
struct proc_dir_entry *ent;
ent = proc_mkdir("rpc", proc_net);
void
rpc_proc_exit(void)
{
- dprintk("RPC: unregistering /proc/net/rpc\n");
+ dprintk("RPC: unregistering /proc/net/rpc\n");
if (proc_net_rpc) {
proc_net_rpc = NULL;
remove_proc_entry("net/rpc", NULL);
for (i = 0; i < serv->sv_nrpools; i++) {
struct svc_pool *pool = &serv->sv_pools[i];
- dprintk("initialising pool %u for %s\n",
+ dprintk("svc: initialising pool %u for %s\n",
i, serv->sv_name);
pool->sp_id = i;
{
struct svc_sock *svsk;
- dprintk("RPC: svc_destroy(%s, %d)\n",
+ dprintk("svc: svc_destroy(%s, %d)\n",
serv->sv_program->pg_name,
serv->sv_nrthreads);
if (progp->pg_vers[i] == NULL)
continue;
- dprintk("RPC: svc_register(%s, %s, %d, %d)%s\n",
+ dprintk("svc: svc_register(%s, %s, %d, %d)%s\n",
progp->pg_name,
proto == IPPROTO_UDP? "udp" : "tcp",
port,
return 1;
out_sleep:
- dprintk("RPC: %4d failed to lock transport %p\n",
+ dprintk("RPC: %5u failed to lock transport %p\n",
task->tk_pid, xprt);
task->tk_timeout = 0;
task->tk_status = -EAGAIN;
}
xprt_clear_locked(xprt);
out_sleep:
- dprintk("RPC: %4d failed to lock transport %p\n", task->tk_pid, xprt);
+ dprintk("RPC: %5u failed to lock transport %p\n", task->tk_pid, xprt);
task->tk_timeout = 0;
task->tk_status = -EAGAIN;
if (req && req->rq_ntrans)
if (req->rq_cong)
return 1;
- dprintk("RPC: %4d xprt_cwnd_limited cong = %ld cwnd = %ld\n",
+ dprintk("RPC: %5u xprt_cwnd_limited cong = %lu cwnd = %lu\n",
task->tk_pid, xprt->cong, xprt->cwnd);
if (RPCXPRT_CONGESTED(xprt))
return 0;
if (cwnd < RPC_CWNDSCALE)
cwnd = RPC_CWNDSCALE;
}
- dprintk("RPC: cong %ld, cwnd was %ld, now %ld\n",
+ dprintk("RPC: cong %ld, cwnd was %ld, now %ld\n",
xprt->cong, xprt->cwnd, cwnd);
xprt->cwnd = cwnd;
__xprt_put_cong(xprt, req);
spin_lock_bh(&xprt->transport_lock);
if (xprt->snd_task) {
- dprintk("RPC: write space: waking waiting task on xprt %p\n",
- xprt);
+ dprintk("RPC: write space: waking waiting task on "
+ "xprt %p\n", xprt);
rpc_wake_up_task(xprt->snd_task);
}
spin_unlock_bh(&xprt->transport_lock);
*/
void xprt_disconnect(struct rpc_xprt *xprt)
{
- dprintk("RPC: disconnected transport %p\n", xprt);
+ dprintk("RPC: disconnected transport %p\n", xprt);
spin_lock_bh(&xprt->transport_lock);
xprt_clear_connected(xprt);
xprt_wake_pending_tasks(xprt, -ENOTCONN);
{
struct rpc_xprt *xprt = task->tk_xprt;
- dprintk("RPC: %4d xprt_connect xprt %p %s connected\n", task->tk_pid,
+ dprintk("RPC: %5u xprt_connect xprt %p %s connected\n", task->tk_pid,
xprt, (xprt_connected(xprt) ? "is" : "is not"));
if (!xprt_bound(xprt)) {
if (task->tk_status >= 0) {
xprt->stat.connect_count++;
xprt->stat.connect_time += (long)jiffies - xprt->stat.connect_start;
- dprintk("RPC: %4d xprt_connect_status: connection established\n",
+ dprintk("RPC: %5u xprt_connect_status: connection established\n",
task->tk_pid);
return;
}
switch (task->tk_status) {
case -ECONNREFUSED:
case -ECONNRESET:
- dprintk("RPC: %4d xprt_connect_status: server %s refused connection\n",
- task->tk_pid, task->tk_client->cl_server);
+ dprintk("RPC: %5u xprt_connect_status: server %s refused "
+ "connection\n", task->tk_pid,
+ task->tk_client->cl_server);
break;
case -ENOTCONN:
- dprintk("RPC: %4d xprt_connect_status: connection broken\n",
+ dprintk("RPC: %5u xprt_connect_status: connection broken\n",
task->tk_pid);
break;
case -ETIMEDOUT:
- dprintk("RPC: %4d xprt_connect_status: connect attempt timed out\n",
- task->tk_pid);
+ dprintk("RPC: %5u xprt_connect_status: connect attempt timed "
+ "out\n", task->tk_pid);
break;
default:
- dprintk("RPC: %4d xprt_connect_status: error %d connecting to server %s\n",
- task->tk_pid, -task->tk_status, task->tk_client->cl_server);
+ dprintk("RPC: %5u xprt_connect_status: error %d connecting to "
+ "server %s\n", task->tk_pid, -task->tk_status,
+ task->tk_client->cl_server);
xprt_release_write(xprt, task);
task->tk_status = -EIO;
}
if (entry->rq_xid == xid)
return entry;
}
+
+ dprintk("RPC: xprt_lookup_rqst did not find xid %08x\n",
+ ntohl(xid));
xprt->stat.bad_xids++;
return NULL;
}
struct rpc_rqst *req = task->tk_rqstp;
struct rpc_xprt *xprt = req->rq_xprt;
- dprintk("RPC: %4d xprt_timer\n", task->tk_pid);
+ dprintk("RPC: %5u xprt_timer\n", task->tk_pid);
spin_lock(&xprt->transport_lock);
if (!req->rq_received) {
struct rpc_xprt *xprt = req->rq_xprt;
int err = 0;
- dprintk("RPC: %4d xprt_prepare_transmit\n", task->tk_pid);
+ dprintk("RPC: %5u xprt_prepare_transmit\n", task->tk_pid);
spin_lock_bh(&xprt->transport_lock);
if (req->rq_received && !req->rq_bytes_sent) {
struct rpc_xprt *xprt = req->rq_xprt;
int status;
- dprintk("RPC: %4d xprt_transmit(%u)\n", task->tk_pid, req->rq_slen);
+ dprintk("RPC: %5u xprt_transmit(%u)\n", task->tk_pid, req->rq_slen);
if (!req->rq_received) {
if (list_empty(&req->rq_list)) {
xprt_reset_majortimeo(req);
/* Turn off autodisconnect */
del_singleshot_timer_sync(&xprt->timer);
+ } else {
+ /* If all request bytes have been sent,
+ * then we must be retransmitting this one */
+ if (!req->rq_bytes_sent) {
+ if (task->tk_client->cl_discrtry) {
+ xprt_disconnect(xprt);
+ task->tk_status = -ENOTCONN;
+ return;
+ }
+ }
}
} else if (!req->rq_bytes_sent)
return;
status = xprt->ops->send_request(task);
if (status == 0) {
- dprintk("RPC: %4d xmit complete\n", task->tk_pid);
+ dprintk("RPC: %5u xmit complete\n", task->tk_pid);
spin_lock_bh(&xprt->transport_lock);
xprt->ops->set_retrans_timeout(task);
xprt_request_init(task, xprt);
return;
}
- dprintk("RPC: waiting for request slot\n");
+ dprintk("RPC: waiting for request slot\n");
task->tk_status = -EAGAIN;
task->tk_timeout = 0;
rpc_sleep_on(&xprt->backlog, task, NULL, NULL);
req->rq_xid = xprt_alloc_xid(xprt);
req->rq_release_snd_buf = NULL;
xprt_reset_majortimeo(req);
- dprintk("RPC: %4d reserved req %p xid %08x\n", task->tk_pid,
+ dprintk("RPC: %5u reserved req %p xid %08x\n", task->tk_pid,
req, ntohl(req->rq_xid));
}
req->rq_release_snd_buf(req);
memset(req, 0, sizeof(*req)); /* mark unused */
- dprintk("RPC: %4d release request %p\n", task->tk_pid, req);
+ dprintk("RPC: %5u release request %p\n", task->tk_pid, req);
spin_lock(&xprt->reserve_lock);
list_add(&req->rq_list, &xprt->free);
return ERR_PTR(-EIO);
}
if (IS_ERR(xprt)) {
- dprintk("RPC: xprt_create_transport: failed, %ld\n",
+ dprintk("RPC: xprt_create_transport: failed, %ld\n",
-PTR_ERR(xprt));
return xprt;
}
xprt_init_xid(xprt);
- dprintk("RPC: created transport %p with %u slots\n", xprt,
+ dprintk("RPC: created transport %p with %u slots\n", xprt,
xprt->max_reqs);
return xprt;
{
struct rpc_xprt *xprt = container_of(kref, struct rpc_xprt, kref);
- dprintk("RPC: destroying transport %p\n", xprt);
+ dprintk("RPC: destroying transport %p\n", xprt);
xprt->shutdown = 1;
del_timer_sync(&xprt->timer);
u8 *buf = (u8 *) packet;
int j;
- dprintk("RPC: %s\n", msg);
+ dprintk("RPC: %s\n", msg);
for (j = 0; j < count && j < 128; j += 4) {
if (!(j & 31)) {
if (j)
struct rpc_xprt *xprt = req->rq_xprt;
struct sock_xprt *transport = container_of(xprt, struct sock_xprt, xprt);
- dprintk("RPC: %4d xmit incomplete (%u left of %u)\n",
+ dprintk("RPC: %5u xmit incomplete (%u left of %u)\n",
task->tk_pid, req->rq_slen - req->rq_bytes_sent,
req->rq_slen);
xprt->addrlen, xdr,
req->rq_bytes_sent);
- dprintk("RPC: xs_udp_send_request(%u) = %d\n",
+ dprintk("RPC: xs_udp_send_request(%u) = %d\n",
xdr->len - req->rq_bytes_sent, status);
if (likely(status >= (int) req->rq_slen))
xs_nospace(task);
break;
default:
- dprintk("RPC: sendmsg returned unrecognized error %d\n",
+ dprintk("RPC: sendmsg returned unrecognized error %d\n",
-status);
break;
}
status = xs_sendpages(transport->sock,
NULL, 0, xdr, req->rq_bytes_sent);
- dprintk("RPC: xs_tcp_send_request(%u) = %d\n",
+ dprintk("RPC: xs_tcp_send_request(%u) = %d\n",
xdr->len - req->rq_bytes_sent, status);
if (unlikely(status < 0))
status = -ENOTCONN;
break;
default:
- dprintk("RPC: sendmsg returned unrecognized error %d\n",
+ dprintk("RPC: sendmsg returned unrecognized error %d\n",
-status);
xprt_disconnect(xprt);
break;
if (!sk)
goto clear_close_wait;
- dprintk("RPC: xs_close xprt %p\n", xprt);
+ dprintk("RPC: xs_close xprt %p\n", xprt);
write_lock_bh(&sk->sk_callback_lock);
transport->inet = NULL;
{
struct sock_xprt *transport = container_of(xprt, struct sock_xprt, xprt);
- dprintk("RPC: xs_destroy xprt %p\n", xprt);
+ dprintk("RPC: xs_destroy xprt %p\n", xprt);
cancel_delayed_work(&transport->connect_worker);
flush_scheduled_work();
__be32 *xp;
read_lock(&sk->sk_callback_lock);
- dprintk("RPC: xs_udp_data_ready...\n");
+ dprintk("RPC: xs_udp_data_ready...\n");
if (!(xprt = xprt_from_sock(sk)))
goto out;
repsize = skb->len - sizeof(struct udphdr);
if (repsize < 4) {
- dprintk("RPC: impossible RPC reply size %d!\n", repsize);
+ dprintk("RPC: impossible RPC reply size %d!\n", repsize);
goto dropit;
}
/* Sanity check of the record length */
if (unlikely(transport->tcp_reclen < 4)) {
- dprintk("RPC: invalid TCP record fragment length\n");
+ dprintk("RPC: invalid TCP record fragment length\n");
xprt_disconnect(xprt);
return;
}
- dprintk("RPC: reading TCP record fragment of length %d\n",
+ dprintk("RPC: reading TCP record fragment of length %d\n",
transport->tcp_reclen);
}
char *p;
len = sizeof(transport->tcp_xid) - transport->tcp_offset;
- dprintk("RPC: reading XID (%Zu bytes)\n", len);
+ dprintk("RPC: reading XID (%Zu bytes)\n", len);
p = ((char *) &transport->tcp_xid) + transport->tcp_offset;
used = xdr_skb_read_bits(desc, p, len);
transport->tcp_offset += used;
transport->tcp_flags &= ~TCP_RCV_COPY_XID;
transport->tcp_flags |= TCP_RCV_COPY_DATA;
transport->tcp_copied = 4;
- dprintk("RPC: reading reply for XID %08x\n",
+ dprintk("RPC: reading reply for XID %08x\n",
ntohl(transport->tcp_xid));
xs_tcp_check_fraghdr(transport);
}
req = xprt_lookup_rqst(xprt, transport->tcp_xid);
if (!req) {
transport->tcp_flags &= ~TCP_RCV_COPY_DATA;
- dprintk("RPC: XID %08x request not found!\n",
+ dprintk("RPC: XID %08x request not found!\n",
ntohl(transport->tcp_xid));
spin_unlock(&xprt->transport_lock);
return;
* be discarded.
*/
transport->tcp_flags &= ~TCP_RCV_COPY_DATA;
- dprintk("RPC: XID %08x truncated request\n",
+ dprintk("RPC: XID %08x truncated request\n",
ntohl(transport->tcp_xid));
- dprintk("RPC: xprt = %p, tcp_copied = %lu, tcp_offset = %u, tcp_reclen = %u\n",
- xprt, transport->tcp_copied, transport->tcp_offset,
- transport->tcp_reclen);
+ dprintk("RPC: xprt = %p, tcp_copied = %lu, "
+ "tcp_offset = %u, tcp_reclen = %u\n",
+ xprt, transport->tcp_copied,
+ transport->tcp_offset, transport->tcp_reclen);
goto out;
}
- dprintk("RPC: XID %08x read %Zd bytes\n",
+ dprintk("RPC: XID %08x read %Zd bytes\n",
ntohl(transport->tcp_xid), r);
- dprintk("RPC: xprt = %p, tcp_copied = %lu, tcp_offset = %u, tcp_reclen = %u\n",
- xprt, transport->tcp_copied, transport->tcp_offset,
- transport->tcp_reclen);
+ dprintk("RPC: xprt = %p, tcp_copied = %lu, tcp_offset = %u, "
+ "tcp_reclen = %u\n", xprt, transport->tcp_copied,
+ transport->tcp_offset, transport->tcp_reclen);
if (transport->tcp_copied == req->rq_private_buf.buflen)
transport->tcp_flags &= ~TCP_RCV_COPY_DATA;
desc->count -= len;
desc->offset += len;
transport->tcp_offset += len;
- dprintk("RPC: discarded %Zu bytes\n", len);
+ dprintk("RPC: discarded %Zu bytes\n", len);
xs_tcp_check_fraghdr(transport);
}
.count = len,
};
- dprintk("RPC: xs_tcp_data_recv started\n");
+ dprintk("RPC: xs_tcp_data_recv started\n");
do {
/* Read in a new fragment marker if necessary */
/* Can we ever really expect to get completely empty fragments? */
/* Skip over any trailing bytes on short reads */
xs_tcp_read_discard(transport, &desc);
} while (desc.count);
- dprintk("RPC: xs_tcp_data_recv done\n");
+ dprintk("RPC: xs_tcp_data_recv done\n");
return len - desc.count;
}
struct rpc_xprt *xprt;
read_descriptor_t rd_desc;
+ dprintk("RPC: xs_tcp_data_ready...\n");
+
read_lock(&sk->sk_callback_lock);
- dprintk("RPC: xs_tcp_data_ready...\n");
if (!(xprt = xprt_from_sock(sk)))
goto out;
if (xprt->shutdown)
read_lock(&sk->sk_callback_lock);
if (!(xprt = xprt_from_sock(sk)))
goto out;
- dprintk("RPC: xs_tcp_state_change client %p...\n", xprt);
- dprintk("RPC: state %x conn %d dead %d zapped %d\n",
- sk->sk_state, xprt_connected(xprt),
- sock_flag(sk, SOCK_DEAD),
- sock_flag(sk, SOCK_ZAPPED));
+ dprintk("RPC: xs_tcp_state_change client %p...\n", xprt);
+ dprintk("RPC: state %x conn %d dead %d zapped %d\n",
+ sk->sk_state, xprt_connected(xprt),
+ sock_flag(sk, SOCK_DEAD),
+ sock_flag(sk, SOCK_ZAPPED));
switch (sk->sk_state) {
case TCP_ESTABLISHED:
{
struct sockaddr_in *sap = (struct sockaddr_in *) &xprt->addr;
- dprintk("RPC: setting port for xprt %p to %u\n", xprt, port);
+ dprintk("RPC: setting port for xprt %p to %u\n", xprt, port);
sap->sin_port = htons(port);
}
sizeof(myaddr));
if (err == 0) {
transport->port = port;
- dprintk("RPC: xs_bindresvport bound to port %u\n",
+ dprintk("RPC: xs_bindresvport bound to port %u\n",
port);
return 0;
}
port--;
} while (err == -EADDRINUSE && port != transport->port);
- dprintk("RPC: can't bind to reserved port (%d).\n", -err);
+ dprintk("RPC: can't bind to reserved port (%d).\n", -err);
return err;
}
xs_close(xprt);
if ((err = sock_create_kern(PF_INET, SOCK_DGRAM, IPPROTO_UDP, &sock)) < 0) {
- dprintk("RPC: can't create UDP transport socket (%d).\n", -err);
+ dprintk("RPC: can't create UDP transport socket (%d).\n", -err);
goto out;
}
xs_reclassify_socket(sock);
goto out;
}
- dprintk("RPC: worker connecting xprt %p to address: %s\n",
+ dprintk("RPC: worker connecting xprt %p to address: %s\n",
xprt, xprt->address_strings[RPC_DISPLAY_ALL]);
if (!transport->inet) {
struct sock_xprt *transport = container_of(xprt, struct sock_xprt, xprt);
struct sockaddr any;
- dprintk("RPC: disconnecting xprt %p to reuse port\n", xprt);
+ dprintk("RPC: disconnecting xprt %p to reuse port\n", xprt);
/*
* Disconnect the transport socket by doing a connect operation
any.sa_family = AF_UNSPEC;
result = kernel_connect(transport->sock, &any, sizeof(any), 0);
if (result)
- dprintk("RPC: AF_UNSPEC connect return code %d\n",
+ dprintk("RPC: AF_UNSPEC connect return code %d\n",
result);
}
if (!sock) {
/* start from scratch */
if ((err = sock_create_kern(PF_INET, SOCK_STREAM, IPPROTO_TCP, &sock)) < 0) {
- dprintk("RPC: can't create TCP transport socket (%d).\n", -err);
+ dprintk("RPC: can't create TCP transport "
+ "socket (%d).\n", -err);
goto out;
}
xs_reclassify_socket(sock);
/* "close" the socket, preserving the local port */
xs_tcp_reuse_connection(xprt);
- dprintk("RPC: worker connecting xprt %p to address: %s\n",
+ dprintk("RPC: worker connecting xprt %p to address: %s\n",
xprt, xprt->address_strings[RPC_DISPLAY_ALL]);
if (!transport->inet) {
xprt->stat.connect_start = jiffies;
status = kernel_connect(sock, (struct sockaddr *) &xprt->addr,
xprt->addrlen, O_NONBLOCK);
- dprintk("RPC: %p connect status %d connected %d sock state %d\n",
- xprt, -status, xprt_connected(xprt), sock->sk->sk_state);
+ dprintk("RPC: %p connect status %d connected %d sock state %d\n",
+ xprt, -status, xprt_connected(xprt),
+ sock->sk->sk_state);
if (status < 0) {
switch (status) {
case -EINPROGRESS:
return;
if (transport->sock != NULL) {
- dprintk("RPC: xs_connect delayed xprt %p for %lu seconds\n",
+ dprintk("RPC: xs_connect delayed xprt %p for %lu "
+ "seconds\n",
xprt, xprt->reestablish_timeout / HZ);
schedule_delayed_work(&transport->connect_worker,
xprt->reestablish_timeout);
if (xprt->reestablish_timeout > XS_TCP_MAX_REEST_TO)
xprt->reestablish_timeout = XS_TCP_MAX_REEST_TO;
} else {
- dprintk("RPC: xs_connect scheduled xprt %p\n", xprt);
+ dprintk("RPC: xs_connect scheduled xprt %p\n", xprt);
schedule_delayed_work(&transport->connect_worker, 0);
/* flush_scheduled_work can sleep... */
struct sock_xprt *new;
if (addrlen > sizeof(xprt->addr)) {
- dprintk("RPC: xs_setup_xprt: address too large\n");
+ dprintk("RPC: xs_setup_xprt: address too large\n");
return ERR_PTR(-EBADF);
}
new = kzalloc(sizeof(*new), GFP_KERNEL);
if (new == NULL) {
- dprintk("RPC: xs_setup_xprt: couldn't allocate rpc_xprt\n");
+ dprintk("RPC: xs_setup_xprt: couldn't allocate "
+ "rpc_xprt\n");
return ERR_PTR(-ENOMEM);
}
xprt = &new->xprt;
xprt->slot = kcalloc(xprt->max_reqs, sizeof(struct rpc_rqst), GFP_KERNEL);
if (xprt->slot == NULL) {
kfree(xprt);
- dprintk("RPC: xs_setup_xprt: couldn't allocate slot table\n");
+ dprintk("RPC: xs_setup_xprt: couldn't allocate slot "
+ "table\n");
return ERR_PTR(-ENOMEM);
}
xprt_set_timeout(&xprt->timeout, 5, 5 * HZ);
xs_format_peer_addresses(xprt);
- dprintk("RPC: set up transport to address %s\n",
+ dprintk("RPC: set up transport to address %s\n",
xprt->address_strings[RPC_DISPLAY_ALL]);
return xprt;
xprt_set_timeout(&xprt->timeout, 2, 60 * HZ);
xs_format_peer_addresses(xprt);
- dprintk("RPC: set up transport to address %s\n",
+ dprintk("RPC: set up transport to address %s\n",
xprt->address_strings[RPC_DISPLAY_ALL]);
return xprt;
projects / linux-drm-fsl-dcu.git / commitdiff