SLAB_KERNEL is an alias of GFP_KERNEL.
Signed-off-by: Christoph Lameter <clameter@sgi.com>
Signed-off-by: Andrew Morton <akpm@osdl.org>
Signed-off-by: Linus Torvalds <torvalds@osdl.org>
goto up_fail;
}
- vma = kmem_cache_zalloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_zalloc(vm_area_cachep, GFP_KERNEL);
if (!vma) {
ret = -ENOMEM;
goto up_fail;
* it with privilege level 3 because the IVE uses non-privileged accesses to these
* tables. IA-32 segmentation is used to protect against IA-32 accesses to them.
*/
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (vma) {
memset(vma, 0, sizeof(*vma));
vma->vm_mm = current->mm;
* code is locked in specific gate page, which is pointed by pretcode
* when setup_frame_ia32
*/
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (vma) {
memset(vma, 0, sizeof(*vma));
vma->vm_mm = current->mm;
* Install LDT as anonymous memory. This gives us all-zero segment descriptors
* until a task modifies them via modify_ldt().
*/
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (vma) {
memset(vma, 0, sizeof(*vma));
vma->vm_mm = current->mm;
bprm->loader += stack_base;
bprm->exec += stack_base;
- mpnt = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ mpnt = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!mpnt)
return -ENOMEM;
DPRINT(("smpl_buf @%p\n", smpl_buf));
/* allocate vma */
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!vma) {
DPRINT(("Cannot allocate vma\n"));
goto error_kmem;
* the problem. When the process attempts to write to the register backing store
* for the first time, it will get a SEGFAULT in this case.
*/
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (vma) {
memset(vma, 0, sizeof(*vma));
vma->vm_mm = current->mm;
/* map NaT-page at address zero to speed up speculative dereferencing of NULL: */
if (!(current->personality & MMAP_PAGE_ZERO)) {
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (vma) {
memset(vma, 0, sizeof(*vma));
vma->vm_mm = current->mm;
/* Allocate a VMA structure and fill it up */
- vma = kmem_cache_zalloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_zalloc(vm_area_cachep, GFP_KERNEL);
if (vma == NULL) {
rc = -ENOMEM;
goto fail_mmapsem;
{
struct spufs_inode_info *ei;
- ei = kmem_cache_alloc(spufs_inode_cache, SLAB_KERNEL);
+ ei = kmem_cache_alloc(spufs_inode_cache, GFP_KERNEL);
if (!ei)
return NULL;
goto up_fail;
}
- vma = kmem_cache_zalloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_zalloc(vm_area_cachep, GFP_KERNEL);
if (!vma) {
ret = -ENOMEM;
goto up_fail;
bprm->loader += stack_base;
bprm->exec += stack_base;
- mpnt = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ mpnt = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!mpnt)
return -ENOMEM;
struct mm_struct *mm = current->mm;
int ret;
- vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!vma)
return -ENOMEM;
void *cpuaddr;
#ifdef USE_RBPS_POOL
- cpuaddr = pci_pool_alloc(he_dev->rbps_pool, SLAB_KERNEL|SLAB_DMA, &dma_handle);
+ cpuaddr = pci_pool_alloc(he_dev->rbps_pool, GFP_KERNEL|SLAB_DMA, &dma_handle);
if (cpuaddr == NULL)
return -ENOMEM;
#else
void *cpuaddr;
#ifdef USE_RBPL_POOL
- cpuaddr = pci_pool_alloc(he_dev->rbpl_pool, SLAB_KERNEL|SLAB_DMA, &dma_handle);
+ cpuaddr = pci_pool_alloc(he_dev->rbpl_pool, GFP_KERNEL|SLAB_DMA, &dma_handle);
if (cpuaddr == NULL)
return -ENOMEM;
#else
} else if (allocation < size)
return NULL;
- if (!(retval = kmalloc (sizeof *retval, SLAB_KERNEL)))
+ if (!(retval = kmalloc (sizeof *retval, GFP_KERNEL)))
return retval;
strlcpy (retval->name, name, sizeof retval->name);
dma_cookie_t cookie;
int err = 0;
- src = kzalloc(sizeof(u8) * IOAT_TEST_SIZE, SLAB_KERNEL);
+ src = kzalloc(sizeof(u8) * IOAT_TEST_SIZE, GFP_KERNEL);
if (!src)
return -ENOMEM;
- dest = kzalloc(sizeof(u8) * IOAT_TEST_SIZE, SLAB_KERNEL);
+ dest = kzalloc(sizeof(u8) * IOAT_TEST_SIZE, GFP_KERNEL);
if (!dest) {
kfree(src);
return -ENOMEM;
int i;
int hostnum = 0;
- h = kzalloc(sizeof(*h) + extra, SLAB_KERNEL);
+ h = kzalloc(sizeof(*h) + extra, GFP_KERNEL);
if (!h)
return NULL;
int ctx;
int ret = -ENOMEM;
- recv = kmalloc(sizeof(*recv), SLAB_KERNEL);
+ recv = kmalloc(sizeof(*recv), GFP_KERNEL);
if (!recv)
return -ENOMEM;
int ctx;
int ret = -ENOMEM;
- xmit = kmalloc(sizeof(*xmit), SLAB_KERNEL);
+ xmit = kmalloc(sizeof(*xmit), GFP_KERNEL);
if (!xmit)
return -ENOMEM;
return -ENOMEM;
}
- d->prg_cpu[i] = pci_pool_alloc(d->prg_pool, SLAB_KERNEL, d->prg_bus+i);
+ d->prg_cpu[i] = pci_pool_alloc(d->prg_pool, GFP_KERNEL, d->prg_bus+i);
OHCI_DMA_ALLOC("pool dma_rcv prg[%d]", i);
if (d->prg_cpu[i] != NULL) {
OHCI_DMA_ALLOC("dma_rcv prg pool");
for (i = 0; i < d->num_desc; i++) {
- d->prg_cpu[i] = pci_pool_alloc(d->prg_pool, SLAB_KERNEL, d->prg_bus+i);
+ d->prg_cpu[i] = pci_pool_alloc(d->prg_pool, GFP_KERNEL, d->prg_bus+i);
OHCI_DMA_ALLOC("pool dma_trm prg[%d]", i);
if (d->prg_cpu[i] != NULL) {
struct i2c_algo_bit_data i2c_adapter_data;
error = -ENOMEM;
- i2c_ad = kmalloc(sizeof(*i2c_ad), SLAB_KERNEL);
+ i2c_ad = kmalloc(sizeof(*i2c_ad), GFP_KERNEL);
if (!i2c_ad) FAIL("failed to allocate I2C adapter memory");
memcpy(i2c_ad, &bit_ops, sizeof(struct i2c_adapter));
static inline struct pending_request *alloc_pending_request(void)
{
- return __alloc_pending_request(SLAB_KERNEL);
+ return __alloc_pending_request(GFP_KERNEL);
}
static void free_pending_request(struct pending_request *req)
return (-EINVAL);
}
/* addr-list-entry for fileinfo */
- addr = kmalloc(sizeof(*addr), SLAB_KERNEL);
+ addr = kmalloc(sizeof(*addr), GFP_KERNEL);
if (!addr) {
req->req.length = 0;
return (-ENOMEM);
static int get_config_rom(struct file_info *fi, struct pending_request *req)
{
int ret = sizeof(struct raw1394_request);
- quadlet_t *data = kmalloc(req->req.length, SLAB_KERNEL);
+ quadlet_t *data = kmalloc(req->req.length, GFP_KERNEL);
int status;
if (!data)
static int update_config_rom(struct file_info *fi, struct pending_request *req)
{
int ret = sizeof(struct raw1394_request);
- quadlet_t *data = kmalloc(req->req.length, SLAB_KERNEL);
+ quadlet_t *data = kmalloc(req->req.length, GFP_KERNEL);
if (!data)
return -ENOMEM;
if (copy_from_user(data, int2ptr(req->req.sendb), req->req.length)) {
{
struct file_info *fi;
- fi = kzalloc(sizeof(*fi), SLAB_KERNEL);
+ fi = kzalloc(sizeof(*fi), GFP_KERNEL);
if (!fi)
return -ENOMEM;
struct ehca_shca *shca = container_of(pd->device, struct ehca_shca,
ib_device);
- av = kmem_cache_alloc(av_cache, SLAB_KERNEL);
+ av = kmem_cache_alloc(av_cache, GFP_KERNEL);
if (!av) {
ehca_err(pd->device, "Out of memory pd=%p ah_attr=%p",
pd, ah_attr);
if (cqe >= 0xFFFFFFFF - 64 - additional_cqe)
return ERR_PTR(-EINVAL);
- my_cq = kmem_cache_alloc(cq_cache, SLAB_KERNEL);
+ my_cq = kmem_cache_alloc(cq_cache, GFP_KERNEL);
if (!my_cq) {
ehca_err(device, "Out of memory for ehca_cq struct device=%p",
device);
void *ehca_alloc_fw_ctrlblock(void)
{
- void *ret = kmem_cache_zalloc(ctblk_cache, SLAB_KERNEL);
+ void *ret = kmem_cache_zalloc(ctblk_cache, GFP_KERNEL);
if (!ret)
ehca_gen_err("Out of memory for ctblk");
return ret;
{
struct ehca_mr *me;
- me = kmem_cache_alloc(mr_cache, SLAB_KERNEL);
+ me = kmem_cache_alloc(mr_cache, GFP_KERNEL);
if (me) {
memset(me, 0, sizeof(struct ehca_mr));
spin_lock_init(&me->mrlock);
{
struct ehca_mw *me;
- me = kmem_cache_alloc(mw_cache, SLAB_KERNEL);
+ me = kmem_cache_alloc(mw_cache, GFP_KERNEL);
if (me) {
memset(me, 0, sizeof(struct ehca_mw));
spin_lock_init(&me->mwlock);
{
struct ehca_pd *pd;
- pd = kmem_cache_alloc(pd_cache, SLAB_KERNEL);
+ pd = kmem_cache_alloc(pd_cache, GFP_KERNEL);
if (!pd) {
ehca_err(device, "device=%p context=%p out of memory",
device, context);
if (pd->uobject && udata)
context = pd->uobject->context;
- my_qp = kmem_cache_alloc(qp_cache, SLAB_KERNEL);
+ my_qp = kmem_cache_alloc(qp_cache, GFP_KERNEL);
if (!my_qp) {
ehca_err(pd->device, "pd=%p not enough memory to alloc qp", pd);
return ERR_PTR(-ENOMEM);
{
struct spi_device *spi = to_spi_device(dev);
struct ads7846 *ts = dev_get_drvdata(dev);
- struct ser_req *req = kzalloc(sizeof *req, SLAB_KERNEL);
+ struct ser_req *req = kzalloc(sizeof *req, GFP_KERNEL);
int status;
int sample;
int i;
* - three for the different uses of the default control pipe
* - three for each isochronous pipe
*/
- if (!(ucs->urb_int_in = usb_alloc_urb(0, SLAB_KERNEL)) ||
- !(ucs->urb_cmd_in = usb_alloc_urb(0, SLAB_KERNEL)) ||
- !(ucs->urb_cmd_out = usb_alloc_urb(0, SLAB_KERNEL)) ||
- !(ucs->urb_ctrl = usb_alloc_urb(0, SLAB_KERNEL)))
+ if (!(ucs->urb_int_in = usb_alloc_urb(0, GFP_KERNEL)) ||
+ !(ucs->urb_cmd_in = usb_alloc_urb(0, GFP_KERNEL)) ||
+ !(ucs->urb_cmd_out = usb_alloc_urb(0, GFP_KERNEL)) ||
+ !(ucs->urb_ctrl = usb_alloc_urb(0, GFP_KERNEL)))
goto allocerr;
for (j = 0; j < 2; ++j) {
ubc = cs->bcs[j].hw.bas;
for (i = 0; i < BAS_OUTURBS; ++i)
if (!(ubc->isoouturbs[i].urb =
- usb_alloc_urb(BAS_NUMFRAMES, SLAB_KERNEL)))
+ usb_alloc_urb(BAS_NUMFRAMES, GFP_KERNEL)))
goto allocerr;
for (i = 0; i < BAS_INURBS; ++i)
if (!(ubc->isoinurbs[i] =
- usb_alloc_urb(BAS_NUMFRAMES, SLAB_KERNEL)))
+ usb_alloc_urb(BAS_NUMFRAMES, GFP_KERNEL)))
goto allocerr;
}
(endpoint->bEndpointAddress) & 0x0f),
ucs->int_in_buf, 3, read_int_callback, cs,
endpoint->bInterval);
- if ((rc = usb_submit_urb(ucs->urb_int_in, SLAB_KERNEL)) != 0) {
+ if ((rc = usb_submit_urb(ucs->urb_int_in, GFP_KERNEL)) != 0) {
dev_err(cs->dev, "could not submit interrupt URB: %s\n",
get_usb_rcmsg(rc));
goto error;
goto error;
}
- ucs->bulk_out_urb = usb_alloc_urb(0, SLAB_KERNEL);
+ ucs->bulk_out_urb = usb_alloc_urb(0, GFP_KERNEL);
if (!ucs->bulk_out_urb) {
dev_err(cs->dev, "Couldn't allocate bulk_out_urb\n");
retval = -ENOMEM;
atomic_set(&ucs->busy, 0);
- ucs->read_urb = usb_alloc_urb(0, SLAB_KERNEL);
+ ucs->read_urb = usb_alloc_urb(0, GFP_KERNEL);
if (!ucs->read_urb) {
dev_err(cs->dev, "No free urbs available\n");
retval = -ENOMEM;
gigaset_read_int_callback,
cs->inbuf + 0, endpoint->bInterval);
- retval = usb_submit_urb(ucs->read_urb, SLAB_KERNEL);
+ retval = usb_submit_urb(ucs->read_urb, GFP_KERNEL);
if (retval) {
dev_err(cs->dev, "Could not submit URB (error %d)\n", -retval);
goto error;
int i;
cinergyt2->streambuf = usb_buffer_alloc(cinergyt2->udev, STREAM_URB_COUNT*STREAM_BUF_SIZE,
- SLAB_KERNEL, &cinergyt2->streambuf_dmahandle);
+ GFP_KERNEL, &cinergyt2->streambuf_dmahandle);
if (!cinergyt2->streambuf) {
dprintk(1, "failed to alloc consistent stream memory area, bailing out!\n");
return -ENOMEM;
return -ENODEV;
}
- flash = kzalloc(sizeof *flash, SLAB_KERNEL);
+ flash = kzalloc(sizeof *flash, GFP_KERNEL);
if (!flash)
return -ENOMEM;
return -ENOMEM;
for (i = 0; i < IPR_NUM_CMD_BLKS; i++) {
- ipr_cmd = pci_pool_alloc (ioa_cfg->ipr_cmd_pool, SLAB_KERNEL, &dma_addr);
+ ipr_cmd = pci_pool_alloc (ioa_cfg->ipr_cmd_pool, GFP_KERNEL, &dma_addr);
if (!ipr_cmd) {
ipr_free_cmd_blks(ioa_cfg);
if (!dev)
return NULL;
- master = kzalloc(size + sizeof *master, SLAB_KERNEL);
+ master = kzalloc(size + sizeof *master, GFP_KERNEL);
if (!master)
return NULL;
{
int status;
- buf = kmalloc(SPI_BUFSIZ, SLAB_KERNEL);
+ buf = kmalloc(SPI_BUFSIZ, GFP_KERNEL);
if (!buf) {
status = -ENOMEM;
goto err0;
return -EINVAL;
if (!cs) {
- cs = kzalloc(sizeof *cs, SLAB_KERNEL);
+ cs = kzalloc(sizeof *cs, GFP_KERNEL);
if (!cs)
return -ENOMEM;
spi->controller_state = cs;
struct usb_qualifier_descriptor *qual;
int status;
- qual = kmalloc (sizeof *qual, SLAB_KERNEL);
+ qual = kmalloc (sizeof *qual, GFP_KERNEL);
if (qual == NULL)
return;
if (len < le16_to_cpu(udev->config[index].desc.wTotalLength))
len = le16_to_cpu(udev->config[index].desc.wTotalLength);
}
- buf = kmalloc (len, SLAB_KERNEL);
+ buf = kmalloc (len, GFP_KERNEL);
if (buf == NULL) {
dev_err(&udev->dev, "no mem to re-read configs after reset\n");
/* assume the worst */
/* ok, we made sense of the hardware ... */
- dev = kzalloc(sizeof(*dev), SLAB_KERNEL);
+ dev = kzalloc(sizeof(*dev), GFP_KERNEL);
if (!dev) {
return -ENOMEM;
}
}
/* alloc, and start init */
- dev = kmalloc (sizeof *dev, SLAB_KERNEL);
+ dev = kmalloc (sizeof *dev, GFP_KERNEL);
if (dev == NULL){
pr_debug("enomem %s\n", pci_name(pdev));
retval = -ENOMEM;
/* FIXME readahead for O_NONBLOCK and poll(); careful with ZLPs */
value = -ENOMEM;
- kbuf = kmalloc (len, SLAB_KERNEL);
+ kbuf = kmalloc (len, GFP_KERNEL);
if (unlikely (!kbuf))
goto free1;
/* FIXME writebehind for O_NONBLOCK and poll(), qlen = 1 */
value = -ENOMEM;
- kbuf = kmalloc (len, SLAB_KERNEL);
+ kbuf = kmalloc (len, GFP_KERNEL);
if (!kbuf)
goto free1;
if (copy_from_user (kbuf, buf, len)) {
buf += 4;
length -= 4;
- kbuf = kmalloc (length, SLAB_KERNEL);
+ kbuf = kmalloc (length, GFP_KERNEL);
if (!kbuf)
return -ENOMEM;
if (copy_from_user (kbuf, buf, length)) {
}
/* alloc, and start init */
- dev = kzalloc (sizeof *dev, SLAB_KERNEL);
+ dev = kzalloc (sizeof *dev, GFP_KERNEL);
if (dev == NULL){
retval = -ENOMEM;
goto done;
/* UDC_PULLUP_EN gates the chip clock */
// OTG_SYSCON_1_REG |= DEV_IDLE_EN;
- udc = kzalloc(sizeof(*udc), SLAB_KERNEL);
+ udc = kzalloc(sizeof(*udc), GFP_KERNEL);
if (!udc)
return -ENOMEM;
/* ok, we made sense of the hardware ... */
- dev = kzalloc(sizeof(*dev), SLAB_KERNEL);
+ dev = kzalloc(sizeof(*dev), GFP_KERNEL);
if (!dev)
return -ENOMEM;
spin_lock_init (&dev->lock);
#define CHECK_ALIGN(x) if (((__u32)(x)) & 0x00000003) \
{panic("Alignment check (DWORD) failed at %s:%s:%d\n", __FILE__, __FUNCTION__, __LINE__);}
-#define SLAB_FLAG (in_interrupt() ? GFP_ATOMIC : SLAB_KERNEL)
+#define SLAB_FLAG (in_interrupt() ? GFP_ATOMIC : GFP_KERNEL)
#define KMALLOC_FLAG (in_interrupt() ? GFP_ATOMIC : GFP_KERNEL)
/* Most helpful debugging aid */
{
struct i2c_client *c;
- c = (struct i2c_client *)kzalloc(sizeof(*c), SLAB_KERNEL);
+ c = (struct i2c_client *)kzalloc(sizeof(*c), GFP_KERNEL);
if (!c)
return -ENOMEM;
if (!acecad || !input_dev)
goto fail1;
- acecad->data = usb_buffer_alloc(dev, 8, SLAB_KERNEL, &acecad->data_dma);
+ acecad->data = usb_buffer_alloc(dev, 8, GFP_KERNEL, &acecad->data_dma);
if (!acecad->data)
goto fail1;
type->process_pkt = usbtouch_process_pkt;
usbtouch->data = usb_buffer_alloc(udev, type->rept_size,
- SLAB_KERNEL, &usbtouch->data_dma);
+ GFP_KERNEL, &usbtouch->data_dma);
if (!usbtouch->data)
goto out_free;
if (bytes < 0)
return NULL;
- urb = usb_alloc_urb (0, SLAB_KERNEL);
+ urb = usb_alloc_urb (0, GFP_KERNEL);
if (!urb)
return urb;
usb_fill_bulk_urb (urb, udev, pipe, NULL, bytes, simple_callback, NULL);
urb->transfer_flags = URB_NO_TRANSFER_DMA_MAP;
if (usb_pipein (pipe))
urb->transfer_flags |= URB_SHORT_NOT_OK;
- urb->transfer_buffer = usb_buffer_alloc (udev, bytes, SLAB_KERNEL,
+ urb->transfer_buffer = usb_buffer_alloc (udev, bytes, GFP_KERNEL,
&urb->transfer_dma);
if (!urb->transfer_buffer) {
usb_free_urb (urb);
init_completion (&completion);
if (usb_pipeout (urb->pipe))
simple_fill_buf (urb);
- if ((retval = usb_submit_urb (urb, SLAB_KERNEL)) != 0)
+ if ((retval = usb_submit_urb (urb, GFP_KERNEL)) != 0)
break;
/* NOTE: no timeouts; can't be broken out of by interrupt */
unsigned i;
unsigned size = max;
- sg = kmalloc (nents * sizeof *sg, SLAB_KERNEL);
+ sg = kmalloc (nents * sizeof *sg, GFP_KERNEL);
if (!sg)
return NULL;
char *buf;
unsigned j;
- buf = kzalloc (size, SLAB_KERNEL);
+ buf = kzalloc (size, GFP_KERNEL);
if (!buf) {
free_sglist (sg, i);
return NULL;
(udev->speed == USB_SPEED_HIGH)
? (INTERRUPT_RATE << 3)
: INTERRUPT_RATE,
- sg, nents, 0, SLAB_KERNEL);
+ sg, nents, 0, GFP_KERNEL);
if (retval)
break;
* as with bulk/intr sglists, sglen is the queue depth; it also
* controls which subtests run (more tests than sglen) or rerun.
*/
- urb = kcalloc(param->sglen, sizeof(struct urb *), SLAB_KERNEL);
+ urb = kcalloc(param->sglen, sizeof(struct urb *), GFP_KERNEL);
if (!urb)
return -ENOMEM;
for (i = 0; i < param->sglen; i++) {
if (!u)
goto cleanup;
- reqp = usb_buffer_alloc (udev, sizeof *reqp, SLAB_KERNEL,
+ reqp = usb_buffer_alloc (udev, sizeof *reqp, GFP_KERNEL,
&u->setup_dma);
if (!reqp)
goto cleanup;
* FIXME want additional tests for when endpoint is STALLing
* due to errors, or is just NAKing requests.
*/
- if ((retval = usb_submit_urb (urb, SLAB_KERNEL)) != 0) {
+ if ((retval = usb_submit_urb (urb, GFP_KERNEL)) != 0) {
dev_dbg (&dev->intf->dev, "submit fail %d\n", retval);
return retval;
}
if (length < 1 || length > 0xffff || vary >= length)
return -EINVAL;
- buf = kmalloc(length, SLAB_KERNEL);
+ buf = kmalloc(length, GFP_KERNEL);
if (!buf)
return -ENOMEM;
maxp *= 1 + (0x3 & (le16_to_cpu(desc->wMaxPacketSize) >> 11));
packets = (bytes + maxp - 1) / maxp;
- urb = usb_alloc_urb (packets, SLAB_KERNEL);
+ urb = usb_alloc_urb (packets, GFP_KERNEL);
if (!urb)
return urb;
urb->dev = udev;
urb->number_of_packets = packets;
urb->transfer_buffer_length = bytes;
- urb->transfer_buffer = usb_buffer_alloc (udev, bytes, SLAB_KERNEL,
+ urb->transfer_buffer = usb_buffer_alloc (udev, bytes, GFP_KERNEL,
&urb->transfer_dma);
if (!urb->transfer_buffer) {
usb_free_urb (urb);
}
#endif
- dev = kzalloc(sizeof(*dev), SLAB_KERNEL);
+ dev = kzalloc(sizeof(*dev), GFP_KERNEL);
if (!dev)
return -ENOMEM;
info = (struct usbtest_info *) id->driver_info;
dev->intf = intf;
/* cacheline-aligned scratch for i/o */
- if ((dev->buf = kmalloc (TBUF_SIZE, SLAB_KERNEL)) == NULL) {
+ if ((dev->buf = kmalloc (TBUF_SIZE, GFP_KERNEL)) == NULL) {
kfree (dev);
return -ENOMEM;
}
struct rndis_halt *halt;
/* try to clear any rndis state/activity (no i/o from stack!) */
- halt = kcalloc(1, sizeof *halt, SLAB_KERNEL);
+ halt = kcalloc(1, sizeof *halt, GFP_KERNEL);
if (halt) {
halt->msg_type = RNDIS_MSG_HALT;
halt->msg_len = ccpu2(sizeof *halt);
period = max ((int) dev->status->desc.bInterval,
(dev->udev->speed == USB_SPEED_HIGH) ? 7 : 3);
- buf = kmalloc (maxp, SLAB_KERNEL);
+ buf = kmalloc (maxp, GFP_KERNEL);
if (buf) {
- dev->interrupt = usb_alloc_urb (0, SLAB_KERNEL);
+ dev->interrupt = usb_alloc_urb (0, GFP_KERNEL);
if (!dev->interrupt) {
kfree (buf);
return -ENOMEM;
static struct inode *adfs_alloc_inode(struct super_block *sb)
{
struct adfs_inode_info *ei;
- ei = (struct adfs_inode_info *)kmem_cache_alloc(adfs_inode_cachep, SLAB_KERNEL);
+ ei = (struct adfs_inode_info *)kmem_cache_alloc(adfs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
static struct inode *affs_alloc_inode(struct super_block *sb)
{
struct affs_inode_info *ei;
- ei = (struct affs_inode_info *)kmem_cache_alloc(affs_inode_cachep, SLAB_KERNEL);
+ ei = (struct affs_inode_info *)kmem_cache_alloc(affs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
ei->vfs_inode.i_version = 1;
struct afs_vnode *vnode;
vnode = (struct afs_vnode *)
- kmem_cache_alloc(afs_inode_cachep, SLAB_KERNEL);
+ kmem_cache_alloc(afs_inode_cachep, GFP_KERNEL);
if (!vnode)
return NULL;
{
struct befs_inode_info *bi;
bi = (struct befs_inode_info *)kmem_cache_alloc(befs_inode_cachep,
- SLAB_KERNEL);
+ GFP_KERNEL);
if (!bi)
return NULL;
return &bi->vfs_inode;
static struct inode *bfs_alloc_inode(struct super_block *sb)
{
struct bfs_inode_info *bi;
- bi = kmem_cache_alloc(bfs_inode_cachep, SLAB_KERNEL);
+ bi = kmem_cache_alloc(bfs_inode_cachep, GFP_KERNEL);
if (!bi)
return NULL;
return &bi->vfs_inode;
static struct inode *bdev_alloc_inode(struct super_block *sb)
{
- struct bdev_inode *ei = kmem_cache_alloc(bdev_cachep, SLAB_KERNEL);
+ struct bdev_inode *ei = kmem_cache_alloc(bdev_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
cifs_alloc_inode(struct super_block *sb)
{
struct cifsInodeInfo *cifs_inode;
- cifs_inode = kmem_cache_alloc(cifs_inode_cachep, SLAB_KERNEL);
+ cifs_inode = kmem_cache_alloc(cifs_inode_cachep, GFP_KERNEL);
if (!cifs_inode)
return NULL;
cifs_inode->cifsAttrs = 0x20; /* default */
albeit slightly larger than necessary and maxbuffersize
defaults to this and can not be bigger */
ret_buf =
- (struct smb_hdr *) mempool_alloc(cifs_req_poolp, SLAB_KERNEL | GFP_NOFS);
+ (struct smb_hdr *) mempool_alloc(cifs_req_poolp, GFP_KERNEL | GFP_NOFS);
/* clear the first few header bytes */
/* for most paths, more is cleared in header_assemble */
albeit slightly larger than necessary and maxbuffersize
defaults to this and can not be bigger */
ret_buf =
- (struct smb_hdr *) mempool_alloc(cifs_sm_req_poolp, SLAB_KERNEL | GFP_NOFS);
+ (struct smb_hdr *) mempool_alloc(cifs_sm_req_poolp, GFP_KERNEL | GFP_NOFS);
if (ret_buf) {
/* No need to clear memory here, cleared in header assemble */
/* memset(ret_buf, 0, sizeof(struct smb_hdr) + 27);*/
}
temp = (struct mid_q_entry *) mempool_alloc(cifs_mid_poolp,
- SLAB_KERNEL | GFP_NOFS);
+ GFP_KERNEL | GFP_NOFS);
if (temp == NULL)
return temp;
else {
return NULL;
}
temp = (struct oplock_q_entry *) kmem_cache_alloc(cifs_oplock_cachep,
- SLAB_KERNEL);
+ GFP_KERNEL);
if (temp == NULL)
return temp;
else {
static struct inode *coda_alloc_inode(struct super_block *sb)
{
struct coda_inode_info *ei;
- ei = (struct coda_inode_info *)kmem_cache_alloc(coda_inode_cachep, SLAB_KERNEL);
+ ei = (struct coda_inode_info *)kmem_cache_alloc(coda_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
memset(&ei->c_fid, 0, sizeof(struct CodaFid));
inode = filp->f_dentry->d_inode;
if (!S_ISDIR(inode->i_mode))
return -ENOTDIR;
- dn = kmem_cache_alloc(dn_cache, SLAB_KERNEL);
+ dn = kmem_cache_alloc(dn_cache, GFP_KERNEL);
if (dn == NULL)
return -ENOMEM;
spin_lock(&inode->i_lock);
num_extents_per_page = PAGE_CACHE_SIZE / crypt_stat->extent_size;
base_extent = (page->index * num_extents_per_page);
lower_page_virt = kmem_cache_alloc(ecryptfs_lower_page_cache,
- SLAB_KERNEL);
+ GFP_KERNEL);
if (!lower_page_virt) {
rc = -ENOMEM;
ecryptfs_printk(KERN_ERR, "Error getting page for encrypted "
int lower_flags;
/* Released in ecryptfs_release or end of function if failure */
- file_info = kmem_cache_alloc(ecryptfs_file_info_cache, SLAB_KERNEL);
+ file_info = kmem_cache_alloc(ecryptfs_file_info_cache, GFP_KERNEL);
ecryptfs_set_file_private(file, file_info);
if (!file_info) {
ecryptfs_printk(KERN_ERR,
BUG_ON(!atomic_read(&lower_dentry->d_count));
ecryptfs_set_dentry_private(dentry,
kmem_cache_alloc(ecryptfs_dentry_info_cache,
- SLAB_KERNEL));
+ GFP_KERNEL));
if (!ecryptfs_dentry_to_private(dentry)) {
rc = -ENOMEM;
ecryptfs_printk(KERN_ERR, "Out of memory whilst attempting "
/* Released at out_free: label */
ecryptfs_set_file_private(&fake_ecryptfs_file,
kmem_cache_alloc(ecryptfs_file_info_cache,
- SLAB_KERNEL));
+ GFP_KERNEL));
if (unlikely(!ecryptfs_file_to_private(&fake_ecryptfs_file))) {
rc = -ENOMEM;
goto out;
/* Released: wipe_auth_tok_list called in ecryptfs_parse_packet_set or
* at end of function upon failure */
auth_tok_list_item =
- kmem_cache_alloc(ecryptfs_auth_tok_list_item_cache, SLAB_KERNEL);
+ kmem_cache_alloc(ecryptfs_auth_tok_list_item_cache, GFP_KERNEL);
if (!auth_tok_list_item) {
ecryptfs_printk(KERN_ERR, "Unable to allocate memory\n");
rc = -ENOMEM;
/* Released in ecryptfs_put_super() */
ecryptfs_set_superblock_private(sb,
kmem_cache_alloc(ecryptfs_sb_info_cache,
- SLAB_KERNEL));
+ GFP_KERNEL));
if (!ecryptfs_superblock_to_private(sb)) {
ecryptfs_printk(KERN_WARNING, "Out of memory\n");
rc = -ENOMEM;
/* through deactivate_super(sb) from get_sb_nodev() */
ecryptfs_set_dentry_private(sb->s_root,
kmem_cache_alloc(ecryptfs_dentry_info_cache,
- SLAB_KERNEL));
+ GFP_KERNEL));
if (!ecryptfs_dentry_to_private(sb->s_root)) {
ecryptfs_printk(KERN_ERR,
"dentry_info_cache alloc failed\n");
struct inode *inode = NULL;
ecryptfs_inode = kmem_cache_alloc(ecryptfs_inode_info_cache,
- SLAB_KERNEL);
+ GFP_KERNEL);
if (unlikely(!ecryptfs_inode))
goto out;
ecryptfs_init_crypt_stat(&ecryptfs_inode->crypt_stat);
static struct inode *efs_alloc_inode(struct super_block *sb)
{
struct efs_inode_info *ei;
- ei = (struct efs_inode_info *)kmem_cache_alloc(efs_inode_cachep, SLAB_KERNEL);
+ ei = (struct efs_inode_info *)kmem_cache_alloc(efs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
struct epitem *epi = ep_item_from_epqueue(pt);
struct eppoll_entry *pwq;
- if (epi->nwait >= 0 && (pwq = kmem_cache_alloc(pwq_cache, SLAB_KERNEL))) {
+ if (epi->nwait >= 0 && (pwq = kmem_cache_alloc(pwq_cache, GFP_KERNEL))) {
init_waitqueue_func_entry(&pwq->wait, ep_poll_callback);
pwq->whead = whead;
pwq->base = epi;
struct ep_pqueue epq;
error = -ENOMEM;
- if (!(epi = kmem_cache_alloc(epi_cache, SLAB_KERNEL)))
+ if (!(epi = kmem_cache_alloc(epi_cache, GFP_KERNEL)))
goto eexit_1;
/* Item initialization follow here ... */
bprm->loader += stack_base;
bprm->exec += stack_base;
- mpnt = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ mpnt = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!mpnt)
return -ENOMEM;
static struct inode *ext2_alloc_inode(struct super_block *sb)
{
struct ext2_inode_info *ei;
- ei = (struct ext2_inode_info *)kmem_cache_alloc(ext2_inode_cachep, SLAB_KERNEL);
+ ei = (struct ext2_inode_info *)kmem_cache_alloc(ext2_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
#ifdef CONFIG_EXT2_FS_POSIX_ACL
static inline struct fat_cache *fat_cache_alloc(struct inode *inode)
{
- return kmem_cache_alloc(fat_cache_cachep, SLAB_KERNEL);
+ return kmem_cache_alloc(fat_cache_cachep, GFP_KERNEL);
}
static inline void fat_cache_free(struct fat_cache *cache)
static struct inode *fat_alloc_inode(struct super_block *sb)
{
struct msdos_inode_info *ei;
- ei = kmem_cache_alloc(fat_inode_cachep, SLAB_KERNEL);
+ ei = kmem_cache_alloc(fat_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
int result = 0;
if (on) {
- new = kmem_cache_alloc(fasync_cache, SLAB_KERNEL);
+ new = kmem_cache_alloc(fasync_cache, GFP_KERNEL);
if (!new)
return -ENOMEM;
}
struct vxfs_inode_info *vip;
struct vxfs_dinode *dip;
- if (!(vip = kmem_cache_alloc(vxfs_inode_cachep, SLAB_KERNEL)))
+ if (!(vip = kmem_cache_alloc(vxfs_inode_cachep, GFP_KERNEL)))
goto fail;
dip = (struct vxfs_dinode *)(bp->b_data + offset);
memcpy(vip, dip, sizeof(*vip));
struct vxfs_dinode *dip;
caddr_t kaddr = (char *)page_address(pp);
- if (!(vip = kmem_cache_alloc(vxfs_inode_cachep, SLAB_KERNEL)))
+ if (!(vip = kmem_cache_alloc(vxfs_inode_cachep, GFP_KERNEL)))
goto fail;
dip = (struct vxfs_dinode *)(kaddr + offset);
memcpy(vip, dip, sizeof(*vip));
struct fuse_req *fuse_request_alloc(void)
{
- struct fuse_req *req = kmem_cache_alloc(fuse_req_cachep, SLAB_KERNEL);
+ struct fuse_req *req = kmem_cache_alloc(fuse_req_cachep, GFP_KERNEL);
if (req)
fuse_request_init(req);
return req;
struct inode *inode;
struct fuse_inode *fi;
- inode = kmem_cache_alloc(fuse_inode_cachep, SLAB_KERNEL);
+ inode = kmem_cache_alloc(fuse_inode_cachep, GFP_KERNEL);
if (!inode)
return NULL;
{
struct hfs_inode_info *i;
- i = kmem_cache_alloc(hfs_inode_cachep, SLAB_KERNEL);
+ i = kmem_cache_alloc(hfs_inode_cachep, GFP_KERNEL);
return i ? &i->vfs_inode : NULL;
}
{
struct hfsplus_inode_info *i;
- i = kmem_cache_alloc(hfsplus_inode_cachep, SLAB_KERNEL);
+ i = kmem_cache_alloc(hfsplus_inode_cachep, GFP_KERNEL);
return i ? &i->vfs_inode : NULL;
}
if (unlikely(!hugetlbfs_dec_free_inodes(sbinfo)))
return NULL;
- p = kmem_cache_alloc(hugetlbfs_inode_cachep, SLAB_KERNEL);
+ p = kmem_cache_alloc(hugetlbfs_inode_cachep, GFP_KERNEL);
if (unlikely(!p)) {
hugetlbfs_inc_free_inodes(sbinfo);
return NULL;
if (sb->s_op->alloc_inode)
inode = sb->s_op->alloc_inode(sb);
else
- inode = (struct inode *) kmem_cache_alloc(inode_cachep, SLAB_KERNEL);
+ inode = (struct inode *) kmem_cache_alloc(inode_cachep, GFP_KERNEL);
if (inode) {
struct address_space * const mapping = &inode->i_data;
static struct inode *isofs_alloc_inode(struct super_block *sb)
{
struct iso_inode_info *ei;
- ei = kmem_cache_alloc(isofs_inode_cachep, SLAB_KERNEL);
+ ei = kmem_cache_alloc(isofs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
static struct inode *jffs2_alloc_inode(struct super_block *sb)
{
struct jffs2_inode_info *ei;
- ei = (struct jffs2_inode_info *)kmem_cache_alloc(jffs2_inode_cachep, SLAB_KERNEL);
+ ei = (struct jffs2_inode_info *)kmem_cache_alloc(jffs2_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
/* Allocate an empty lock structure. */
static struct file_lock *locks_alloc_lock(void)
{
- return kmem_cache_alloc(filelock_cache, SLAB_KERNEL);
+ return kmem_cache_alloc(filelock_cache, GFP_KERNEL);
}
static void locks_release_private(struct file_lock *fl)
static struct inode *minix_alloc_inode(struct super_block *sb)
{
struct minix_inode_info *ei;
- ei = (struct minix_inode_info *)kmem_cache_alloc(minix_inode_cachep, SLAB_KERNEL);
+ ei = (struct minix_inode_info *)kmem_cache_alloc(minix_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
static struct inode *ncp_alloc_inode(struct super_block *sb)
{
struct ncp_inode_info *ei;
- ei = (struct ncp_inode_info *)kmem_cache_alloc(ncp_inode_cachep, SLAB_KERNEL);
+ ei = (struct ncp_inode_info *)kmem_cache_alloc(ncp_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
{
struct nfs_direct_req *dreq;
- dreq = kmem_cache_alloc(nfs_direct_cachep, SLAB_KERNEL);
+ dreq = kmem_cache_alloc(nfs_direct_cachep, GFP_KERNEL);
if (!dreq)
return NULL;
struct inode *nfs_alloc_inode(struct super_block *sb)
{
struct nfs_inode *nfsi;
- nfsi = (struct nfs_inode *)kmem_cache_alloc(nfs_inode_cachep, SLAB_KERNEL);
+ nfsi = (struct nfs_inode *)kmem_cache_alloc(nfs_inode_cachep, GFP_KERNEL);
if (!nfsi)
return NULL;
nfsi->flags = 0UL;
nfs_page_alloc(void)
{
struct nfs_page *p;
- p = kmem_cache_alloc(nfs_page_cachep, SLAB_KERNEL);
+ p = kmem_cache_alloc(nfs_page_cachep, GFP_KERNEL);
if (p) {
memset(p, 0, sizeof(*p));
INIT_LIST_HEAD(&p->wb_list);
{
struct op_inode_info *oi;
- oi = kmem_cache_alloc(op_inode_cachep, SLAB_KERNEL);
+ oi = kmem_cache_alloc(op_inode_cachep, GFP_KERNEL);
if (!oi)
return NULL;
struct proc_inode *ei;
struct inode *inode;
- ei = (struct proc_inode *)kmem_cache_alloc(proc_inode_cachep, SLAB_KERNEL);
+ ei = (struct proc_inode *)kmem_cache_alloc(proc_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
ei->pid = NULL;
static struct inode *qnx4_alloc_inode(struct super_block *sb)
{
struct qnx4_inode_info *ei;
- ei = kmem_cache_alloc(qnx4_inode_cachep, SLAB_KERNEL);
+ ei = kmem_cache_alloc(qnx4_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
{
struct reiserfs_inode_info *ei;
ei = (struct reiserfs_inode_info *)
- kmem_cache_alloc(reiserfs_inode_cachep, SLAB_KERNEL);
+ kmem_cache_alloc(reiserfs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
static struct inode *romfs_alloc_inode(struct super_block *sb)
{
struct romfs_inode_info *ei;
- ei = (struct romfs_inode_info *)kmem_cache_alloc(romfs_inode_cachep, SLAB_KERNEL);
+ ei = (struct romfs_inode_info *)kmem_cache_alloc(romfs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
static struct inode *smb_alloc_inode(struct super_block *sb)
{
struct smb_inode_info *ei;
- ei = (struct smb_inode_info *)kmem_cache_alloc(smb_inode_cachep, SLAB_KERNEL);
+ ei = (struct smb_inode_info *)kmem_cache_alloc(smb_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
struct smb_request *req;
unsigned char *buf = NULL;
- req = kmem_cache_alloc(req_cachep, SLAB_KERNEL);
+ req = kmem_cache_alloc(req_cachep, GFP_KERNEL);
VERBOSE("allocating request: %p\n", req);
if (!req)
goto out;
{
struct sysv_inode_info *si;
- si = kmem_cache_alloc(sysv_inode_cachep, SLAB_KERNEL);
+ si = kmem_cache_alloc(sysv_inode_cachep, GFP_KERNEL);
if (!si)
return NULL;
return &si->vfs_inode;
static struct inode *udf_alloc_inode(struct super_block *sb)
{
struct udf_inode_info *ei;
- ei = (struct udf_inode_info *)kmem_cache_alloc(udf_inode_cachep, SLAB_KERNEL);
+ ei = (struct udf_inode_info *)kmem_cache_alloc(udf_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
static struct inode *ufs_alloc_inode(struct super_block *sb)
{
struct ufs_inode_info *ei;
- ei = (struct ufs_inode_info *)kmem_cache_alloc(ufs_inode_cachep, SLAB_KERNEL);
+ ei = (struct ufs_inode_info *)kmem_cache_alloc(ufs_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
ei->vfs_inode.i_version = 1;
extern struct kmem_cache *names_cachep;
-#define __getname() kmem_cache_alloc(names_cachep, SLAB_KERNEL)
+#define __getname() kmem_cache_alloc(names_cachep, GFP_KERNEL)
#define __putname(name) kmem_cache_free(names_cachep, (void *)(name))
#ifndef CONFIG_AUDITSYSCALL
#define putname(name) __putname(name)
static inline struct anon_vma *anon_vma_alloc(void)
{
- return kmem_cache_alloc(anon_vma_cachep, SLAB_KERNEL);
+ return kmem_cache_alloc(anon_vma_cachep, GFP_KERNEL);
}
static inline void anon_vma_free(struct anon_vma *anon_vma)
#include <asm/cache.h> /* kmalloc_sizes.h needs L1_CACHE_BYTES */
/* flags for kmem_cache_alloc() */
-#define SLAB_KERNEL GFP_KERNEL
#define SLAB_DMA GFP_DMA
/* flags to pass to kmem_cache_create().
return;
/* No problem if kmem_cache_zalloc() fails */
- stats = kmem_cache_zalloc(taskstats_cache, SLAB_KERNEL);
+ stats = kmem_cache_zalloc(taskstats_cache, GFP_KERNEL);
spin_lock_irq(&tsk->sighand->siglock);
if (!sig->stats) {
{
struct mqueue_inode_info *ei;
- ei = kmem_cache_alloc(mqueue_inode_cachep, SLAB_KERNEL);
+ ei = kmem_cache_alloc(mqueue_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
return &ei->vfs_inode;
void __delayacct_tsk_init(struct task_struct *tsk)
{
- tsk->delays = kmem_cache_zalloc(delayacct_cache, SLAB_KERNEL);
+ tsk->delays = kmem_cache_zalloc(delayacct_cache, GFP_KERNEL);
if (tsk->delays)
spin_lock_init(&tsk->delays->lock);
}
goto fail_nomem;
charge = len;
}
- tmp = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ tmp = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!tmp)
goto fail_nomem;
*tmp = *mpnt;
__cacheline_aligned_in_smp DEFINE_SPINLOCK(mmlist_lock);
-#define allocate_mm() (kmem_cache_alloc(mm_cachep, SLAB_KERNEL))
+#define allocate_mm() (kmem_cache_alloc(mm_cachep, GFP_KERNEL))
#define free_mm(mm) (kmem_cache_free(mm_cachep, (mm)))
#include <linux/init_task.h>
struct files_struct *newf;
struct fdtable *fdt;
- newf = kmem_cache_alloc(files_cachep, SLAB_KERNEL);
+ newf = kmem_cache_alloc(files_cachep, GFP_KERNEL);
if (!newf)
goto out;
*mycpu = raw_smp_processor_id();
*ptidstats = NULL;
- tmp = kmem_cache_zalloc(taskstats_cache, SLAB_KERNEL);
+ tmp = kmem_cache_zalloc(taskstats_cache, GFP_KERNEL);
if (!tmp)
return;
if (!up) {
struct user_struct *new;
- new = kmem_cache_alloc(uid_cachep, SLAB_KERNEL);
+ new = kmem_cache_alloc(uid_cachep, GFP_KERNEL);
if (!new)
return NULL;
new->uid = uid;
atomic_set(&new->refcnt, 1);
if (new->policy == MPOL_BIND) {
int sz = ksize(old->v.zonelist);
- new->v.zonelist = kmemdup(old->v.zonelist, sz, SLAB_KERNEL);
+ new->v.zonelist = kmemdup(old->v.zonelist, sz, GFP_KERNEL);
if (!new->v.zonelist) {
kmem_cache_free(policy_cache, new);
return ERR_PTR(-ENOMEM);
if (mm->map_count >= sysctl_max_map_count)
return -ENOMEM;
- new = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ new = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (!new)
return -ENOMEM;
vma_start < new_vma->vm_end)
*vmap = new_vma;
} else {
- new_vma = kmem_cache_alloc(vm_area_cachep, SLAB_KERNEL);
+ new_vma = kmem_cache_alloc(vm_area_cachep, GFP_KERNEL);
if (new_vma) {
*new_vma = *vma;
pol = mpol_copy(vma_policy(vma));
static struct inode *shmem_alloc_inode(struct super_block *sb)
{
struct shmem_inode_info *p;
- p = (struct shmem_inode_info *)kmem_cache_alloc(shmem_inode_cachep, SLAB_KERNEL);
+ p = (struct shmem_inode_info *)kmem_cache_alloc(shmem_inode_cachep, GFP_KERNEL);
if (!p)
return NULL;
return &p->vfs_inode;
align = ralign;
/* Get cache's description obj. */
- cachep = kmem_cache_zalloc(&cache_cache, SLAB_KERNEL);
+ cachep = kmem_cache_zalloc(&cache_cache, GFP_KERNEL);
if (!cachep)
goto oops;
replace:
err = -ENOBUFS;
- new_f = kmem_cache_alloc(dn_hash_kmem, SLAB_KERNEL);
+ new_f = kmem_cache_alloc(dn_hash_kmem, GFP_KERNEL);
if (new_f == NULL)
goto out;
goto out;
err = -ENOBUFS;
- new_fa = kmem_cache_alloc(fn_alias_kmem, SLAB_KERNEL);
+ new_fa = kmem_cache_alloc(fn_alias_kmem, GFP_KERNEL);
if (new_fa == NULL)
goto out;
new_f = NULL;
if (!f) {
- new_f = kmem_cache_alloc(fn_hash_kmem, SLAB_KERNEL);
+ new_f = kmem_cache_alloc(fn_hash_kmem, GFP_KERNEL);
if (new_f == NULL)
goto out_free_new_fa;
u8 state;
err = -ENOBUFS;
- new_fa = kmem_cache_alloc(fn_alias_kmem, SLAB_KERNEL);
+ new_fa = kmem_cache_alloc(fn_alias_kmem, GFP_KERNEL);
if (new_fa == NULL)
goto out;
goto out;
err = -ENOBUFS;
- new_fa = kmem_cache_alloc(fn_alias_kmem, SLAB_KERNEL);
+ new_fa = kmem_cache_alloc(fn_alias_kmem, GFP_KERNEL);
if (new_fa == NULL)
goto out;
{
struct socket_alloc *ei;
- ei = kmem_cache_alloc(sock_inode_cachep, SLAB_KERNEL);
+ ei = kmem_cache_alloc(sock_inode_cachep, GFP_KERNEL);
if (!ei)
return NULL;
init_waitqueue_head(&ei->socket.wait);
rpc_alloc_inode(struct super_block *sb)
{
struct rpc_inode *rpci;
- rpci = (struct rpc_inode *)kmem_cache_alloc(rpc_inode_cachep, SLAB_KERNEL);
+ rpci = (struct rpc_inode *)kmem_cache_alloc(rpc_inode_cachep, GFP_KERNEL);
if (!rpci)
return NULL;
return &rpci->vfs_inode;
}
/* allocate and initialise the key and its description */
- key = kmem_cache_alloc(key_jar, SLAB_KERNEL);
+ key = kmem_cache_alloc(key_jar, GFP_KERNEL);
if (!key)
goto no_memory_2;
struct task_security_struct *tsec = current->security;
struct inode_security_struct *isec;
- isec = kmem_cache_alloc(sel_inode_cache, SLAB_KERNEL);
+ isec = kmem_cache_alloc(sel_inode_cache, GFP_KERNEL);
if (!isec)
return -ENOMEM;
struct avtab_key *key, struct avtab_datum *datum)
{
struct avtab_node * newnode;
- newnode = kmem_cache_alloc(avtab_node_cachep, SLAB_KERNEL);
+ newnode = kmem_cache_alloc(avtab_node_cachep, GFP_KERNEL);
if (newnode == NULL)
return NULL;
memset(newnode, 0, sizeof(struct avtab_node));
projects / linux-2.6-omap-h63xx.git / commitdiff