# these files into the build dir, fix up any includes and ensure that dependent
# files are copied in the right order.
-# these need to be seperate variables because they are copied out of different
-# directories in the kernel tree. Sure you COULd merge them, but it's a
+# these need to be separate variables because they are copied out of different
+# directories in the kernel tree. Sure you COULD merge them, but it's a
# cure-is-worse-than-disease situation.
zlib-decomp-$(CONFIG_KERNEL_GZIP) := decompress_inflate.c
zlib-$(CONFIG_KERNEL_GZIP) := inffast.c inflate.c inftrees.c
reg = <0xef602800 0x60>;
interrupt-parent = <&UIC0>;
interrupts = <0x4 0x4>;
- /* This thing is a bit weird. It has it's own UIC
+ /* This thing is a bit weird. It has its own UIC
* that it uses to generate snapshot triggers. We
* don't really support this device yet, and it needs
* work to figure this out.
/* A buffer that may be edited by tools operating on a zImage binary so as to
* edit the command line passed to vmlinux (by setting /chosen/bootargs).
- * The buffer is put in it's own section so that tools may locate it easier.
+ * The buffer is put in its own section so that tools may locate it easier.
*/
static char cmdline[BOOT_COMMAND_LINE_SIZE]
__attribute__((__section__("__builtin_cmdline")));
/* A buffer that may be edited by tools operating on a zImage binary so as to
* edit the command line passed to vmlinux (by setting /chosen/bootargs).
- * The buffer is put in it's own section so that tools may locate it easier.
+ * The buffer is put in its own section so that tools may locate it easier.
*/
static char cmdline[BOOT_COMMAND_LINE_SIZE]
}
/*
- * 32 bits still uses virt_to_bus() for it's implementation of DMA
+ * 32 bits still uses virt_to_bus() for its implementation of DMA
* mappings se we have to keep it defined here. We also have some old
* drivers (shame shame shame) that use bus_to_virt() and haven't been
* fixed yet so I need to define it here.
* The host will pass on OPAL, a buffer of length OPAL_SYSEPOW_MAX
* with individual elements being 16 bits wide to fetch the system
* wide EPOW status. Each element in the buffer will contain the
- * EPOW status in it's bit representation for a particular EPOW sub
+ * EPOW status in its bit representation for a particular EPOW sub
* class as defined here. So multiple detailed EPOW status bits
* specific for any sub class can be represented in a single buffer
- * element as it's bit representation.
+ * element as its bit representation.
*/
/* System EPOW type */
/* PMAC_FTR_BMAC_ENABLE (struct device_node* node, 0, int value)
* enable/disable the bmac (ethernet) cell of a mac-io ASIC, also drive
- * it's reset line
+ * its reset line
*/
#define PMAC_FTR_BMAC_ENABLE PMAC_FTR_DEF(6)
#define UNI_N_HWINIT_STATE_SLEEPING 0x01
#define UNI_N_HWINIT_STATE_RUNNING 0x02
/* This last bit appear to be used by the bootROM to know the second
- * CPU has started and will enter it's sleep loop with IP=0
+ * CPU has started and will enter its sleep loop with IP=0
*/
#define UNI_N_HWINIT_STATE_CPU1_FLAG 0x10000000
/* ALL BELOW NEW (vers. 4) */
/* This defines the physical memory. Valid with BOOT_ARCH_NUBUS flag
- (non-PCI) only. On PCI, memory is contiguous and it's size is in the
+ (non-PCI) only. On PCI, memory is contiguous and its size is in the
device-tree. */
boot_info_map_entry_t
physMemoryMap[MAX_MEM_MAP_SIZE]; /* Where the phys memory is */
* eeh_pe_mark_isolated
* @pe: EEH PE
*
- * Record that a PE has been isolated by marking the PE and it's children as
+ * Record that a PE has been isolated by marking the PE and its children as
* EEH_PE_ISOLATED (and EEH_PE_CFG_BLOCKED, if required) and their PCI devices
* as pci_channel_io_frozen.
*/
* old_cpu == -1 means this is the first CPU which has come here,
* go ahead and trigger fadump.
*
- * old_cpu != -1 means some other CPU has already on it's way
+ * old_cpu != -1 means some other CPU has already on its way
* to trigger fadump, just keep looping here.
*/
this_cpu = smp_processor_id();
xori r0,r0,MSR_EE
mtmsrd r0,1
- /* rotate 24 bits SCOM address 8 bits left and mask out it's low 8 bits
+ /* rotate 24 bits SCOM address 8 bits left and mask out its low 8 bits
* (including parity). On current CPUs they must be 0'd,
* and finally or in RW bit
*/
xori r0,r0,MSR_EE
mtmsrd r0,1
- /* rotate 24 bits SCOM address 8 bits left and mask out it's low 8 bits
+ /* rotate 24 bits SCOM address 8 bits left and mask out its low 8 bits
* (including parity). On current CPUs they must be 0'd.
*/
* cases will happen:
*
* 1. The correct thread is running, the wrong thread is not
- * In this situation, the correct thread is woken and proceeds to pass it's
+ * In this situation, the correct thread is woken and proceeds to pass its
* condition check.
*
* 2. Neither threads are running
* for the wrong thread, or they will execute the condition check immediately.
*
* 3. The wrong thread is running, the correct thread is not
- * The wrong thread will be woken, but will fail it's condition check and
+ * The wrong thread will be woken, but will fail its condition check and
* re-execute wait. The correct thread, when scheduled, will execute either
- * it's condition check (which will pass), or wait, which returns immediately
- * when called the first time after the thread is scheduled, followed by it's
+ * its condition check (which will pass), or wait, which returns immediately
+ * when called the first time after the thread is scheduled, followed by its
* condition check (which will pass).
*
* 4. Both threads are running
- * Both threads will be woken. The wrong thread will fail it's condition check
- * and execute another wait, while the correct thread will pass it's condition
+ * Both threads will be woken. The wrong thread will fail its condition check
+ * and execute another wait, while the correct thread will pass its condition
* check.
*
* @t: the task to set the thread ID for
{
/*
* If task is not current, it will have been flushed already to
- * it's thread_struct during __switch_to().
+ * its thread_struct during __switch_to().
*
* A reclaim flushes ALL the state or if not in TM save TM SPRs
* in the appropriate thread structures from live.
/*
* This CPU will not be in the online mask yet so we need to manually
- * add it to it's own thread sibling mask.
+ * add it to its own thread sibling mask.
*/
map_cpu_to_node(cpu, cpu_to_node(cpu));
cpumask_set_cpu(cpu, cpu_sibling_mask(cpu));
* @val: Returned cpu specific DSCR default value
*
* This function returns the per cpu DSCR default value
- * for any cpu which is contained in it's PACA structure.
+ * for any cpu which is contained in its PACA structure.
*/
static void read_dscr(void *val)
{
* @val: New cpu specific DSCR default value to update
*
* This function updates the per cpu DSCR default value
- * for any cpu which is contained in it's PACA structure.
+ * for any cpu which is contained in its PACA structure.
*/
static void write_dscr(void *val)
{
xc->cppr = xive_prio_from_guest(new_cppr);
/*
- * IPIs are synthetized from MFRR and thus don't need
+ * IPIs are synthesized from MFRR and thus don't need
* any special EOI handling. The underlying interrupt
* used to signal MFRR changes is EOId when fetched from
* the queue.
#ifdef CONFIG_HIGHMEM
/**
- * flush_dcache_icache_phys() - Flush a page by it's physical address
+ * flush_dcache_icache_phys() - Flush a page by its physical address
* @physaddr: the physical address of the page
*/
static void flush_dcache_icache_phys(unsigned long physaddr)
create_kaslr_tlb_entry(1, tlb_virt, tlb_phys);
}
- /* Copy the kernel to it's new location and run */
+ /* Copy the kernel to its new location and run */
memcpy((void *)kernstart_virt_addr, (void *)_stext, kernel_sz);
flush_icache_range(kernstart_virt_addr, kernstart_virt_addr + kernel_sz);
* and so negatively affect boot time. Instead we reserve the
* already configured frame buffer area so that it won't be
* destroyed. The starting address of the area to reserve and
- * also it's length is passed to memblock_reserve(). It will be
+ * also its length is passed to memblock_reserve(). It will be
* freed later on first open of fbdev, when splash image is not
* needed any more.
*/
}
/**
- * spu_deactivate - unbind a context from it's physical spu
+ * spu_deactivate - unbind a context from its physical spu
* @ctx: spu context to unbind
*
* Unbind @ctx from the physical spu it is running on and schedule
/* Probe root PCI hosts, that is on U3 the AGP host and the
* HyperTransport host. That one is actually "kept" around
- * and actually added last as it's resource management relies
+ * and actually added last as its resource management relies
* on the AGP resources to have been setup first
*/
root = of_find_node_by_path("/");
/*
* Support for the interrupt controllers found on Power Macintosh,
* currently Apple's "Grand Central" interrupt controller in all
- * it's incarnations. OpenPIC support used on newer machines is
+ * its incarnations. OpenPIC support used on newer machines is
* in a separate file
*
* Copyright (C) 1997 Paul Mackerras (paulus@samba.org)
* memory location containing the PC to resume from
* at address 0.
* - On Core99, we must store the wakeup vector at
- * address 0x80 and eventually it's parameters
+ * address 0x80 and eventually its parameters
* at address 0x84. I've have some trouble with those
* parameters however and I no longer use them.
*/
} else if (pdev->is_physfn) {
/*
* For PFs adjust their allocated IOV resources to match what
- * the PHB can support using it's M64 BAR table.
+ * the PHB can support using its M64 BAR table.
*/
pnv_pci_ioda_fixup_iov_resources(pdev);
}
list_add_tail(&pe->list, &phb->ioda.pe_list);
mutex_unlock(&phb->ioda.pe_list_mutex);
- /* associate this pe to it's pdn */
+ /* associate this pe to its pdn */
list_for_each_entry(vf_pdn, &pdn->parent->child_list, list) {
if (vf_pdn->busno == vf_bus &&
vf_pdn->devfn == vf_devfn) {
}
} else {
/*
- * Interrupt hanlder or fault window setup failed. Means
+ * Interrupt handler or fault window setup failed. Means
* NX can not generate fault for page fault. So not
* opening for user space tx window.
*/
struct pseries_vas_window *txwin = data;
/*
- * The thread hanlder will process this interrupt if it is
+ * The thread handler will process this interrupt if it is
* already running.
*/
atomic_inc(&txwin->pending_faults);
* CPU.
*
* If we find that there is indeed more in there, we call
- * force_external_irq_replay() to make Linux synthetize an
+ * force_external_irq_replay() to make Linux synthesize an
* external interrupt on the next call to local_irq_restore().
*/
static void xive_do_queue_eoi(struct xive_cpu *xc)
*
* This also tells us that it's in flight to a host queue
* or has already been fetched but hasn't been EOIed yet
- * by the host. This it's potentially using up a host
+ * by the host. Thus it's potentially using up a host
* queue slot. This is important to know because as long
* as this is the case, we must not hard-unmask it when
* "returning" that interrupt to the host.
return;
}
- /* Grab it's CAM value */
+ /* Grab its CAM value */
rc = opal_xive_get_vp_info(vp, NULL, &vp_cam_be, NULL, NULL);
if (rc) {
pr_err("Failed to get pool VP info CPU %d\n", cpu);
projects / linux.git / commitdiff