c->arg[4], c->arg[5], c->arg[6], c->arg[7]);
}
-static void aml_nfw_read_arg(u8 *offset, u32 bit_width, acpi_integer *value)
+static void aml_nfw_read_arg(u8 *offset, u32 bit_width, u64 *value)
{
switch (bit_width) {
case 8:
}
}
-static void aml_nfw_write_arg(u8 *offset, u32 bit_width, acpi_integer *value)
+static void aml_nfw_write_arg(u8 *offset, u32 bit_width, u64 *value)
{
switch (bit_width) {
case 8:
}
static acpi_status aml_nfw_handler(u32 function, acpi_physical_address address,
- u32 bit_width, acpi_integer *value, void *handler_context,
+ u32 bit_width, u64 *value, void *handler_context,
void *region_context)
{
struct ia64_nfw_context *context = handler_context;
static void powernow_k8_acpi_pst_values(struct powernow_k8_data *data,
unsigned int index)
{
- acpi_integer control;
+ u64 control;
if (!data->acpi_data.state_count || (cpu_family == CPU_HW_PSTATE))
return;
{
struct cpufreq_frequency_table *powernow_table;
int ret_val = -ENODEV;
- acpi_integer control, status;
+ u64 control, status;
if (acpi_processor_register_performance(&data->acpi_data, data->cpu)) {
dprintk("register performance failed: bad ACPI data\n");
u32 fid;
u32 vid;
u32 freq, index;
- acpi_integer status, control;
+ u64 status, control;
if (data->exttype) {
status = data->acpi_data.states[i].status;
strncpy(ptr, element->string.pointer, 32);
else if (element->type == ACPI_TYPE_INTEGER) {
strncpy(ptr, (u8 *)&element->integer.value,
- sizeof(acpi_integer));
- ptr[sizeof(acpi_integer)] = 0;
+ sizeof(u64));
+ ptr[sizeof(u64)] = 0;
} else
*ptr = 0; /* don't have value */
} else {
static acpi_status
acpi_ec_space_handler(u32 function, acpi_physical_address address,
- u32 bits, acpi_integer *value,
+ u32 bits, u64 *value,
void *handler_context, void *region_context)
{
struct acpi_ec *ec = handler_context;
++address;
if (function == ACPI_READ) {
result = acpi_ec_read(ec, address, &temp);
- (*value) |= ((acpi_integer)temp) << i;
+ (*value) |= ((u64)temp) << i;
} else {
temp = 0xff & ((*value) >> i);
result = acpi_ec_write(ec, address, temp);
/* Get device's handler per its address under its parent */
struct acpi_find_child {
acpi_handle handle;
- acpi_integer address;
+ u64 address;
};
static acpi_status
return AE_OK;
}
-acpi_handle acpi_get_child(acpi_handle parent, acpi_integer address)
+acpi_handle acpi_get_child(acpi_handle parent, u64 address)
{
struct acpi_find_child find = { NULL, address };
* Running in interpreter thread context, safe to sleep
*/
-void acpi_os_sleep(acpi_integer ms)
+void acpi_os_sleep(u64 ms)
{
schedule_timeout_interruptible(msecs_to_jiffies(ms));
}
acpi_status
acpi_os_write_pci_configuration(struct acpi_pci_id * pci_id, u32 reg,
- acpi_integer value, u32 width)
+ u64 value, u32 width)
{
int result, size;
MODULE_DEVICE_TABLE(acpi, power_meter_ids);
struct acpi_power_meter_capabilities {
- acpi_integer flags;
- acpi_integer units;
- acpi_integer type;
- acpi_integer accuracy;
- acpi_integer sampling_time;
- acpi_integer min_avg_interval;
- acpi_integer max_avg_interval;
- acpi_integer hysteresis;
- acpi_integer configurable_cap;
- acpi_integer min_cap;
- acpi_integer max_cap;
+ u64 flags;
+ u64 units;
+ u64 type;
+ u64 accuracy;
+ u64 sampling_time;
+ u64 min_avg_interval;
+ u64 max_avg_interval;
+ u64 hysteresis;
+ u64 configurable_cap;
+ u64 min_cap;
+ u64 max_cap;
};
struct acpi_power_meter_resource {
acpi_string model_number;
acpi_string serial_number;
acpi_string oem_info;
- acpi_integer power;
- acpi_integer cap;
- acpi_integer avg_interval;
+ u64 power;
+ u64 cap;
+ u64 avg_interval;
int sensors_valid;
unsigned long sensors_last_updated;
struct sensor_device_attribute sensors[NUM_SENSORS];
struct sensor_device_attribute *attr = to_sensor_dev_attr(devattr);
struct acpi_device *acpi_dev = to_acpi_device(dev);
struct acpi_power_meter_resource *resource = acpi_dev->driver_data;
- acpi_integer val = 0;
+ u64 val = 0;
switch (attr->index) {
case 0:
static int acpi_processor_get_power_info_cst(struct acpi_processor *pr)
{
acpi_status status = 0;
- acpi_integer count;
+ u64 count;
int current_count;
int i;
struct acpi_buffer buffer = { ACPI_ALLOCATE_BUFFER, NULL };
#ifdef CONFIG_X86
static int acpi_throttling_rdmsr(struct acpi_processor *pr,
- acpi_integer * value)
+ u64 *value)
{
struct cpuinfo_x86 *c;
u64 msr_high, msr_low;
rdmsr_safe(MSR_IA32_THERM_CONTROL,
(u32 *)&msr_low , (u32 *) &msr_high);
msr = (msr_high << 32) | msr_low;
- *value = (acpi_integer) msr;
+ *value = (u64) msr;
ret = 0;
}
return ret;
}
-static int acpi_throttling_wrmsr(struct acpi_processor *pr, acpi_integer value)
+static int acpi_throttling_wrmsr(struct acpi_processor *pr, u64 value)
{
struct cpuinfo_x86 *c;
unsigned int cpu;
}
#else
static int acpi_throttling_rdmsr(struct acpi_processor *pr,
- acpi_integer * value)
+ u64 *value)
{
printk(KERN_ERR PREFIX
"HARDWARE addr space,NOT supported yet\n");
return -1;
}
-static int acpi_throttling_wrmsr(struct acpi_processor *pr, acpi_integer value)
+static int acpi_throttling_wrmsr(struct acpi_processor *pr, u64 value)
{
printk(KERN_ERR PREFIX
"HARDWARE addr space,NOT supported yet\n");
#endif
static int acpi_read_throttling_status(struct acpi_processor *pr,
- acpi_integer *value)
+ u64 *value)
{
u32 bit_width, bit_offset;
u64 ptc_value;
address, (u32 *) &ptc_value,
(u32) (bit_width + bit_offset));
ptc_mask = (1 << bit_width) - 1;
- *value = (acpi_integer) ((ptc_value >> bit_offset) & ptc_mask);
+ *value = (u64) ((ptc_value >> bit_offset) & ptc_mask);
ret = 0;
break;
case ACPI_ADR_SPACE_FIXED_HARDWARE:
}
static int acpi_write_throttling_state(struct acpi_processor *pr,
- acpi_integer value)
+ u64 value)
{
u32 bit_width, bit_offset;
u64 ptc_value;
}
static int acpi_get_throttling_state(struct acpi_processor *pr,
- acpi_integer value)
+ u64 value)
{
int i;
}
static int acpi_get_throttling_value(struct acpi_processor *pr,
- int state, acpi_integer *value)
+ int state, u64 *value)
{
int ret = -1;
{
int state = 0;
int ret;
- acpi_integer value;
+ u64 value;
if (!pr)
return -EINVAL;
int state, bool force)
{
int ret;
- acpi_integer value;
+ u64 value;
if (!pr)
return -EINVAL;
case ACPI_TYPE_INTEGER:
switch (format_string[i]) {
case 'N':
- size_required += sizeof(acpi_integer);
- tail_offset += sizeof(acpi_integer);
+ size_required += sizeof(u64);
+ tail_offset += sizeof(u64);
break;
case 'S':
size_required +=
- sizeof(char *) + sizeof(acpi_integer) +
+ sizeof(char *) + sizeof(u64) +
sizeof(char);
tail_offset += sizeof(char *);
break;
case ACPI_TYPE_INTEGER:
switch (format_string[i]) {
case 'N':
- *((acpi_integer *) head) =
+ *((u64 *) head) =
element->integer.value;
- head += sizeof(acpi_integer);
+ head += sizeof(u64);
break;
case 'S':
pointer = (u8 **) head;
*pointer = tail;
- *((acpi_integer *) tail) =
+ *((u64 *) tail) =
element->integer.value;
- head += sizeof(acpi_integer *);
- tail += sizeof(acpi_integer);
+ head += sizeof(u64 *);
+ tail += sizeof(u64);
/* NULL terminate string */
*tail = (char)0;
tail += sizeof(char);
static int
acpi_video_bus_DOS(struct acpi_video_bus *video, int bios_flag, int lcd_flag)
{
- acpi_integer status = 0;
+ u64 status = 0;
union acpi_object arg0 = { ACPI_TYPE_INTEGER };
struct acpi_object_list args = { 1, &arg0 };
WARN_ON(!(ap->flags & ATA_FLAG_ACPI_SATA));
if (!sata_pmp_attached(ap)) {
- acpi_integer adr = SATA_ADR(ap->port_no, NO_PORT_MULT);
+ u64 adr = SATA_ADR(ap->port_no, NO_PORT_MULT);
ap->link.device->acpi_handle =
acpi_get_child(ap->host->acpi_handle, adr);
ap->link.device->acpi_handle = NULL;
ata_for_each_link(link, ap, EDGE) {
- acpi_integer adr = SATA_ADR(ap->port_no, link->pmp);
+ u64 adr = SATA_ADR(ap->port_no, link->pmp);
link->device->acpi_handle =
acpi_get_child(ap->host->acpi_handle, adr);
* Returns 0 on success, <0 on error.
*/
static int ide_get_dev_handle(struct device *dev, acpi_handle *handle,
- acpi_integer *pcidevfn)
+ u64 *pcidevfn)
{
struct pci_dev *pdev = to_pci_dev(dev);
unsigned int bus, devnum, func;
- acpi_integer addr;
+ u64 addr;
acpi_handle dev_handle;
acpi_status status;
struct acpi_device_info *dinfo = NULL;
devnum = PCI_SLOT(pdev->devfn);
func = PCI_FUNC(pdev->devfn);
/* ACPI _ADR encoding for PCI bus: */
- addr = (acpi_integer)(devnum << 16 | func);
+ addr = (u64)(devnum << 16 | func);
DEBPRINT("ENTER: pci %02x:%02x.%01x\n", bus, devnum, func);
{
struct device *dev = hwif->gendev.parent;
acpi_handle uninitialized_var(dev_handle);
- acpi_integer pcidevfn;
+ u64 pcidevfn;
acpi_handle chan_handle;
int err;
static acpi_status acpi_atlas_button_handler(u32 function,
acpi_physical_address address,
- u32 bit_width, acpi_integer *value,
+ u32 bit_width, u64 *value,
void *handler_context, void *region_context)
{
acpi_status status;
static int acpi_pci_find_device(struct device *dev, acpi_handle *handle)
{
struct pci_dev * pci_dev;
- acpi_integer addr;
+ u64 addr;
pci_dev = to_pci_dev(dev);
/* Please ref to ACPI spec for the syntax of _ADR */
static int toshiba_bluetooth_enable(acpi_handle handle)
{
acpi_status res1, res2;
- acpi_integer result;
+ u64 result;
/*
* Query ACPI to verify RFKill switch is set to 'on'.
static int toshiba_bt_rfkill_add(struct acpi_device *device)
{
acpi_status status;
- acpi_integer bt_present;
+ u64 bt_present;
int result = -ENODEV;
/*
*/
static acpi_status
acpi_wmi_ec_space_handler(u32 function, acpi_physical_address address,
- u32 bits, acpi_integer * value,
+ u32 bits, u64 *value,
void *handler_context, void *region_context)
{
int result = 0, i = 0;
if (function == ACPI_READ) {
result = ec_read(address, &temp);
- (*value) |= ((acpi_integer)temp) << i;
+ (*value) |= ((u64)temp) << i;
} else {
temp = 0xff & ((*value) >> i);
result = ec_write(address, temp);
struct acpi_device_wakeup {
acpi_handle gpe_device;
- acpi_integer gpe_number;
- acpi_integer sleep_state;
+ u64 gpe_number;
+ u64 sleep_state;
struct acpi_handle_list resources;
struct acpi_device_wakeup_state state;
struct acpi_device_wakeup_flags flags;
};
/* helper */
-acpi_handle acpi_get_child(acpi_handle, acpi_integer);
+acpi_handle acpi_get_child(acpi_handle, u64);
int acpi_is_root_bridge(acpi_handle);
acpi_handle acpi_get_pci_rootbridge_handle(unsigned int, unsigned int);
struct acpi_pci_root *acpi_pci_find_root(acpi_handle handle);
/* Performance Management */
struct acpi_psd_package {
- acpi_integer num_entries;
- acpi_integer revision;
- acpi_integer domain;
- acpi_integer coord_type;
- acpi_integer num_processors;
+ u64 num_entries;
+ u64 revision;
+ u64 domain;
+ u64 coord_type;
+ u64 num_processors;
} __attribute__ ((packed));
struct acpi_pct_register {
} __attribute__ ((packed));
struct acpi_processor_px {
- acpi_integer core_frequency; /* megahertz */
- acpi_integer power; /* milliWatts */
- acpi_integer transition_latency; /* microseconds */
- acpi_integer bus_master_latency; /* microseconds */
- acpi_integer control; /* control value */
- acpi_integer status; /* success indicator */
+ u64 core_frequency; /* megahertz */
+ u64 power; /* milliWatts */
+ u64 transition_latency; /* microseconds */
+ u64 bus_master_latency; /* microseconds */
+ u64 control; /* control value */
+ u64 status; /* success indicator */
};
struct acpi_processor_performance {
/* Throttling Control */
struct acpi_tsd_package {
- acpi_integer num_entries;
- acpi_integer revision;
- acpi_integer domain;
- acpi_integer coord_type;
- acpi_integer num_processors;
+ u64 num_entries;
+ u64 revision;
+ u64 domain;
+ u64 coord_type;
+ u64 num_processors;
} __attribute__ ((packed));
struct acpi_ptc_register {
} __attribute__ ((packed));
struct acpi_processor_tx_tss {
- acpi_integer freqpercentage; /* */
- acpi_integer power; /* milliWatts */
- acpi_integer transition_latency; /* microseconds */
- acpi_integer control; /* control value */
- acpi_integer status; /* success indicator */
+ u64 freqpercentage; /* */
+ u64 power; /* milliWatts */
+ u64 transition_latency; /* microseconds */
+ u64 control; /* control value */
+ u64 status; /* success indicator */
};
struct acpi_processor_tx {
u16 power;
projects / mirror_ubuntu-disco-kernel.git / commitdiff