Disable CONFIG_MSM_SHOW_RESUME_IRQ
defconfig changes

More HID devices (including PS3 and WII support?)
More bluetooth HID devices
Remove a debugging option left on by HTC
Slap in bluetooth from caf-msm/msm-3.4

This doesn't compile but I want to commit it so that my next
commit contains only my changes to their code.
Fix broken sizeof
Make caf-msm/msm-3.4 BT drivers compile
Update defconfig for CAF BT drivers
Version 1.1.12
cpufreq: Convert the cpufreq_driver_lock to a rwlock

This eliminates the contention I am seeing in __cpufreq_cpu_get.
It also nicely stages the lock to be replaced by the rcu.

Signed-off-by: Nathan Zimmer <nzimmer@sgi.com>
Acked-by: Viresh Kumar <viresh.kumar@linaro.org>
Signed-off-by: Rafael J. Wysocki <rafael.j.wysocki@intel.com>
modified for Mako kernel from kernel.org

Signed-off-by: faux123 <reioux@gmail.com>
cpufreq: Convert the cpufreq_driver_lock to use RCU

In general rwlocks are discourged so we are moving it to use RCU instead.

Signed-off-by: Nathan Zimmer <nzimmer@sgi.com>
Acked-by: Viresh Kumar <viresh.kumar@linaro.org>
Signed-off-by: Rafael J. Wysocki <rafael.j.wysocki@intel.com>
modified for Mako from kernel.org

Signed-off-by: faux123 <reioux@gmail.com>

Conflicts:
	drivers/cpufreq/cpufreq.c
rwsem: steal writing sem for better performance

Commit 5a50508 changes to rwsem from mutex, caused aim7 fork_test
performance to dropped 50%. Yuanhan liu did an analysis, found it was
caused by strict sequential writing. Ingo suggest stealing sem writing from
front task in wait queue. https://lkml.org/lkml/2013/1/29/84

So does this patch.
In this patch, I just allow write stealing to happen when the first waiter
is also writer. The performance fully is now fully recovered.

Reported-by: lkp@linux.intel.com
Cc: Ingo Molnar <mingo@kernel.org>
Signed-off-by: Alex Shi <alex.shi@intel.com>
PM: Introduce suspend state PM_SUSPEND_FREEZE

PM_SUSPEND_FREEZE state is a general state that
does not need any platform specific support, it equals
frozen processes + suspended devices + idle processors.

Compared with PM_SUSPEND_MEMORY,
PM_SUSPEND_FREEZE saves less power
because the system is still in a running state.
PM_SUSPEND_FREEZE has less resume latency because it does not
touch BIOS, and the processors are in idle state.

Compared with RTPM/idle,
PM_SUSPEND_FREEZE saves more power as
1. the processor has longer sleep time because processes are frozen.
   The deeper c-state the processor supports, more power saving we can get.
2. PM_SUSPEND_FREEZE uses system suspend code path, thus we can get
   more power saving from the devices that does not have good RTPM support.

This state is useful for
1) platforms that do not have STR, or have a broken STR.
2) platforms that have an extremely low power idle state,
   which can be used to replace STR.

The following describes how PM_SUSPEND_FREEZE state works.
1. echo freeze > /sys/power/state
2. the processes are frozen.
3. all the devices are suspended.
4. all the processors are blocked by a wait queue
5. all the processors idles and enters (Deep) c-state.
6. an interrupt fires.
7. a processor is woken up and handles the irq.
8. if it is a general event,
   a) the irq handler runs and quites.
   b) goto step 4.
9. if it is a real wake event, say, power button pressing, keyboard touch, mouse moving,
   a) the irq handler runs and activate the wakeup source
   b) wakeup_source_activate() notifies the wait queue.
   c) system starts resuming from PM_SUSPEND_FREEZE
10. all the devices are resumed.
11. all the processes are unfrozen.
12. system is back to working.
Known Issue:
The wakeup of this new PM_SUSPEND_FREEZE state may behave differently
from the previous suspend state.
Take ACPI platform for example, there are some GPEs that only enabled
when the system is in sleep state, to wake the system backk from S3/S4.
But we are not touching these GPEs during transition to PM_SUSPEND_FREEZE.
This means we may lose some wake event.
But on the other hand, as we do not disable all the Interrupts during
PM_SUSPEND_FREEZE, we may get some extra "wakeup" Interrupts, that are
not available for S3/S4.

The patches has been tested on an old Sony laptop, and here are the results:

Average Power:
1. RPTM/idle for half an hour:
   14.8W, 12.6W, 14.1W, 12.5W, 14.4W, 13.2W, 12.9W
2. Freeze for half an hour:
   11W, 10.4W, 9.4W, 11.3W 10.5W
3. RTPM/idle for three hours:
   11.6W
4. Freeze for three hours:
   10W
5. Suspend to Memory:
   0.5~0.9W

Average Resume Latency:
1. RTPM/idle with a black screen: (From pressing keyboard to screen back)
   Less than 0.2s
2. Freeze: (From pressing power button to screen back)
   2.50s
3. Suspend to Memory: (From pressing power button to screen back)
   4.33s

From the results, we can see that all the platforms should benefit from
this patch, even if it does not have Low Power S0.

Signed-off-by: Zhang Rui <rui.zhang@intel.com>
modified for Mako from LKML reference

Signed-off-by: faux123 <reioux@gmail.com>
wakelock: instead of directly going to suspend_mem, use the new suspend_freeze

Signed-off-by: faux123 <reioux@gmail.com>

Conflicts:
	kernel/power/wakelock.c
Disable a module that wasn't compiling
Version 1.1.13
msm_thermal: improve logic when temperature lowers

The throttling to 1.5GHz from a higher temperature wasn't working
right.  Rework the code to be much simpler and therefore get it
right at the same time.
Version 1.1.14
Fix warning in 4.6 google toolchain (cm10)
GPU overclock

Hand applied:

	commit 09184bff6f7af6ffa84e1c64584120ba280d44ae
	Author: mdeejay <melodydeejay@gmail.com>
	Date:   Sat Jan 12 14:48:23 2013 +0800

	    GPU overclock

because it was basically a complete conflict due to other
changes.
Make ondemand the default governor
Reporting the number of online cores in sysfs