Merge commit 'v2.6.35-rc3' into next

This commit is contained in:
Dmitry Torokhov
2010-06-30 15:07:09 -07:00
1029 changed files with 83567 additions and 7901 deletions
+1
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@@ -28,6 +28,7 @@ modules.builtin
*.gz
*.bz2
*.lzma
*.lzo
*.patch
*.gcno
+7
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@@ -0,0 +1,7 @@
filesystems/dnotify_test
laptops/dslm
timers/hpet_example
vm/hugepage-mmap
vm/hugepage-shm
vm/map_hugetlb
-40
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@@ -133,46 +133,6 @@ Description:
The symbolic link points to the PCI device sysfs entry of the
Physical Function this device associates with.
What: /sys/bus/pci/slots/...
Date: April 2005 (possibly older)
KernelVersion: 2.6.12 (possibly older)
Contact: linux-pci@vger.kernel.org
Description:
When the appropriate driver is loaded, it will create a
directory per claimed physical PCI slot in
/sys/bus/pci/slots/. The names of these directories are
specific to the driver, which in turn, are specific to the
platform, but in general, should match the label on the
machine's physical chassis.
The drivers that can create slot directories include the
PCI hotplug drivers, and as of 2.6.27, the pci_slot driver.
The slot directories contain, at a minimum, a file named
'address' which contains the PCI bus:device:function tuple.
Other files may appear as well, but are specific to the
driver.
What: /sys/bus/pci/slots/.../function[0-7]
Date: March 2010
KernelVersion: 2.6.35
Contact: linux-pci@vger.kernel.org
Description:
If PCI slot directories (as described above) are created,
and the physical slot is actually populated with a device,
symbolic links in the slot directory pointing to the
device's PCI functions are created as well.
What: /sys/bus/pci/devices/.../slot
Date: March 2010
KernelVersion: 2.6.35
Contact: linux-pci@vger.kernel.org
Description:
If PCI slot directories (as described above) are created,
a symbolic link pointing to the slot directory will be
created as well.
What: /sys/bus/pci/slots/.../module
Date: June 2009
Contact: linux-pci@vger.kernel.org
+6 -6
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@@ -389,7 +389,7 @@
</para>
<para>
If your driver supports memory management (it should!), you'll
need to set that up at load time as well. How you intialize
need to set that up at load time as well. How you initialize
it depends on which memory manager you're using, TTM or GEM.
</para>
<sect3>
@@ -399,7 +399,7 @@
aperture space for graphics devices. TTM supports both UMA devices
and devices with dedicated video RAM (VRAM), i.e. most discrete
graphics devices. If your device has dedicated RAM, supporting
TTM is desireable. TTM also integrates tightly with your
TTM is desirable. TTM also integrates tightly with your
driver specific buffer execution function. See the radeon
driver for examples.
</para>
@@ -443,7 +443,7 @@
likely eventually calling ttm_bo_global_init and
ttm_bo_global_release, respectively. Also like the previous
object, ttm_global_item_ref is used to create an initial reference
count for the TTM, which will call your initalization function.
count for the TTM, which will call your initialization function.
</para>
</sect3>
<sect3>
@@ -557,7 +557,7 @@ void intel_crt_init(struct drm_device *dev)
CRT connector and encoder combination is created. A device
specific i2c bus is also created, for fetching EDID data and
performing monitor detection. Once the process is complete,
the new connector is regsitered with sysfs, to make its
the new connector is registered with sysfs, to make its
properties available to applications.
</para>
<sect4>
@@ -581,12 +581,12 @@ void intel_crt_init(struct drm_device *dev)
<para>
For each encoder, CRTC and connector, several functions must
be provided, depending on the object type. Encoder objects
need should provide a DPMS (basically on/off) function, mode fixup
need to provide a DPMS (basically on/off) function, mode fixup
(for converting requested modes into native hardware timings),
and prepare, set and commit functions for use by the core DRM
helper functions. Connector helpers need to provide mode fetch and
validity functions as well as an encoder matching function for
returing an ideal encoder for a given connector. The core
returning an ideal encoder for a given connector. The core
connector functions include a DPMS callback, (deprecated)
save/restore routines, detection, mode probing, property handling,
and cleanup functions.
+1 -1
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@@ -58,7 +58,7 @@ MPEG stream embedded, sliced VBI data format in this specification.
</contrib>
<affiliation>
<address>
<email>awalls@radix.net</email>
<email>awalls@md.metrocast.net</email>
</address>
</affiliation>
</author>
@@ -53,8 +53,10 @@ input</refpurpose>
automatically, similar to sensing the video standard. To do so, applications
call <constant> VIDIOC_QUERY_DV_PRESET</constant> with a pointer to a
&v4l2-dv-preset; type. Once the hardware detects a preset, that preset is
returned in the preset field of &v4l2-dv-preset;. When detection is not
possible or fails, the value V4L2_DV_INVALID is returned.</para>
returned in the preset field of &v4l2-dv-preset;. If the preset could not be
detected because there was no signal, or the signal was unreliable, or the
signal did not map to a supported preset, then the value V4L2_DV_INVALID is
returned.</para>
</refsect1>
<refsect1>
+152
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@@ -6,6 +6,8 @@ Written by Doug Thompson <dougthompson@xmission.com>
7 Dec 2005
17 Jul 2007 Updated
(c) Mauro Carvalho Chehab <mchehab@redhat.com>
05 Aug 2009 Nehalem interface
EDAC is maintained and written by:
@@ -717,3 +719,153 @@ unique drivers for their hardware systems.
The 'test_device_edac' sample driver is located at the
bluesmoke.sourceforge.net project site for EDAC.
=======================================================================
NEHALEM USAGE OF EDAC APIs
This chapter documents some EXPERIMENTAL mappings for EDAC API to handle
Nehalem EDAC driver. They will likely be changed on future versions
of the driver.
Due to the way Nehalem exports Memory Controller data, some adjustments
were done at i7core_edac driver. This chapter will cover those differences
1) On Nehalem, there are one Memory Controller per Quick Patch Interconnect
(QPI). At the driver, the term "socket" means one QPI. This is
associated with a physical CPU socket.
Each MC have 3 physical read channels, 3 physical write channels and
3 logic channels. The driver currenty sees it as just 3 channels.
Each channel can have up to 3 DIMMs.
The minimum known unity is DIMMs. There are no information about csrows.
As EDAC API maps the minimum unity is csrows, the driver sequencially
maps channel/dimm into different csrows.
For example, suposing the following layout:
Ch0 phy rd0, wr0 (0x063f4031): 2 ranks, UDIMMs
dimm 0 1024 Mb offset: 0, bank: 8, rank: 1, row: 0x4000, col: 0x400
dimm 1 1024 Mb offset: 4, bank: 8, rank: 1, row: 0x4000, col: 0x400
Ch1 phy rd1, wr1 (0x063f4031): 2 ranks, UDIMMs
dimm 0 1024 Mb offset: 0, bank: 8, rank: 1, row: 0x4000, col: 0x400
Ch2 phy rd3, wr3 (0x063f4031): 2 ranks, UDIMMs
dimm 0 1024 Mb offset: 0, bank: 8, rank: 1, row: 0x4000, col: 0x400
The driver will map it as:
csrow0: channel 0, dimm0
csrow1: channel 0, dimm1
csrow2: channel 1, dimm0
csrow3: channel 2, dimm0
exports one
DIMM per csrow.
Each QPI is exported as a different memory controller.
2) Nehalem MC has the hability to generate errors. The driver implements this
functionality via some error injection nodes:
For injecting a memory error, there are some sysfs nodes, under
/sys/devices/system/edac/mc/mc?/:
inject_addrmatch/*:
Controls the error injection mask register. It is possible to specify
several characteristics of the address to match an error code:
dimm = the affected dimm. Numbers are relative to a channel;
rank = the memory rank;
channel = the channel that will generate an error;
bank = the affected bank;
page = the page address;
column (or col) = the address column.
each of the above values can be set to "any" to match any valid value.
At driver init, all values are set to any.
For example, to generate an error at rank 1 of dimm 2, for any channel,
any bank, any page, any column:
echo 2 >/sys/devices/system/edac/mc/mc0/inject_addrmatch/dimm
echo 1 >/sys/devices/system/edac/mc/mc0/inject_addrmatch/rank
To return to the default behaviour of matching any, you can do:
echo any >/sys/devices/system/edac/mc/mc0/inject_addrmatch/dimm
echo any >/sys/devices/system/edac/mc/mc0/inject_addrmatch/rank
inject_eccmask:
specifies what bits will have troubles,
inject_section:
specifies what ECC cache section will get the error:
3 for both
2 for the highest
1 for the lowest
inject_type:
specifies the type of error, being a combination of the following bits:
bit 0 - repeat
bit 1 - ecc
bit 2 - parity
inject_enable starts the error generation when something different
than 0 is written.
All inject vars can be read. root permission is needed for write.
Datasheet states that the error will only be generated after a write on an
address that matches inject_addrmatch. It seems, however, that reading will
also produce an error.
For example, the following code will generate an error for any write access
at socket 0, on any DIMM/address on channel 2:
echo 2 >/sys/devices/system/edac/mc/mc0/inject_addrmatch/channel
echo 2 >/sys/devices/system/edac/mc/mc0/inject_type
echo 64 >/sys/devices/system/edac/mc/mc0/inject_eccmask
echo 3 >/sys/devices/system/edac/mc/mc0/inject_section
echo 1 >/sys/devices/system/edac/mc/mc0/inject_enable
dd if=/dev/mem of=/dev/null seek=16k bs=4k count=1 >& /dev/null
For socket 1, it is needed to replace "mc0" by "mc1" at the above
commands.
The generated error message will look like:
EDAC MC0: UE row 0, channel-a= 0 channel-b= 0 labels "-": NON_FATAL (addr = 0x0075b980, socket=0, Dimm=0, Channel=2, syndrome=0x00000040, count=1, Err=8c0000400001009f:4000080482 (read error: read ECC error))
3) Nehalem specific Corrected Error memory counters
Nehalem have some registers to count memory errors. The driver uses those
registers to report Corrected Errors on devices with Registered Dimms.
However, those counters don't work with Unregistered Dimms. As the chipset
offers some counters that also work with UDIMMS (but with a worse level of
granularity than the default ones), the driver exposes those registers for
UDIMM memories.
They can be read by looking at the contents of all_channel_counts/
$ for i in /sys/devices/system/edac/mc/mc0/all_channel_counts/*; do echo $i; cat $i; done
/sys/devices/system/edac/mc/mc0/all_channel_counts/udimm0
0
/sys/devices/system/edac/mc/mc0/all_channel_counts/udimm1
0
/sys/devices/system/edac/mc/mc0/all_channel_counts/udimm2
0
What happens here is that errors on different csrows, but at the same
dimm number will increment the same counter.
So, in this memory mapping:
csrow0: channel 0, dimm0
csrow1: channel 0, dimm1
csrow2: channel 1, dimm0
csrow3: channel 2, dimm0
The hardware will increment udimm0 for an error at the first dimm at either
csrow0, csrow2 or csrow3;
The hardware will increment udimm1 for an error at the second dimm at either
csrow0, csrow2 or csrow3;
The hardware will increment udimm2 for an error at the third dimm at either
csrow0, csrow2 or csrow3;
4) Standard error counters
The standard error counters are generated when an mcelog error is received
by the driver. Since, with udimm, this is counted by software, it is
possible that some errors could be lost. With rdimm's, they displays the
contents of the registers
@@ -578,15 +578,6 @@ Who: Avi Kivity <avi@redhat.com>
----------------------------
What: "acpi=ht" boot option
When: 2.6.35
Why: Useful in 2003, implementation is a hack.
Generally invoked by accident today.
Seen as doing more harm than good.
Who: Len Brown <len.brown@intel.com>
----------------------------
What: iwlwifi 50XX module parameters
When: 2.6.40
Why: The "..50" modules parameters were used to configure 5000 series and
@@ -794,11 +794,6 @@ designed.
Roadmap:
2.6.35 Inclusion in mainline as an experimental mount option
=> approximately 2-3 months to merge window
=> needs to be in xfs-dev tree in 4-6 weeks
=> code is nearing readiness for review
2.6.37 Remove experimental tag from mount option
=> should be roughly 6 months after initial merge
=> enough time to:
+2 -2
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@@ -6,12 +6,12 @@ Supported adapters:
http://www.ali.com.tw/eng/support/datasheet_request.php
Authors:
Frodo Looijaard <frodol@dds.nl>,
Frodo Looijaard <frodol@dds.nl>,
Philip Edelbrock <phil@netroedge.com>,
Mark D. Studebaker <mdsxyz123@yahoo.com>,
Dan Eaton <dan.eaton@rocketlogix.com>,
Stephen Rousset<stephen.rousset@rocketlogix.com>
Description
-----------
+1 -1
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@@ -18,7 +18,7 @@ For an overview of these chips see http://www.acerlabs.com
The M1563 southbridge is deceptively similar to the M1533, with a few
notable exceptions. One of those happens to be the fact they upgraded the
i2c core to be SMBus 2.0 compliant, and happens to be almost identical to
the i2c controller found in the Intel 801 south bridges.
the i2c controller found in the Intel 801 south bridges.
Features
--------
+8 -8
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@@ -6,8 +6,8 @@ Supported adapters:
http://www.ali.com.tw/eng/support/datasheet_request.php
Authors:
Frodo Looijaard <frodol@dds.nl>,
Philip Edelbrock <phil@netroedge.com>,
Frodo Looijaard <frodol@dds.nl>,
Philip Edelbrock <phil@netroedge.com>,
Mark D. Studebaker <mdsxyz123@yahoo.com>
Module Parameters
@@ -40,10 +40,10 @@ M1541 and M1543C South Bridges.
The M1543C is a South bridge for desktop systems.
The M1541 is a South bridge for portable systems.
They are part of the following ALI chipsets:
* "Aladdin Pro 2" includes the M1621 Slot 1 North bridge with AGP and
* "Aladdin Pro 2" includes the M1621 Slot 1 North bridge with AGP and
100MHz CPU Front Side bus
* "Aladdin V" includes the M1541 Socket 7 North bridge with AGP and 100MHz
* "Aladdin V" includes the M1541 Socket 7 North bridge with AGP and 100MHz
CPU Front Side bus
Some Aladdin V motherboards:
Asus P5A
@@ -77,7 +77,7 @@ output of lspci will show something similar to the following:
** then run lspci.
** If you see the 1533 and 5229 devices but NOT the 7101 device,
** then you must enable ACPI, the PMU, SMB, or something similar
** in the BIOS.
** in the BIOS.
** The driver won't work if it can't find the M7101 device.
The SMB controller is part of the M7101 device, which is an ACPI-compliant
@@ -87,8 +87,8 @@ The whole M7101 device has to be enabled for the SMB to work. You can't
just enable the SMB alone. The SMB and the ACPI have separate I/O spaces.
We make sure that the SMB is enabled. We leave the ACPI alone.
Features
--------
Features
--------
This driver controls the SMB Host only. The SMB Slave
controller on the M15X3 is not enabled. This driver does not use
+7 -7
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@@ -1,10 +1,10 @@
Kernel driver i2c-pca-isa
Supported adapters:
This driver supports ISA boards using the Philips PCA 9564
Parallel bus to I2C bus controller
This driver supports ISA boards using the Philips PCA 9564
Parallel bus to I2C bus controller
Author: Ian Campbell <icampbell@arcom.com>, Arcom Control Systems
Author: Ian Campbell <icampbell@arcom.com>, Arcom Control Systems
Module Parameters
-----------------
@@ -12,12 +12,12 @@ Module Parameters
* base int
I/O base address
* irq int
IRQ interrupt
* clock int
IRQ interrupt
* clock int
Clock rate as described in table 1 of PCA9564 datasheet
Description
-----------
This driver supports ISA boards using the Philips PCA 9564
Parallel bus to I2C bus controller
This driver supports ISA boards using the Philips PCA 9564
Parallel bus to I2C bus controller
+28 -28
View File
@@ -1,41 +1,41 @@
Kernel driver i2c-sis5595
Authors:
Authors:
Frodo Looijaard <frodol@dds.nl>,
Mark D. Studebaker <mdsxyz123@yahoo.com>,
Philip Edelbrock <phil@netroedge.com>
Philip Edelbrock <phil@netroedge.com>
Supported adapters:
* Silicon Integrated Systems Corp. SiS5595 Southbridge
Datasheet: Publicly available at the Silicon Integrated Systems Corp. site.
Note: all have mfr. ID 0x1039.
Note: all have mfr. ID 0x1039.
SUPPORTED PCI ID
5595 0008
Note: these chips contain a 0008 device which is incompatible with the
5595. We recognize these by the presence of the listed
"blacklist" PCI ID and refuse to load.
NOT SUPPORTED PCI ID BLACKLIST PCI ID
540 0008 0540
550 0008 0550
5513 0008 5511
5581 0008 5597
5582 0008 5597
5597 0008 5597
5598 0008 5597/5598
630 0008 0630
645 0008 0645
646 0008 0646
648 0008 0648
650 0008 0650
651 0008 0651
730 0008 0730
735 0008 0735
745 0008 0745
746 0008 0746
SUPPORTED PCI ID
5595 0008
Note: these chips contain a 0008 device which is incompatible with the
5595. We recognize these by the presence of the listed
"blacklist" PCI ID and refuse to load.
NOT SUPPORTED PCI ID BLACKLIST PCI ID
540 0008 0540
550 0008 0550
5513 0008 5511
5581 0008 5597
5582 0008 5597
5597 0008 5597
5598 0008 5597/5598
630 0008 0630
645 0008 0645
646 0008 0646
648 0008 0648
650 0008 0650
651 0008 0651
730 0008 0730
735 0008 0735
745 0008 0745
746 0008 0746
Module Parameters
-----------------
+4 -4
View File
@@ -14,9 +14,9 @@ Module Parameters
* force = [1|0] Forcibly enable the SIS630. DANGEROUS!
This can be interesting for chipsets not named
above to check if it works for you chipset, but DANGEROUS!
* high_clock = [1|0] Forcibly set Host Master Clock to 56KHz (default,
what your BIOS use). DANGEROUS! This should be a bit
* high_clock = [1|0] Forcibly set Host Master Clock to 56KHz (default,
what your BIOS use). DANGEROUS! This should be a bit
faster, but freeze some systems (i.e. my Laptop).
@@ -44,6 +44,6 @@ Philip Edelbrock <phil@netroedge.com>
- testing SiS730 support
Mark M. Hoffman <mhoffman@lightlink.com>
- bug fixes
To anyone else which I forgot here ;), thanks!
+3 -3
View File
@@ -1,17 +1,17 @@
The I2C protocol knows about two kinds of device addresses: normal 7 bit
The I2C protocol knows about two kinds of device addresses: normal 7 bit
addresses, and an extended set of 10 bit addresses. The sets of addresses
do not intersect: the 7 bit address 0x10 is not the same as the 10 bit
address 0x10 (though a single device could respond to both of them). You
select a 10 bit address by adding an extra byte after the address
byte:
S Addr7 Rd/Wr ....
S Addr7 Rd/Wr ....
becomes
S 11110 Addr10 Rd/Wr
S is the start bit, Rd/Wr the read/write bit, and if you count the number
of bits, you will see the there are 8 after the S bit for 7 bit addresses,
and 16 after the S bit for 10 bit addresses.
WARNING! The current 10 bit address support is EXPERIMENTAL. There are
WARNING! The current 10 bit address support is EXPERIMENTAL. There are
several places in the code that will cause SEVERE PROBLEMS with 10 bit
addresses, even though there is some basic handling and hooks. Also,
almost no supported adapter handles the 10 bit addresses correctly.
+5 -1
View File
@@ -65,7 +65,7 @@ CROSS_COMPILE
Specify an optional fixed part of the binutils filename.
CROSS_COMPILE can be a part of the filename or the full path.
CROSS_COMPILE is also used for ccache is some setups.
CROSS_COMPILE is also used for ccache in some setups.
CF
--------------------------------------------------
@@ -162,3 +162,7 @@ For tags/TAGS/cscope targets, you can specify more than one arch
to be included in the databases, separated by blank space. E.g.:
$ make ALLSOURCE_ARCHS="x86 mips arm" tags
To get all available archs you can also specify all. E.g.:
$ make ALLSOURCE_ARCHS=all tags
+2 -2
View File
@@ -66,14 +66,14 @@ of advantages of mutexes:
c0377ccb <mutex_lock>:
c0377ccb: f0 ff 08 lock decl (%eax)
c0377cce: 78 0e js c0377cde <.text.lock.mutex>
c0377cce: 78 0e js c0377cde <.text..lock.mutex>
c0377cd0: c3 ret
the unlocking fastpath is equally tight:
c0377cd1 <mutex_unlock>:
c0377cd1: f0 ff 00 lock incl (%eax)
c0377cd4: 7e 0f jle c0377ce5 <.text.lock.mutex+0x7>
c0377cd4: 7e 0f jle c0377ce5 <.text..lock.mutex+0x7>
c0377cd6: c3 ret
- 'struct mutex' semantics are well-defined and are enforced if
+1 -1
View File
@@ -2,7 +2,7 @@
obj- := dummy.o
# List of programs to build
hostprogs-y := hpet_example
hostprogs-$(CONFIG_X86) := hpet_example
# Tell kbuild to always build the programs
always := $(hostprogs-y)
+3 -2
View File
@@ -176,5 +176,6 @@
175 -> Leadtek Winfast DTV1000S [107d:6655]
176 -> Beholder BeholdTV 505 RDS [0000:5051]
177 -> Hawell HW-404M7
179 -> Beholder BeholdTV H7 [5ace:7190]
180 -> Beholder BeholdTV A7 [5ace:7090]
178 -> Beholder BeholdTV H7 [5ace:7190]
179 -> Beholder BeholdTV A7 [5ace:7090]
180 -> Avermedia M733A [1461:4155,1461:4255]

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