提交 c871fe66 编写于 作者: C Colin Cross

Merge branch 'for-2639/i2c/i2c-tegra' of git://git.fluff.org/bjdooks/linux into for-next-i2c

......@@ -28,6 +28,7 @@ modules.builtin
*.gz
*.bz2
*.lzma
*.xz
*.lzo
*.patch
*.gcno
......
......@@ -73,8 +73,8 @@
services.
</para>
<para>
The core of every DRM driver is struct drm_device. Drivers
will typically statically initialize a drm_device structure,
The core of every DRM driver is struct drm_driver. Drivers
will typically statically initialize a drm_driver structure,
then pass it to drm_init() at load time.
</para>
......@@ -84,7 +84,7 @@
<title>Driver initialization</title>
<para>
Before calling the DRM initialization routines, the driver must
first create and fill out a struct drm_device structure.
first create and fill out a struct drm_driver structure.
</para>
<programlisting>
static struct drm_driver driver = {
......
......@@ -82,6 +82,11 @@
</sect1>
</chapter>
<chapter id="fs_events">
<title>Events based on file descriptors</title>
!Efs/eventfd.c
</chapter>
<chapter id="sysfs">
<title>The Filesystem for Exporting Kernel Objects</title>
!Efs/sysfs/file.c
......
......@@ -13,7 +13,6 @@ Table of Contents
I - Introduction
1) Entry point for arch/powerpc
2) Board support
II - The DT block format
1) Header
......@@ -41,13 +40,6 @@ Table of Contents
VI - System-on-a-chip devices and nodes
1) Defining child nodes of an SOC
2) Representing devices without a current OF specification
a) PHY nodes
b) Interrupt controllers
c) 4xx/Axon EMAC ethernet nodes
d) Xilinx IP cores
e) USB EHCI controllers
f) MDIO on GPIOs
g) SPI busses
VII - Specifying interrupt information for devices
1) interrupts property
......@@ -123,7 +115,7 @@ Revision Information
I - Introduction
================
During the recent development of the Linux/ppc64 kernel, and more
During the development of the Linux/ppc64 kernel, and more
specifically, the addition of new platform types outside of the old
IBM pSeries/iSeries pair, it was decided to enforce some strict rules
regarding the kernel entry and bootloader <-> kernel interfaces, in
......@@ -146,7 +138,7 @@ section III, but, for example, the kernel does not require you to
create a node for every PCI device in the system. It is a requirement
to have a node for PCI host bridges in order to provide interrupt
routing informations and memory/IO ranges, among others. It is also
recommended to define nodes for on chip devices and other busses that
recommended to define nodes for on chip devices and other buses that
don't specifically fit in an existing OF specification. This creates a
great flexibility in the way the kernel can then probe those and match
drivers to device, without having to hard code all sorts of tables. It
......@@ -158,7 +150,7 @@ it with special cases.
1) Entry point for arch/powerpc
-------------------------------
There is one and one single entry point to the kernel, at the start
There is one single entry point to the kernel, at the start
of the kernel image. That entry point supports two calling
conventions:
......@@ -210,12 +202,6 @@ it with special cases.
with all CPUs. The way to do that with method b) will be
described in a later revision of this document.
2) Board support
----------------
64-bit kernels:
Board supports (platforms) are not exclusive config options. An
arbitrary set of board supports can be built in a single kernel
image. The kernel will "know" what set of functions to use for a
......@@ -234,48 +220,11 @@ it with special cases.
containing the various callbacks that the generic code will
use to get to your platform specific code
c) Add a reference to your "ppc_md" structure in the
"machines" table in arch/powerpc/kernel/setup_64.c if you are
a 64-bit platform.
d) request and get assigned a platform number (see PLATFORM_*
constants in arch/powerpc/include/asm/processor.h
32-bit embedded kernels:
Currently, board support is essentially an exclusive config option.
The kernel is configured for a single platform. Part of the reason
for this is to keep kernels on embedded systems small and efficient;
part of this is due to the fact the code is already that way. In the
future, a kernel may support multiple platforms, but only if the
A kernel image may support multiple platforms, but only if the
platforms feature the same core architecture. A single kernel build
cannot support both configurations with Book E and configurations
with classic Powerpc architectures.
32-bit embedded platforms that are moved into arch/powerpc using a
flattened device tree should adopt the merged tree practice of
setting ppc_md up dynamically, even though the kernel is currently
built with support for only a single platform at a time. This allows
unification of the setup code, and will make it easier to go to a
multiple-platform-support model in the future.
NOTE: I believe the above will be true once Ben's done with the merge
of the boot sequences.... someone speak up if this is wrong!
To add a 32-bit embedded platform support, follow the instructions
for 64-bit platforms above, with the exception that the Kconfig
option should be set up such that the kernel builds exclusively for
the platform selected. The processor type for the platform should
enable another config option to select the specific board
supported.
NOTE: If Ben doesn't merge the setup files, may need to change this to
point to setup_32.c
I will describe later the boot process and various callbacks that
your platform should implement.
II - The DT block format
========================
......@@ -300,8 +249,8 @@ the block to RAM before passing it to the kernel.
1) Header
---------
The kernel is entered with r3 pointing to an area of memory that is
roughly described in arch/powerpc/include/asm/prom.h by the structure
The kernel is passed the physical address pointing to an area of memory
that is roughly described in include/linux/of_fdt.h by the structure
boot_param_header:
struct boot_param_header {
......@@ -339,7 +288,7 @@ struct boot_param_header {
All values in this header are in big endian format, the various
fields in this header are defined more precisely below. All
"offset" values are in bytes from the start of the header; that is
from the value of r3.
from the physical base address of the device tree block.
- magic
......@@ -437,7 +386,7 @@ struct boot_param_header {
------------------------------
r3 -> | struct boot_param_header |
base -> | struct boot_param_header |
------------------------------
| (alignment gap) (*) |
------------------------------
......@@ -457,7 +406,7 @@ struct boot_param_header {
-----> ------------------------------
|
|
--- (r3 + totalsize)
--- (base + totalsize)
(*) The alignment gaps are not necessarily present; their presence
and size are dependent on the various alignment requirements of
......@@ -500,7 +449,7 @@ the device-tree structure. It is typically used to represent "path" in
the device-tree. More details about the actual format of these will be
below.
The kernel powerpc generic code does not make any formal use of the
The kernel generic code does not make any formal use of the
unit address (though some board support code may do) so the only real
requirement here for the unit address is to ensure uniqueness of
the node unit name at a given level of the tree. Nodes with no notion
......@@ -518,20 +467,21 @@ path to the root node is "/".
Every node which actually represents an actual device (that is, a node
which isn't only a virtual "container" for more nodes, like "/cpus"
is) is also required to have a "device_type" property indicating the
type of node .
is) is also required to have a "compatible" property indicating the
specific hardware and an optional list of devices it is fully
backwards compatible with.
Finally, every node that can be referenced from a property in another
node is required to have a "linux,phandle" property. Real open
firmware implementations provide a unique "phandle" value for every
node that the "prom_init()" trampoline code turns into
"linux,phandle" properties. However, this is made optional if the
flattened device tree is used directly. An example of a node
node is required to have either a "phandle" or a "linux,phandle"
property. Real Open Firmware implementations provide a unique
"phandle" value for every node that the "prom_init()" trampoline code
turns into "linux,phandle" properties. However, this is made optional
if the flattened device tree is used directly. An example of a node
referencing another node via "phandle" is when laying out the
interrupt tree which will be described in a further version of this
document.
This "linux, phandle" property is a 32-bit value that uniquely
The "phandle" property is a 32-bit value that uniquely
identifies a node. You are free to use whatever values or system of
values, internal pointers, or whatever to generate these, the only
requirement is that every node for which you provide that property has
......@@ -694,7 +644,7 @@ made of 3 cells, the bottom two containing the actual address itself
while the top cell contains address space indication, flags, and pci
bus & device numbers.
For busses that support dynamic allocation, it's the accepted practice
For buses that support dynamic allocation, it's the accepted practice
to then not provide the address in "reg" (keep it 0) though while
providing a flag indicating the address is dynamically allocated, and
then, to provide a separate "assigned-addresses" property that
......@@ -711,7 +661,7 @@ prom_parse.c file of the recent kernels for your bus type.
The "reg" property only defines addresses and sizes (if #size-cells is
non-0) within a given bus. In order to translate addresses upward
(that is into parent bus addresses, and possibly into CPU physical
addresses), all busses must contain a "ranges" property. If the
addresses), all buses must contain a "ranges" property. If the
"ranges" property is missing at a given level, it's assumed that
translation isn't possible, i.e., the registers are not visible on the
parent bus. The format of the "ranges" property for a bus is a list
......@@ -727,9 +677,9 @@ example, for a PCI host controller, that would be a CPU address. For a
PCI<->ISA bridge, that would be a PCI address. It defines the base
address in the parent bus where the beginning of that range is mapped.
For a new 64-bit powerpc board, I recommend either the 2/2 format or
For new 64-bit board support, I recommend either the 2/2 format or
Apple's 2/1 format which is slightly more compact since sizes usually
fit in a single 32-bit word. New 32-bit powerpc boards should use a
fit in a single 32-bit word. New 32-bit board support should use a
1/1 format, unless the processor supports physical addresses greater
than 32-bits, in which case a 2/1 format is recommended.
......@@ -754,7 +704,7 @@ of their actual names.
While earlier users of Open Firmware like OldWorld macintoshes tended
to use the actual device name for the "name" property, it's nowadays
considered a good practice to use a name that is closer to the device
class (often equal to device_type). For example, nowadays, ethernet
class (often equal to device_type). For example, nowadays, Ethernet
controllers are named "ethernet", an additional "model" property
defining precisely the chip type/model, and "compatible" property
defining the family in case a single driver can driver more than one
......@@ -772,7 +722,7 @@ is present).
4) Note about node and property names and character set
-------------------------------------------------------
While open firmware provides more flexible usage of 8859-1, this
While Open Firmware provides more flexible usage of 8859-1, this
specification enforces more strict rules. Nodes and properties should
be comprised only of ASCII characters 'a' to 'z', '0' to
'9', ',', '.', '_', '+', '#', '?', and '-'. Node names additionally
......@@ -792,7 +742,7 @@ address which can extend beyond that limit.
--------------------------------
These are all that are currently required. However, it is strongly
recommended that you expose PCI host bridges as documented in the
PCI binding to open firmware, and your interrupt tree as documented
PCI binding to Open Firmware, and your interrupt tree as documented
in OF interrupt tree specification.
a) The root node
......@@ -802,20 +752,12 @@ address which can extend beyond that limit.
- model : this is your board name/model
- #address-cells : address representation for "root" devices
- #size-cells: the size representation for "root" devices
- device_type : This property shouldn't be necessary. However, if
you decide to create a device_type for your root node, make sure it
is _not_ "chrp" unless your platform is a pSeries or PAPR compliant
one for 64-bit, or a CHRP-type machine for 32-bit as this will
matched by the kernel this way.
Additionally, some recommended properties are:
- compatible : the board "family" generally finds its way here,
for example, if you have 2 board models with a similar layout,
that typically get driven by the same platform code in the
kernel, you would use a different "model" property but put a
value in "compatible". The kernel doesn't directly use that
value but it is generally useful.
kernel, you would specify the exact board model in the
compatible property followed by an entry that represents the SoC
model.
The root node is also generally where you add additional properties
specific to your board like the serial number if any, that sort of
......@@ -841,8 +783,11 @@ address which can extend beyond that limit.
So under /cpus, you are supposed to create a node for every CPU on
the machine. There is no specific restriction on the name of the
CPU, though It's common practice to call it PowerPC,<name>. For
CPU, though it's common to call it <architecture>,<core>. For
example, Apple uses PowerPC,G5 while IBM uses PowerPC,970FX.
However, the Generic Names convention suggests that it would be
better to simply use 'cpu' for each cpu node and use the compatible
property to identify the specific cpu core.
Required properties:
......@@ -923,7 +868,7 @@ compatibility.
e) The /chosen node
This node is a bit "special". Normally, that's where open firmware
This node is a bit "special". Normally, that's where Open Firmware
puts some variable environment information, like the arguments, or
the default input/output devices.
......@@ -940,11 +885,7 @@ compatibility.
console device if any. Typically, if you have serial devices on
your board, you may want to put the full path to the one set as
the default console in the firmware here, for the kernel to pick
it up as its own default console. If you look at the function
set_preferred_console() in arch/ppc64/kernel/setup.c, you'll see
that the kernel tries to find out the default console and has
knowledge of various types like 8250 serial ports. You may want
to extend this function to add your own.
it up as its own default console.
Note that u-boot creates and fills in the chosen node for platforms
that use it.
......@@ -955,23 +896,23 @@ compatibility.
f) the /soc<SOCname> node
This node is used to represent a system-on-a-chip (SOC) and must be
present if the processor is a SOC. The top-level soc node contains
information that is global to all devices on the SOC. The node name
should contain a unit address for the SOC, which is the base address
of the memory-mapped register set for the SOC. The name of an soc
This node is used to represent a system-on-a-chip (SoC) and must be
present if the processor is a SoC. The top-level soc node contains
information that is global to all devices on the SoC. The node name
should contain a unit address for the SoC, which is the base address
of the memory-mapped register set for the SoC. The name of an SoC
node should start with "soc", and the remainder of the name should
represent the part number for the soc. For example, the MPC8540's
soc node would be called "soc8540".
Required properties:
- device_type : Should be "soc"
- ranges : Should be defined as specified in 1) to describe the
translation of SOC addresses for memory mapped SOC registers.
- bus-frequency: Contains the bus frequency for the SOC node.
translation of SoC addresses for memory mapped SoC registers.
- bus-frequency: Contains the bus frequency for the SoC node.
Typically, the value of this field is filled in by the boot
loader.
- compatible : Exact model of the SoC
Recommended properties:
......@@ -1155,12 +1096,13 @@ while all this has been defined and implemented.
- An example of code for iterating nodes & retrieving properties
directly from the flattened tree format can be found in the kernel
file arch/ppc64/kernel/prom.c, look at scan_flat_dt() function,
file drivers/of/fdt.c. Look at the of_scan_flat_dt() function,
its usage in early_init_devtree(), and the corresponding various
early_init_dt_scan_*() callbacks. That code can be re-used in a
GPL bootloader, and as the author of that code, I would be happy
to discuss possible free licensing to any vendor who wishes to
integrate all or part of this code into a non-GPL bootloader.
(reference needed; who is 'I' here? ---gcl Jan 31, 2011)
......@@ -1203,18 +1145,19 @@ MPC8540.
2) Representing devices without a current OF specification
----------------------------------------------------------
Currently, there are many devices on SOCs that do not have a standard
representation pre-defined as part of the open firmware
specifications, mainly because the boards that contain these SOCs are
not currently booted using open firmware. This section contains
descriptions for the SOC devices for which new nodes have been
defined; this list will expand as more and more SOC-containing
platforms are moved over to use the flattened-device-tree model.
Currently, there are many devices on SoCs that do not have a standard
representation defined as part of the Open Firmware specifications,
mainly because the boards that contain these SoCs are not currently
booted using Open Firmware. Binding documentation for new devices
should be added to the Documentation/devicetree/bindings directory.
That directory will expand as device tree support is added to more and
more SoCs.
VII - Specifying interrupt information for devices
===================================================
The device tree represents the busses and devices of a hardware
The device tree represents the buses and devices of a hardware
system in a form similar to the physical bus topology of the
hardware.
......
......@@ -51,7 +51,8 @@ Supported chips:
* JEDEC JC 42.4 compliant temperature sensor chips
Prefix: 'jc42'
Addresses scanned: I2C 0x18 - 0x1f
Datasheet: -
Datasheet:
http://www.jedec.org/sites/default/files/docs/4_01_04R19.pdf
Author:
Guenter Roeck <guenter.roeck@ericsson.com>
......@@ -60,7 +61,11 @@ Author:
Description
-----------
This driver implements support for JEDEC JC 42.4 compliant temperature sensors.
This driver implements support for JEDEC JC 42.4 compliant temperature sensors,
which are used on many DDR3 memory modules for mobile devices and servers. Some
systems use the sensor to prevent memory overheating by automatically throttling
the memory controller.
The driver auto-detects the chips listed above, but can be manually instantiated
to support other JC 42.4 compliant chips.
......@@ -81,15 +86,19 @@ limits. The chip supports only a single register to configure the hysteresis,
which applies to all limits. This register can be written by writing into
temp1_crit_hyst. Other hysteresis attributes are read-only.
If the BIOS has configured the sensor for automatic temperature management, it
is likely that it has locked the registers, i.e., that the temperature limits
cannot be changed.
Sysfs entries
-------------
temp1_input Temperature (RO)
temp1_min Minimum temperature (RW)
temp1_max Maximum temperature (RW)
temp1_crit Critical high temperature (RW)
temp1_min Minimum temperature (RO or RW)
temp1_max Maximum temperature (RO or RW)
temp1_crit Critical high temperature (RO or RW)
temp1_crit_hyst Critical hysteresis temperature (RW)
temp1_crit_hyst Critical hysteresis temperature (RO or RW)
temp1_max_hyst Maximum hysteresis temperature (RO)
temp1_min_alarm Temperature low alarm
......
......@@ -9,6 +9,8 @@ Supported chips:
Socket S1G3: Athlon II, Sempron, Turion II
* AMD Family 11h processors:
Socket S1G2: Athlon (X2), Sempron (X2), Turion X2 (Ultra)
* AMD Family 12h processors: "Llano"
* AMD Family 14h processors: "Brazos" (C/E/G-Series)
Prefix: 'k10temp'
Addresses scanned: PCI space
......@@ -17,10 +19,14 @@ Supported chips:
http://support.amd.com/us/Processor_TechDocs/31116.pdf
BIOS and Kernel Developer's Guide (BKDG) for AMD Family 11h Processors:
http://support.amd.com/us/Processor_TechDocs/41256.pdf
BIOS and Kernel Developer's Guide (BKDG) for AMD Family 14h Models 00h-0Fh Processors:
http://support.amd.com/us/Processor_TechDocs/43170.pdf
Revision Guide for AMD Family 10h Processors:
http://support.amd.com/us/Processor_TechDocs/41322.pdf
Revision Guide for AMD Family 11h Processors:
http://support.amd.com/us/Processor_TechDocs/41788.pdf
Revision Guide for AMD Family 14h Models 00h-0Fh Processors:
http://support.amd.com/us/Processor_TechDocs/47534.pdf
AMD Family 11h Processor Power and Thermal Data Sheet for Notebooks:
http://support.amd.com/us/Processor_TechDocs/43373.pdf
AMD Family 10h Server and Workstation Processor Power and Thermal Data Sheet:
......@@ -34,7 +40,7 @@ Description
-----------
This driver permits reading of the internal temperature sensor of AMD
Family 10h and 11h processors.
Family 10h/11h/12h/14h processors.
All these processors have a sensor, but on those for Socket F or AM2+,
the sensor may return inconsistent values (erratum 319). The driver
......
......@@ -144,6 +144,11 @@ a fixed number of characters. This limit depends on the architecture
and is between 256 and 4096 characters. It is defined in the file
./include/asm/setup.h as COMMAND_LINE_SIZE.
Finally, the [KMG] suffix is commonly described after a number of kernel
parameter values. These 'K', 'M', and 'G' letters represent the _binary_
multipliers 'Kilo', 'Mega', and 'Giga', equalling 2^10, 2^20, and 2^30
bytes respectively. Such letter suffixes can also be entirely omitted.
acpi= [HW,ACPI,X86]
Advanced Configuration and Power Interface
......@@ -545,16 +550,20 @@ and is between 256 and 4096 characters. It is defined in the file
Format:
<first_slot>,<last_slot>,<port>,<enum_bit>[,<debug>]
crashkernel=nn[KMG]@ss[KMG]
[KNL] Reserve a chunk of physical memory to
hold a kernel to switch to with kexec on panic.
crashkernel=size[KMG][@offset[KMG]]
[KNL] Using kexec, Linux can switch to a 'crash kernel'
upon panic. This parameter reserves the physical
memory region [offset, offset + size] for that kernel
image. If '@offset' is omitted, then a suitable offset
is selected automatically. Check
Documentation/kdump/kdump.txt for further details.
crashkernel=range1:size1[,range2:size2,...][@offset]
[KNL] Same as above, but depends on the memory
in the running system. The syntax of range is
start-[end] where start and end are both
a memory unit (amount[KMG]). See also
Documentation/kdump/kdump.txt for a example.
Documentation/kdump/kdump.txt for an example.
cs89x0_dma= [HW,NET]
Format: <dma>
......@@ -1262,10 +1271,9 @@ and is between 256 and 4096 characters. It is defined in the file
6 (KERN_INFO) informational
7 (KERN_DEBUG) debug-level messages
log_buf_len=n Sets the size of the printk ring buffer, in bytes.
Format: { n | nk | nM }
n must be a power of two. The default size
is set in the kernel config file.
log_buf_len=n[KMG] Sets the size of the printk ring buffer,
in bytes. n must be a power of two. The default
size is set in the kernel config file.
logo.nologo [FB] Disables display of the built-in Linux logo.
This may be used to provide more screen space for
......
......@@ -4,6 +4,8 @@ obj- := dummy.o
# List of programs to build
hostprogs-y := ifenslave
HOSTCFLAGS_ifenslave.o += -I$(objtree)/usr/include
# Tell kbuild to always build the programs
always := $(hostprogs-y)
......
......@@ -190,9 +190,9 @@ resources, scheduled and executed.
* Long running CPU intensive workloads which can be better
managed by the system scheduler.
WQ_FREEZEABLE
WQ_FREEZABLE
A freezeable wq participates in the freeze phase of the system
A freezable wq participates in the freeze phase of the system
suspend operations. Work items on the wq are drained and no
new work item starts execution until thawed.
......
......@@ -885,7 +885,7 @@ S: Supported
ARM/QUALCOMM MSM MACHINE SUPPORT
M: David Brown <davidb@codeaurora.org>
M: Daniel Walker <dwalker@codeaurora.org>
M: Daniel Walker <dwalker@fifo99.com>
M: Bryan Huntsman <bryanh@codeaurora.org>
L: linux-arm-msm@vger.kernel.org
F: arch/arm/mach-msm/
......@@ -2126,6 +2126,7 @@ S: Supported
F: fs/dlm/
DMA GENERIC OFFLOAD ENGINE SUBSYSTEM
M: Vinod Koul <vinod.koul@intel.com>
M: Dan Williams <dan.j.williams@intel.com>
S: Supported
F: drivers/dma/
......@@ -2774,6 +2775,15 @@ F: Documentation/isdn/README.gigaset
F: drivers/isdn/gigaset/
F: include/linux/gigaset_dev.h
GPIO SUBSYSTEM
M: Grant Likely <grant.likely@secretlab.ca>
L: linux-kernel@vger.kernel.org
S: Maintained
T: git git://git.secretlab.ca/git/linux-2.6.git
F: Documentation/gpio/gpio.txt
F: drivers/gpio/
F: include/linux/gpio*
GRETH 10/100/1G Ethernet MAC device driver
M: Kristoffer Glembo <kristoffer@gaisler.com>
L: netdev@vger.kernel.org
......@@ -2863,7 +2873,6 @@ M: Guenter Roeck <guenter.roeck@ericsson.com>
L: lm-sensors@lm-sensors.org
W: http://www.lm-sensors.org/
T: quilt kernel.org/pub/linux/kernel/people/jdelvare/linux-2.6/jdelvare-hwmon/
T: quilt kernel.org/pub/linux/kernel/people/groeck/linux-staging/
T: git git://git.kernel.org/pub/scm/linux/kernel/git/groeck/linux-staging.git
S: Maintained
F: Documentation/hwmon/
......@@ -4591,7 +4600,7 @@ F: drivers/i2c/busses/i2c-ocores.c
OPEN FIRMWARE AND FLATTENED DEVICE TREE
M: Grant Likely <grant.likely@secretlab.ca>
L: devicetree-discuss@lists.ozlabs.org
L: devicetree-discuss@lists.ozlabs.org (moderated for non-subscribers)
W: http://fdt.secretlab.ca
T: git git://git.secretlab.ca/git/linux-2.6.git
S: Maintained
......
VERSION = 2
PATCHLEVEL = 6
SUBLEVEL = 38
EXTRAVERSION = -rc4
EXTRAVERSION = -rc6
NAME = Flesh-Eating Bats with Fangs
# *DOCUMENTATION*
......
......@@ -1177,6 +1177,31 @@ config ARM_ERRATA_743622
visible impact on the overall performance or power consumption of the
processor.
config ARM_ERRATA_751472
bool "ARM errata: Interrupted ICIALLUIS may prevent completion of broadcasted operation"
depends on CPU_V7 && SMP
help
This option enables the workaround for the 751472 Cortex-A9 (prior
to r3p0) erratum. An interrupted ICIALLUIS operation may prevent the
completion of a following broadcasted operation if the second
operation is received by a CPU before the ICIALLUIS has completed,
potentially leading to corrupted entries in the cache or TLB.
config ARM_ERRATA_753970
bool "ARM errata: cache sync operation may be faulty"
depends on CACHE_PL310
help
This option enables the workaround for the 753970 PL310 (r3p0) erratum.
Under some condition the effect of cache sync operation on
the store buffer still remains when the operation completes.
This means that the store buffer is always asked to drain and
this prevents it from merging any further writes. The workaround
is to replace the normal offset of cache sync operation (0x730)
by another offset targeting an unmapped PL310 register 0x740.
This has the same effect as the cache sync operation: store buffer
drain and waiting for all buffers empty.
endmenu
source "arch/arm/common/Kconfig"
......@@ -1391,7 +1416,7 @@ config AEABI
config OABI_COMPAT
bool "Allow old ABI binaries to run with this kernel (EXPERIMENTAL)"
depends on AEABI && EXPERIMENTAL
depends on AEABI && EXPERIMENTAL && !THUMB2_KERNEL
default y
help
This option preserves the old syscall interface along with the
......
......@@ -15,7 +15,7 @@ ifeq ($(CONFIG_CPU_ENDIAN_BE8),y)
LDFLAGS_vmlinux += --be8
endif
OBJCOPYFLAGS :=-O binary -R .note -R .note.gnu.build-id -R .comment -S
OBJCOPYFLAGS :=-O binary -R .comment -S
GZFLAGS :=-9
#KBUILD_CFLAGS +=-pipe
# Explicitly specifiy 32-bit ARM ISA since toolchain default can be -mthumb:
......
font.c
piggy.gz
lib1funcs.S
piggy.gzip
piggy.lzo
piggy.lzma
vmlinux
vmlinux.lds
......@@ -36,6 +36,7 @@
#define L2X0_RAW_INTR_STAT 0x21C
#define L2X0_INTR_CLEAR 0x220
#define L2X0_CACHE_SYNC 0x730
#define L2X0_DUMMY_REG 0x740
#define L2X0_INV_LINE_PA 0x770
#define L2X0_INV_WAY 0x77C
#define L2X0_CLEAN_LINE_PA 0x7B0
......
......@@ -58,6 +58,9 @@
static inline void sysctl_soft_reset(void __iomem *base)
{
/* switch to slow mode */
writel(0x2, base + SCCTRL);
/* writing any value to SCSYSSTAT reg will reset system */
writel(0, base + SCSYSSTAT);
}
......
......@@ -18,16 +18,34 @@
#define __ASMARM_TLB_H
#include <asm/cacheflush.h>
#include <asm/tlbflush.h>
#ifndef CONFIG_MMU
#include <linux/pagemap.h>
#define tlb_flush(tlb) ((void) tlb)
#include <asm-generic/tlb.h>
#else /* !CONFIG_MMU */
#include <linux/swap.h>
#include <asm/pgalloc.h>
#include <asm/tlbflush.h>
/*
* We need to delay page freeing for SMP as other CPUs can access pages
* which have been removed but not yet had their TLB entries invalidated.
* Also, as ARMv7 speculative prefetch can drag new entries into the TLB,
* we need to apply this same delaying tactic to ensure correct operation.
*/
#if defined(CONFIG_SMP) || defined(CONFIG_CPU_32v7)
#define tlb_fast_mode(tlb) 0
#define FREE_PTE_NR 500
#else
#define tlb_fast_mode(tlb) 1
#define FREE_PTE_NR 0
#endif
/*
* TLB handling. This allows us to remove pages from the page
......@@ -36,12 +54,58 @@
struct mmu_gather {
struct mm_struct *mm;
unsigned int fullmm;
struct vm_area_struct *vma;
unsigned long range_start;
unsigned long range_end;
unsigned int nr;
struct page *pages[FREE_PTE_NR];
};
DECLARE_PER_CPU(struct mmu_gather, mmu_gathers);
/*
* This is unnecessarily complex. There's three ways the TLB shootdown
* code is used:
* 1. Unmapping a range of vmas. See zap_page_range(), unmap_region().
* tlb->fullmm = 0, and tlb_start_vma/tlb_end_vma will be called.
* tlb->vma will be non-NULL.
* 2. Unmapping all vmas. See exit_mmap().
* tlb->fullmm = 1, and tlb_start_vma/tlb_end_vma will be called.
* tlb->vma will be non-NULL. Additionally, page tables will be freed.
* 3. Unmapping argument pages. See shift_arg_pages().
* tlb->fullmm = 0, but tlb_start_vma/tlb_end_vma will not be called.
* tlb->vma will be NULL.
*/
static inline void tlb_flush(struct mmu_gather *tlb)
{
if (tlb->fullmm || !tlb->vma)
flush_tlb_mm(tlb->mm);
else if (tlb->range_end > 0) {
flush_tlb_range(tlb->vma, tlb->range_start, tlb->range_end);
tlb->range_start = TASK_SIZE;
tlb->range_end = 0;
}
}
static inline void tlb_add_flush(struct mmu_gather *tlb, unsigned long addr)
{
if (!tlb->fullmm) {
if (addr < tlb->range_start)
tlb->range_start = addr;
if (addr + PAGE_SIZE > tlb->range_end)
tlb->range_end = addr + PAGE_SIZE;
}
}
static inline void tlb_flush_mmu(struct mmu_gather *tlb)
{
tlb_flush(tlb);
if (!tlb_fast_mode(tlb)) {
free_pages_and_swap_cache(tlb->pages, tlb->nr);
tlb->nr = 0;
}
}
static inline struct mmu_gather *
tlb_gather_mmu(struct mm_struct *mm, unsigned int full_mm_flush)
{
......@@ -49,6 +113,8 @@ tlb_gather_mmu(struct mm_struct *mm, unsigned int full_mm_flush)
tlb->mm = mm;
tlb->fullmm = full_mm_flush;
tlb->vma = NULL;
tlb->nr = 0;
return tlb;
}
......@@ -56,8 +122,7 @@ tlb_gather_mmu(struct mm_struct *mm, unsigned int full_mm_flush)
static inline void
tlb_finish_mmu(struct mmu_gather *tlb, unsigned long start, unsigned long end)
{
if (tlb->fullmm)
flush_tlb_mm(tlb->mm);
tlb_flush_mmu(tlb);
/* keep the page table cache within bounds */
check_pgt_cache();
......@@ -71,12 +136,7 @@ tlb_finish_mmu(struct mmu_gather *tlb, unsigned long start, unsigned long end)
static inline void
tlb_remove_tlb_entry(struct mmu_gather *tlb, pte_t *ptep, unsigned long addr)
{
if (!tlb->fullmm) {
if (addr < tlb->range_start)
tlb->range_start = addr;
if (addr + PAGE_SIZE > tlb->range_end)
tlb->range_end = addr + PAGE_SIZE;
}
tlb_add_flush(tlb, addr);
}
/*
......@@ -89,6 +149,7 @@ tlb_start_vma(struct mmu_gather *tlb, struct vm_area_struct *vma)
{
if (!tlb->fullmm) {
flush_cache_range(vma, vma->vm_start, vma->vm_end);
tlb->vma = vma;
tlb->range_start = TASK_SIZE;
tlb->range_end = 0;
}
......@@ -97,12 +158,30 @@ tlb_start_vma(struct mmu_gather *tlb, struct vm_area_struct *vma)
static inline void
tlb_end_vma(struct mmu_gather *tlb, struct vm_area_struct *vma)
{
if (!tlb->fullmm && tlb->range_end > 0)
flush_tlb_range(vma, tlb->range_start, tlb->range_end);
if (!tlb->fullmm)
tlb_flush(tlb);
}
static inline void tlb_remove_page(struct mmu_gather *tlb, struct page *page)
{
if (tlb_fast_mode(tlb)) {
free_page_and_swap_cache(page);
} else {
tlb->pages[tlb->nr++] = page;
if (tlb->nr >= FREE_PTE_NR)
tlb_flush_mmu(tlb);
}
}
static inline void __pte_free_tlb(struct mmu_gather *tlb, pgtable_t pte,
unsigned long addr)
{
pgtable_page_dtor(pte);
tlb_add_flush(tlb, addr);
tlb_remove_page(tlb, pte);
}
#define tlb_remove_page(tlb,page) free_page_and_swap_cache(page)
#define pte_free_tlb(tlb, ptep, addr) pte_free((tlb)->mm, ptep)
#define pte_free_tlb(tlb, ptep, addr) __pte_free_tlb(tlb, ptep, addr)
#define pmd_free_tlb(tlb, pmdp, addr) pmd_free((tlb)->mm, pmdp)
#define tlb_migrate_finish(mm) do { } while (0)
......
......@@ -10,12 +10,7 @@
#ifndef _ASMARM_TLBFLUSH_H
#define _ASMARM_TLBFLUSH_H
#ifndef CONFIG_MMU
#define tlb_flush(tlb) ((void) tlb)
#else /* CONFIG_MMU */
#ifdef CONFIG_MMU
#include <asm/glue.h>
......
......@@ -391,6 +391,7 @@ ENDPROC(__turn_mmu_on)
#ifdef CONFIG_SMP_ON_UP
__INIT
__fixup_smp:
and r3, r9, #0x000f0000 @ architecture version
teq r3, #0x000f0000 @ CPU ID supported?
......@@ -415,18 +416,7 @@ __fixup_smp_on_up:
sub r3, r0, r3
add r4, r4, r3
add r5, r5, r3
2: cmp r4, r5
movhs pc, lr
ldmia r4!, {r0, r6}
ARM( str r6, [r0, r3] )
THUMB( add r0, r0, r3 )
#ifdef __ARMEB__
THUMB( mov r6, r6, ror #16 ) @ Convert word order for big-endian.
#endif
THUMB( strh r6, [r0], #2 ) @ For Thumb-2, store as two halfwords
THUMB( mov r6, r6, lsr #16 ) @ to be robust against misaligned r3.
THUMB( strh r6, [r0] )
b 2b
b __do_fixup_smp_on_up
ENDPROC(__fixup_smp)
.align
......@@ -440,7 +430,31 @@ smp_on_up:
ALT_SMP(.long 1)
ALT_UP(.long 0)
.popsection
#endif
.text
__do_fixup_smp_on_up:
cmp r4, r5
movhs pc, lr
ldmia r4!, {r0, r6}
ARM( str r6, [r0, r3] )
THUMB( add r0, r0, r3 )
#ifdef __ARMEB__
THUMB( mov r6, r6, ror #16 ) @ Convert word order for big-endian.
#endif
THUMB( strh r6, [r0], #2 ) @ For Thumb-2, store as two halfwords
THUMB( mov r6, r6, lsr #16 ) @ to be robust against misaligned r3.
THUMB( strh r6, [r0] )
b __do_fixup_smp_on_up
ENDPROC(__do_fixup_smp_on_up)
ENTRY(fixup_smp)
stmfd sp!, {r4 - r6, lr}
mov r4, r0
add r5, r0, r1
mov r3, #0
bl __do_fixup_smp_on_up
ldmfd sp!, {r4 - r6, pc}
ENDPROC(fixup_smp)
#include "head-common.S"
......@@ -137,11 +137,10 @@ static u8 get_debug_arch(void)
u32 didr;
/* Do we implement the extended CPUID interface? */
if (((read_cpuid_id() >> 16) & 0xf) != 0xf) {
pr_warning("CPUID feature registers not supported. "
"Assuming v6 debug is present.\n");
if (WARN_ONCE((((read_cpuid_id() >> 16) & 0xf) != 0xf),
"CPUID feature registers not supported. "
"Assuming v6 debug is present.\n"))
return ARM_DEBUG_ARCH_V6;
}
ARM_DBG_READ(c0, 0, didr);
return (didr >> 16) & 0xf;
......@@ -152,6 +151,12 @@ u8 arch_get_debug_arch(void)
return debug_arch;
}
static int debug_arch_supported(void)
{
u8 arch = get_debug_arch();
return arch >= ARM_DEBUG_ARCH_V6 && arch <= ARM_DEBUG_ARCH_V7_ECP14;
}
/* Determine number of BRP register available. */
static int get_num_brp_resources(void)
{
......@@ -268,6 +273,9 @@ static int enable_monitor_mode(void)
int hw_breakpoint_slots(int type)
{
if (!debug_arch_supported())
return 0;
/*
* We can be called early, so don't rely on
* our static variables being initialised.
......@@ -834,11 +842,11 @@ static void reset_ctrl_regs(void *unused)
/*
* v7 debug contains save and restore registers so that debug state
* can be maintained across low-power modes without leaving
* the debug logic powered up. It is IMPLEMENTATION DEFINED whether
* we can write to the debug registers out of reset, so we must
* unlock the OS Lock Access Register to avoid taking undefined
* instruction exceptions later on.
* can be maintained across low-power modes without leaving the debug
* logic powered up. It is IMPLEMENTATION DEFINED whether we can access
* the debug registers out of reset, so we must unlock the OS Lock
* Access Register to avoid taking undefined instruction exceptions
* later on.
*/
if (debug_arch >= ARM_DEBUG_ARCH_V7_ECP14) {
/*
......@@ -882,7 +890,7 @@ static int __init arch_hw_breakpoint_init(void)
debug_arch = get_debug_arch();
if (debug_arch > ARM_DEBUG_ARCH_V7_ECP14) {
if (!debug_arch_supported()) {
pr_info("debug architecture 0x%x unsupported.\n", debug_arch);
return 0;
}
......@@ -899,18 +907,18 @@ static int __init arch_hw_breakpoint_init(void)
pr_info("%d breakpoint(s) reserved for watchpoint "
"single-step.\n", core_num_reserved_brps);
/*
* Reset the breakpoint resources. We assume that a halting
* debugger will leave the world in a nice state for us.
*/
on_each_cpu(reset_ctrl_regs, NULL, 1);
ARM_DBG_READ(c1, 0, dscr);
if (dscr & ARM_DSCR_HDBGEN) {
max_watchpoint_len = 4;
pr_warning("halting debug mode enabled. Assuming maximum "
"watchpoint size of 4 bytes.");
"watchpoint size of %u bytes.", max_watchpoint_len);
} else {
/*
* Reset the breakpoint resources. We assume that a halting
* debugger will leave the world in a nice state for us.
*/
smp_call_function(reset_ctrl_regs, NULL, 1);
reset_ctrl_regs(NULL);
/* Work out the maximum supported watchpoint length. */
max_watchpoint_len = get_max_wp_len();
pr_info("maximum watchpoint size is %u bytes.\n",
......
......@@ -1437,7 +1437,7 @@ arm_kprobe_decode_insn(kprobe_opcode_t insn, struct arch_specific_insn *asi)
return space_cccc_1100_010x(insn, asi);
} else if ((insn & 0x0e000000) == 0x0c400000) {
} else if ((insn & 0x0e000000) == 0x0c000000) {
return space_cccc_110x(insn, asi);
......
......@@ -22,6 +22,7 @@
#include <asm/pgtable.h>
#include <asm/sections.h>
#include <asm/smp_plat.h>
#include <asm/unwind.h>
#ifdef CONFIG_XIP_KERNEL
......@@ -268,12 +269,28 @@ struct mod_unwind_map {
const Elf_Shdr *txt_sec;
};
static const Elf_Shdr *find_mod_section(const Elf32_Ehdr *hdr,
const Elf_Shdr *sechdrs, const char *name)
{
const Elf_Shdr *s, *se;
const char *secstrs = (void *)hdr + sechdrs[hdr->e_shstrndx].sh_offset;
for (s = sechdrs, se = sechdrs + hdr->e_shnum; s < se; s++)
if (strcmp(name, secstrs + s->sh_name) == 0)
return s;
return NULL;
}
extern void fixup_smp(const void *, unsigned long);
int module_finalize(const Elf32_Ehdr *hdr, const Elf_Shdr *sechdrs,
struct module *mod)
{
const Elf_Shdr * __maybe_unused s = NULL;
#ifdef CONFIG_ARM_UNWIND
const char *secstrs = (void *)hdr + sechdrs[hdr->e_shstrndx].sh_offset;
const Elf_Shdr *s, *sechdrs_end = sechdrs + hdr->e_shnum;
const Elf_Shdr *sechdrs_end = sechdrs + hdr->e_shnum;
struct mod_unwind_map maps[ARM_SEC_MAX];
int i;
......@@ -315,6 +332,9 @@ int module_finalize(const Elf32_Ehdr *hdr, const Elf_Shdr *sechdrs,
maps[i].txt_sec->sh_addr,
maps[i].txt_sec->sh_size);
#endif
s = find_mod_section(hdr, sechdrs, ".alt.smp.init");
if (s && !is_smp())
fixup_smp((void *)s->sh_addr, s->sh_size);
return 0;
}
......
......@@ -700,7 +700,7 @@ user_backtrace(struct frame_tail __user *tail,
* Frame pointers should strictly progress back up the stack
* (towards higher addresses).
*/
if (tail >= buftail.fp)
if (tail + 1 >= buftail.fp)
return NULL;
return buftail.fp - 1;
......
......@@ -97,28 +97,34 @@ set_irq_affinity(int irq,
irq, cpu);
return err;
#else
return 0;
return -EINVAL;
#endif
}
static int
init_cpu_pmu(void)
{
int i, err = 0;
int i, irqs, err = 0;
struct platform_device *pdev = pmu_devices[ARM_PMU_DEVICE_CPU];
if (!pdev) {
err = -ENODEV;
goto out;
}
if (!pdev)
return -ENODEV;
irqs = pdev->num_resources;
/*
* If we have a single PMU interrupt that we can't shift, assume that
* we're running on a uniprocessor machine and continue.
*/
if (irqs == 1 && !irq_can_set_affinity(platform_get_irq(pdev, 0)))
return 0;
for (i = 0; i < pdev->num_resources; ++i) {
for (i = 0; i < irqs; ++i) {
err = set_irq_affinity(platform_get_irq(pdev, i), i);
if (err)
break;
}
out:
return err;
}
......
......@@ -226,8 +226,8 @@ int cpu_architecture(void)
* Register 0 and check for VMSAv7 or PMSAv7 */
asm("mrc p15, 0, %0, c0, c1, 4"
: "=r" (mmfr0));
if ((mmfr0 & 0x0000000f) == 0x00000003 ||
(mmfr0 & 0x000000f0) == 0x00000030)
if ((mmfr0 & 0x0000000f) >= 0x00000003 ||
(mmfr0 & 0x000000f0) >= 0x00000030)
cpu_arch = CPU_ARCH_ARMv7;
else if ((mmfr0 & 0x0000000f) == 0x00000002 ||
(mmfr0 & 0x000000f0) == 0x00000020)
......
......@@ -474,7 +474,9 @@ setup_return(struct pt_regs *regs, struct k_sigaction *ka,
unsigned long handler = (unsigned long)ka->sa.sa_handler;
unsigned long retcode;
int thumb = 0;
unsigned long cpsr = regs->ARM_cpsr & ~PSR_f;
unsigned long cpsr = regs->ARM_cpsr & ~(PSR_f | PSR_E_BIT);
cpsr |= PSR_ENDSTATE;
/*
* Maybe we need to deliver a 32-bit signal to a 26-bit task.
......
......@@ -21,6 +21,12 @@
#define ARM_CPU_KEEP(x)
#endif
#if defined(CONFIG_SMP_ON_UP) && !defined(CONFIG_DEBUG_SPINLOCK)
#define ARM_EXIT_KEEP(x) x
#else
#define ARM_EXIT_KEEP(x)
#endif
OUTPUT_ARCH(arm)
ENTRY(stext)
......@@ -43,6 +49,7 @@ SECTIONS
_sinittext = .;
HEAD_TEXT
INIT_TEXT
ARM_EXIT_KEEP(EXIT_TEXT)
_einittext = .;
ARM_CPU_DISCARD(PROC_INFO)
__arch_info_begin = .;
......@@ -67,6 +74,7 @@ SECTIONS
#ifndef CONFIG_XIP_KERNEL
__init_begin = _stext;
INIT_DATA
ARM_EXIT_KEEP(EXIT_DATA)
#endif
}
......@@ -162,6 +170,7 @@ SECTIONS
. = ALIGN(PAGE_SIZE);
__init_begin = .;
INIT_DATA
ARM_EXIT_KEEP(EXIT_DATA)
. = ALIGN(PAGE_SIZE);
__init_end = .;
#endif
......@@ -247,6 +256,8 @@ SECTIONS
}
#endif
NOTES
BSS_SECTION(0, 0, 0)
_end = .;
......
......@@ -50,7 +50,7 @@ static void __init colibri_mmc_init(void)
GPIO0_COLIBRI_PXA270_SD_DETECT;
if (machine_is_colibri300()) /* PXA300 Colibri */
colibri_mci_platform_data.gpio_card_detect =
GPIO39_COLIBRI_PXA300_SD_DETECT;
GPIO13_COLIBRI_PXA300_SD_DETECT;
else /* PXA320 Colibri */
colibri_mci_platform_data.gpio_card_detect =
GPIO28_COLIBRI_PXA320_SD_DETECT;
......
......@@ -41,7 +41,7 @@ static mfp_cfg_t colibri_pxa300_evalboard_pin_config[] __initdata = {
GPIO4_MMC1_DAT1,
GPIO5_MMC1_DAT2,
GPIO6_MMC1_DAT3,
GPIO39_GPIO, /* SD detect */
GPIO13_GPIO, /* GPIO13_COLIBRI_PXA300_SD_DETECT */
/* UHC */
GPIO0_2_USBH_PEN,
......
......@@ -60,7 +60,7 @@ static inline void colibri_pxa3xx_init_nand(void) {}
#define GPIO113_COLIBRI_PXA270_TS_IRQ 113
/* GPIO definitions for Colibri PXA300/310 */
#define GPIO39_COLIBRI_PXA300_SD_DETECT 39
#define GPIO13_COLIBRI_PXA300_SD_DETECT 13
/* GPIO definitions for Colibri PXA320 */
#define GPIO28_COLIBRI_PXA320_SD_DETECT 28
......
......@@ -323,7 +323,7 @@ static struct platform_pwm_backlight_data palm27x_backlight_data = {
.pwm_id = 0,
.max_brightness = 0xfe,
.dft_brightness = 0x7e,
.pwm_period_ns = 3500,
.pwm_period_ns = 3500 * 1024,
.init = palm27x_backlight_init,
.notify = palm27x_backlight_notify,
.exit = palm27x_backlight_exit,
......
......@@ -33,7 +33,7 @@ int pxa_pm_enter(suspend_state_t state)
#endif
/* skip registers saving for standby */
if (state != PM_SUSPEND_STANDBY) {
if (state != PM_SUSPEND_STANDBY && pxa_cpu_pm_fns->save) {
pxa_cpu_pm_fns->save(sleep_save);
/* before sleeping, calculate and save a checksum */
for (i = 0; i < pxa_cpu_pm_fns->save_count - 1; i++)
......@@ -44,7 +44,7 @@ int pxa_pm_enter(suspend_state_t state)
pxa_cpu_pm_fns->enter(state);
cpu_init();
if (state != PM_SUSPEND_STANDBY) {
if (state != PM_SUSPEND_STANDBY && pxa_cpu_pm_fns->restore) {
/* after sleeping, validate the checksum */
for (i = 0; i < pxa_cpu_pm_fns->save_count - 1; i++)
checksum += sleep_save[i];
......
/* linux/arch/arm/mach-s5p6442/include/mach/map.h
*
* Copyright (c) 2010 Samsung Electronics Co., Ltd.
* Copyright (c) 2010-2011 Samsung Electronics Co., Ltd.
* http://www.samsung.com/
*
* S5P6442 - Memory map definitions
......@@ -16,56 +16,61 @@
#include <plat/map-base.h>
#include <plat/map-s5p.h>
#define S5P6442_PA_CHIPID (0xE0000000)
#define S5P_PA_CHIPID S5P6442_PA_CHIPID
#define S5P6442_PA_SDRAM 0x20000000
#define S5P6442_PA_SYSCON (0xE0100000)
#define S5P_PA_SYSCON S5P6442_PA_SYSCON
#define S5P6442_PA_I2S0 0xC0B00000
#define S5P6442_PA_I2S1 0xF2200000
#define S5P6442_PA_GPIO (0xE0200000)
#define S5P6442_PA_CHIPID 0xE0000000
#define S5P6442_PA_VIC0 (0xE4000000)
#define S5P6442_PA_VIC1 (0xE4100000)
#define S5P6442_PA_VIC2 (0xE4200000)
#define S5P6442_PA_SYSCON 0xE0100000
#define S5P6442_PA_SROMC (0xE7000000)
#define S5P_PA_SROMC S5P6442_PA_SROMC
#define S5P6442_PA_GPIO 0xE0200000
#define S5P6442_PA_MDMA 0xE8000000
#define S5P6442_PA_PDMA 0xE9000000
#define S5P6442_PA_VIC0 0xE4000000
#define S5P6442_PA_VIC1 0xE4100000
#define S5P6442_PA_VIC2 0xE4200000
#define S5P6442_PA_TIMER (0xEA000000)
#define S5P_PA_TIMER S5P6442_PA_TIMER
#define S5P6442_PA_SROMC 0xE7000000
#define S5P6442_PA_SYSTIMER (0xEA100000)
#define S5P6442_PA_MDMA 0xE8000000
#define S5P6442_PA_PDMA 0xE9000000
#define S5P6442_PA_WATCHDOG (0xEA200000)
#define S5P6442_PA_TIMER 0xEA000000
#define S5P6442_PA_UART (0xEC000000)
#define S5P6442_PA_SYSTIMER 0xEA100000
#define S5P_PA_UART0 (S5P6442_PA_UART + 0x0)
#define S5P_PA_UART1 (S5P6442_PA_UART + 0x400)
#define S5P_PA_UART2 (S5P6442_PA_UART + 0x800)
#define S5P_SZ_UART SZ_256
#define S5P6442_PA_WATCHDOG 0xEA200000
#define S5P6442_PA_IIC0 (0xEC100000)
#define S5P6442_PA_UART 0xEC000000
#define S5P6442_PA_SDRAM (0x20000000)
#define S5P_PA_SDRAM S5P6442_PA_SDRAM
#define S5P6442_PA_IIC0 0xEC100000
#define S5P6442_PA_SPI 0xEC300000
/* I2S */
#define S5P6442_PA_I2S0 0xC0B00000
#define S5P6442_PA_I2S1 0xF2200000
/* PCM */
#define S5P6442_PA_PCM0 0xF2400000
#define S5P6442_PA_PCM1 0xF2500000
/* compatibiltiy defines. */
/* Compatibiltiy Defines */
#define S3C_PA_IIC S5P6442_PA_IIC0
#define S3C_PA_WDT S5P6442_PA_WATCHDOG
#define S5P_PA_CHIPID S5P6442_PA_CHIPID
#define S5P_PA_SDRAM S5P6442_PA_SDRAM
#define S5P_PA_SROMC S5P6442_PA_SROMC
#define S5P_PA_SYSCON S5P6442_PA_SYSCON
#define S5P_PA_TIMER S5P6442_PA_TIMER
/* UART */
#define S3C_PA_UART S5P6442_PA_UART
#define S3C_PA_IIC S5P6442_PA_IIC0
#define S5P_PA_UART(x) (S3C_PA_UART + ((x) * S3C_UART_OFFSET))
#define S5P_PA_UART0 S5P_PA_UART(0)
#define S5P_PA_UART1 S5P_PA_UART(1)
#define S5P_PA_UART2 S5P_PA_UART(2)
#define S5P_SZ_UART SZ_256
#endif /* __ASM_ARCH_MAP_H */
/* linux/arch/arm/mach-s5p64x0/include/mach/map.h
*
* Copyright (c) 2009-2010 Samsung Electronics Co., Ltd.
* Copyright (c) 2009-2011 Samsung Electronics Co., Ltd.
* http://www.samsung.com
*
* S5P64X0 - Memory map definitions
......@@ -16,64 +16,46 @@
#include <plat/map-base.h>
#include <plat/map-s5p.h>
#define S5P64X0_PA_SDRAM (0x20000000)
#define S5P64X0_PA_SDRAM 0x20000000
#define S5P64X0_PA_CHIPID (0xE0000000)
#define S5P_PA_CHIPID S5P64X0_PA_CHIPID
#define S5P64X0_PA_SYSCON (0xE0100000)
#define S5P_PA_SYSCON S5P64X0_PA_SYSCON
#define S5P64X0_PA_GPIO (0xE0308000)
#define S5P64X0_PA_VIC0 (0xE4000000)
#define S5P64X0_PA_VIC1 (0xE4100000)
#define S5P64X0_PA_CHIPID 0xE0000000
#define S5P64X0_PA_SROMC (0xE7000000)
#define S5P_PA_SROMC S5P64X0_PA_SROMC
#define S5P64X0_PA_PDMA (0xE9000000)
#define S5P64X0_PA_TIMER (0xEA000000)
#define S5P_PA_TIMER S5P64X0_PA_TIMER
#define S5P64X0_PA_SYSCON 0xE0100000
#define S5P64X0_PA_RTC (0xEA100000)
#define S5P64X0_PA_GPIO 0xE0308000
#define S5P64X0_PA_WDT (0xEA200000)
#define S5P64X0_PA_VIC0 0xE4000000
#define S5P64X0_PA_VIC1 0xE4100000
#define S5P6440_PA_UART(x) (0xEC000000 + ((x) * S3C_UART_OFFSET))
#define S5P6450_PA_UART(x) ((x < 5) ? (0xEC800000 + ((x) * S3C_UART_OFFSET)) : (0xEC000000))
#define S5P64X0_PA_SROMC 0xE7000000
#define S5P_PA_UART0 S5P6450_PA_UART(0)
#define S5P_PA_UART1 S5P6450_PA_UART(1)
#define S5P_PA_UART2 S5P6450_PA_UART(2)
#define S5P_PA_UART3 S5P6450_PA_UART(3)
#define S5P_PA_UART4 S5P6450_PA_UART(4)
#define S5P_PA_UART5 S5P6450_PA_UART(5)
#define S5P64X0_PA_PDMA 0xE9000000
#define S5P_SZ_UART SZ_256
#define S5P64X0_PA_TIMER 0xEA000000
#define S5P64X0_PA_RTC 0xEA100000
#define S5P64X0_PA_WDT 0xEA200000
#define S5P6440_PA_IIC0 (0xEC104000)
#define S5P6440_PA_IIC1 (0xEC20F000)
#define S5P6450_PA_IIC0 (0xEC100000)
#define S5P6450_PA_IIC1 (0xEC200000)
#define S5P6440_PA_IIC0 0xEC104000
#define S5P6440_PA_IIC1 0xEC20F000
#define S5P6450_PA_IIC0 0xEC100000
#define S5P6450_PA_IIC1 0xEC200000
#define S5P64X0_PA_SPI0 (0xEC400000)
#define S5P64X0_PA_SPI1 (0xEC500000)
#define S5P64X0_PA_SPI0 0xEC400000
#define S5P64X0_PA_SPI1 0xEC500000
#define S5P64X0_PA_HSOTG (0xED100000)
#define S5P64X0_PA_HSOTG 0xED100000
#define S5P64X0_PA_HSMMC(x) (0xED800000 + ((x) * 0x100000))
#define S5P64X0_PA_I2S (0xF2000000)
#define S5P64X0_PA_I2S 0xF2000000
#define S5P6450_PA_I2S1 0xF2800000
#define S5P6450_PA_I2S2 0xF2900000
#define S5P64X0_PA_PCM (0xF2100000)
#define S5P64X0_PA_PCM 0xF2100000
#define S5P64X0_PA_ADC (0xF3000000)
#define S5P64X0_PA_ADC 0xF3000000
/* compatibiltiy defines. */
/* Compatibiltiy Defines */
#define S3C_PA_HSMMC0 S5P64X0_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5P64X0_PA_HSMMC(1)
......@@ -83,6 +65,25 @@
#define S3C_PA_RTC S5P64X0_PA_RTC
#define S3C_PA_WDT S5P64X0_PA_WDT
#define S5P_PA_CHIPID S5P64X0_PA_CHIPID
#define S5P_PA_SROMC S5P64X0_PA_SROMC
#define S5P_PA_SYSCON S5P64X0_PA_SYSCON
#define S5P_PA_TIMER S5P64X0_PA_TIMER
#define SAMSUNG_PA_ADC S5P64X0_PA_ADC
/* UART */
#define S5P6440_PA_UART(x) (0xEC000000 + ((x) * S3C_UART_OFFSET))
#define S5P6450_PA_UART(x) ((x < 5) ? (0xEC800000 + ((x) * S3C_UART_OFFSET)) : (0xEC000000))
#define S5P_PA_UART0 S5P6450_PA_UART(0)
#define S5P_PA_UART1 S5P6450_PA_UART(1)
#define S5P_PA_UART2 S5P6450_PA_UART(2)
#define S5P_PA_UART3 S5P6450_PA_UART(3)
#define S5P_PA_UART4 S5P6450_PA_UART(4)
#define S5P_PA_UART5 S5P6450_PA_UART(5)
#define S5P_SZ_UART SZ_256
#endif /* __ASM_ARCH_MAP_H */
/* linux/arch/arm/mach-s5pc100/include/mach/map.h
*
* Copyright (c) 2011 Samsung Electronics Co., Ltd.
* http://www.samsung.com/
*
* Copyright 2009 Samsung Electronics Co.
* Byungho Min <bhmin@samsung.com>
......@@ -16,145 +19,115 @@
#include <plat/map-base.h>
#include <plat/map-s5p.h>
/*
* map-base.h has already defined virtual memory address
* S3C_VA_IRQ S3C_ADDR(0x00000000) irq controller(s)
* S3C_VA_SYS S3C_ADDR(0x00100000) system control
* S3C_VA_MEM S3C_ADDR(0x00200000) system control (not used)
* S3C_VA_TIMER S3C_ADDR(0x00300000) timer block
* S3C_VA_WATCHDOG S3C_ADDR(0x00400000) watchdog
* S3C_VA_UART S3C_ADDR(0x01000000) UART
*
* S5PC100 specific virtual memory address can be defined here
* S5PC1XX_VA_GPIO S3C_ADDR(0x00500000) GPIO
*
*/
#define S5PC100_PA_SDRAM 0x20000000
#define S5PC100_PA_ONENAND 0xE7100000
#define S5PC100_PA_ONENAND_BUF 0xB0000000
#define S5PC100_PA_CHIPID 0xE0000000
#define S5PC100_PA_ONENAND_BUF (0xB0000000)
#define S5PC100_SZ_ONENAND_BUF (SZ_256M - SZ_32M)
#define S5PC100_PA_SYSCON 0xE0100000
/* Chip ID */
#define S5PC100_PA_OTHERS 0xE0200000
#define S5PC100_PA_CHIPID (0xE0000000)
#define S5P_PA_CHIPID S5PC100_PA_CHIPID
#define S5PC100_PA_GPIO 0xE0300000
#define S5PC100_PA_SYSCON (0xE0100000)
#define S5P_PA_SYSCON S5PC100_PA_SYSCON
#define S5PC100_PA_VIC0 0xE4000000
#define S5PC100_PA_VIC1 0xE4100000
#define S5PC100_PA_VIC2 0xE4200000
#define S5PC100_PA_OTHERS (0xE0200000)
#define S5PC100_VA_OTHERS (S3C_VA_SYS + 0x10000)
#define S5PC100_PA_SROMC 0xE7000000
#define S5PC100_PA_GPIO (0xE0300000)
#define S5PC1XX_VA_GPIO S3C_ADDR(0x00500000)
#define S5PC100_PA_CFCON 0xE7800000
/* Interrupt */
#define S5PC100_PA_VIC0 (0xE4000000)
#define S5PC100_PA_VIC1 (0xE4100000)
#define S5PC100_PA_VIC2 (0xE4200000)
#define S5PC100_VA_VIC S3C_VA_IRQ
#define S5PC100_VA_VIC_OFFSET 0x10000
#define S5PC1XX_VA_VIC(x) (S5PC100_VA_VIC + ((x) * S5PC100_VA_VIC_OFFSET))
#define S5PC100_PA_MDMA 0xE8100000
#define S5PC100_PA_PDMA0 0xE9000000
#define S5PC100_PA_PDMA1 0xE9200000
#define S5PC100_PA_SROMC (0xE7000000)
#define S5P_PA_SROMC S5PC100_PA_SROMC
#define S5PC100_PA_TIMER 0xEA000000
#define S5PC100_PA_SYSTIMER 0xEA100000
#define S5PC100_PA_WATCHDOG 0xEA200000
#define S5PC100_PA_RTC 0xEA300000
#define S5PC100_PA_ONENAND (0xE7100000)
#define S5PC100_PA_UART 0xEC000000
#define S5PC100_PA_CFCON (0xE7800000)
#define S5PC100_PA_IIC0 0xEC100000
#define S5PC100_PA_IIC1 0xEC200000
/* DMA */
#define S5PC100_PA_MDMA (0xE8100000)
#define S5PC100_PA_PDMA0 (0xE9000000)
#define S5PC100_PA_PDMA1 (0xE9200000)
#define S5PC100_PA_SPI0 0xEC300000
#define S5PC100_PA_SPI1 0xEC400000
#define S5PC100_PA_SPI2 0xEC500000
/* Timer */
#define S5PC100_PA_TIMER (0xEA000000)
#define S5P_PA_TIMER S5PC100_PA_TIMER
#define S5PC100_PA_USB_HSOTG 0xED200000
#define S5PC100_PA_USB_HSPHY 0xED300000
#define S5PC100_PA_SYSTIMER (0xEA100000)
#define S5PC100_PA_HSMMC(x) (0xED800000 + ((x) * 0x100000))
#define S5PC100_PA_WATCHDOG (0xEA200000)
#define S5PC100_PA_RTC (0xEA300000)
#define S5PC100_PA_FB 0xEE000000
#define S5PC100_PA_UART (0xEC000000)
#define S5PC100_PA_FIMC0 0xEE200000
#define S5PC100_PA_FIMC1 0xEE300000
#define S5PC100_PA_FIMC2 0xEE400000
#define S5P_PA_UART0 (S5PC100_PA_UART + 0x0)
#define S5P_PA_UART1 (S5PC100_PA_UART + 0x400)
#define S5P_PA_UART2 (S5PC100_PA_UART + 0x800)
#define S5P_PA_UART3 (S5PC100_PA_UART + 0xC00)
#define S5P_SZ_UART SZ_256
#define S5PC100_PA_I2S0 0xF2000000
#define S5PC100_PA_I2S1 0xF2100000
#define S5PC100_PA_I2S2 0xF2200000
#define S5PC100_PA_IIC0 (0xEC100000)
#define S5PC100_PA_IIC1 (0xEC200000)
#define S5PC100_PA_AC97 0xF2300000
/* SPI */
#define S5PC100_PA_SPI0 0xEC300000
#define S5PC100_PA_SPI1 0xEC400000
#define S5PC100_PA_SPI2 0xEC500000
#define S5PC100_PA_PCM0 0xF2400000
#define S5PC100_PA_PCM1 0xF2500000
/* USB HS OTG */
#define S5PC100_PA_USB_HSOTG (0xED200000)
#define S5PC100_PA_USB_HSPHY (0xED300000)
#define S5PC100_PA_SPDIF 0xF2600000
#define S5PC100_PA_FB (0xEE000000)
#define S5PC100_PA_TSADC 0xF3000000
#define S5PC100_PA_FIMC0 (0xEE200000)
#define S5PC100_PA_FIMC1 (0xEE300000)
#define S5PC100_PA_FIMC2 (0xEE400000)
#define S5PC100_PA_KEYPAD 0xF3100000
#define S5PC100_PA_I2S0 (0xF2000000)
#define S5PC100_PA_I2S1 (0xF2100000)
#define S5PC100_PA_I2S2 (0xF2200000)
/* Compatibiltiy Defines */
#define S5PC100_PA_AC97 0xF2300000
#define S3C_PA_FB S5PC100_PA_FB
#define S3C_PA_HSMMC0 S5PC100_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5PC100_PA_HSMMC(1)
#define S3C_PA_HSMMC2 S5PC100_PA_HSMMC(2)
#define S3C_PA_IIC S5PC100_PA_IIC0
#define S3C_PA_IIC1 S5PC100_PA_IIC1
#define S3C_PA_KEYPAD S5PC100_PA_KEYPAD
#define S3C_PA_ONENAND S5PC100_PA_ONENAND
#define S3C_PA_ONENAND_BUF S5PC100_PA_ONENAND_BUF
#define S3C_PA_RTC S5PC100_PA_RTC
#define S3C_PA_TSADC S5PC100_PA_TSADC
#define S3C_PA_USB_HSOTG S5PC100_PA_USB_HSOTG
#define S3C_PA_USB_HSPHY S5PC100_PA_USB_HSPHY
#define S3C_PA_WDT S5PC100_PA_WATCHDOG
/* PCM */
#define S5PC100_PA_PCM0 0xF2400000
#define S5PC100_PA_PCM1 0xF2500000
#define S5P_PA_CHIPID S5PC100_PA_CHIPID
#define S5P_PA_FIMC0 S5PC100_PA_FIMC0
#define S5P_PA_FIMC1 S5PC100_PA_FIMC1
#define S5P_PA_FIMC2 S5PC100_PA_FIMC2
#define S5P_PA_SDRAM S5PC100_PA_SDRAM
#define S5P_PA_SROMC S5PC100_PA_SROMC
#define S5P_PA_SYSCON S5PC100_PA_SYSCON
#define S5P_PA_TIMER S5PC100_PA_TIMER
#define S5PC100_PA_SPDIF 0xF2600000
#define SAMSUNG_PA_ADC S5PC100_PA_TSADC
#define SAMSUNG_PA_CFCON S5PC100_PA_CFCON
#define SAMSUNG_PA_KEYPAD S5PC100_PA_KEYPAD
#define S5PC100_PA_TSADC (0xF3000000)
#define S5PC100_VA_OTHERS (S3C_VA_SYS + 0x10000)
/* KEYPAD */
#define S5PC100_PA_KEYPAD (0xF3100000)
#define S3C_SZ_ONENAND_BUF (SZ_256M - SZ_32M)
#define S5PC100_PA_HSMMC(x) (0xED800000 + ((x) * 0x100000))
/* UART */
#define S5PC100_PA_SDRAM (0x20000000)
#define S5P_PA_SDRAM S5PC100_PA_SDRAM
#define S3C_PA_UART S5PC100_PA_UART
/* compatibiltiy defines. */
#define S3C_PA_UART S5PC100_PA_UART
#define S3C_PA_IIC S5PC100_PA_IIC0
#define S3C_PA_IIC1 S5PC100_PA_IIC1
#define S3C_PA_FB S5PC100_PA_FB
#define S3C_PA_G2D S5PC100_PA_G2D
#define S3C_PA_G3D S5PC100_PA_G3D
#define S3C_PA_JPEG S5PC100_PA_JPEG
#define S3C_PA_ROTATOR S5PC100_PA_ROTATOR
#define S5P_VA_VIC0 S5PC1XX_VA_VIC(0)
#define S5P_VA_VIC1 S5PC1XX_VA_VIC(1)
#define S5P_VA_VIC2 S5PC1XX_VA_VIC(2)
#define S3C_PA_USB_HSOTG S5PC100_PA_USB_HSOTG
#define S3C_PA_USB_HSPHY S5PC100_PA_USB_HSPHY
#define S3C_PA_HSMMC0 S5PC100_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5PC100_PA_HSMMC(1)
#define S3C_PA_HSMMC2 S5PC100_PA_HSMMC(2)
#define S3C_PA_KEYPAD S5PC100_PA_KEYPAD
#define S3C_PA_WDT S5PC100_PA_WATCHDOG
#define S3C_PA_TSADC S5PC100_PA_TSADC
#define S3C_PA_ONENAND S5PC100_PA_ONENAND
#define S3C_PA_ONENAND_BUF S5PC100_PA_ONENAND_BUF
#define S3C_SZ_ONENAND_BUF S5PC100_SZ_ONENAND_BUF
#define S3C_PA_RTC S5PC100_PA_RTC
#define SAMSUNG_PA_ADC S5PC100_PA_TSADC
#define SAMSUNG_PA_CFCON S5PC100_PA_CFCON
#define SAMSUNG_PA_KEYPAD S5PC100_PA_KEYPAD
#define S5P_PA_UART(x) (S3C_PA_UART + ((x) * S3C_UART_OFFSET))
#define S5P_PA_UART0 S5P_PA_UART(0)
#define S5P_PA_UART1 S5P_PA_UART(1)
#define S5P_PA_UART2 S5P_PA_UART(2)
#define S5P_PA_UART3 S5P_PA_UART(3)
#define S5P_PA_FIMC0 S5PC100_PA_FIMC0
#define S5P_PA_FIMC1 S5PC100_PA_FIMC1
#define S5P_PA_FIMC2 S5PC100_PA_FIMC2
#define S5P_SZ_UART SZ_256
#endif /* __ASM_ARCH_C100_MAP_H */
#endif /* __ASM_ARCH_MAP_H */
/* linux/arch/arm/mach-s5pv210/include/mach/map.h
*
* Copyright (c) 2010 Samsung Electronics Co., Ltd.
* Copyright (c) 2010-2011 Samsung Electronics Co., Ltd.
* http://www.samsung.com/
*
* S5PV210 - Memory map definitions
......@@ -16,122 +16,120 @@
#include <plat/map-base.h>
#include <plat/map-s5p.h>
#define S5PV210_PA_SROM_BANK5 (0xA8000000)
#define S5PV210_PA_SDRAM 0x20000000
#define S5PC110_PA_ONENAND (0xB0000000)
#define S5P_PA_ONENAND S5PC110_PA_ONENAND
#define S5PV210_PA_SROM_BANK5 0xA8000000
#define S5PC110_PA_ONENAND_DMA (0xB0600000)
#define S5P_PA_ONENAND_DMA S5PC110_PA_ONENAND_DMA
#define S5PC110_PA_ONENAND 0xB0000000
#define S5PC110_PA_ONENAND_DMA 0xB0600000
#define S5PV210_PA_CHIPID (0xE0000000)
#define S5P_PA_CHIPID S5PV210_PA_CHIPID
#define S5PV210_PA_CHIPID 0xE0000000
#define S5PV210_PA_SYSCON (0xE0100000)
#define S5P_PA_SYSCON S5PV210_PA_SYSCON
#define S5PV210_PA_SYSCON 0xE0100000
#define S5PV210_PA_GPIO (0xE0200000)
#define S5PV210_PA_GPIO 0xE0200000
/* SPI */
#define S5PV210_PA_SPI0 0xE1300000
#define S5PV210_PA_SPI1 0xE1400000
#define S5PV210_PA_SPDIF 0xE1100000
#define S5PV210_PA_KEYPAD (0xE1600000)
#define S5PV210_PA_SPI0 0xE1300000
#define S5PV210_PA_SPI1 0xE1400000
#define S5PV210_PA_IIC0 (0xE1800000)
#define S5PV210_PA_IIC1 (0xFAB00000)
#define S5PV210_PA_IIC2 (0xE1A00000)
#define S5PV210_PA_KEYPAD 0xE1600000
#define S5PV210_PA_TIMER (0xE2500000)
#define S5P_PA_TIMER S5PV210_PA_TIMER
#define S5PV210_PA_ADC 0xE1700000
#define S5PV210_PA_SYSTIMER (0xE2600000)
#define S5PV210_PA_IIC0 0xE1800000
#define S5PV210_PA_IIC1 0xFAB00000
#define S5PV210_PA_IIC2 0xE1A00000
#define S5PV210_PA_WATCHDOG (0xE2700000)
#define S5PV210_PA_AC97 0xE2200000
#define S5PV210_PA_RTC (0xE2800000)
#define S5PV210_PA_UART (0xE2900000)
#define S5PV210_PA_PCM0 0xE2300000
#define S5PV210_PA_PCM1 0xE1200000
#define S5PV210_PA_PCM2 0xE2B00000
#define S5P_PA_UART0 (S5PV210_PA_UART + 0x0)
#define S5P_PA_UART1 (S5PV210_PA_UART + 0x400)
#define S5P_PA_UART2 (S5PV210_PA_UART + 0x800)
#define S5P_PA_UART3 (S5PV210_PA_UART + 0xC00)
#define S5PV210_PA_TIMER 0xE2500000
#define S5PV210_PA_SYSTIMER 0xE2600000
#define S5PV210_PA_WATCHDOG 0xE2700000
#define S5PV210_PA_RTC 0xE2800000
#define S5P_SZ_UART SZ_256
#define S5PV210_PA_UART 0xE2900000
#define S3C_VA_UARTx(x) (S3C_VA_UART + ((x) * S3C_UART_OFFSET))
#define S5PV210_PA_SROMC 0xE8000000
#define S5PV210_PA_SROMC (0xE8000000)
#define S5P_PA_SROMC S5PV210_PA_SROMC
#define S5PV210_PA_CFCON 0xE8200000
#define S5PV210_PA_CFCON (0xE8200000)
#define S5PV210_PA_HSMMC(x) (0xEB000000 + ((x) * 0x100000))
#define S5PV210_PA_MDMA 0xFA200000
#define S5PV210_PA_PDMA0 0xE0900000
#define S5PV210_PA_PDMA1 0xE0A00000
#define S5PV210_PA_HSOTG 0xEC000000
#define S5PV210_PA_HSPHY 0xEC100000
#define S5PV210_PA_FB (0xF8000000)
#define S5PV210_PA_IIS0 0xEEE30000
#define S5PV210_PA_IIS1 0xE2100000
#define S5PV210_PA_IIS2 0xE2A00000
#define S5PV210_PA_FIMC0 (0xFB200000)
#define S5PV210_PA_FIMC1 (0xFB300000)
#define S5PV210_PA_FIMC2 (0xFB400000)
#define S5PV210_PA_DMC0 0xF0000000
#define S5PV210_PA_DMC1 0xF1400000
#define S5PV210_PA_HSMMC(x) (0xEB000000 + ((x) * 0x100000))
#define S5PV210_PA_VIC0 0xF2000000
#define S5PV210_PA_VIC1 0xF2100000
#define S5PV210_PA_VIC2 0xF2200000
#define S5PV210_PA_VIC3 0xF2300000
#define S5PV210_PA_HSOTG (0xEC000000)
#define S5PV210_PA_HSPHY (0xEC100000)
#define S5PV210_PA_FB 0xF8000000
#define S5PV210_PA_VIC0 (0xF2000000)
#define S5PV210_PA_VIC1 (0xF2100000)
#define S5PV210_PA_VIC2 (0xF2200000)
#define S5PV210_PA_VIC3 (0xF2300000)
#define S5PV210_PA_MDMA 0xFA200000
#define S5PV210_PA_PDMA0 0xE0900000
#define S5PV210_PA_PDMA1 0xE0A00000
#define S5PV210_PA_SDRAM (0x20000000)
#define S5P_PA_SDRAM S5PV210_PA_SDRAM
#define S5PV210_PA_MIPI_CSIS 0xFA600000
/* S/PDIF */
#define S5PV210_PA_SPDIF 0xE1100000
#define S5PV210_PA_FIMC0 0xFB200000
#define S5PV210_PA_FIMC1 0xFB300000
#define S5PV210_PA_FIMC2 0xFB400000
/* I2S */
#define S5PV210_PA_IIS0 0xEEE30000
#define S5PV210_PA_IIS1 0xE2100000
#define S5PV210_PA_IIS2 0xE2A00000
/* Compatibiltiy Defines */
/* PCM */
#define S5PV210_PA_PCM0 0xE2300000
#define S5PV210_PA_PCM1 0xE1200000
#define S5PV210_PA_PCM2 0xE2B00000
#define S3C_PA_FB S5PV210_PA_FB
#define S3C_PA_HSMMC0 S5PV210_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5PV210_PA_HSMMC(1)
#define S3C_PA_HSMMC2 S5PV210_PA_HSMMC(2)
#define S3C_PA_HSMMC3 S5PV210_PA_HSMMC(3)
#define S3C_PA_IIC S5PV210_PA_IIC0
#define S3C_PA_IIC1 S5PV210_PA_IIC1
#define S3C_PA_IIC2 S5PV210_PA_IIC2
#define S3C_PA_RTC S5PV210_PA_RTC
#define S3C_PA_USB_HSOTG S5PV210_PA_HSOTG
#define S3C_PA_WDT S5PV210_PA_WATCHDOG
/* AC97 */
#define S5PV210_PA_AC97 0xE2200000
#define S5P_PA_CHIPID S5PV210_PA_CHIPID
#define S5P_PA_FIMC0 S5PV210_PA_FIMC0
#define S5P_PA_FIMC1 S5PV210_PA_FIMC1
#define S5P_PA_FIMC2 S5PV210_PA_FIMC2
#define S5P_PA_MIPI_CSIS0 S5PV210_PA_MIPI_CSIS
#define S5P_PA_ONENAND S5PC110_PA_ONENAND
#define S5P_PA_ONENAND_DMA S5PC110_PA_ONENAND_DMA
#define S5P_PA_SDRAM S5PV210_PA_SDRAM
#define S5P_PA_SROMC S5PV210_PA_SROMC
#define S5P_PA_SYSCON S5PV210_PA_SYSCON
#define S5P_PA_TIMER S5PV210_PA_TIMER
#define S5PV210_PA_ADC (0xE1700000)
#define SAMSUNG_PA_ADC S5PV210_PA_ADC
#define SAMSUNG_PA_CFCON S5PV210_PA_CFCON
#define SAMSUNG_PA_KEYPAD S5PV210_PA_KEYPAD
#define S5PV210_PA_DMC0 (0xF0000000)
#define S5PV210_PA_DMC1 (0xF1400000)
/* UART */
#define S5PV210_PA_MIPI_CSIS 0xFA600000
#define S3C_VA_UARTx(x) (S3C_VA_UART + ((x) * S3C_UART_OFFSET))
/* compatibiltiy defines. */
#define S3C_PA_UART S5PV210_PA_UART
#define S3C_PA_HSMMC0 S5PV210_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5PV210_PA_HSMMC(1)
#define S3C_PA_HSMMC2 S5PV210_PA_HSMMC(2)
#define S3C_PA_HSMMC3 S5PV210_PA_HSMMC(3)
#define S3C_PA_IIC S5PV210_PA_IIC0
#define S3C_PA_IIC1 S5PV210_PA_IIC1
#define S3C_PA_IIC2 S5PV210_PA_IIC2
#define S3C_PA_FB S5PV210_PA_FB
#define S3C_PA_RTC S5PV210_PA_RTC
#define S3C_PA_WDT S5PV210_PA_WATCHDOG
#define S3C_PA_USB_HSOTG S5PV210_PA_HSOTG
#define S5P_PA_FIMC0 S5PV210_PA_FIMC0
#define S5P_PA_FIMC1 S5PV210_PA_FIMC1
#define S5P_PA_FIMC2 S5PV210_PA_FIMC2
#define S5P_PA_MIPI_CSIS0 S5PV210_PA_MIPI_CSIS
#define S3C_PA_UART S5PV210_PA_UART
#define SAMSUNG_PA_ADC S5PV210_PA_ADC
#define SAMSUNG_PA_CFCON S5PV210_PA_CFCON
#define SAMSUNG_PA_KEYPAD S5PV210_PA_KEYPAD
#define S5P_PA_UART(x) (S3C_PA_UART + ((x) * S3C_UART_OFFSET))
#define S5P_PA_UART0 S5P_PA_UART(0)
#define S5P_PA_UART1 S5P_PA_UART(1)
#define S5P_PA_UART2 S5P_PA_UART(2)
#define S5P_PA_UART3 S5P_PA_UART(3)
#define S5P_SZ_UART SZ_256
#endif /* __ASM_ARCH_MAP_H */
......@@ -149,7 +149,7 @@ static struct regulator_init_data aquila_ldo2_data = {
static struct regulator_init_data aquila_ldo3_data = {
.constraints = {
.name = "VUSB/MIPI_1.1V",
.name = "VUSB+MIPI_1.1V",
.min_uV = 1100000,
.max_uV = 1100000,
.apply_uV = 1,
......@@ -197,7 +197,7 @@ static struct regulator_init_data aquila_ldo7_data = {
static struct regulator_init_data aquila_ldo8_data = {
.constraints = {
.name = "VUSB/VADC_3.3V",
.name = "VUSB+VADC_3.3V",
.min_uV = 3300000,
.max_uV = 3300000,
.apply_uV = 1,
......@@ -207,7 +207,7 @@ static struct regulator_init_data aquila_ldo8_data = {
static struct regulator_init_data aquila_ldo9_data = {
.constraints = {
.name = "VCC/VCAM_2.8V",
.name = "VCC+VCAM_2.8V",
.min_uV = 2800000,
.max_uV = 2800000,
.apply_uV = 1,
......@@ -381,9 +381,12 @@ static struct max8998_platform_data aquila_max8998_pdata = {
.buck1_set1 = S5PV210_GPH0(3),
.buck1_set2 = S5PV210_GPH0(4),
.buck2_set3 = S5PV210_GPH0(5),
.buck1_max_voltage1 = 1200000,
.buck1_max_voltage2 = 1200000,
.buck2_max_voltage = 1200000,
.buck1_voltage1 = 1200000,
.buck1_voltage2 = 1200000,
.buck1_voltage3 = 1200000,
.buck1_voltage4 = 1200000,
.buck2_voltage1 = 1200000,
.buck2_voltage2 = 1200000,
};
#endif
......
......@@ -288,7 +288,7 @@ static struct regulator_init_data goni_ldo2_data = {
static struct regulator_init_data goni_ldo3_data = {
.constraints = {
.name = "VUSB/MIPI_1.1V",
.name = "VUSB+MIPI_1.1V",
.min_uV = 1100000,
.max_uV = 1100000,
.apply_uV = 1,
......@@ -337,7 +337,7 @@ static struct regulator_init_data goni_ldo7_data = {
static struct regulator_init_data goni_ldo8_data = {
.constraints = {
.name = "VUSB/VADC_3.3V",
.name = "VUSB+VADC_3.3V",
.min_uV = 3300000,
.max_uV = 3300000,
.apply_uV = 1,
......@@ -347,7 +347,7 @@ static struct regulator_init_data goni_ldo8_data = {
static struct regulator_init_data goni_ldo9_data = {
.constraints = {
.name = "VCC/VCAM_2.8V",
.name = "VCC+VCAM_2.8V",
.min_uV = 2800000,
.max_uV = 2800000,
.apply_uV = 1,
......@@ -521,9 +521,12 @@ static struct max8998_platform_data goni_max8998_pdata = {
.buck1_set1 = S5PV210_GPH0(3),
.buck1_set2 = S5PV210_GPH0(4),
.buck2_set3 = S5PV210_GPH0(5),
.buck1_max_voltage1 = 1200000,
.buck1_max_voltage2 = 1200000,
.buck2_max_voltage = 1200000,
.buck1_voltage1 = 1200000,
.buck1_voltage2 = 1200000,
.buck1_voltage3 = 1200000,
.buck1_voltage4 = 1200000,
.buck2_voltage1 = 1200000,
.buck2_voltage2 = 1200000,
};
#endif
......
......@@ -122,6 +122,7 @@ config MACH_SMDKV310
select S3C_DEV_HSMMC2
select S3C_DEV_HSMMC3
select S5PV310_DEV_PD
select S5PV310_DEV_SYSMMU
select S5PV310_SETUP_I2C1
select S5PV310_SETUP_SDHCI
help
......
/* linux/arch/arm/mach-s5pv310/include/mach/map.h
*
* Copyright (c) 2010 Samsung Electronics Co., Ltd.
* Copyright (c) 2010-2011 Samsung Electronics Co., Ltd.
* http://www.samsung.com/
*
* S5PV310 - Memory map definitions
......@@ -23,90 +23,43 @@
#include <plat/map-s5p.h>
#define S5PV310_PA_SYSRAM (0x02025000)
#define S5PV310_PA_SYSRAM 0x02025000
#define S5PV310_PA_SROM_BANK(x) (0x04000000 + ((x) * 0x01000000))
#define S5PC210_PA_ONENAND (0x0C000000)
#define S5P_PA_ONENAND S5PC210_PA_ONENAND
#define S5PC210_PA_ONENAND_DMA (0x0C600000)
#define S5P_PA_ONENAND_DMA S5PC210_PA_ONENAND_DMA
#define S5PV310_PA_CHIPID (0x10000000)
#define S5P_PA_CHIPID S5PV310_PA_CHIPID
#define S5PV310_PA_SYSCON (0x10010000)
#define S5P_PA_SYSCON S5PV310_PA_SYSCON
#define S5PV310_PA_I2S0 0x03830000
#define S5PV310_PA_I2S1 0xE3100000
#define S5PV310_PA_I2S2 0xE2A00000
#define S5PV310_PA_PMU (0x10020000)
#define S5PV310_PA_PCM0 0x03840000
#define S5PV310_PA_PCM1 0x13980000
#define S5PV310_PA_PCM2 0x13990000
#define S5PV310_PA_CMU (0x10030000)
#define S5PV310_PA_WATCHDOG (0x10060000)
#define S5PV310_PA_RTC (0x10070000)
#define S5PV310_PA_DMC0 (0x10400000)
#define S5PV310_PA_COMBINER (0x10448000)
#define S5PV310_PA_COREPERI (0x10500000)
#define S5PV310_PA_GIC_CPU (0x10500100)
#define S5PV310_PA_TWD (0x10500600)
#define S5PV310_PA_GIC_DIST (0x10501000)
#define S5PV310_PA_L2CC (0x10502000)
/* DMA */
#define S5PV310_PA_MDMA 0x10810000
#define S5PV310_PA_PDMA0 0x12680000
#define S5PV310_PA_PDMA1 0x12690000
#define S5PV310_PA_GPIO1 (0x11400000)
#define S5PV310_PA_GPIO2 (0x11000000)
#define S5PV310_PA_GPIO3 (0x03860000)
#define S5PV310_PA_MIPI_CSIS0 0x11880000
#define S5PV310_PA_MIPI_CSIS1 0x11890000
#define S5PV310_PA_SROM_BANK(x) (0x04000000 + ((x) * 0x01000000))
#define S5PV310_PA_HSMMC(x) (0x12510000 + ((x) * 0x10000))
#define S5PC210_PA_ONENAND 0x0C000000
#define S5PC210_PA_ONENAND_DMA 0x0C600000
#define S5PV310_PA_SROMC (0x12570000)
#define S5P_PA_SROMC S5PV310_PA_SROMC
#define S5PV310_PA_CHIPID 0x10000000
/* S/PDIF */
#define S5PV310_PA_SPDIF 0xE1100000
#define S5PV310_PA_SYSCON 0x10010000
#define S5PV310_PA_PMU 0x10020000
#define S5PV310_PA_CMU 0x10030000
/* I2S */
#define S5PV310_PA_I2S0 0x03830000
#define S5PV310_PA_I2S1 0xE3100000
#define S5PV310_PA_I2S2 0xE2A00000
#define S5PV310_PA_WATCHDOG 0x10060000
#define S5PV310_PA_RTC 0x10070000
/* PCM */
#define S5PV310_PA_PCM0 0x03840000
#define S5PV310_PA_PCM1 0x13980000
#define S5PV310_PA_PCM2 0x13990000
#define S5PV310_PA_DMC0 0x10400000
/* AC97 */
#define S5PV310_PA_AC97 0x139A0000
#define S5PV310_PA_COMBINER 0x10448000
#define S5PV310_PA_UART (0x13800000)
#define S5PV310_PA_COREPERI 0x10500000
#define S5PV310_PA_GIC_CPU 0x10500100
#define S5PV310_PA_TWD 0x10500600
#define S5PV310_PA_GIC_DIST 0x10501000
#define S5PV310_PA_L2CC 0x10502000
#define S5P_PA_UART(x) (S5PV310_PA_UART + ((x) * S3C_UART_OFFSET))
#define S5P_PA_UART0 S5P_PA_UART(0)
#define S5P_PA_UART1 S5P_PA_UART(1)
#define S5P_PA_UART2 S5P_PA_UART(2)
#define S5P_PA_UART3 S5P_PA_UART(3)
#define S5P_PA_UART4 S5P_PA_UART(4)
#define S5P_SZ_UART SZ_256
#define S5PV310_PA_IIC(x) (0x13860000 + ((x) * 0x10000))
#define S5PV310_PA_TIMER (0x139D0000)
#define S5P_PA_TIMER S5PV310_PA_TIMER
#define S5PV310_PA_SDRAM (0x40000000)
#define S5P_PA_SDRAM S5PV310_PA_SDRAM
#define S5PV310_PA_MDMA 0x10810000
#define S5PV310_PA_PDMA0 0x12680000
#define S5PV310_PA_PDMA1 0x12690000
#define S5PV310_PA_SYSMMU_MDMA 0x10A40000
#define S5PV310_PA_SYSMMU_SSS 0x10A50000
......@@ -124,11 +77,32 @@
#define S5PV310_PA_SYSMMU_TV 0x12E20000
#define S5PV310_PA_SYSMMU_MFC_L 0x13620000
#define S5PV310_PA_SYSMMU_MFC_R 0x13630000
#define S5PV310_SYSMMU_TOTAL_IPNUM 16
#define S5P_SYSMMU_TOTAL_IPNUM S5PV310_SYSMMU_TOTAL_IPNUM
/* compatibiltiy defines. */
#define S3C_PA_UART S5PV310_PA_UART
#define S5PV310_PA_GPIO1 0x11400000
#define S5PV310_PA_GPIO2 0x11000000
#define S5PV310_PA_GPIO3 0x03860000
#define S5PV310_PA_MIPI_CSIS0 0x11880000
#define S5PV310_PA_MIPI_CSIS1 0x11890000
#define S5PV310_PA_HSMMC(x) (0x12510000 + ((x) * 0x10000))
#define S5PV310_PA_SROMC 0x12570000
#define S5PV310_PA_UART 0x13800000
#define S5PV310_PA_IIC(x) (0x13860000 + ((x) * 0x10000))
#define S5PV310_PA_AC97 0x139A0000
#define S5PV310_PA_TIMER 0x139D0000
#define S5PV310_PA_SDRAM 0x40000000
#define S5PV310_PA_SPDIF 0xE1100000
/* Compatibiltiy Defines */
#define S3C_PA_HSMMC0 S5PV310_PA_HSMMC(0)
#define S3C_PA_HSMMC1 S5PV310_PA_HSMMC(1)
#define S3C_PA_HSMMC2 S5PV310_PA_HSMMC(2)
......@@ -143,7 +117,28 @@
#define S3C_PA_IIC7 S5PV310_PA_IIC(7)
#define S3C_PA_RTC S5PV310_PA_RTC
#define S3C_PA_WDT S5PV310_PA_WATCHDOG
#define S5P_PA_CHIPID S5PV310_PA_CHIPID
#define S5P_PA_MIPI_CSIS0 S5PV310_PA_MIPI_CSIS0
#define S5P_PA_MIPI_CSIS1 S5PV310_PA_MIPI_CSIS1
#define S5P_PA_ONENAND S5PC210_PA_ONENAND
#define S5P_PA_ONENAND_DMA S5PC210_PA_ONENAND_DMA
#define S5P_PA_SDRAM S5PV310_PA_SDRAM
#define S5P_PA_SROMC S5PV310_PA_SROMC
#define S5P_PA_SYSCON S5PV310_PA_SYSCON
#define S5P_PA_TIMER S5PV310_PA_TIMER
/* UART */
#define S3C_PA_UART S5PV310_PA_UART
#define S5P_PA_UART(x) (S3C_PA_UART + ((x) * S3C_UART_OFFSET))
#define S5P_PA_UART0 S5P_PA_UART(0)
#define S5P_PA_UART1 S5P_PA_UART(1)
#define S5P_PA_UART2 S5P_PA_UART(2)
#define S5P_PA_UART3 S5P_PA_UART(3)
#define S5P_PA_UART4 S5P_PA_UART(4)
#define S5P_SZ_UART SZ_256
#endif /* __ASM_ARCH_MAP_H */
......@@ -13,6 +13,9 @@
#ifndef __ASM_ARM_ARCH_SYSMMU_H
#define __ASM_ARM_ARCH_SYSMMU_H __FILE__
#define S5PV310_SYSMMU_TOTAL_IPNUM 16
#define S5P_SYSMMU_TOTAL_IPNUM S5PV310_SYSMMU_TOTAL_IPNUM
enum s5pv310_sysmmu_ips {
SYSMMU_MDMA,
SYSMMU_SSS,
......@@ -32,7 +35,7 @@ enum s5pv310_sysmmu_ips {
SYSMMU_MFC_R,
};
static char *sysmmu_ips_name[S5P_SYSMMU_TOTAL_IPNUM] = {
static char *sysmmu_ips_name[S5PV310_SYSMMU_TOTAL_IPNUM] = {
"SYSMMU_MDMA" ,
"SYSMMU_SSS" ,
"SYSMMU_FIMC0" ,
......
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