reported by EFI implementation. This address comment on r301714.
Approved by: re (gjb), andrew (mentor)
Differential Revision: https://reviews.freebsd.org/D6787
There is no reason to return non-zero value from zfs_probe_partition()
as that causes following partitions to not be probed for ZFS vdevs.
A particular scenario that I encountered is a GPT partitioned disk
where several partitions have freebsd-zfs type. A partition with a lower
index is used as a cache (l2arc) vdev and in that case case zfs_probe()
returned a non-zero status. That status was returned to ptable_iterate()
and caused it to abort the iteration. Because of that the subsequent
partitions were not probed and a root pool was not discovered resulting
in a boot failure.
While there fix the style for nearby return statements.
Approved by: re (kib)
where we assumed TERM_EMU was defined but didn't check. Fix these by also
including them under the ifdefs.
As HO is called from loader we need a null implementation so loader.efi
doesn't need to know which version of libefi it is building against.
Sponsored by: ABT Systems Ltd
code uses the GetTime function from the Runtime Service, however this has
been shown to not return a useable time on many arm64 UEFI implementations.
Reviewed by: jhb, smh
Sponsored by: ABT Systems Ltd
Differential Revision: https://reviews.freebsd.org/D6709
TDMA and CESA registers are placed in different ranges of memory. Split
memory resource in DTS to reflect that. This change is needed to support
multiple CESA nodes as otherwise the ranges of different nodes would
overlap.
In consequence, CESA_WRITE and CESA_READ macros have been split depending
on which range of registers is accessed. Offsets for CESA registers have
been modified as the base address has changed.
Submitted by: Michal Stanek <mst@semihalf.com>
Obtained from: Semihalf
Sponsored by: Stormshield
Differential revision: https://reviews.freebsd.org/D6217
Commit was temporary fix due to rman_res_t defined as 32-bit u_long.
After redefining it as 64-bit variable workaround is not needed and
was removed.
Submitted by: Bartosz Szczepanek <bsz@semihalf.com>
Obtained from: Semihalf
Sponsored by: Stormshield
Differential revision: https://reviews.freebsd.org/D6214
directly pass the request otherwise use a buffer that is a
multiple of the media size. This speeds up I/O quite a bit
when using large transfer sizes on 4Kn disks etc.
MFC after: 1 week
In r277943, the efinet_match() routine was changed to use an off by one
when matching network interfaces. The effect was that using "net1"
actually used the device attached to "net0".
Digging into the hardware that needed this workaround more, I found that
UEFI was creating two simple network protocol devices for each physical
NIC. The first device was a "raw" Ethernet device and the second device
was a "IP" device that used the IP protocol on top of the underlying
"raw" device. The PXE code in the firmware used the "IP" device to pull
across the loader.efi, so currdev was set to "net1" when booting from the
physical interface "net0". (The loaded image's device handle referenced
the "IP" device that "net1" claimed.)
However, the IP device isn't suitable for doing raw packet I/O (and the
current code to open devices exclusively actually turns the "IP" devices
off on these systems).
To fix, change the efinet driver to only attach to "raw" devices. This
is determined by fetching the DEVICE_PATH for each handle which supports
the simple network protocol and examining the last node in the path. If
the last node in the path is a MAC address, the device is assumed to be
a "raw" device and is added as a 'netX' device. If the last node is not
a MAC address, the device is ignored.
However, this causes a new problem as the device handle associated with
the loaded image no longer matches any of the handles enumerated by
efinet for systems that load the image via the "IP" device. To handle
this case, expand the logic that resolves currdev from the loaded image
in main(). First, the existing logic of looking for a handle that
matches the loaded image's handle is tried. If that fails, the device
path of the handle that loaded the loaded image is fetched via
efi_lookup_image_devpath(). This device path is then walked from the
end up to the beginning using efi_handle_lookup() to fetch the handle
associated with a path. If the handle is found and is a known handle,
then that is used as currdev. The effect for machines that load the
image via the "IP" device is that the first lookup fails (the handle
for the "IP" device isn't claimed by efinet), but walking up the
image's device path finds the handle of the raw MAC device which is used
as currdev.
With these fixes in place, the hack to subtract 1 from the unit can now
be removed, so that setting currdev to 'net0' actually uses 'net0'.
PR: 202097
Tested by: ambrisko
Sponsored by: Cisco Systems
While here, fix the various net driver callbacks to return early instead
of crashing if this fails. (The 'init' callback from the netif interface
doesn't return an error if the protocol lookup fails.)
Sponsored by: Cisco Systems
These efipart layer did several devpath related operations inline. This
just switches it over to using shared code for working with device paths.
Sponsored by: Cisco Systems
Lookup the DEVICE_PATH for each EFI network device handle and output the
string description using printf with '%S'. To honor the pager, the newline
at the end of each line is still output with pager_output().
Sponsored by: Cisco Systems
- efi_lookup_devpath() uses the DEVICE_PATH_PROTOCOL to obtain the
DEVICE_PATH for a given EFI handle.
- efi_lookup_image_devpath() uses the LOADED_IMAGE_DEVICE_PATH_PROTOCOL
to lookup the device path of the device used to load a loaded image.
- efi_devpath_name() uses the DEVICE_PATH_TO_TEXT_PROTOCOL to generate
a string description of a device path. The returned string is a CHAR16
string that can be printed via the recently added '%S' format in
libstand's printf(). Note that the returned string is returned in
allocated storage that should be freed by calling
efi_free_devpath_name().
- efi_devpath_last_node() walks a DEVICE_PATH returning a pointer to the
final node in the path (not counting the terminating node). That is,
it returns a pointer to the last meaninful node in a DEVICE_PATH.
- efi_devpath_trim() generates a new DEVICE_PATH from an existing
DEVICE_PATH. The new DEVICE_PATH does not include the last
non-terminating node in the original path. If the original DEVICE_PATH
only contains the terminating node, this function returns NULL.
The caller is responsible for freeing the returned DEVICE_PATH via
free().
- efi_devpath_handle() attempts to find a handle that corresponds to a
given device path. However, if nodes at the end of the device path do
not have valid handles associated with them, this function will return
a handle that matches a node earlier in the device path. In particular,
this function returns a handle for the node closest to the end of the
device path which has a valid handle.
Sponsored by: Cisco Systems
Pressing the PEK (power enable key) will shutdown the board.
Some events are reported to devd via system "PMU" and subsystem
"Battery", "AC" and "USB" such as connected/disconnected.
Some sensors values (power source voltage/current) are reported via
sysctl (dev.axp209_pmu.X.)
It also expose a gpioc node usable in kernel and userland. Only 3 of
the 4 GPIO are exposed (The GPIO3 is different and mostly unused on
boards). Most popular boards uses GPIO1 as a sense pin for OTG power.
Add a dtsi file that adds gpio-controller capability to the device as
upstream doesn't defined it and include it in our custom DTS.
Reviewed by: jmcneill
Approved by: cognet (mentor)
Differential Revision: https://reviews.freebsd.org/D6135
Replace all rounding with the round{up,down}2 macros
a missing set of braces caused the previous code to be incorrect
replace alloca() with malloc() because alloca() can return an allocation
that is actually invalid, causing boot to fail
Reviewed by: emaste, ed
Thanks To: peter
Sponsored by: ScaleEngine Inc.
Differential Revision: https://reviews.freebsd.org/D6213
return value when it could return 1 (indicating we should stop).
Fix a few instances of pager_open() / pager_close() not being called.
Actually use these routines for the environment variable printing code
I just committed.
a slightly non-standard %S that's more useful in the UEFI environment,
so ignore printf errors. There's no good cast to use. We'll need to
revisit this in the future.
a string, interprets it as a standard UUID, and returns a binary from
of the UUID. uuid-to-string does the reverse. The binary UUID is in
allocated memory, so you'll need to free it with 'free' after you are
done using it. It won't be automatically garbage collected. Likewise
with the string...
MFC After: 3 days
PCIe PHY needs different initialization on MT7628/MT7688 SoCs than it does
on MT7620.
However, LEDE (and OpenWRT) dts files have the PCIe node for MT7628/MT7688
as compatible with mt7620-pci.
We already can handle this properly in our driver, so we just need to add
compat strings to fbsd-mt7628an.dtsi and the PCIe driver.
Approved by: adrian (mentor)
Sponsored by: Smartcom - Bulgaria AD
Differential Revision: https://reviews.freebsd.org/D6395
This is an import of the reworked LEDE dts files. Besides other things
they make it easier for us to reuse.
The only diffs left are for the following SoCs:
MT7620A (fbsd-mt7620a.dtsi)
MT7621 (fbsd-mt7621.dtsi)
MT7628 (fbsd-mt7628an.dtsi)
RT3883 (fbsd-rt3883.dtsi)
So we include the fbsd-*.dtsi files at the end of the original LEDE dtsi
files, using '#include "fbsd-xxxx.dtsi"'.
For example, for MT7621, the LEDE dtsi file is mt7621.dtsi. At the end of
it we add:
#include "fbsd-mt7621.dtsi"
Approved by: adrian (mentor)
Obtained from: LEDE project
Sponsored by: Smartcom - Bulgaria AD
Differential Revision: https://reviews.freebsd.org/D6394
Coverity reports an uninitialized "len" in case the switch defaults
without hitting any case. Respect the original intent and quell the
false positive with the relatively new __unreachable() builtin.
CID: 1347796
The A83T thermal sensor controller has three sensors. Sensor 0 corresponds
to CPU cluster 0, sensor 1 to CPU cluster 1, and sensor 2 to the GPU. This
driver exports the temperature sensor readings via sysctl.
Calibration data is obtained from SRAM found in the Secure ID module.
Reviewed by: manu
Differential Revision: https://reviews.freebsd.org/D6378