Commit 9aa900c8 authored by Linus Torvalds's avatar Linus Torvalds

Merge tag 'char-misc-5.8-rc1' of git://git.kernel.org/pub/scm/linux/kernel/git/gregkh/char-misc

Pull char/misc driver updates from Greg KH:
 "Here is the large set of char/misc driver patches for 5.8-rc1

  Included in here are:

   - habanalabs driver updates, loads

   - mhi bus driver updates

   - extcon driver updates

   - clk driver updates (approved by the clock maintainer)

   - firmware driver updates

   - fpga driver updates

   - gnss driver updates

   - coresight driver updates

   - interconnect driver updates

   - parport driver updates (it's still alive!)

   - nvmem driver updates

   - soundwire driver updates

   - visorbus driver updates

   - w1 driver updates

   - various misc driver updates

  In short, loads of different driver subsystem updates along with the
  drivers as well.

  All have been in linux-next for a while with no reported issues"

* tag 'char-misc-5.8-rc1' of git://git.kernel.org/pub/scm/linux/kernel/git/gregkh/char-misc: (233 commits)
  habanalabs: correctly cast u64 to void*
  habanalabs: initialize variable to default value
  extcon: arizona: Fix runtime PM imbalance on error
  extcon: max14577: Add proper dt-compatible strings
  extcon: adc-jack: Fix an error handling path in 'adc_jack_probe()'
  extcon: remove redundant assignment to variable idx
  w1: omap-hdq: print dev_err if irq flags are not cleared
  w1: omap-hdq: fix interrupt handling which did show spurious timeouts
  w1: omap-hdq: fix return value to be -1 if there is a timeout
  w1: omap-hdq: cleanup to add missing newline for some dev_dbg
  /dev/mem: Revoke mappings when a driver claims the region
  misc: xilinx-sdfec: convert get_user_pages() --> pin_user_pages()
  misc: xilinx-sdfec: cleanup return value in xsdfec_table_write()
  misc: xilinx-sdfec: improve get_user_pages_fast() error handling
  nvmem: qfprom: remove incorrect write support
  habanalabs: handle MMU cache invalidation timeout
  habanalabs: don't allow hard reset with open processes
  habanalabs: GAUDI does not support soft-reset
  habanalabs: add print for soft reset due to event
  habanalabs: improve MMU cache invalidation code
  ...
parents f558b836 05c8a4fc
What: /sys/devices/platform/firmware\:zynqmp-firmware/ggs*
Date: March 2020
KernelVersion: 5.6
Contact: "Jolly Shah" <jollys@xilinx.com>
Description:
Read/Write PMU global general storage register value,
GLOBAL_GEN_STORAGE{0:3}.
Global general storage register that can be used
by system to pass information between masters.
The register is reset during system or power-on
resets. Three registers are used by the FSBL and
other Xilinx software products: GLOBAL_GEN_STORAGE{4:6}.
Usage:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/ggs0
# echo <value> > /sys/devices/platform/firmware\:zynqmp-firmware/ggs0
Example:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/ggs0
# echo 0x1234ABCD > /sys/devices/platform/firmware\:zynqmp-firmware/ggs0
Users: Xilinx
What: /sys/devices/platform/firmware\:zynqmp-firmware/pggs*
Date: March 2020
KernelVersion: 5.6
Contact: "Jolly Shah" <jollys@xilinx.com>
Description:
Read/Write PMU persistent global general storage register
value, PERS_GLOB_GEN_STORAGE{0:3}.
Persistent global general storage register that
can be used by system to pass information between
masters.
This register is only reset by the power-on reset
and maintains its value through a system reset.
Four registers are used by the FSBL and other Xilinx
software products: PERS_GLOB_GEN_STORAGE{4:7}.
Register is reset only by a POR reset.
Usage:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/pggs0
# echo <value> > /sys/devices/platform/firmware\:zynqmp-firmware/pggs0
Example:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/pggs0
# echo 0x1234ABCD > /sys/devices/platform/firmware\:zynqmp-firmware/pggs0
Users: Xilinx
What: /sys/devices/platform/firmware\:zynqmp-firmware/shutdown_scope
Date: March 2020
KernelVersion: 5.6
Contact: "Jolly Shah" <jollys@xilinx.com>
Description:
This sysfs interface allows to set the shutdown scope for the
next shutdown request. When the next shutdown is performed, the
platform specific portion of PSCI-system_off can use the chosen
shutdown scope.
Following are available shutdown scopes(subtypes):
subsystem: Only the APU along with all of its peripherals
not used by other processing units will be
shut down. This may result in the FPD power
domain being shut down provided that no other
processing unit uses FPD peripherals or DRAM.
ps_only: The complete PS will be shut down, including the
RPU, PMU, etc. Only the PL domain (FPGA)
remains untouched.
system: The complete system/device is shut down.
Usage:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/shutdown_scope
# echo <scope> > /sys/devices/platform/firmware\:zynqmp-firmware/shutdown_scope
Example:
# cat /sys/devices/platform/firmware\:zynqmp-firmware/shutdown_scope
# echo "subsystem" > /sys/devices/platform/firmware\:zynqmp-firmware/shutdown_scope
Users: Xilinx
What: /sys/devices/platform/firmware\:zynqmp-firmware/health_status
Date: March 2020
KernelVersion: 5.6
Contact: "Jolly Shah" <jollys@xilinx.com>
Description:
This sysfs interface allows to set the health status. If PMUFW
is compiled with CHECK_HEALTHY_BOOT, it will check the healthy
bit on FPD WDT expiration. If healthy bit is set by a user
application running in Linux, PMUFW will do APU only restart. If
healthy bit is not set during FPD WDT expiration, PMUFW will do
system restart.
Usage:
Set healthy bit
# echo 1 > /sys/devices/platform/firmware\:zynqmp-firmware/health_status
Unset healthy bit
# echo 0 > /sys/devices/platform/firmware\:zynqmp-firmware/health_status
Users: Xilinx
......@@ -8,6 +8,16 @@ Description: Sets the device address to be used for read or write through
only when the IOMMU is disabled.
The acceptable value is a string that starts with "0x"
What: /sys/kernel/debug/habanalabs/hl<n>/clk_gate
Date: May 2020
KernelVersion: 5.8
Contact: oded.gabbay@gmail.com
Description: Allow the root user to disable/enable in runtime the clock
gating mechanism in Gaudi. Due to how Gaudi is built, the
clock gating needs to be disabled in order to access the
registers of the TPC and MME engines. This is sometimes needed
during debug by the user and hence the user needs this option
What: /sys/kernel/debug/habanalabs/hl<n>/command_buffers
Date: Jan 2019
KernelVersion: 5.1
......@@ -150,3 +160,10 @@ KernelVersion: 5.1
Contact: oded.gabbay@gmail.com
Description: Displays a list with information about all the active virtual
address mappings per ASID
What: /sys/kernel/debug/habanalabs/hl<n>/stop_on_err
Date: Mar 2020
KernelVersion: 5.6
Contact: oded.gabbay@gmail.com
Description: Sets the stop-on_error option for the device engines. Value of
"0" is for disable, otherwise enable.
What: /sys/bus/event_source/devices/dfl_fmeX/format
Date: April 2020
KernelVersion: 5.8
Contact: Wu Hao <hao.wu@intel.com>
Description: Read-only. Attribute group to describe the magic bits
that go into perf_event_attr.config for a particular pmu.
(See ABI/testing/sysfs-bus-event_source-devices-format).
Each attribute under this group defines a bit range of the
perf_event_attr.config. All supported attributes are listed
below.
event = "config:0-11" - event ID
evtype = "config:12-15" - event type
portid = "config:16-23" - event source
For example,
fab_mmio_read = "event=0x06,evtype=0x02,portid=0xff"
It shows this fab_mmio_read is a fabric type (0x02) event with
0x06 local event id for overall monitoring (portid=0xff).
What: /sys/bus/event_source/devices/dfl_fmeX/cpumask
Date: April 2020
KernelVersion: 5.8
Contact: Wu Hao <hao.wu@intel.com>
Description: Read-only. This file always returns cpu which the PMU is bound
for access to all fme pmu performance monitoring events.
What: /sys/bus/event_source/devices/dfl_fmeX/events
Date: April 2020
KernelVersion: 5.8
Contact: Wu Hao <hao.wu@intel.com>
Description: Read-only. Attribute group to describe performance monitoring
events specific to fme. Each attribute in this group describes
a single performance monitoring event supported by this fme pmu.
The name of the file is the name of the event.
(See ABI/testing/sysfs-bus-event_source-devices-events).
All supported performance monitoring events are listed below.
Basic events (evtype=0x00)
clock = "event=0x00,evtype=0x00,portid=0xff"
Cache events (evtype=0x01)
cache_read_hit = "event=0x00,evtype=0x01,portid=0xff"
cache_read_miss = "event=0x01,evtype=0x01,portid=0xff"
cache_write_hit = "event=0x02,evtype=0x01,portid=0xff"
cache_write_miss = "event=0x03,evtype=0x01,portid=0xff"
cache_hold_request = "event=0x05,evtype=0x01,portid=0xff"
cache_data_write_port_contention =
"event=0x06,evtype=0x01,portid=0xff"
cache_tag_write_port_contention =
"event=0x07,evtype=0x01,portid=0xff"
cache_tx_req_stall = "event=0x08,evtype=0x01,portid=0xff"
cache_rx_req_stall = "event=0x09,evtype=0x01,portid=0xff"
cache_eviction = "event=0x0a,evtype=0x01,portid=0xff"
Fabric events (evtype=0x02)
fab_pcie0_read = "event=0x00,evtype=0x02,portid=0xff"
fab_pcie0_write = "event=0x01,evtype=0x02,portid=0xff"
fab_pcie1_read = "event=0x02,evtype=0x02,portid=0xff"
fab_pcie1_write = "event=0x03,evtype=0x02,portid=0xff"
fab_upi_read = "event=0x04,evtype=0x02,portid=0xff"
fab_upi_write = "event=0x05,evtype=0x02,portid=0xff"
fab_mmio_read = "event=0x06,evtype=0x02,portid=0xff"
fab_mmio_write = "event=0x07,evtype=0x02,portid=0xff"
fab_port_pcie0_read = "event=0x00,evtype=0x02,portid=?"
fab_port_pcie0_write = "event=0x01,evtype=0x02,portid=?"
fab_port_pcie1_read = "event=0x02,evtype=0x02,portid=?"
fab_port_pcie1_write = "event=0x03,evtype=0x02,portid=?"
fab_port_upi_read = "event=0x04,evtype=0x02,portid=?"
fab_port_upi_write = "event=0x05,evtype=0x02,portid=?"
fab_port_mmio_read = "event=0x06,evtype=0x02,portid=?"
fab_port_mmio_write = "event=0x07,evtype=0x02,portid=?"
VTD events (evtype=0x03)
vtd_port_read_transaction = "event=0x00,evtype=0x03,portid=?"
vtd_port_write_transaction = "event=0x01,evtype=0x03,portid=?"
vtd_port_devtlb_read_hit = "event=0x02,evtype=0x03,portid=?"
vtd_port_devtlb_write_hit = "event=0x03,evtype=0x03,portid=?"
vtd_port_devtlb_4k_fill = "event=0x04,evtype=0x03,portid=?"
vtd_port_devtlb_2m_fill = "event=0x05,evtype=0x03,portid=?"
vtd_port_devtlb_1g_fill = "event=0x06,evtype=0x03,portid=?"
VTD SIP events (evtype=0x04)
vtd_sip_iotlb_4k_hit = "event=0x00,evtype=0x04,portid=0xff"
vtd_sip_iotlb_2m_hit = "event=0x01,evtype=0x04,portid=0xff"
vtd_sip_iotlb_1g_hit = "event=0x02,evtype=0x04,portid=0xff"
vtd_sip_slpwc_l3_hit = "event=0x03,evtype=0x04,portid=0xff"
vtd_sip_slpwc_l4_hit = "event=0x04,evtype=0x04,portid=0xff"
vtd_sip_rcc_hit = "event=0x05,evtype=0x04,portid=0xff"
vtd_sip_iotlb_4k_miss = "event=0x06,evtype=0x04,portid=0xff"
vtd_sip_iotlb_2m_miss = "event=0x07,evtype=0x04,portid=0xff"
vtd_sip_iotlb_1g_miss = "event=0x08,evtype=0x04,portid=0xff"
vtd_sip_slpwc_l3_miss = "event=0x09,evtype=0x04,portid=0xff"
vtd_sip_slpwc_l4_miss = "event=0x0a,evtype=0x04,portid=0xff"
vtd_sip_rcc_miss = "event=0x0b,evtype=0x04,portid=0xff"
What: /sys/bus/soundwire/devices/sdw-master-N/revision
/sys/bus/soundwire/devices/sdw-master-N/clk_stop_modes
/sys/bus/soundwire/devices/sdw-master-N/clk_freq
/sys/bus/soundwire/devices/sdw-master-N/clk_gears
/sys/bus/soundwire/devices/sdw-master-N/default_col
/sys/bus/soundwire/devices/sdw-master-N/default_frame_rate
/sys/bus/soundwire/devices/sdw-master-N/default_row
/sys/bus/soundwire/devices/sdw-master-N/dynamic_shape
/sys/bus/soundwire/devices/sdw-master-N/err_threshold
/sys/bus/soundwire/devices/sdw-master-N/max_clk_freq
Date: April 2020
Contact: Pierre-Louis Bossart <pierre-louis.bossart@linux.intel.com>
Bard Liao <yung-chuan.liao@linux.intel.com>
Vinod Koul <vkoul@kernel.org>
Description: SoundWire Master-N DisCo properties.
These properties are defined by MIPI DisCo Specification
for SoundWire. They define various properties of the Master
and are used by the bus to configure the Master. clk_stop_modes
is a bitmask for simplifications and combines the
clock-stop-mode0 and clock-stop-mode1 properties.
What: /sys/bus/soundwire/devices/sdw:.../dev-properties/mipi_revision
/sys/bus/soundwire/devices/sdw:.../dev-properties/wake_capable
/sys/bus/soundwire/devices/sdw:.../dev-properties/test_mode_capable
/sys/bus/soundwire/devices/sdw:.../dev-properties/clk_stop_mode1
/sys/bus/soundwire/devices/sdw:.../dev-properties/simple_clk_stop_capable
/sys/bus/soundwire/devices/sdw:.../dev-properties/clk_stop_timeout
/sys/bus/soundwire/devices/sdw:.../dev-properties/ch_prep_timeout
/sys/bus/soundwire/devices/sdw:.../dev-properties/reset_behave
/sys/bus/soundwire/devices/sdw:.../dev-properties/high_PHY_capable
/sys/bus/soundwire/devices/sdw:.../dev-properties/paging_support
/sys/bus/soundwire/devices/sdw:.../dev-properties/bank_delay_support
/sys/bus/soundwire/devices/sdw:.../dev-properties/p15_behave
/sys/bus/soundwire/devices/sdw:.../dev-properties/master_count
/sys/bus/soundwire/devices/sdw:.../dev-properties/source_ports
/sys/bus/soundwire/devices/sdw:.../dev-properties/sink_ports
Date: May 2020
Contact: Pierre-Louis Bossart <pierre-louis.bossart@linux.intel.com>
Bard Liao <yung-chuan.liao@linux.intel.com>
Vinod Koul <vkoul@kernel.org>
Description: SoundWire Slave DisCo properties.
These properties are defined by MIPI DisCo Specification
for SoundWire. They define various properties of the
SoundWire Slave and are used by the bus to configure
the Slave
What: /sys/bus/soundwire/devices/sdw:.../dp0/max_word
/sys/bus/soundwire/devices/sdw:.../dp0/min_word
/sys/bus/soundwire/devices/sdw:.../dp0/words
/sys/bus/soundwire/devices/sdw:.../dp0/BRA_flow_controlled
/sys/bus/soundwire/devices/sdw:.../dp0/simple_ch_prep_sm
/sys/bus/soundwire/devices/sdw:.../dp0/imp_def_interrupts
Date: May 2020
Contact: Pierre-Louis Bossart <pierre-louis.bossart@linux.intel.com>
Bard Liao <yung-chuan.liao@linux.intel.com>
Vinod Koul <vkoul@kernel.org>
Description: SoundWire Slave Data Port-0 DisCo properties.
These properties are defined by MIPI DisCo Specification
for the SoundWire. They define various properties of the
Data port 0 are used by the bus to configure the Data Port 0.
What: /sys/bus/soundwire/devices/sdw:.../dpN_src/max_word
/sys/bus/soundwire/devices/sdw:.../dpN_src/min_word
/sys/bus/soundwire/devices/sdw:.../dpN_src/words
/sys/bus/soundwire/devices/sdw:.../dpN_src/type
/sys/bus/soundwire/devices/sdw:.../dpN_src/max_grouping
/sys/bus/soundwire/devices/sdw:.../dpN_src/simple_ch_prep_sm
/sys/bus/soundwire/devices/sdw:.../dpN_src/ch_prep_timeout
/sys/bus/soundwire/devices/sdw:.../dpN_src/imp_def_interrupts
/sys/bus/soundwire/devices/sdw:.../dpN_src/min_ch
/sys/bus/soundwire/devices/sdw:.../dpN_src/max_ch
/sys/bus/soundwire/devices/sdw:.../dpN_src/channels
/sys/bus/soundwire/devices/sdw:.../dpN_src/ch_combinations
/sys/bus/soundwire/devices/sdw:.../dpN_src/max_async_buffer
/sys/bus/soundwire/devices/sdw:.../dpN_src/block_pack_mode
/sys/bus/soundwire/devices/sdw:.../dpN_src/port_encoding
/sys/bus/soundwire/devices/sdw:.../dpN_sink/max_word
/sys/bus/soundwire/devices/sdw:.../dpN_sink/min_word
/sys/bus/soundwire/devices/sdw:.../dpN_sink/words
/sys/bus/soundwire/devices/sdw:.../dpN_sink/type
/sys/bus/soundwire/devices/sdw:.../dpN_sink/max_grouping
/sys/bus/soundwire/devices/sdw:.../dpN_sink/simple_ch_prep_sm
/sys/bus/soundwire/devices/sdw:.../dpN_sink/ch_prep_timeout
/sys/bus/soundwire/devices/sdw:.../dpN_sink/imp_def_interrupts
/sys/bus/soundwire/devices/sdw:.../dpN_sink/min_ch
/sys/bus/soundwire/devices/sdw:.../dpN_sink/max_ch
/sys/bus/soundwire/devices/sdw:.../dpN_sink/channels
/sys/bus/soundwire/devices/sdw:.../dpN_sink/ch_combinations
/sys/bus/soundwire/devices/sdw:.../dpN_sink/max_async_buffer
/sys/bus/soundwire/devices/sdw:.../dpN_sink/block_pack_mode
/sys/bus/soundwire/devices/sdw:.../dpN_sink/port_encoding
Date: May 2020
Contact: Pierre-Louis Bossart <pierre-louis.bossart@linux.intel.com>
Bard Liao <yung-chuan.liao@linux.intel.com>
Vinod Koul <vkoul@kernel.org>
Description: SoundWire Slave Data Source/Sink Port-N DisCo properties.
These properties are defined by MIPI DisCo Specification
for SoundWire. They define various properties of the
Source/Sink Data port N and are used by the bus to configure
the Data Port N.
......@@ -10,6 +10,23 @@ KernelVersion: 5.1
Contact: oded.gabbay@gmail.com
Description: Version of the application running on the device's CPU
What: /sys/class/habanalabs/hl<n>/clk_max_freq_mhz
Date: Jun 2019
KernelVersion: not yet upstreamed
Contact: oded.gabbay@gmail.com
Description: Allows the user to set the maximum clock frequency, in MHz.
The device clock might be set to lower value than the maximum.
The user should read the clk_cur_freq_mhz to see the actual
frequency value of the device clock. This property is valid
only for the Gaudi ASIC family
What: /sys/class/habanalabs/hl<n>/clk_cur_freq_mhz
Date: Jun 2019
KernelVersion: not yet upstreamed
Contact: oded.gabbay@gmail.com
Description: Displays the current frequency, in MHz, of the device clock.
This property is valid only for the Gaudi ASIC family
What: /sys/class/habanalabs/hl<n>/cpld_ver
Date: Jan 2019
KernelVersion: 5.1
......
What: /sys/bus/w1/devices/.../alarms
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RW) read or write TH and TL (Temperature High an Low) alarms.
Values shall be space separated and in the device range
(typical -55 degC to 125 degC), if not values will be trimmed
to device min/max capabilities. Values are integer as they are
stored in a 8bit register in the device. Lowest value is
automatically put to TL. Once set, alarms could be search at
master level, refer to Documentation/w1/w1_generic.rst for
detailed information
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/.../eeprom
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(WO) writing that file will either trigger a save of the
device data to its embedded EEPROM, either restore data
embedded in device EEPROM. Be aware that devices support
limited EEPROM writing cycles (typical 50k)
* 'save': save device RAM to EEPROM
* 'restore': restore EEPROM data in device RAM
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/.../ext_power
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RO) return the power status by asking the device
* '0': device parasite powered
* '1': device externally powered
* '-xx': xx is kernel error when reading power status
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/.../resolution
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RW) get or set the device resolution (on supported devices,
if not, this entry is not present). Note that the resolution
will be changed only in device RAM, so it will be cleared when
power is lost. Trigger a 'save' to EEPROM command to keep
values after power-on. Read or write are :
* '9..12': device resolution in bit
or resolution to set in bit
* '-xx': xx is kernel error when reading the resolution
* Anything else: do nothing
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/.../temperature
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RO) return the temperature in 1/1000 degC.
* If a bulk read has been triggered, it will directly
return the temperature computed when the bulk read
occurred, if available. If not yet available, nothing
is returned (a debug kernel message is sent), you
should retry later on.
* If no bulk read has been triggered, it will trigger
a conversion and send the result. Note that the
conversion duration depend on the resolution (if
device support this feature). It takes 94ms in 9bits
resolution, 750ms for 12bits.
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/.../w1_slave
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RW) return the temperature in 1/1000 degC.
*read*: return 2 lines with the hexa output data sent on the
bus, return the CRC check and temperature in 1/1000 degC
*write* :
* '0' : save the 2 or 3 bytes to the device EEPROM
(i.e. TH, TL and config register)
* '9..12' : set the device resolution in RAM
(if supported)
* Anything else: do nothing
refer to Documentation/w1/slaves/w1_therm.rst for detailed
information.
Users: any user space application which wants to communicate with
w1_term device
What: /sys/bus/w1/devices/w1_bus_masterXX/therm_bulk_read
Date: May 2020
Contact: Akira Shimahara <akira215corp@gmail.com>
Description:
(RW) trigger a bulk read conversion. read the status
*read*:
* '-1': conversion in progress on at least 1 sensor
* '1' : conversion complete but at least one sensor
value has not been read yet
* '0' : no bulk operation. Reading temperature will
trigger a conversion on each device
*write*: 'trigger': trigger a bulk read on all supporting
devices on the bus
Note that if a bulk read is sent but one sensor is not read
immediately, the next access to temperature on this device
will return the temperature measured at the time of issue
of the bulk read command (not the current temperature).
Users: any user space application which wants to communicate with
w1_term device
......@@ -23,7 +23,7 @@ Required properties:
The svc node has the following mandatory properties, must be located under
the firmware node.
- compatible: "intel,stratix10-svc"
- compatible: "intel,stratix10-svc" or "intel,agilex-svc"
- method: smc or hvc
smc - Secure Monitor Call
hvc - Hypervisor Call
......
......@@ -4,7 +4,8 @@ Required properties:
The fpga_mgr node has the following mandatory property, must be located under
firmware/svc node.
- compatible : should contain "intel,stratix10-soc-fpga-mgr"
- compatible : should contain "intel,stratix10-soc-fpga-mgr" or
"intel,agilex-soc-fpga-mgr"
Example:
......
# SPDX-License-Identifier: GPL-2.0
%YAML 1.2
---
$id: http://devicetree.org/schemas/interconnect/fsl,imx8m-noc.yaml#
$schema: http://devicetree.org/meta-schemas/core.yaml#
title: Generic i.MX bus frequency device
maintainers:
- Leonard Crestez <leonard.crestez@nxp.com>
description: |
The i.MX SoC family has multiple buses for which clock frequency (and
sometimes voltage) can be adjusted.
Some of those buses expose register areas mentioned in the memory maps as GPV
("Global Programmers View") but not all. Access to this area might be denied
for normal (non-secure) world.
The buses are based on externally licensed IPs such as ARM NIC-301 and
Arteris FlexNOC but DT bindings are specific to the integration of these bus
interconnect IPs into imx SOCs.
properties:
compatible:
oneOf:
- items:
- enum:
- fsl,imx8mn-nic
- fsl,imx8mm-nic
- fsl,imx8mq-nic
- const: fsl,imx8m-nic
- items:
- enum:
- fsl,imx8mn-noc
- fsl,imx8mm-noc
- fsl,imx8mq-noc
- const: fsl,imx8m-noc
- const: fsl,imx8m-nic
reg:
maxItems: 1
clocks:
maxItems: 1
operating-points-v2: true
opp-table: true
fsl,ddrc:
$ref: "/schemas/types.yaml#/definitions/phandle"
description:
Phandle to DDR Controller.
'#interconnect-cells':
description:
If specified then also act as an interconnect provider. Should only be
set once per soc on the main noc.
const: 1
required:
- compatible
- clocks
additionalProperties: false
examples:
- |
#include <dt-bindings/clock/imx8mm-clock.h>
#include <dt-bindings/interconnect/imx8mm.h>
#include <dt-bindings/interrupt-controller/arm-gic.h>
noc: interconnect@32700000 {
compatible = "fsl,imx8mm-noc", "fsl,imx8m-noc";
reg = <0x32700000 0x100000>;
clocks = <&clk IMX8MM_CLK_NOC>;
#interconnect-cells = <1>;
fsl,ddrc = <&ddrc>;
operating-points-v2 = <&noc_opp_table>;
noc_opp_table: opp-table {
compatible = "operating-points-v2";
opp-133M {
opp-hz = /bits/ 64 <133333333>;
};
opp-800M {
opp-hz = /bits/ 64 <800000000>;
};
};
};
ddrc: memory-controller@3d400000 {
compatible = "fsl,imx8mm-ddrc", "fsl,imx8m-ddrc";
reg = <0x3d400000 0x400000>;
clock-names = "core", "pll", "alt", "apb";
clocks = <&clk IMX8MM_CLK_DRAM_CORE>,
<&clk IMX8MM_DRAM_PLL>,
<&clk IMX8MM_CLK_DRAM_ALT>,
<&clk IMX8MM_CLK_DRAM_APB>;
};
......@@ -75,8 +75,33 @@ Slaves are using single port. ::
| (Data) |
+---------------+
Example 4: Stereo Stream with L and R channels is rendered by
Master. Both of the L and R channels are received by two different
Slaves. Master and both Slaves are using single port handling
L+R. Each Slave device processes the L + R data locally, typically
based on static configuration or dynamic orientation, and may drive
one or more speakers. ::
Example 4: Stereo Stream with L and R channel is rendered by two different
+---------------+ Clock Signal +---------------+
| Master +---------+------------------------+ Slave |
| Interface | | | Interface |
| | | | 1 |
| | | Data Signal | |
| L + R +---+------------------------------+ L + R |
| (Data) | | | Data Direction | (Data) |
+---------------+ | | +-------------> +---------------+
| |
| |
| | +---------------+
| +----------------------> | Slave |
| | Interface |
| | 2 |
| | |
+----------------------------> | L + R |
| (Data) |
+---------------+
Example 5: Stereo Stream with L and R channel is rendered by two different
Ports of the Master and is received by only single Port of the Slave
interface. ::
......@@ -101,7 +126,7 @@ interface. ::
+--------------------+ | |
+----------------+
Example 5: Stereo Stream with L and R channel is rendered by 2 Masters, each
Example 6: Stereo Stream with L and R channel is rendered by 2 Masters, each
rendering one channel, and is received by two different Slaves, each
receiving one channel. Both Masters and both Slaves are using single port. ::
......@@ -123,12 +148,70 @@ receiving one channel. Both Masters and both Slaves are using single port. ::
| (Data) | Data Direction | (Data) |
+---------------+ +-----------------------> +---------------+
Note: In multi-link cases like above, to lock, one would acquire a global
Example 7: Stereo Stream with L and R channel is rendered by 2
Masters, each rendering both channels. Each Slave receives L + R. This
is the same application as Example 4 but with Slaves placed on
separate links. ::
+---------------+ Clock Signal +---------------+
| Master +----------------------------------+ Slave |
| Interface | | Interface |
| 1 | | 1 |
| | Data Signal | |
| L + R +----------------------------------+ L + R |
| (Data) | Data Direction | (Data) |
+---------------+ +-----------------------> +---------------+
+---------------+ Clock Signal +---------------+
| Master +----------------------------------+ Slave |
| Interface | | Interface |
| 2 | | 2 |
| | Data Signal | |
| L + R +----------------------------------+ L + R |
| (Data) | Data Direction | (Data) |
+---------------+ +-----------------------> +---------------+
Example 8: 4-channel Stream is rendered by 2 Masters, each rendering a
2 channels. Each Slave receives 2 channels. ::
+---------------+ Clock Signal +---------------+
| Master +----------------------------------+ Slave |
| Interface | | Interface |
| 1 | | 1 |
| | Data Signal | |
| L1 + R1 +----------------------------------+ L1 + R1 |
| (Data) | Data Direction | (Data) |
+---------------+ +-----------------------> +---------------+
+---------------+ Clock Signal +---------------+
| Master +----------------------------------+ Slave |
| Interface | | Interface |
| 2 | | 2 |
| | Data Signal | |
| L2 + R2 +----------------------------------+ L2 + R2 |
| (Data) | Data Direction | (Data) |
+---------------+ +-----------------------> +---------------+
Note1: In multi-link cases like above, to lock, one would acquire a global
lock and then go on locking bus instances. But, in this case the caller
framework(ASoC DPCM) guarantees that stream operations on a card are
always serialized. So, there is no race condition and hence no need for
global lock.
Note2: A Slave device may be configured to receive all channels
transmitted on a link for a given Stream (Example 4) or just a subset
of the data (Example 3). The configuration of the Slave device is not
handled by a SoundWire subsystem API, but instead by the
snd_soc_dai_set_tdm_slot() API. The platform or machine driver will
typically configure which of the slots are used. For Example 4, the
same slots would be used by all Devices, while for Example 3 the Slave
Device1 would use e.g. Slot 0 and Slave device2 slot 1.
Note3: Multiple Sink ports can extract the same information for the
same bitSlots in the SoundWire frame, however multiple Source ports
shall be configured with different bitSlot configurations. This is the
same limitation as with I2S/PCM TDM usages.
SoundWire Stream Management flow
================================
......
......@@ -101,10 +101,11 @@ Following is the Bus API to register the SoundWire Bus:
.. code-block:: c
int sdw_add_bus_master(struct sdw_bus *bus)
int sdw_bus_master_add(struct sdw_bus *bus,
struct device *parent,
struct fwnode_handle)
{
if (!bus->dev)
return -ENODEV;
sdw_master_device_add(bus, parent, fwnode);
mutex_init(&bus->lock);
INIT_LIST_HEAD(&bus->slaves);
......
......@@ -118,6 +118,11 @@ More functions are exposed through sysfs
management information (current temperature, thresholds, threshold status,
etc.).
Performance reporting
performance counters are exposed through perf PMU APIs. Standard perf tool
can be used to monitor all available perf events. Please see performance
counter section below for more detailed information.
FIU - PORT
==========
......@@ -378,6 +383,85 @@ The device nodes used for ioctl() or mmap() can be referenced through::
/sys/class/fpga_region/<regionX>/<dfl-port.n>/dev
Performance Counters
====================
Performance reporting is one private feature implemented in FME. It could
supports several independent, system-wide, device counter sets in hardware to
monitor and count for performance events, including "basic", "cache", "fabric",
"vtd" and "vtd_sip" counters. Users could use standard perf tool to monitor
FPGA cache hit/miss rate, transaction number, interface clock counter of AFU
and other FPGA performance events.
Different FPGA devices may have different counter sets, depending on hardware
implementation. E.g., some discrete FPGA cards don't have any cache. User could
use "perf list" to check which perf events are supported by target hardware.
In order to allow user to use standard perf API to access these performance
counters, driver creates a perf PMU, and related sysfs interfaces in
/sys/bus/event_source/devices/dfl_fme* to describe available perf events and
configuration options.
The "format" directory describes the format of the config field of struct
perf_event_attr. There are 3 bitfields for config: "evtype" defines which type
the perf event belongs to; "event" is the identity of the event within its
category; "portid" is introduced to decide counters set to monitor on FPGA
overall data or a specific port.
The "events" directory describes the configuration templates for all available
events which can be used with perf tool directly. For example, fab_mmio_read
has the configuration "event=0x06,evtype=0x02,portid=0xff", which shows this
event belongs to fabric type (0x02), the local event id is 0x06 and it is for
overall monitoring (portid=0xff).
Example usage of perf::
$# perf list |grep dfl_fme
dfl_fme0/fab_mmio_read/ [Kernel PMU event]
<...>
dfl_fme0/fab_port_mmio_read,portid=?/ [Kernel PMU event]
<...>
$# perf stat -a -e dfl_fme0/fab_mmio_read/ <command>
or
$# perf stat -a -e dfl_fme0/event=0x06,evtype=0x02,portid=0xff/ <command>
or
$# perf stat -a -e dfl_fme0/config=0xff2006/ <command>
Another example, fab_port_mmio_read monitors mmio read of a specific port. So
its configuration template is "event=0x06,evtype=0x01,portid=?". The portid
should be explicitly set.
Its usage of perf::
$# perf stat -a -e dfl_fme0/fab_port_mmio_read,portid=0x0/ <command>
or
$# perf stat -a -e dfl_fme0/event=0x06,evtype=0x02,portid=0x0/ <command>
or
$# perf stat -a -e dfl_fme0/config=0x2006/ <command>
Please note for fabric counters, overall perf events (fab_*) and port perf
events (fab_port_*) actually share one set of counters in hardware, so it can't
monitor both at the same time. If this set of counters is configured to monitor
overall data, then per port perf data is not supported. See below example::
$# perf stat -e dfl_fme0/fab_mmio_read/,dfl_fme0/fab_port_mmio_write,\
portid=0/ sleep 1
Performance counter stats for 'system wide':
3 dfl_fme0/fab_mmio_read/
<not supported> dfl_fme0/fab_port_mmio_write,portid=0x0/
1.001750904 seconds time elapsed
The driver also provides a "cpumask" sysfs attribute, which contains only one
CPU id used to access these perf events. Counting on multiple CPU is not allowed
since they are system-wide counters on FPGA device.
The current driver does not support sampling. So "perf record" is unsupported.
Add new FIUs support
====================
It's possible that developers made some new function blocks (FIUs) under this
......
......@@ -73,7 +73,7 @@ capable of generating or using trigger signals.::
>$ ls /sys/bus/coresight/devices/etm0/cti_cpu0
channels ctmid enable nr_trigger_cons mgmt power powered regs
subsystem triggers0 triggers1 uevent
connections subsystem triggers0 triggers1 uevent
*Key file items are:-*
* ``enable``: enables/disables the CTI. Read to determine current state.
......@@ -89,6 +89,9 @@ capable of generating or using trigger signals.::
* ``channels``: Contains the channel API - CTI main programming interface.
* ``regs``: Gives access to the raw programmable CTI regs.
* ``mgmt``: the standard CoreSight management registers.
* ``connections``: Links to connected *CoreSight* devices. The number of
links can be 0 to ``nr_trigger_cons``. Actual number given by ``nr_links``
in this directory.
triggers<N> directories
......
......@@ -241,6 +241,91 @@ to the newer scheme, to give a confirmation that what you see on your
system is not unexpected. One must use the "names" as they appear on
the system under specified locations.
Topology Representation
-----------------------
Each CoreSight component has a ``connections`` directory which will contain
links to other CoreSight components. This allows the user to explore the trace
topology and for larger systems, determine the most appropriate sink for a
given source. The connection information can also be used to establish
which CTI devices are connected to a given component. This directory contains a
``nr_links`` attribute detailing the number of links in the directory.
For an ETM source, in this case ``etm0`` on a Juno platform, a typical
arrangement will be::
linaro-developer:~# ls - l /sys/bus/coresight/devices/etm0/connections
<file details> cti_cpu0 -> ../../../23020000.cti/cti_cpu0
<file details> nr_links
<file details> out:0 -> ../../../230c0000.funnel/funnel2
Following the out port to ``funnel2``::
linaro-developer:~# ls -l /sys/bus/coresight/devices/funnel2/connections
<file details> in:0 -> ../../../23040000.etm/etm0
<file details> in:1 -> ../../../23140000.etm/etm3
<file details> in:2 -> ../../../23240000.etm/etm4
<file details> in:3 -> ../../../23340000.etm/etm5
<file details> nr_links
<file details> out:0 -> ../../../20040000.funnel/funnel0
And again to ``funnel0``::
linaro-developer:~# ls -l /sys/bus/coresight/devices/funnel0/connections
<file details> in:0 -> ../../../220c0000.funnel/funnel1
<file details> in:1 -> ../../../230c0000.funnel/funnel2
<file details> nr_links
<file details> out:0 -> ../../../20010000.etf/tmc_etf0
Finding the first sink ``tmc_etf0``. This can be used to collect data
as a sink, or as a link to propagate further along the chain::
linaro-developer:~# ls -l /sys/bus/coresight/devices/tmc_etf0/connections
<file details> cti_sys0 -> ../../../20020000.cti/cti_sys0
<file details> in:0 -> ../../../20040000.funnel/funnel0
<file details> nr_links
<file details> out:0 -> ../../../20150000.funnel/funnel4
via ``funnel4``::
linaro-developer:~# ls -l /sys/bus/coresight/devices/funnel4/connections
<file details> in:0 -> ../../../20010000.etf/tmc_etf0
<file details> in:1 -> ../../../20140000.etf/tmc_etf1
<file details> nr_links
<file details> out:0 -> ../../../20120000.replicator/replicator0
and a ``replicator0``::
linaro-developer:~# ls -l /sys/bus/coresight/devices/replicator0/connections
<file details> in:0 -> ../../../20150000.funnel/funnel4
<file details> nr_links
<file details> out:0 -> ../../../20030000.tpiu/tpiu0
<file details> out:1 -> ../../../20070000.etr/tmc_etr0
Arriving at the final sink in the chain, ``tmc_etr0``::
linaro-developer:~# ls -l /sys/bus/coresight/devices/tmc_etr0/connections
<file details> cti_sys0 -> ../../../20020000.cti/cti_sys0
<file details> in:0 -> ../../../20120000.replicator/replicator0
<file details> nr_links
As described below, when using sysfs it is sufficient to enable a sink and
a source for successful trace. The framework will correctly enable all
intermediate links as required.
Note: ``cti_sys0`` appears in two of the connections lists above.
CTIs can connect to multiple devices and are arranged in a star topology
via the CTM. See (:doc:`coresight-ect`) [#fourth]_ for further details.
Looking at this device we see 4 connections::
linaro-developer:~# ls -l /sys/bus/coresight/devices/cti_sys0/connections
<file details> nr_links
<file details> stm0 -> ../../../20100000.stm/stm0
<file details> tmc_etf0 -> ../../../20010000.etf/tmc_etf0
<file details> tmc_etr0 -> ../../../20070000.etr/tmc_etr0
<file details> tpiu0 -> ../../../20030000.tpiu/tpiu0
How to use the tracer modules
-----------------------------
......
......@@ -26,20 +26,31 @@ W1_THERM_DS1825 0x3B
W1_THERM_DS28EA00 0x42
==================== ====
Support is provided through the sysfs w1_slave file. Each open and
Support is provided through the sysfs w1_slave file. Each open and
read sequence will initiate a temperature conversion then provide two
lines of ASCII output. The first line contains the nine hex bytes
lines of ASCII output. The first line contains the nine hex bytes
read along with a calculated crc value and YES or NO if it matched.
If the crc matched the returned values are retained. The second line
If the crc matched the returned values are retained. The second line
displays the retained values along with a temperature in millidegrees
Centigrade after t=.
Parasite powered devices are limited to one slave performing a
temperature conversion at a time. If none of the devices are parasite
powered it would be possible to convert all the devices at the same
time and then go back to read individual sensors. That isn't
currently supported. The driver also doesn't support reduced
precision (which would also reduce the conversion time) when reading values.
Alternatively, temperature can be read using temperature sysfs, it
return only temperature in millidegrees Centigrade.
A bulk read of all devices on the bus could be done writing 'trigger'
in the therm_bulk_read sysfs entry at w1_bus_master level. This will
sent the convert command on all devices on the bus, and if parasite
powered devices are detected on the bus (and strong pullup is enable
in the module), it will drive the line high during the longer conversion
time required by parasited powered device on the line. Reading
therm_bulk_read will return 0 if no bulk conversion pending,
-1 if at least one sensor still in conversion, 1 if conversion is complete
but at least one sensor value has not been read yet. Result temperature is
then accessed by reading the temperature sysfs entry of each device, which
may return empty if conversion is still in progress. Note that if a bulk
read is sent but one sensor is not read immediately, the next access to
temperature on this device will return the temperature measured at the
time of issue of the bulk read command (not the current temperature).
Writing a value between 9 and 12 to the sysfs w1_slave file will change the
precision of the sensor for the next readings. This value is in (volatile)
......@@ -49,6 +60,27 @@ To store the current precision configuration into EEPROM, the value 0
has to be written to the sysfs w1_slave file. Since the EEPROM has a limited
amount of writes (>50k), this command should be used wisely.
Alternatively, resolution can be set or read (value from 9 to 12) using the
dedicated resolution sysfs entry on each device. This sysfs entry is not
present for devices not supporting this feature. Driver will adjust the
correct conversion time for each device regarding to its resolution setting.
In particular, strong pullup will be applied if required during the conversion
duration.
The write-only sysfs entry eeprom is an alternative for EEPROM operations:
* 'save': will save device RAM to EEPROM
* 'restore': will restore EEPROM data in device RAM.
ext_power syfs entry allow tho check the power status of each device.
* '0': device parasite powered
* '1': device externally powered
sysfs alarms allow read or write TH and TL (Temperature High an Low) alarms.
Values shall be space separated and in the device range (typical -55 degC
to 125 degC). Values are integer as they are store in a 8bit register in
the device. Lowest value is automatically put to TL.Once set, alarms could
be search at master level.
The module parameter strong_pullup can be set to 0 to disable the
strong pullup, 1 to enable autodetection or 2 to force strong pullup.
In case of autodetection, the driver will use the "READ POWER SUPPLY"
......
......@@ -539,12 +539,12 @@ qspi: spi@ff8d2000 {
firmware {
svc {
compatible = "intel,stratix10-svc";
compatible = "intel,agilex-svc";
method = "smc";
memory-region = <&service_reserved>;
fpga_mgr: fpga-mgr {
compatible = "intel,stratix10-soc-fpga-mgr";
compatible = "intel,agilex-soc-fpga-mgr";
};
};
};
......
......@@ -650,7 +650,7 @@ static int binderfs_fill_super(struct super_block *sb, struct fs_context *fc)
struct binderfs_info *info;
struct binderfs_mount_opts *ctx = fc->fs_private;
struct inode *inode = NULL;
struct binderfs_device device_info = { 0 };
struct binderfs_device device_info = {};
const char *name;
size_t len;
......@@ -747,7 +747,7 @@ static const struct fs_context_operations binderfs_fs_context_ops = {
static int binderfs_init_fs_context(struct fs_context *fc)
{
struct binderfs_mount_opts *ctx = fc->fs_private;
struct binderfs_mount_opts *ctx;
ctx = kzalloc(sizeof(struct binderfs_mount_opts), GFP_KERNEL);
if (!ctx)
......
......@@ -43,10 +43,7 @@ void mhi_rddm_prepare(struct mhi_controller *mhi_cntrl,
lower_32_bits(mhi_buf->dma_addr));
mhi_write_reg(mhi_cntrl, base, BHIE_RXVECSIZE_OFFS, mhi_buf->len);
sequence_id = prandom_u32() & BHIE_RXVECSTATUS_SEQNUM_BMSK;
if (unlikely(!sequence_id))
sequence_id = 1;
sequence_id = MHI_RANDOM_U32_NONZERO(BHIE_RXVECSTATUS_SEQNUM_BMSK);
mhi_write_reg_field(mhi_cntrl, base, BHIE_RXVECDB_OFFS,
BHIE_RXVECDB_SEQNUM_BMSK, BHIE_RXVECDB_SEQNUM_SHFT,
......@@ -121,7 +118,8 @@ static int __mhi_download_rddm_in_panic(struct mhi_controller *mhi_cntrl)
ee = mhi_get_exec_env(mhi_cntrl);
}
dev_dbg(dev, "Waiting for image download completion, current EE: %s\n",
dev_dbg(dev,
"Waiting for RDDM image download via BHIe, current EE:%s\n",
TO_MHI_EXEC_STR(ee));
while (retry--) {
......@@ -152,11 +150,14 @@ static int __mhi_download_rddm_in_panic(struct mhi_controller *mhi_cntrl)
int mhi_download_rddm_img(struct mhi_controller *mhi_cntrl, bool in_panic)
{
void __iomem *base = mhi_cntrl->bhie;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
u32 rx_status;
if (in_panic)
return __mhi_download_rddm_in_panic(mhi_cntrl);
dev_dbg(dev, "Waiting for RDDM image download via BHIe\n");
/* Wait for the image download to complete */
wait_event_timeout(mhi_cntrl->state_event,
mhi_read_reg_field(mhi_cntrl, base,
......@@ -174,8 +175,10 @@ static int mhi_fw_load_amss(struct mhi_controller *mhi_cntrl,
const struct mhi_buf *mhi_buf)
{
void __iomem *base = mhi_cntrl->bhie;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
rwlock_t *pm_lock = &mhi_cntrl->pm_lock;
u32 tx_status, sequence_id;
int ret;
read_lock_bh(pm_lock);
if (!MHI_REG_ACCESS_VALID(mhi_cntrl->pm_state)) {
......@@ -183,6 +186,9 @@ static int mhi_fw_load_amss(struct mhi_controller *mhi_cntrl,
return -EIO;
}
sequence_id = MHI_RANDOM_U32_NONZERO(BHIE_TXVECSTATUS_SEQNUM_BMSK);
dev_dbg(dev, "Starting AMSS download via BHIe. Sequence ID:%u\n",
sequence_id);
mhi_write_reg(mhi_cntrl, base, BHIE_TXVECADDR_HIGH_OFFS,
upper_32_bits(mhi_buf->dma_addr));
......@@ -191,26 +197,25 @@ static int mhi_fw_load_amss(struct mhi_controller *mhi_cntrl,
mhi_write_reg(mhi_cntrl, base, BHIE_TXVECSIZE_OFFS, mhi_buf->len);
sequence_id = prandom_u32() & BHIE_TXVECSTATUS_SEQNUM_BMSK;
mhi_write_reg_field(mhi_cntrl, base, BHIE_TXVECDB_OFFS,
BHIE_TXVECDB_SEQNUM_BMSK, BHIE_TXVECDB_SEQNUM_SHFT,
sequence_id);
read_unlock_bh(pm_lock);
/* Wait for the image download to complete */
wait_event_timeout(mhi_cntrl->state_event,
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state) ||
mhi_read_reg_field(mhi_cntrl, base,
BHIE_TXVECSTATUS_OFFS,
BHIE_TXVECSTATUS_STATUS_BMSK,
BHIE_TXVECSTATUS_STATUS_SHFT,
&tx_status) || tx_status,
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state))
ret = wait_event_timeout(mhi_cntrl->state_event,
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state) ||
mhi_read_reg_field(mhi_cntrl, base,
BHIE_TXVECSTATUS_OFFS,
BHIE_TXVECSTATUS_STATUS_BMSK,
BHIE_TXVECSTATUS_STATUS_SHFT,
&tx_status) || tx_status,
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state) ||
tx_status != BHIE_TXVECSTATUS_STATUS_XFER_COMPL)
return -EIO;
return (tx_status == BHIE_TXVECSTATUS_STATUS_XFER_COMPL) ? 0 : -EIO;
return (!ret) ? -ETIMEDOUT : 0;
}
static int mhi_fw_load_sbl(struct mhi_controller *mhi_cntrl,
......@@ -239,14 +244,15 @@ static int mhi_fw_load_sbl(struct mhi_controller *mhi_cntrl,
goto invalid_pm_state;
}
dev_dbg(dev, "Starting SBL download via BHI\n");
session_id = MHI_RANDOM_U32_NONZERO(BHI_TXDB_SEQNUM_BMSK);
dev_dbg(dev, "Starting SBL download via BHI. Session ID:%u\n",
session_id);
mhi_write_reg(mhi_cntrl, base, BHI_STATUS, 0);
mhi_write_reg(mhi_cntrl, base, BHI_IMGADDR_HIGH,
upper_32_bits(dma_addr));
mhi_write_reg(mhi_cntrl, base, BHI_IMGADDR_LOW,
lower_32_bits(dma_addr));
mhi_write_reg(mhi_cntrl, base, BHI_IMGSIZE, size);
session_id = prandom_u32() & BHI_TXDB_SEQNUM_BMSK;
mhi_write_reg(mhi_cntrl, base, BHI_IMGTXDB, session_id);
read_unlock_bh(pm_lock);
......@@ -377,30 +383,18 @@ static void mhi_firmware_copy(struct mhi_controller *mhi_cntrl,
}
}
void mhi_fw_load_worker(struct work_struct *work)
void mhi_fw_load_handler(struct mhi_controller *mhi_cntrl)
{
struct mhi_controller *mhi_cntrl;
const struct firmware *firmware = NULL;
struct image_info *image_info;
struct device *dev;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
const char *fw_name;
void *buf;
dma_addr_t dma_addr;
size_t size;
int ret;
mhi_cntrl = container_of(work, struct mhi_controller, fw_worker);
dev = &mhi_cntrl->mhi_dev->dev;
dev_dbg(dev, "Waiting for device to enter PBL from: %s\n",
TO_MHI_EXEC_STR(mhi_cntrl->ee));
ret = wait_event_timeout(mhi_cntrl->state_event,
MHI_IN_PBL(mhi_cntrl->ee) ||
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state),
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (!ret || MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state)) {
if (MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state)) {
dev_err(dev, "Device MHI is not in valid state\n");
return;
}
......@@ -446,7 +440,12 @@ void mhi_fw_load_worker(struct work_struct *work)
release_firmware(firmware);
/* Error or in EDL mode, we're done */
if (ret || mhi_cntrl->ee == MHI_EE_EDL)
if (ret) {
dev_err(dev, "MHI did not load SBL, ret:%d\n", ret);
return;
}
if (mhi_cntrl->ee == MHI_EE_EDL)
return;
write_lock_irq(&mhi_cntrl->pm_lock);
......@@ -474,8 +473,10 @@ void mhi_fw_load_worker(struct work_struct *work)
if (!mhi_cntrl->fbc_download)
return;
if (ret)
if (ret) {
dev_err(dev, "MHI did not enter READY state\n");
goto error_read;
}
/* Wait for the SBL event */
ret = wait_event_timeout(mhi_cntrl->state_event,
......@@ -493,6 +494,8 @@ void mhi_fw_load_worker(struct work_struct *work)
ret = mhi_fw_load_amss(mhi_cntrl,
/* Vector table is the last entry */
&image_info->mhi_buf[image_info->entries - 1]);
if (ret)
dev_err(dev, "MHI did not load AMSS, ret:%d\n", ret);
release_firmware(firmware);
......
......@@ -34,6 +34,8 @@ const char * const dev_state_tran_str[DEV_ST_TRANSITION_MAX] = {
[DEV_ST_TRANSITION_READY] = "READY",
[DEV_ST_TRANSITION_SBL] = "SBL",
[DEV_ST_TRANSITION_MISSION_MODE] = "MISSION_MODE",
[DEV_ST_TRANSITION_SYS_ERR] = "SYS_ERR",
[DEV_ST_TRANSITION_DISABLE] = "DISABLE",
};
const char * const mhi_state_str[MHI_STATE_MAX] = {
......@@ -835,8 +837,6 @@ int mhi_register_controller(struct mhi_controller *mhi_cntrl,
spin_lock_init(&mhi_cntrl->transition_lock);
spin_lock_init(&mhi_cntrl->wlock);
INIT_WORK(&mhi_cntrl->st_worker, mhi_pm_st_worker);
INIT_WORK(&mhi_cntrl->syserr_worker, mhi_pm_sys_err_worker);
INIT_WORK(&mhi_cntrl->fw_worker, mhi_fw_load_worker);
init_waitqueue_head(&mhi_cntrl->state_event);
mhi_cmd = mhi_cntrl->mhi_cmd;
......@@ -864,6 +864,10 @@ int mhi_register_controller(struct mhi_controller *mhi_cntrl,
mutex_init(&mhi_chan->mutex);
init_completion(&mhi_chan->completion);
rwlock_init(&mhi_chan->lock);
/* used in setting bei field of TRE */
mhi_event = &mhi_cntrl->mhi_event[mhi_chan->er_index];
mhi_chan->intmod = mhi_event->intmod;
}
if (mhi_cntrl->bounce_buf) {
......
......@@ -386,6 +386,8 @@ enum dev_st_transition {
DEV_ST_TRANSITION_READY,
DEV_ST_TRANSITION_SBL,
DEV_ST_TRANSITION_MISSION_MODE,
DEV_ST_TRANSITION_SYS_ERR,
DEV_ST_TRANSITION_DISABLE,
DEV_ST_TRANSITION_MAX,
};
......@@ -452,6 +454,7 @@ enum mhi_pm_state {
#define PRIMARY_CMD_RING 0
#define MHI_DEV_WAKE_DB 127
#define MHI_MAX_MTU 0xffff
#define MHI_RANDOM_U32_NONZERO(bmsk) (prandom_u32_max(bmsk) + 1)
enum mhi_er_type {
MHI_ER_TYPE_INVALID = 0x0,
......@@ -586,7 +589,7 @@ enum mhi_ee_type mhi_get_exec_env(struct mhi_controller *mhi_cntrl);
int mhi_queue_state_transition(struct mhi_controller *mhi_cntrl,
enum dev_st_transition state);
void mhi_pm_st_worker(struct work_struct *work);
void mhi_pm_sys_err_worker(struct work_struct *work);
void mhi_pm_sys_err_handler(struct mhi_controller *mhi_cntrl);
void mhi_fw_load_worker(struct work_struct *work);
int mhi_ready_state_transition(struct mhi_controller *mhi_cntrl);
void mhi_ctrl_ev_task(unsigned long data);
......@@ -627,6 +630,7 @@ int mhi_init_irq_setup(struct mhi_controller *mhi_cntrl);
void mhi_deinit_free_irq(struct mhi_controller *mhi_cntrl);
void mhi_rddm_prepare(struct mhi_controller *mhi_cntrl,
struct image_info *img_info);
void mhi_fw_load_handler(struct mhi_controller *mhi_cntrl);
int mhi_prepare_channel(struct mhi_controller *mhi_cntrl,
struct mhi_chan *mhi_chan);
int mhi_init_chan_ctxt(struct mhi_controller *mhi_cntrl,
......@@ -670,8 +674,7 @@ irqreturn_t mhi_intvec_threaded_handler(int irq_number, void *dev);
irqreturn_t mhi_intvec_handler(int irq_number, void *dev);
int mhi_gen_tre(struct mhi_controller *mhi_cntrl, struct mhi_chan *mhi_chan,
void *buf, void *cb, size_t buf_len, enum mhi_flags flags);
struct mhi_buf_info *info, enum mhi_flags flags);
int mhi_map_single_no_bb(struct mhi_controller *mhi_cntrl,
struct mhi_buf_info *buf_info);
int mhi_map_single_use_bb(struct mhi_controller *mhi_cntrl,
......
This diff is collapsed.
......@@ -288,14 +288,18 @@ int mhi_pm_m0_transition(struct mhi_controller *mhi_cntrl)
for (i = 0; i < mhi_cntrl->max_chan; i++, mhi_chan++) {
struct mhi_ring *tre_ring = &mhi_chan->tre_ring;
write_lock_irq(&mhi_chan->lock);
if (mhi_chan->db_cfg.reset_req)
if (mhi_chan->db_cfg.reset_req) {
write_lock_irq(&mhi_chan->lock);
mhi_chan->db_cfg.db_mode = true;
write_unlock_irq(&mhi_chan->lock);
}
read_lock_irq(&mhi_chan->lock);
/* Only ring DB if ring is not empty */
if (tre_ring->base && tre_ring->wp != tre_ring->rp)
mhi_ring_chan_db(mhi_cntrl, mhi_chan);
write_unlock_irq(&mhi_chan->lock);
read_unlock_irq(&mhi_chan->lock);
}
mhi_cntrl->wake_put(mhi_cntrl, false);
......@@ -449,19 +453,8 @@ static void mhi_pm_disable_transition(struct mhi_controller *mhi_cntrl,
to_mhi_pm_state_str(transition_state));
/* We must notify MHI control driver so it can clean up first */
if (transition_state == MHI_PM_SYS_ERR_PROCESS) {
/*
* If controller supports RDDM, we do not process
* SYS error state, instead we will jump directly
* to RDDM state
*/
if (mhi_cntrl->rddm_image) {
dev_dbg(dev,
"Controller supports RDDM, so skip SYS_ERR\n");
return;
}
if (transition_state == MHI_PM_SYS_ERR_PROCESS)
mhi_cntrl->status_cb(mhi_cntrl, MHI_CB_SYS_ERROR);
}
mutex_lock(&mhi_cntrl->pm_mutex);
write_lock_irq(&mhi_cntrl->pm_lock);
......@@ -527,8 +520,6 @@ static void mhi_pm_disable_transition(struct mhi_controller *mhi_cntrl,
mutex_unlock(&mhi_cntrl->pm_mutex);
dev_dbg(dev, "Waiting for all pending threads to complete\n");
wake_up_all(&mhi_cntrl->state_event);
flush_work(&mhi_cntrl->st_worker);
flush_work(&mhi_cntrl->fw_worker);
dev_dbg(dev, "Reset all active channels and remove MHI devices\n");
device_for_each_child(mhi_cntrl->cntrl_dev, NULL, mhi_destroy_device);
......@@ -608,13 +599,17 @@ int mhi_queue_state_transition(struct mhi_controller *mhi_cntrl,
}
/* SYS_ERR worker */
void mhi_pm_sys_err_worker(struct work_struct *work)
void mhi_pm_sys_err_handler(struct mhi_controller *mhi_cntrl)
{
struct mhi_controller *mhi_cntrl = container_of(work,
struct mhi_controller,
syserr_worker);
struct device *dev = &mhi_cntrl->mhi_dev->dev;
/* skip if controller supports RDDM */
if (mhi_cntrl->rddm_image) {
dev_dbg(dev, "Controller supports RDDM, skip SYS_ERROR\n");
return;
}
mhi_pm_disable_transition(mhi_cntrl, MHI_PM_SYS_ERR_PROCESS);
mhi_queue_state_transition(mhi_cntrl, DEV_ST_TRANSITION_SYS_ERR);
}
/* Device State Transition worker */
......@@ -643,7 +638,7 @@ void mhi_pm_st_worker(struct work_struct *work)
mhi_cntrl->ee = mhi_get_exec_env(mhi_cntrl);
write_unlock_irq(&mhi_cntrl->pm_lock);
if (MHI_IN_PBL(mhi_cntrl->ee))
wake_up_all(&mhi_cntrl->state_event);
mhi_fw_load_handler(mhi_cntrl);
break;
case DEV_ST_TRANSITION_SBL:
write_lock_irq(&mhi_cntrl->pm_lock);
......@@ -662,6 +657,14 @@ void mhi_pm_st_worker(struct work_struct *work)
case DEV_ST_TRANSITION_READY:
mhi_ready_state_transition(mhi_cntrl);
break;
case DEV_ST_TRANSITION_SYS_ERR:
mhi_pm_disable_transition
(mhi_cntrl, MHI_PM_SYS_ERR_PROCESS);
break;
case DEV_ST_TRANSITION_DISABLE:
mhi_pm_disable_transition
(mhi_cntrl, MHI_PM_SHUTDOWN_PROCESS);
break;
default:
break;
}
......@@ -669,6 +672,149 @@ void mhi_pm_st_worker(struct work_struct *work)
}
}
int mhi_pm_suspend(struct mhi_controller *mhi_cntrl)
{
struct mhi_chan *itr, *tmp;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
enum mhi_pm_state new_state;
int ret;
if (mhi_cntrl->pm_state == MHI_PM_DISABLE)
return -EINVAL;
if (MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state))
return -EIO;
/* Return busy if there are any pending resources */
if (atomic_read(&mhi_cntrl->dev_wake))
return -EBUSY;
/* Take MHI out of M2 state */
read_lock_bh(&mhi_cntrl->pm_lock);
mhi_cntrl->wake_get(mhi_cntrl, false);
read_unlock_bh(&mhi_cntrl->pm_lock);
ret = wait_event_timeout(mhi_cntrl->state_event,
mhi_cntrl->dev_state == MHI_STATE_M0 ||
mhi_cntrl->dev_state == MHI_STATE_M1 ||
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state),
msecs_to_jiffies(mhi_cntrl->timeout_ms));
read_lock_bh(&mhi_cntrl->pm_lock);
mhi_cntrl->wake_put(mhi_cntrl, false);
read_unlock_bh(&mhi_cntrl->pm_lock);
if (!ret || MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state)) {
dev_err(dev,
"Could not enter M0/M1 state");
return -EIO;
}
write_lock_irq(&mhi_cntrl->pm_lock);
if (atomic_read(&mhi_cntrl->dev_wake)) {
write_unlock_irq(&mhi_cntrl->pm_lock);
return -EBUSY;
}
dev_info(dev, "Allowing M3 transition\n");
new_state = mhi_tryset_pm_state(mhi_cntrl, MHI_PM_M3_ENTER);
if (new_state != MHI_PM_M3_ENTER) {
write_unlock_irq(&mhi_cntrl->pm_lock);
dev_err(dev,
"Error setting to PM state: %s from: %s\n",
to_mhi_pm_state_str(MHI_PM_M3_ENTER),
to_mhi_pm_state_str(mhi_cntrl->pm_state));
return -EIO;
}
/* Set MHI to M3 and wait for completion */
mhi_set_mhi_state(mhi_cntrl, MHI_STATE_M3);
write_unlock_irq(&mhi_cntrl->pm_lock);
dev_info(dev, "Wait for M3 completion\n");
ret = wait_event_timeout(mhi_cntrl->state_event,
mhi_cntrl->dev_state == MHI_STATE_M3 ||
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state),
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (!ret || MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state)) {
dev_err(dev,
"Did not enter M3 state, MHI state: %s, PM state: %s\n",
TO_MHI_STATE_STR(mhi_cntrl->dev_state),
to_mhi_pm_state_str(mhi_cntrl->pm_state));
return -EIO;
}
/* Notify clients about entering LPM */
list_for_each_entry_safe(itr, tmp, &mhi_cntrl->lpm_chans, node) {
mutex_lock(&itr->mutex);
if (itr->mhi_dev)
mhi_notify(itr->mhi_dev, MHI_CB_LPM_ENTER);
mutex_unlock(&itr->mutex);
}
return 0;
}
EXPORT_SYMBOL_GPL(mhi_pm_suspend);
int mhi_pm_resume(struct mhi_controller *mhi_cntrl)
{
struct mhi_chan *itr, *tmp;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
enum mhi_pm_state cur_state;
int ret;
dev_info(dev, "Entered with PM state: %s, MHI state: %s\n",
to_mhi_pm_state_str(mhi_cntrl->pm_state),
TO_MHI_STATE_STR(mhi_cntrl->dev_state));
if (mhi_cntrl->pm_state == MHI_PM_DISABLE)
return 0;
if (MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state))
return -EIO;
/* Notify clients about exiting LPM */
list_for_each_entry_safe(itr, tmp, &mhi_cntrl->lpm_chans, node) {
mutex_lock(&itr->mutex);
if (itr->mhi_dev)
mhi_notify(itr->mhi_dev, MHI_CB_LPM_EXIT);
mutex_unlock(&itr->mutex);
}
write_lock_irq(&mhi_cntrl->pm_lock);
cur_state = mhi_tryset_pm_state(mhi_cntrl, MHI_PM_M3_EXIT);
if (cur_state != MHI_PM_M3_EXIT) {
write_unlock_irq(&mhi_cntrl->pm_lock);
dev_info(dev,
"Error setting to PM state: %s from: %s\n",
to_mhi_pm_state_str(MHI_PM_M3_EXIT),
to_mhi_pm_state_str(mhi_cntrl->pm_state));
return -EIO;
}
/* Set MHI to M0 and wait for completion */
mhi_set_mhi_state(mhi_cntrl, MHI_STATE_M0);
write_unlock_irq(&mhi_cntrl->pm_lock);
ret = wait_event_timeout(mhi_cntrl->state_event,
mhi_cntrl->dev_state == MHI_STATE_M0 ||
MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state),
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (!ret || MHI_PM_IN_ERROR_STATE(mhi_cntrl->pm_state)) {
dev_err(dev,
"Did not enter M0 state, MHI state: %s, PM state: %s\n",
TO_MHI_STATE_STR(mhi_cntrl->dev_state),
to_mhi_pm_state_str(mhi_cntrl->pm_state));
return -EIO;
}
return 0;
}
EXPORT_SYMBOL_GPL(mhi_pm_resume);
int __mhi_device_get_sync(struct mhi_controller *mhi_cntrl)
{
int ret;
......@@ -760,6 +906,7 @@ static void mhi_deassert_dev_wake(struct mhi_controller *mhi_cntrl,
int mhi_async_power_up(struct mhi_controller *mhi_cntrl)
{
enum mhi_state state;
enum mhi_ee_type current_ee;
enum dev_st_transition next_state;
struct device *dev = &mhi_cntrl->mhi_dev->dev;
......@@ -829,13 +976,36 @@ int mhi_async_power_up(struct mhi_controller *mhi_cntrl)
goto error_bhi_offset;
}
state = mhi_get_mhi_state(mhi_cntrl);
if (state == MHI_STATE_SYS_ERR) {
mhi_set_mhi_state(mhi_cntrl, MHI_STATE_RESET);
ret = wait_event_timeout(mhi_cntrl->state_event,
MHI_PM_IN_FATAL_STATE(mhi_cntrl->pm_state) ||
mhi_read_reg_field(mhi_cntrl,
mhi_cntrl->regs,
MHICTRL,
MHICTRL_RESET_MASK,
MHICTRL_RESET_SHIFT,
&val) ||
!val,
msecs_to_jiffies(mhi_cntrl->timeout_ms));
if (ret) {
ret = -EIO;
dev_info(dev, "Failed to reset MHI due to syserr state\n");
goto error_bhi_offset;
}
/*
* device cleares INTVEC as part of RESET processing,
* re-program it
*/
mhi_write_reg(mhi_cntrl, mhi_cntrl->bhi, BHI_INTVEC, 0);
}
/* Transition to next state */
next_state = MHI_IN_PBL(current_ee) ?
DEV_ST_TRANSITION_PBL : DEV_ST_TRANSITION_READY;
if (next_state == DEV_ST_TRANSITION_PBL)
schedule_work(&mhi_cntrl->fw_worker);
mhi_queue_state_transition(mhi_cntrl, next_state);
mutex_unlock(&mhi_cntrl->pm_mutex);
......@@ -876,7 +1046,12 @@ void mhi_power_down(struct mhi_controller *mhi_cntrl, bool graceful)
to_mhi_pm_state_str(MHI_PM_LD_ERR_FATAL_DETECT),
to_mhi_pm_state_str(mhi_cntrl->pm_state));
}
mhi_pm_disable_transition(mhi_cntrl, MHI_PM_SHUTDOWN_PROCESS);
mhi_queue_state_transition(mhi_cntrl, DEV_ST_TRANSITION_DISABLE);
/* Wait for shutdown to complete */
flush_work(&mhi_cntrl->st_worker);
mhi_deinit_free_irq(mhi_cntrl);
if (!mhi_cntrl->pre_init) {
......
......@@ -31,11 +31,15 @@
#include <linux/uio.h>
#include <linux/uaccess.h>
#include <linux/security.h>
#include <linux/pseudo_fs.h>
#include <uapi/linux/magic.h>
#include <linux/mount.h>
#ifdef CONFIG_IA64
# include <linux/efi.h>
#endif
#define DEVMEM_MINOR 1
#define DEVPORT_MINOR 4
static inline unsigned long size_inside_page(unsigned long start,
......@@ -805,12 +809,64 @@ static loff_t memory_lseek(struct file *file, loff_t offset, int orig)
return ret;
}
static struct inode *devmem_inode;
#ifdef CONFIG_IO_STRICT_DEVMEM
void revoke_devmem(struct resource *res)
{
struct inode *inode = READ_ONCE(devmem_inode);
/*
* Check that the initialization has completed. Losing the race
* is ok because it means drivers are claiming resources before
* the fs_initcall level of init and prevent /dev/mem from
* establishing mappings.
*/
if (!inode)
return;
/*
* The expectation is that the driver has successfully marked
* the resource busy by this point, so devmem_is_allowed()
* should start returning false, however for performance this
* does not iterate the entire resource range.
*/
if (devmem_is_allowed(PHYS_PFN(res->start)) &&
devmem_is_allowed(PHYS_PFN(res->end))) {
/*
* *cringe* iomem=relaxed says "go ahead, what's the
* worst that can happen?"
*/
return;
}
unmap_mapping_range(inode->i_mapping, res->start, resource_size(res), 1);
}
#endif
static int open_port(struct inode *inode, struct file *filp)
{
int rc;
if (!capable(CAP_SYS_RAWIO))
return -EPERM;
return security_locked_down(LOCKDOWN_DEV_MEM);
rc = security_locked_down(LOCKDOWN_DEV_MEM);
if (rc)
return rc;
if (iminor(inode) != DEVMEM_MINOR)
return 0;
/*
* Use a unified address space to have a single point to manage
* revocations when drivers want to take over a /dev/mem mapped
* range.
*/
inode->i_mapping = devmem_inode->i_mapping;
filp->f_mapping = inode->i_mapping;
return 0;
}
#define zero_lseek null_lseek
......@@ -885,7 +941,7 @@ static const struct memdev {
fmode_t fmode;
} devlist[] = {
#ifdef CONFIG_DEVMEM
[1] = { "mem", 0, &mem_fops, FMODE_UNSIGNED_OFFSET },
[DEVMEM_MINOR] = { "mem", 0, &mem_fops, FMODE_UNSIGNED_OFFSET },
#endif
#ifdef CONFIG_DEVKMEM
[2] = { "kmem", 0, &kmem_fops, FMODE_UNSIGNED_OFFSET },
......@@ -939,6 +995,45 @@ static char *mem_devnode(struct device *dev, umode_t *mode)
static struct class *mem_class;
static int devmem_fs_init_fs_context(struct fs_context *fc)
{
return init_pseudo(fc, DEVMEM_MAGIC) ? 0 : -ENOMEM;
}
static struct file_system_type devmem_fs_type = {
.name = "devmem",
.owner = THIS_MODULE,
.init_fs_context = devmem_fs_init_fs_context,
.kill_sb = kill_anon_super,
};
static int devmem_init_inode(void)
{
static struct vfsmount *devmem_vfs_mount;
static int devmem_fs_cnt;
struct inode *inode;
int rc;
rc = simple_pin_fs(&devmem_fs_type, &devmem_vfs_mount, &devmem_fs_cnt);
if (rc < 0) {
pr_err("Cannot mount /dev/mem pseudo filesystem: %d\n", rc);
return rc;
}
inode = alloc_anon_inode(devmem_vfs_mount->mnt_sb);
if (IS_ERR(inode)) {
rc = PTR_ERR(inode);
pr_err("Cannot allocate inode for /dev/mem: %d\n", rc);
simple_release_fs(&devmem_vfs_mount, &devmem_fs_cnt);
return rc;
}
/* publish /dev/mem initialized */
WRITE_ONCE(devmem_inode, inode);
return 0;
}
static int __init chr_dev_init(void)
{
int minor;
......@@ -960,6 +1055,8 @@ static int __init chr_dev_init(void)
*/
if ((minor == DEVPORT_MINOR) && !arch_has_dev_port())
continue;
if ((minor == DEVMEM_MINOR) && devmem_init_inode() != 0)
continue;
device_create(mem_class, NULL, MKDEV(MEM_MAJOR, minor),
NULL, devlist[minor].name);
......
......@@ -777,17 +777,21 @@ static int __init tlclk_init(void)
{
int ret;
telclk_interrupt = (inb(TLCLK_REG7) & 0x0f);
alarm_events = kzalloc( sizeof(struct tlclk_alarms), GFP_KERNEL);
if (!alarm_events) {
ret = -ENOMEM;
goto out1;
}
ret = register_chrdev(tlclk_major, "telco_clock", &tlclk_fops);
if (ret < 0) {
printk(KERN_ERR "tlclk: can't get major %d.\n", tlclk_major);
kfree(alarm_events);
return ret;
}
tlclk_major = ret;
alarm_events = kzalloc( sizeof(struct tlclk_alarms), GFP_KERNEL);
if (!alarm_events) {
ret = -ENOMEM;
goto out1;
}
/* Read telecom clock IRQ number (Set by BIOS) */
if (!request_region(TLCLK_BASE, 8, "telco_clock")) {
......@@ -796,7 +800,6 @@ static int __init tlclk_init(void)
ret = -EBUSY;
goto out2;
}
telclk_interrupt = (inb(TLCLK_REG7) & 0x0f);
if (0x0F == telclk_interrupt ) { /* not MCPBL0010 ? */
printk(KERN_ERR "telclk_interrupt = 0x%x non-mcpbl0010 hw.\n",
......@@ -837,8 +840,8 @@ static int __init tlclk_init(void)
release_region(TLCLK_BASE, 8);
out2:
kfree(alarm_events);
out1:
unregister_chrdev(tlclk_major, "telco_clock");
out1:
return ret;
}
......
......@@ -37,9 +37,8 @@ static int zynqmp_clk_gate_enable(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = gate->clk_id;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_enable(clk_id);
ret = zynqmp_pm_clock_enable(clk_id);
if (ret)
pr_warn_once("%s() clock enabled failed for %s, ret = %d\n",
......@@ -58,9 +57,8 @@ static void zynqmp_clk_gate_disable(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = gate->clk_id;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_disable(clk_id);
ret = zynqmp_pm_clock_disable(clk_id);
if (ret)
pr_warn_once("%s() clock disable failed for %s, ret = %d\n",
......@@ -79,9 +77,8 @@ static int zynqmp_clk_gate_is_enabled(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = gate->clk_id;
int state, ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_getstate(clk_id, &state);
ret = zynqmp_pm_clock_getstate(clk_id, &state);
if (ret) {
pr_warn_once("%s() clock get state failed for %s, ret = %d\n",
__func__, clk_name, ret);
......
......@@ -47,9 +47,8 @@ static u8 zynqmp_clk_mux_get_parent(struct clk_hw *hw)
u32 clk_id = mux->clk_id;
u32 val;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_getparent(clk_id, &val);
ret = zynqmp_pm_clock_getparent(clk_id, &val);
if (ret)
pr_warn_once("%s() getparent failed for clock: %s, ret = %d\n",
......@@ -71,9 +70,8 @@ static int zynqmp_clk_mux_set_parent(struct clk_hw *hw, u8 index)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = mux->clk_id;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_setparent(clk_id, index);
ret = zynqmp_pm_clock_setparent(clk_id, index);
if (ret)
pr_warn_once("%s() set parent failed for clock: %s, ret = %d\n",
......
......@@ -134,7 +134,6 @@ static struct clk_hw *(* const clk_topology[]) (const char *name, u32 clk_id,
static struct zynqmp_clock *clock;
static struct clk_hw_onecell_data *zynqmp_data;
static unsigned int clock_max_idx;
static const struct zynqmp_eemi_ops *eemi_ops;
/**
* zynqmp_is_valid_clock() - Check whether clock is valid or not
......@@ -206,7 +205,7 @@ static int zynqmp_pm_clock_get_num_clocks(u32 *nclocks)
qdata.qid = PM_QID_CLOCK_GET_NUM_CLOCKS;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
*nclocks = ret_payload[1];
return ret;
......@@ -231,7 +230,7 @@ static int zynqmp_pm_clock_get_name(u32 clock_id,
qdata.qid = PM_QID_CLOCK_GET_NAME;
qdata.arg1 = clock_id;
eemi_ops->query_data(qdata, ret_payload);
zynqmp_pm_query_data(qdata, ret_payload);
memcpy(response, ret_payload, sizeof(*response));
return 0;
......@@ -265,7 +264,7 @@ static int zynqmp_pm_clock_get_topology(u32 clock_id, u32 index,
qdata.arg1 = clock_id;
qdata.arg2 = index;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
memcpy(response, &ret_payload[1], sizeof(*response));
return ret;
......@@ -296,7 +295,7 @@ struct clk_hw *zynqmp_clk_register_fixed_factor(const char *name, u32 clk_id,
qdata.qid = PM_QID_CLOCK_GET_FIXEDFACTOR_PARAMS;
qdata.arg1 = clk_id;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
if (ret)
return ERR_PTR(ret);
......@@ -339,7 +338,7 @@ static int zynqmp_pm_clock_get_parents(u32 clock_id, u32 index,
qdata.arg1 = clock_id;
qdata.arg2 = index;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
memcpy(response, &ret_payload[1], sizeof(*response));
return ret;
......@@ -364,7 +363,7 @@ static int zynqmp_pm_clock_get_attributes(u32 clock_id,
qdata.qid = PM_QID_CLOCK_GET_ATTRIBUTES;
qdata.arg1 = clock_id;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
memcpy(response, &ret_payload[1], sizeof(*response));
return ret;
......@@ -738,10 +737,6 @@ static int zynqmp_clock_probe(struct platform_device *pdev)
int ret;
struct device *dev = &pdev->dev;
eemi_ops = zynqmp_pm_get_eemi_ops();
if (IS_ERR(eemi_ops))
return PTR_ERR(eemi_ops);
ret = zynqmp_clk_setup(dev->of_node);
return ret;
......
......@@ -83,9 +83,8 @@ static unsigned long zynqmp_clk_divider_recalc_rate(struct clk_hw *hw,
u32 div_type = divider->div_type;
u32 div, value;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_getdivider(clk_id, &div);
ret = zynqmp_pm_clock_getdivider(clk_id, &div);
if (ret)
pr_warn_once("%s() get divider failed for %s, ret = %d\n",
......@@ -163,11 +162,10 @@ static long zynqmp_clk_divider_round_rate(struct clk_hw *hw,
u32 div_type = divider->div_type;
u32 bestdiv;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
/* if read only, just return current value */
if (divider->flags & CLK_DIVIDER_READ_ONLY) {
ret = eemi_ops->clock_getdivider(clk_id, &bestdiv);
ret = zynqmp_pm_clock_getdivider(clk_id, &bestdiv);
if (ret)
pr_warn_once("%s() get divider failed for %s, ret = %d\n",
......@@ -219,7 +217,6 @@ static int zynqmp_clk_divider_set_rate(struct clk_hw *hw, unsigned long rate,
u32 div_type = divider->div_type;
u32 value, div;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
value = zynqmp_divider_get_val(parent_rate, rate, divider->flags);
if (div_type == TYPE_DIV1) {
......@@ -233,7 +230,7 @@ static int zynqmp_clk_divider_set_rate(struct clk_hw *hw, unsigned long rate,
if (divider->flags & CLK_DIVIDER_POWER_OF_TWO)
div = __ffs(div);
ret = eemi_ops->clock_setdivider(clk_id, div);
ret = zynqmp_pm_clock_setdivider(clk_id, div);
if (ret)
pr_warn_once("%s() set divider failed for %s, ret = %d\n",
......@@ -258,7 +255,6 @@ static const struct clk_ops zynqmp_clk_divider_ops = {
*/
u32 zynqmp_clk_get_max_divisor(u32 clk_id, u32 type)
{
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
struct zynqmp_pm_query_data qdata = {0};
u32 ret_payload[PAYLOAD_ARG_CNT];
int ret;
......@@ -266,7 +262,7 @@ u32 zynqmp_clk_get_max_divisor(u32 clk_id, u32 type)
qdata.qid = PM_QID_CLOCK_GET_MAX_DIVISOR;
qdata.arg1 = clk_id;
qdata.arg2 = type;
ret = eemi_ops->query_data(qdata, ret_payload);
ret = zynqmp_pm_query_data(qdata, ret_payload);
/*
* To maintain backward compatibility return maximum possible value
* (0xFFFF) if query for max divisor is not successful.
......
......@@ -50,10 +50,8 @@ static inline enum pll_mode zynqmp_pll_get_mode(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 ret_payload[PAYLOAD_ARG_CNT];
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->ioctl(0, IOCTL_GET_PLL_FRAC_MODE, clk_id, 0,
ret_payload);
ret = zynqmp_pm_get_pll_frac_mode(clk_id, ret_payload);
if (ret)
pr_warn_once("%s() PLL get frac mode failed for %s, ret = %d\n",
__func__, clk_name, ret);
......@@ -73,14 +71,13 @@ static inline void zynqmp_pll_set_mode(struct clk_hw *hw, bool on)
const char *clk_name = clk_hw_get_name(hw);
int ret;
u32 mode;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
if (on)
mode = PLL_MODE_FRAC;
else
mode = PLL_MODE_INT;
ret = eemi_ops->ioctl(0, IOCTL_SET_PLL_FRAC_MODE, clk_id, mode, NULL);
ret = zynqmp_pm_set_pll_frac_mode(clk_id, mode);
if (ret)
pr_warn_once("%s() PLL set frac mode failed for %s, ret = %d\n",
__func__, clk_name, ret);
......@@ -139,17 +136,15 @@ static unsigned long zynqmp_pll_recalc_rate(struct clk_hw *hw,
unsigned long rate, frac;
u32 ret_payload[PAYLOAD_ARG_CNT];
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_getdivider(clk_id, &fbdiv);
ret = zynqmp_pm_clock_getdivider(clk_id, &fbdiv);
if (ret)
pr_warn_once("%s() get divider failed for %s, ret = %d\n",
__func__, clk_name, ret);
rate = parent_rate * fbdiv;
if (zynqmp_pll_get_mode(hw) == PLL_MODE_FRAC) {
eemi_ops->ioctl(0, IOCTL_GET_PLL_FRAC_DATA, clk_id, 0,
ret_payload);
zynqmp_pm_get_pll_frac_data(clk_id, ret_payload);
data = ret_payload[1];
frac = (parent_rate * data) / FRAC_DIV;
rate = rate + frac;
......@@ -177,7 +172,6 @@ static int zynqmp_pll_set_rate(struct clk_hw *hw, unsigned long rate,
u32 fbdiv;
long rate_div, frac, m, f;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
if (zynqmp_pll_get_mode(hw) == PLL_MODE_FRAC) {
rate_div = (rate * FRAC_DIV) / parent_rate;
......@@ -187,21 +181,21 @@ static int zynqmp_pll_set_rate(struct clk_hw *hw, unsigned long rate,
rate = parent_rate * m;
frac = (parent_rate * f) / FRAC_DIV;
ret = eemi_ops->clock_setdivider(clk_id, m);
ret = zynqmp_pm_clock_setdivider(clk_id, m);
if (ret == -EUSERS)
WARN(1, "More than allowed devices are using the %s, which is forbidden\n",
clk_name);
else if (ret)
pr_warn_once("%s() set divider failed for %s, ret = %d\n",
__func__, clk_name, ret);
eemi_ops->ioctl(0, IOCTL_SET_PLL_FRAC_DATA, clk_id, f, NULL);
zynqmp_pm_set_pll_frac_data(clk_id, f);
return rate + frac;
}
fbdiv = DIV_ROUND_CLOSEST(rate, parent_rate);
fbdiv = clamp_t(u32, fbdiv, PLL_FBDIV_MIN, PLL_FBDIV_MAX);
ret = eemi_ops->clock_setdivider(clk_id, fbdiv);
ret = zynqmp_pm_clock_setdivider(clk_id, fbdiv);
if (ret)
pr_warn_once("%s() set divider failed for %s, ret = %d\n",
__func__, clk_name, ret);
......@@ -222,9 +216,8 @@ static int zynqmp_pll_is_enabled(struct clk_hw *hw)
u32 clk_id = clk->clk_id;
unsigned int state;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
ret = eemi_ops->clock_getstate(clk_id, &state);
ret = zynqmp_pm_clock_getstate(clk_id, &state);
if (ret) {
pr_warn_once("%s() clock get state failed for %s, ret = %d\n",
__func__, clk_name, ret);
......@@ -246,12 +239,11 @@ static int zynqmp_pll_enable(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = clk->clk_id;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
if (zynqmp_pll_is_enabled(hw))
return 0;
ret = eemi_ops->clock_enable(clk_id);
ret = zynqmp_pm_clock_enable(clk_id);
if (ret)
pr_warn_once("%s() clock enable failed for %s, ret = %d\n",
__func__, clk_name, ret);
......@@ -269,12 +261,11 @@ static void zynqmp_pll_disable(struct clk_hw *hw)
const char *clk_name = clk_hw_get_name(hw);
u32 clk_id = clk->clk_id;
int ret;
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
if (!zynqmp_pll_is_enabled(hw))
return;
ret = eemi_ops->clock_disable(clk_id);
ret = zynqmp_pm_clock_disable(clk_id);
if (ret)
pr_warn_once("%s() clock disable failed for %s, ret = %d\n",
__func__, clk_name, ret);
......
......@@ -46,7 +46,6 @@ struct zynqmp_aead_drv_ctx {
} alg;
struct device *dev;
struct crypto_engine *engine;
const struct zynqmp_eemi_ops *eemi_ops;
};
struct zynqmp_aead_hw_req {
......@@ -80,21 +79,15 @@ static int zynqmp_aes_aead_cipher(struct aead_request *req)
struct zynqmp_aead_tfm_ctx *tfm_ctx = crypto_aead_ctx(aead);
struct zynqmp_aead_req_ctx *rq_ctx = aead_request_ctx(req);
struct device *dev = tfm_ctx->dev;
struct aead_alg *alg = crypto_aead_alg(aead);
struct zynqmp_aead_drv_ctx *drv_ctx;
struct zynqmp_aead_hw_req *hwreq;
dma_addr_t dma_addr_data, dma_addr_hw_req;
unsigned int data_size;
unsigned int status;
int ret;
size_t dma_size;
char *kbuf;
int err;
drv_ctx = container_of(alg, struct zynqmp_aead_drv_ctx, alg.aead);
if (!drv_ctx->eemi_ops->aes)
return -ENOTSUPP;
if (tfm_ctx->keysrc == ZYNQMP_AES_KUP_KEY)
dma_size = req->cryptlen + ZYNQMP_AES_KEY_SIZE
+ GCM_AES_IV_SIZE;
......@@ -136,9 +129,12 @@ static int zynqmp_aes_aead_cipher(struct aead_request *req)
hwreq->key = 0;
}
drv_ctx->eemi_ops->aes(dma_addr_hw_req, &status);
ret = zynqmp_pm_aes_engine(dma_addr_hw_req, &status);
if (status) {
if (ret) {
dev_err(dev, "ERROR: AES PM API failed\n");
err = ret;
} else if (status) {
switch (status) {
case ZYNQMP_AES_GCM_TAG_MISMATCH_ERR:
dev_err(dev, "ERROR: Gcm Tag mismatch\n");
......@@ -388,12 +384,6 @@ static int zynqmp_aes_aead_probe(struct platform_device *pdev)
else
return -ENODEV;
aes_drv_ctx.eemi_ops = zynqmp_pm_get_eemi_ops();
if (IS_ERR(aes_drv_ctx.eemi_ops)) {
dev_err(dev, "Failed to get ZynqMP EEMI interface\n");
return PTR_ERR(aes_drv_ctx.eemi_ops);
}
err = dma_set_mask_and_coherent(dev, DMA_BIT_MASK(ZYNQMP_DMA_BIT_MASK));
if (err < 0) {
dev_err(dev, "No usable DMA configuration\n");
......
......@@ -24,9 +24,7 @@ int dca_sysfs_add_req(struct dca_provider *dca, struct device *dev, int slot)
cd = device_create(dca_class, dca->cd, MKDEV(0, slot + 1), NULL,
"requester%d", req_count++);
if (IS_ERR(cd))
return PTR_ERR(cd);
return 0;
return PTR_ERR_OR_ZERO(cd);
}
void dca_sysfs_remove_req(struct dca_provider *dca, int slot)
......
......@@ -124,7 +124,7 @@ static int adc_jack_probe(struct platform_device *pdev)
for (i = 0; data->adc_conditions[i].id != EXTCON_NONE; i++);
data->num_conditions = i;
data->chan = iio_channel_get(&pdev->dev, pdata->consumer_channel);
data->chan = devm_iio_channel_get(&pdev->dev, pdata->consumer_channel);
if (IS_ERR(data->chan))
return PTR_ERR(data->chan);
......@@ -164,7 +164,6 @@ static int adc_jack_remove(struct platform_device *pdev)
free_irq(data->irq, data);
cancel_work_sync(&data->handler.work);
iio_channel_release(data->chan);
return 0;
}
......
......@@ -1460,7 +1460,7 @@ static int arizona_extcon_probe(struct platform_device *pdev)
if (!info->input) {
dev_err(arizona->dev, "Can't allocate input dev\n");
ret = -ENOMEM;
goto err_register;
return ret;
}
info->input->name = "Headset";
......@@ -1492,7 +1492,7 @@ static int arizona_extcon_probe(struct platform_device *pdev)
if (ret != 0) {
dev_err(arizona->dev, "Failed to request GPIO%d: %d\n",
pdata->micd_pol_gpio, ret);
goto err_register;
return ret;
}
info->micd_pol_gpio = gpio_to_desc(pdata->micd_pol_gpio);
......@@ -1515,7 +1515,7 @@ static int arizona_extcon_probe(struct platform_device *pdev)
dev_err(arizona->dev,
"Failed to get microphone polarity GPIO: %d\n",
ret);
goto err_register;
return ret;
}
}
......@@ -1672,7 +1672,7 @@ static int arizona_extcon_probe(struct platform_device *pdev)
if (ret != 0) {
dev_err(&pdev->dev, "Failed to get JACKDET rise IRQ: %d\n",
ret);
goto err_gpio;
goto err_pm;
}
ret = arizona_set_irq_wake(arizona, jack_irq_rise, 1);
......@@ -1721,14 +1721,14 @@ static int arizona_extcon_probe(struct platform_device *pdev)
dev_warn(arizona->dev, "Failed to set MICVDD to bypass: %d\n",
ret);
pm_runtime_put(&pdev->dev);
ret = input_register_device(info->input);
if (ret) {
dev_err(&pdev->dev, "Can't register input device: %d\n", ret);
goto err_hpdet;
}
pm_runtime_put(&pdev->dev);
return 0;
err_hpdet:
......@@ -1743,10 +1743,11 @@ static int arizona_extcon_probe(struct platform_device *pdev)
arizona_set_irq_wake(arizona, jack_irq_rise, 0);
err_rise:
arizona_free_irq(arizona, jack_irq_rise, info);
err_pm:
pm_runtime_put(&pdev->dev);
pm_runtime_disable(&pdev->dev);
err_gpio:
gpiod_put(info->micd_pol_gpio);
err_register:
pm_runtime_disable(&pdev->dev);
return ret;
}
......
......@@ -782,9 +782,19 @@ static const struct platform_device_id max14577_muic_id[] = {
};
MODULE_DEVICE_TABLE(platform, max14577_muic_id);
static const struct of_device_id of_max14577_muic_dt_match[] = {
{ .compatible = "maxim,max14577-muic",
.data = (void *)MAXIM_DEVICE_TYPE_MAX14577, },
{ .compatible = "maxim,max77836-muic",
.data = (void *)MAXIM_DEVICE_TYPE_MAX77836, },
{ },
};
MODULE_DEVICE_TABLE(of, of_max14577_muic_dt_match);
static struct platform_driver max14577_muic_driver = {
.driver = {
.name = "max14577-muic",
.of_match_table = of_max14577_muic_dt_match,
},
.probe = max14577_muic_probe,
.remove = max14577_muic_remove,
......
......@@ -900,7 +900,7 @@ int extcon_register_notifier(struct extcon_dev *edev, unsigned int id,
struct notifier_block *nb)
{
unsigned long flags;
int ret, idx = -EINVAL;
int ret, idx;
if (!edev || !nb)
return -EINVAL;
......
......@@ -72,7 +72,7 @@ static void rsu_status_callback(struct stratix10_svc_client *client,
struct stratix10_rsu_priv *priv = client->priv;
struct arm_smccc_res *res = (struct arm_smccc_res *)data->kaddr1;
if (data->status == BIT(SVC_STATUS_RSU_OK)) {
if (data->status == BIT(SVC_STATUS_OK)) {
priv->status.version = FIELD_GET(RSU_VERSION_MASK,
res->a2);
priv->status.state = FIELD_GET(RSU_STATE_MASK, res->a2);
......@@ -108,9 +108,9 @@ static void rsu_command_callback(struct stratix10_svc_client *client,
{
struct stratix10_rsu_priv *priv = client->priv;
if (data->status == BIT(SVC_STATUS_RSU_NO_SUPPORT))
if (data->status == BIT(SVC_STATUS_NO_SUPPORT))
dev_warn(client->dev, "Secure FW doesn't support notify\n");
else if (data->status == BIT(SVC_STATUS_RSU_ERROR))
else if (data->status == BIT(SVC_STATUS_ERROR))
dev_err(client->dev, "Failure, returned status is %lu\n",
BIT(data->status));
......@@ -133,9 +133,9 @@ static void rsu_retry_callback(struct stratix10_svc_client *client,
struct stratix10_rsu_priv *priv = client->priv;
unsigned int *counter = (unsigned int *)data->kaddr1;
if (data->status == BIT(SVC_STATUS_RSU_OK))
if (data->status == BIT(SVC_STATUS_OK))
priv->retry_counter = *counter;
else if (data->status == BIT(SVC_STATUS_RSU_NO_SUPPORT))
else if (data->status == BIT(SVC_STATUS_NO_SUPPORT))
dev_warn(client->dev, "Secure FW doesn't support retry\n");
else
dev_err(client->dev, "Failed to get retry counter %lu\n",
......
......@@ -214,7 +214,7 @@ static void svc_thread_cmd_data_claim(struct stratix10_svc_controller *ctrl,
complete(&ctrl->complete_status);
break;
}
cb_data->status = BIT(SVC_STATUS_RECONFIG_BUFFER_DONE);
cb_data->status = BIT(SVC_STATUS_BUFFER_DONE);
cb_data->kaddr1 = svc_pa_to_va(res.a1);
cb_data->kaddr2 = (res.a2) ?
svc_pa_to_va(res.a2) : NULL;
......@@ -227,7 +227,7 @@ static void svc_thread_cmd_data_claim(struct stratix10_svc_controller *ctrl,
__func__);
}
} while (res.a0 == INTEL_SIP_SMC_STATUS_OK ||
res.a0 == INTEL_SIP_SMC_FPGA_CONFIG_STATUS_BUSY ||
res.a0 == INTEL_SIP_SMC_STATUS_BUSY ||
wait_for_completion_timeout(&ctrl->complete_status, timeout));
}
......@@ -250,7 +250,7 @@ static void svc_thread_cmd_config_status(struct stratix10_svc_controller *ctrl,
cb_data->kaddr1 = NULL;
cb_data->kaddr2 = NULL;
cb_data->kaddr3 = NULL;
cb_data->status = BIT(SVC_STATUS_RECONFIG_ERROR);
cb_data->status = BIT(SVC_STATUS_ERROR);
pr_debug("%s: polling config status\n", __func__);
......@@ -259,7 +259,7 @@ static void svc_thread_cmd_config_status(struct stratix10_svc_controller *ctrl,
ctrl->invoke_fn(INTEL_SIP_SMC_FPGA_CONFIG_ISDONE,
0, 0, 0, 0, 0, 0, 0, &res);
if ((res.a0 == INTEL_SIP_SMC_STATUS_OK) ||
(res.a0 == INTEL_SIP_SMC_FPGA_CONFIG_STATUS_ERROR))
(res.a0 == INTEL_SIP_SMC_STATUS_ERROR))
break;
/*
......@@ -271,7 +271,7 @@ static void svc_thread_cmd_config_status(struct stratix10_svc_controller *ctrl,
}
if (res.a0 == INTEL_SIP_SMC_STATUS_OK && count_in_sec)
cb_data->status = BIT(SVC_STATUS_RECONFIG_COMPLETED);
cb_data->status = BIT(SVC_STATUS_COMPLETED);
p_data->chan->scl->receive_cb(p_data->chan->scl, cb_data);
}
......@@ -294,24 +294,18 @@ static void svc_thread_recv_status_ok(struct stratix10_svc_data *p_data,
switch (p_data->command) {
case COMMAND_RECONFIG:
cb_data->status = BIT(SVC_STATUS_RECONFIG_REQUEST_OK);
case COMMAND_RSU_UPDATE:
case COMMAND_RSU_NOTIFY:
cb_data->status = BIT(SVC_STATUS_OK);
break;
case COMMAND_RECONFIG_DATA_SUBMIT:
cb_data->status = BIT(SVC_STATUS_RECONFIG_BUFFER_SUBMITTED);
break;
case COMMAND_NOOP:
cb_data->status = BIT(SVC_STATUS_RECONFIG_BUFFER_SUBMITTED);
cb_data->kaddr1 = svc_pa_to_va(res.a1);
cb_data->status = BIT(SVC_STATUS_BUFFER_SUBMITTED);
break;
case COMMAND_RECONFIG_STATUS:
cb_data->status = BIT(SVC_STATUS_RECONFIG_COMPLETED);
break;
case COMMAND_RSU_UPDATE:
case COMMAND_RSU_NOTIFY:
cb_data->status = BIT(SVC_STATUS_RSU_OK);
cb_data->status = BIT(SVC_STATUS_COMPLETED);
break;
case COMMAND_RSU_RETRY:
cb_data->status = BIT(SVC_STATUS_RSU_OK);
cb_data->status = BIT(SVC_STATUS_OK);
cb_data->kaddr1 = &res.a1;
break;
default:
......@@ -430,9 +424,9 @@ static int svc_normal_to_secure_thread(void *data)
if (pdata->command == COMMAND_RSU_STATUS) {
if (res.a0 == INTEL_SIP_SMC_RSU_ERROR)
cbdata->status = BIT(SVC_STATUS_RSU_ERROR);
cbdata->status = BIT(SVC_STATUS_ERROR);
else
cbdata->status = BIT(SVC_STATUS_RSU_OK);
cbdata->status = BIT(SVC_STATUS_OK);
cbdata->kaddr1 = &res;
cbdata->kaddr2 = NULL;
......@@ -445,7 +439,7 @@ static int svc_normal_to_secure_thread(void *data)
case INTEL_SIP_SMC_STATUS_OK:
svc_thread_recv_status_ok(pdata, cbdata, res);
break;
case INTEL_SIP_SMC_FPGA_CONFIG_STATUS_BUSY:
case INTEL_SIP_SMC_STATUS_BUSY:
switch (pdata->command) {
case COMMAND_RECONFIG_DATA_SUBMIT:
svc_thread_cmd_data_claim(ctrl,
......@@ -460,33 +454,13 @@ static int svc_normal_to_secure_thread(void *data)
break;
}
break;
case INTEL_SIP_SMC_FPGA_CONFIG_STATUS_REJECTED:
case INTEL_SIP_SMC_STATUS_REJECTED:
pr_debug("%s: STATUS_REJECTED\n", __func__);
break;
case INTEL_SIP_SMC_FPGA_CONFIG_STATUS_ERROR:
case INTEL_SIP_SMC_STATUS_ERROR:
case INTEL_SIP_SMC_RSU_ERROR:
pr_err("%s: STATUS_ERROR\n", __func__);
switch (pdata->command) {
/* for FPGA mgr */
case COMMAND_RECONFIG_DATA_CLAIM:
case COMMAND_RECONFIG:
case COMMAND_RECONFIG_DATA_SUBMIT:
case COMMAND_RECONFIG_STATUS:
cbdata->status =
BIT(SVC_STATUS_RECONFIG_ERROR);
break;
/* for RSU */
case COMMAND_RSU_STATUS:
case COMMAND_RSU_UPDATE:
case COMMAND_RSU_NOTIFY:
case COMMAND_RSU_RETRY:
cbdata->status =
BIT(SVC_STATUS_RSU_ERROR);
break;
}
cbdata->status = BIT(SVC_STATUS_RECONFIG_ERROR);
cbdata->status = BIT(SVC_STATUS_ERROR);
cbdata->kaddr1 = NULL;
cbdata->kaddr2 = NULL;
cbdata->kaddr3 = NULL;
......@@ -502,7 +476,7 @@ static int svc_normal_to_secure_thread(void *data)
if ((pdata->command == COMMAND_RSU_RETRY) ||
(pdata->command == COMMAND_RSU_NOTIFY)) {
cbdata->status =
BIT(SVC_STATUS_RSU_NO_SUPPORT);
BIT(SVC_STATUS_NO_SUPPORT);
cbdata->kaddr1 = NULL;
cbdata->kaddr2 = NULL;
cbdata->kaddr3 = NULL;
......
......@@ -85,14 +85,13 @@ static int get_pm_api_id(char *pm_api_req, u32 *pm_id)
static int process_api_request(u32 pm_id, u64 *pm_api_arg, u32 *pm_api_ret)
{
const struct zynqmp_eemi_ops *eemi_ops = zynqmp_pm_get_eemi_ops();
u32 pm_api_version;
int ret;
struct zynqmp_pm_query_data qdata = {0};
switch (pm_id) {
case PM_GET_API_VERSION:
ret = eemi_ops->get_api_version(&pm_api_version);
ret = zynqmp_pm_get_api_version(&pm_api_version);
sprintf(debugfs_buf, "PM-API Version = %d.%d\n",
pm_api_version >> 16, pm_api_version & 0xffff);
break;
......@@ -102,7 +101,7 @@ static int process_api_request(u32 pm_id, u64 *pm_api_arg, u32 *pm_api_ret)
qdata.arg2 = pm_api_arg[2];
qdata.arg3 = pm_api_arg[3];
ret = eemi_ops->query_data(qdata, pm_api_ret);
ret = zynqmp_pm_query_data(qdata, pm_api_ret);
if (ret)
break;
......
This diff is collapsed.
......@@ -156,7 +156,7 @@ config FPGA_DFL
config FPGA_DFL_FME
tristate "FPGA DFL FME Driver"
depends on FPGA_DFL && HWMON
depends on FPGA_DFL && HWMON && PERF_EVENTS
help
The FPGA Management Engine (FME) is a feature device implemented
under Device Feature List (DFL) framework. Select this option to
......
......@@ -40,6 +40,7 @@ obj-$(CONFIG_FPGA_DFL_FME_REGION) += dfl-fme-region.o
obj-$(CONFIG_FPGA_DFL_AFU) += dfl-afu.o
dfl-fme-objs := dfl-fme-main.o dfl-fme-pr.o dfl-fme-error.o
dfl-fme-objs += dfl-fme-perf.o
dfl-afu-objs := dfl-afu-main.o dfl-afu-region.o dfl-afu-dma-region.o
dfl-afu-objs += dfl-afu-error.o
......
......@@ -61,10 +61,10 @@ static int afu_dma_pin_pages(struct dfl_feature_platform_data *pdata,
region->pages);
if (pinned < 0) {
ret = pinned;
goto put_pages;
goto free_pages;
} else if (pinned != npages) {
ret = -EFAULT;
goto free_pages;
goto put_pages;
}
dev_dbg(dev, "%d pages pinned\n", pinned);
......
......@@ -561,14 +561,16 @@ static int afu_open(struct inode *inode, struct file *filp)
if (WARN_ON(!pdata))
return -ENODEV;
ret = dfl_feature_dev_use_begin(pdata);
if (ret)
return ret;
dev_dbg(&fdev->dev, "Device File Open\n");
filp->private_data = fdev;
mutex_lock(&pdata->lock);
ret = dfl_feature_dev_use_begin(pdata, filp->f_flags & O_EXCL);
if (!ret) {
dev_dbg(&fdev->dev, "Device File Opened %d Times\n",
dfl_feature_dev_use_count(pdata));
filp->private_data = fdev;
}
mutex_unlock(&pdata->lock);
return 0;
return ret;
}
static int afu_release(struct inode *inode, struct file *filp)
......@@ -581,12 +583,14 @@ static int afu_release(struct inode *inode, struct file *filp)
pdata = dev_get_platdata(&pdev->dev);
mutex_lock(&pdata->lock);
__port_reset(pdev);
afu_dma_region_destroy(pdata);
mutex_unlock(&pdata->lock);
dfl_feature_dev_use_end(pdata);
if (!dfl_feature_dev_use_count(pdata)) {
__port_reset(pdev);
afu_dma_region_destroy(pdata);
}
mutex_unlock(&pdata->lock);
return 0;
}
......@@ -746,6 +750,12 @@ static long afu_ioctl(struct file *filp, unsigned int cmd, unsigned long arg)
return -EINVAL;
}
static const struct vm_operations_struct afu_vma_ops = {
#ifdef CONFIG_HAVE_IOREMAP_PROT
.access = generic_access_phys,
#endif
};
static int afu_mmap(struct file *filp, struct vm_area_struct *vma)
{
struct platform_device *pdev = filp->private_data;
......@@ -775,6 +785,9 @@ static int afu_mmap(struct file *filp, struct vm_area_struct *vma)
!(region.flags & DFL_PORT_REGION_WRITE))
return -EPERM;
/* Support debug access to the mapping */
vma->vm_ops = &afu_vma_ops;
vma->vm_page_prot = pgprot_noncached(vma->vm_page_prot);
return remap_pfn_range(vma, vma->vm_start,
......
......@@ -579,6 +579,10 @@ static struct dfl_feature_driver fme_feature_drvs[] = {
.id_table = fme_power_mgmt_id_table,
.ops = &fme_power_mgmt_ops,
},
{
.id_table = fme_perf_id_table,
.ops = &fme_perf_ops,
},
{
.ops = NULL,
},
......@@ -600,14 +604,16 @@ static int fme_open(struct inode *inode, struct file *filp)
if (WARN_ON(!pdata))
return -ENODEV;
ret = dfl_feature_dev_use_begin(pdata);
if (ret)
return ret;
dev_dbg(&fdev->dev, "Device File Open\n");
filp->private_data = pdata;
mutex_lock(&pdata->lock);
ret = dfl_feature_dev_use_begin(pdata, filp->f_flags & O_EXCL);
if (!ret) {
dev_dbg(&fdev->dev, "Device File Opened %d Times\n",
dfl_feature_dev_use_count(pdata));
filp->private_data = pdata;
}
mutex_unlock(&pdata->lock);
return 0;
return ret;
}
static int fme_release(struct inode *inode, struct file *filp)
......@@ -616,7 +622,10 @@ static int fme_release(struct inode *inode, struct file *filp)
struct platform_device *pdev = pdata->dev;
dev_dbg(&pdev->dev, "Device File Release\n");
mutex_lock(&pdata->lock);
dfl_feature_dev_use_end(pdata);
mutex_unlock(&pdata->lock);
return 0;
}
......
This diff is collapsed.
......@@ -38,5 +38,7 @@ extern const struct dfl_feature_id fme_pr_mgmt_id_table[];
extern const struct dfl_feature_ops fme_global_err_ops;
extern const struct dfl_feature_id fme_global_err_id_table[];
extern const struct attribute_group fme_global_err_group;
extern const struct dfl_feature_ops fme_perf_ops;
extern const struct dfl_feature_id fme_perf_id_table[];
#endif /* __DFL_FME_H */
......@@ -1079,6 +1079,7 @@ static int __init dfl_fpga_init(void)
*/
int dfl_fpga_cdev_release_port(struct dfl_fpga_cdev *cdev, int port_id)
{
struct dfl_feature_platform_data *pdata;
struct platform_device *port_pdev;
int ret = -ENODEV;
......@@ -1093,7 +1094,11 @@ int dfl_fpga_cdev_release_port(struct dfl_fpga_cdev *cdev, int port_id)
goto put_dev_exit;
}
ret = dfl_feature_dev_use_begin(dev_get_platdata(&port_pdev->dev));
pdata = dev_get_platdata(&port_pdev->dev);
mutex_lock(&pdata->lock);
ret = dfl_feature_dev_use_begin(pdata, true);
mutex_unlock(&pdata->lock);
if (ret)
goto put_dev_exit;
......@@ -1120,6 +1125,7 @@ EXPORT_SYMBOL_GPL(dfl_fpga_cdev_release_port);
*/
int dfl_fpga_cdev_assign_port(struct dfl_fpga_cdev *cdev, int port_id)
{
struct dfl_feature_platform_data *pdata;
struct platform_device *port_pdev;
int ret = -ENODEV;
......@@ -1138,7 +1144,12 @@ int dfl_fpga_cdev_assign_port(struct dfl_fpga_cdev *cdev, int port_id)
if (ret)
goto put_dev_exit;
dfl_feature_dev_use_end(dev_get_platdata(&port_pdev->dev));
pdata = dev_get_platdata(&port_pdev->dev);
mutex_lock(&pdata->lock);
dfl_feature_dev_use_end(pdata);
mutex_unlock(&pdata->lock);
cdev->released_port_num--;
put_dev_exit:
put_device(&port_pdev->dev);
......
......@@ -197,16 +197,16 @@ struct dfl_feature_driver {
* feature dev (platform device)'s reources.
* @ioaddr: mapped mmio resource address.
* @ops: ops of this sub feature.
* @priv: priv data of this feature.
*/
struct dfl_feature {
u64 id;
int resource_index;
void __iomem *ioaddr;
const struct dfl_feature_ops *ops;
void *priv;
};
#define DEV_STATUS_IN_USE 0
#define FEATURE_DEV_ID_UNUSED (-1)
/**
......@@ -219,8 +219,9 @@ struct dfl_feature {
* @dfl_cdev: ptr to container device.
* @id: id used for this feature device.
* @disable_count: count for port disable.
* @excl_open: set on feature device exclusive open.
* @open_count: count for feature device open.
* @num: number for sub features.
* @dev_status: dev status (e.g. DEV_STATUS_IN_USE).
* @private: ptr to feature dev private data.
* @features: sub features of this feature dev.
*/
......@@ -232,26 +233,46 @@ struct dfl_feature_platform_data {
struct dfl_fpga_cdev *dfl_cdev;
int id;
unsigned int disable_count;
unsigned long dev_status;
bool excl_open;
int open_count;
void *private;
int num;
struct dfl_feature features[0];
struct dfl_feature features[];
};
static inline
int dfl_feature_dev_use_begin(struct dfl_feature_platform_data *pdata)
int dfl_feature_dev_use_begin(struct dfl_feature_platform_data *pdata,
bool excl)
{
/* Test and set IN_USE flags to ensure file is exclusively used */
if (test_and_set_bit_lock(DEV_STATUS_IN_USE, &pdata->dev_status))
if (pdata->excl_open)
return -EBUSY;
if (excl) {
if (pdata->open_count)
return -EBUSY;
pdata->excl_open = true;
}
pdata->open_count++;
return 0;
}
static inline
void dfl_feature_dev_use_end(struct dfl_feature_platform_data *pdata)
{
clear_bit_unlock(DEV_STATUS_IN_USE, &pdata->dev_status);
pdata->excl_open = false;
if (WARN_ON(pdata->open_count <= 0))
return;
pdata->open_count--;
}
static inline
int dfl_feature_dev_use_count(struct dfl_feature_platform_data *pdata)
{
return pdata->open_count;
}
static inline
......
......@@ -46,10 +46,16 @@ static int ice40_fpga_ops_write_init(struct fpga_manager *mgr,
struct spi_message message;
struct spi_transfer assert_cs_then_reset_delay = {
.cs_change = 1,
.delay_usecs = ICE40_SPI_RESET_DELAY
.delay = {
.value = ICE40_SPI_RESET_DELAY,
.unit = SPI_DELAY_UNIT_USECS
}
};
struct spi_transfer housekeeping_delay_then_release_cs = {
.delay_usecs = ICE40_SPI_HOUSEKEEPING_DELAY
.delay = {
.value = ICE40_SPI_HOUSEKEEPING_DELAY,
.unit = SPI_DELAY_UNIT_USECS
}
};
int ret;
......
......@@ -157,7 +157,8 @@ static int machxo2_cleanup(struct fpga_manager *mgr)
spi_message_init(&msg);
tx[1].tx_buf = &refresh;
tx[1].len = sizeof(refresh);
tx[1].delay_usecs = MACHXO2_REFRESH_USEC;
tx[1].delay.value = MACHXO2_REFRESH_USEC;
tx[1].delay.unit = SPI_DELAY_UNIT_USECS;
spi_message_add_tail(&tx[1], &msg);
ret = spi_sync(spi, &msg);
if (ret)
......@@ -208,7 +209,8 @@ static int machxo2_write_init(struct fpga_manager *mgr,
spi_message_init(&msg);
tx[0].tx_buf = &enable;
tx[0].len = sizeof(enable);
tx[0].delay_usecs = MACHXO2_LOW_DELAY_USEC;
tx[0].delay.value = MACHXO2_LOW_DELAY_USEC;
tx[0].delay.unit = SPI_DELAY_UNIT_USECS;
spi_message_add_tail(&tx[0], &msg);
tx[1].tx_buf = &erase;
......@@ -269,7 +271,8 @@ static int machxo2_write(struct fpga_manager *mgr, const char *buf,
spi_message_init(&msg);
tx.tx_buf = payload;
tx.len = MACHXO2_BUF_SIZE;
tx.delay_usecs = MACHXO2_HIGH_DELAY_USEC;
tx.delay.value = MACHXO2_HIGH_DELAY_USEC;
tx.delay.unit = SPI_DELAY_UNIT_USECS;
spi_message_add_tail(&tx, &msg);
ret = spi_sync(spi, &msg);
if (ret) {
......@@ -317,7 +320,8 @@ static int machxo2_write_complete(struct fpga_manager *mgr,
spi_message_init(&msg);
tx[1].tx_buf = &refresh;
tx[1].len = sizeof(refresh);
tx[1].delay_usecs = MACHXO2_REFRESH_USEC;
tx[1].delay.value = MACHXO2_REFRESH_USEC;
tx[1].delay.unit = SPI_DELAY_UNIT_USECS;
spi_message_add_tail(&tx[1], &msg);
ret = spi_sync(spi, &msg);
if (ret)
......
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......@@ -16,7 +16,7 @@ struct gnss_serial {
struct gnss_device *gdev;
speed_t speed;
const struct gnss_serial_ops *ops;
unsigned long drvdata[0];
unsigned long drvdata[];
};
enum gnss_serial_pm_state {
......
......@@ -439,14 +439,18 @@ static int sirf_probe(struct serdev_device *serdev)
data->on_off = devm_gpiod_get_optional(dev, "sirf,onoff",
GPIOD_OUT_LOW);
if (IS_ERR(data->on_off))
if (IS_ERR(data->on_off)) {
ret = PTR_ERR(data->on_off);
goto err_put_device;
}
if (data->on_off) {
data->wakeup = devm_gpiod_get_optional(dev, "sirf,wakeup",
GPIOD_IN);
if (IS_ERR(data->wakeup))
if (IS_ERR(data->wakeup)) {
ret = PTR_ERR(data->wakeup);
goto err_put_device;
}
ret = regulator_enable(data->vcc);
if (ret)
......
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