2 files changed, 80 insertions, 66 deletions

diff --git a/Documentation/hwmon/k8temp b/Documentation/hwmon/k8temp
index 716dc24c7237..72da12aa17e5 100644
--- a/Documentation/hwmon/k8temp
+++ b/Documentation/hwmon/k8temp
@@ -2,12 +2,17 @@ Kernel driver k8temp
 ====================
 
 Supported chips:
+
   * AMD Athlon64/FX or Opteron CPUs
+
     Prefix: 'k8temp'
+
     Addresses scanned: PCI space
+
     Datasheet: http://support.amd.com/us/Processor_TechDocs/32559.pdf
 
 Author: Rudolf Marek
+
 Contact: Rudolf Marek <r.marek@assembler.cz>
 
 Description
@@ -27,10 +32,12 @@ implemented sensors.
 
 Mapping of /sys files is as follows:
 
-temp1_input - temperature of Core 0 and "place" 0
-temp2_input - temperature of Core 0 and "place" 1
-temp3_input - temperature of Core 1 and "place" 0
-temp4_input - temperature of Core 1 and "place" 1
+============= ===================================
+temp1_input   temperature of Core 0 and "place" 0
+temp2_input   temperature of Core 0 and "place" 1
+temp3_input   temperature of Core 1 and "place" 0
+temp4_input   temperature of Core 1 and "place" 1
+============= ===================================
 
 Temperatures are measured in degrees Celsius and measurement resolution is
 1 degree C. It is expected that future CPU will have better resolution. The
@@ -48,7 +55,7 @@ computed temperature called TControl, which must be lower than TControlMax.
 
 The relationship is following:
 
-temp1_input - TjOffset*2 < TControlMax,
+        temp1_input - TjOffset*2 < TControlMax,
 
 TjOffset is not yet exported by the driver, TControlMax is usually
 70 degrees C. The rule of the thumb -> CPU temperature should not cross
diff --git a/Documentation/hwmon/w83793 b/Documentation/hwmon/w83793
index 6cc5f639b721..83bb40c48645 100644
--- a/Documentation/hwmon/w83793
+++ b/Documentation/hwmon/w83793
@@ -2,29 +2,34 @@ Kernel driver w83793
 ====================
 
 Supported chips:
+
   * Winbond W83793G/W83793R
+
     Prefix: 'w83793'
+
     Addresses scanned: I2C 0x2c - 0x2f
+
     Datasheet: Still not published
 
 Authors:
-    Yuan Mu (Winbond Electronics)
-    Rudolf Marek <r.marek@assembler.cz>
+    - Yuan Mu (Winbond Electronics)
+    - Rudolf Marek <r.marek@assembler.cz>
 
 
 Module parameters
 -----------------
 
 * reset int
-  (default 0)
-  This parameter is not recommended, it will lose motherboard specific
-  settings. Use 'reset=1' to reset the chip when loading this module.
+    (default 0)
+
+    This parameter is not recommended, it will lose motherboard specific
+    settings. Use 'reset=1' to reset the chip when loading this module.
 
 * force_subclients=bus,caddr,saddr1,saddr2
-  This is used to force the i2c addresses for subclients of
-  a certain chip. Typical usage is `force_subclients=0,0x2f,0x4a,0x4b'
-  to force the subclients of chip 0x2f on bus 0 to i2c addresses
-  0x4a and 0x4b.
+    This is used to force the i2c addresses for subclients of
+    a certain chip. Typical usage is `force_subclients=0,0x2f,0x4a,0x4b`
+    to force the subclients of chip 0x2f on bus 0 to i2c addresses
+    0x4a and 0x4b.
 
 
 Description
@@ -33,70 +38,72 @@ Description
 This driver implements support for Winbond W83793G/W83793R chips.
 
 * Exported features
-  This driver exports 10 voltage sensors, up to 12 fan tachometer inputs,
-  6 remote temperatures, up to 8 sets of PWM fan controls, SmartFan
-  (automatic fan speed control) on all temperature/PWM combinations, 2
-  sets of 6-pin CPU VID input.
+    This driver exports 10 voltage sensors, up to 12 fan tachometer inputs,
+    6 remote temperatures, up to 8 sets of PWM fan controls, SmartFan
+    (automatic fan speed control) on all temperature/PWM combinations, 2
+    sets of 6-pin CPU VID input.
 
 * Sensor resolutions
-  If your motherboard maker used the reference design, the resolution of
-  voltage0-2 is 2mV, resolution of voltage3/4/5 is 16mV, 8mV for voltage6,
-  24mV for voltage7/8. Temp1-4 have a 0.25 degree Celsius resolution,
-  temp5-6 have a 1 degree Celsiis resolution.
+    If your motherboard maker used the reference design, the resolution of
+    voltage0-2 is 2mV, resolution of voltage3/4/5 is 16mV, 8mV for voltage6,
+    24mV for voltage7/8. Temp1-4 have a 0.25 degree Celsius resolution,
+    temp5-6 have a 1 degree Celsiis resolution.
 
 * Temperature sensor types
-  Temp1-4 have 2 possible types. It can be read from (and written to)
-  temp[1-4]_type.
-  - If the value is 3, it starts monitoring using a remote termal diode
-    (default).
-  - If the value is 6, it starts monitoring using the temperature sensor
-    in Intel CPU and get result by PECI.
-  Temp5-6 can be connected to external thermistors (value of
-  temp[5-6]_type is 4).
+    Temp1-4 have 2 possible types. It can be read from (and written to)
+    temp[1-4]_type.
+
+    - If the value is 3, it starts monitoring using a remote termal diode
+      (default).
+    - If the value is 6, it starts monitoring using the temperature sensor
+      in Intel CPU and get result by PECI.
+
+    Temp5-6 can be connected to external thermistors (value of
+    temp[5-6]_type is 4).
 
 * Alarm mechanism
-  For voltage sensors, an alarm triggers if the measured value is below
-  the low voltage limit or over the high voltage limit.
-  For temperature sensors, an alarm triggers if the measured value goes
-  above the high temperature limit, and wears off only after the measured
-  value drops below the hysteresis value.
-  For fan sensors, an alarm triggers if the measured value is below the
-  low speed limit.
+    For voltage sensors, an alarm triggers if the measured value is below
+    the low voltage limit or over the high voltage limit.
+    For temperature sensors, an alarm triggers if the measured value goes
+    above the high temperature limit, and wears off only after the measured
+    value drops below the hysteresis value.
+    For fan sensors, an alarm triggers if the measured value is below the
+    low speed limit.
 
 * SmartFan/PWM control
-  If you want to set a pwm fan to manual mode, you just need to make sure it
-  is not controlled by any temp channel, for example, you want to set fan1
-  to manual mode, you need to check the value of temp[1-6]_fan_map, make
-  sure bit 0 is cleared in the 6 values. And then set the pwm1 value to
-  control the fan.
-
-  Each temperature channel can control all the 8 PWM outputs (by setting the
-  corresponding bit in tempX_fan_map), you can set the temperature channel
-  mode using temp[1-6]_pwm_enable, 2 is Thermal Cruise mode and 3
-  is the SmartFanII mode. Temperature channels will try to speed up or
-  slow down all controlled fans, this means one fan can receive different
-  PWM value requests from different temperature channels, but the chip
-  will always pick the safest (max) PWM value for each fan.
-
-  In Thermal Cruise mode, the chip attempts to keep the temperature at a
-  predefined value, within a tolerance margin. So if tempX_input >
-  thermal_cruiseX + toleranceX, the chip will increase the PWM value,
-  if tempX_input < thermal_cruiseX - toleranceX, the chip will decrease
-  the PWM value. If the temperature is within the tolerance range, the PWM
-  value is left unchanged.
-
-  SmartFanII works differently, you have to define up to 7 PWM, temperature
-  trip points, defining a PWM/temperature curve which the chip will follow.
-  While not fundamentally different from the Thermal Cruise mode, the
-  implementation is quite different, giving you a finer-grained control.
+    If you want to set a pwm fan to manual mode, you just need to make sure it
+    is not controlled by any temp channel, for example, you want to set fan1
+    to manual mode, you need to check the value of temp[1-6]_fan_map, make
+    sure bit 0 is cleared in the 6 values. And then set the pwm1 value to
+    control the fan.
+
+    Each temperature channel can control all the 8 PWM outputs (by setting the
+    corresponding bit in tempX_fan_map), you can set the temperature channel
+    mode using temp[1-6]_pwm_enable, 2 is Thermal Cruise mode and 3
+    is the SmartFanII mode. Temperature channels will try to speed up or
+    slow down all controlled fans, this means one fan can receive different
+    PWM value requests from different temperature channels, but the chip
+    will always pick the safest (max) PWM value for each fan.
+
+    In Thermal Cruise mode, the chip attempts to keep the temperature at a
+    predefined value, within a tolerance margin. So if tempX_input >
+    thermal_cruiseX + toleranceX, the chip will increase the PWM value,
+    if tempX_input < thermal_cruiseX - toleranceX, the chip will decrease
+    the PWM value. If the temperature is within the tolerance range, the PWM
+    value is left unchanged.
+
+    SmartFanII works differently, you have to define up to 7 PWM, temperature
+    trip points, defining a PWM/temperature curve which the chip will follow.
+    While not fundamentally different from the Thermal Cruise mode, the
+    implementation is quite different, giving you a finer-grained control.
 
 * Chassis
-  If the case open alarm triggers, it will stay in this state unless cleared
-  by writing 0 to the sysfs file "intrusion0_alarm".
+    If the case open alarm triggers, it will stay in this state unless cleared
+    by writing 0 to the sysfs file "intrusion0_alarm".
 
 * VID and VRM
-  The VRM version is detected automatically, don't modify the it unless you
-  *do* know the cpu VRM version and it's not properly detected.
+    The VRM version is detected automatically, don't modify the it unless you
+    *do* know the cpu VRM version and it's not properly detected.
 
 
 Notes