4 files changed, 14 insertions, 14 deletions
diff --git a/Documentation/PCI/acpi-info.rst b/Documentation/PCI/acpi-info.rst
index 060217081c79..34c64a5a66ec 100644
--- a/Documentation/PCI/acpi-info.rst
+++ b/Documentation/PCI/acpi-info.rst
@@ -22,9 +22,9 @@ or if the device has INTx interrupts connected by platform interrupt
 controllers and a _PRT is needed to describe those connections.
 
 ACPI resource description is done via _CRS objects of devices in the ACPI
-namespace [2].   The _CRS is like a generalized PCI BAR: the OS can read
+namespace [2].   The _CRS is like a generalized PCI BAR: the OS can read
 _CRS and figure out what resource is being consumed even if it doesn't have
-a driver for the device [3].  That's important because it means an old OS
+a driver for the device [3].  That's important because it means an old OS
 can work correctly even on a system with new devices unknown to the OS.
 The new devices might not do anything, but the OS can at least make sure no
 resources conflict with them.
@@ -41,15 +41,15 @@ ACPI, that device will have a specific _HID/_CID that tells the OS what
 driver to bind to it, and the _CRS tells the OS and the driver where the
 device's registers are.
 
-PCI host bridges are PNP0A03 or PNP0A08 devices.  Their _CRS should
-describe all the address space they consume.  This includes all the windows
+PCI host bridges are PNP0A03 or PNP0A08 devices.  Their _CRS should
+describe all the address space they consume.  This includes all the windows
 they forward down to the PCI bus, as well as registers of the host bridge
-itself that are not forwarded to PCI.  The host bridge registers include
+itself that are not forwarded to PCI.  The host bridge registers include
 things like secondary/subordinate bus registers that determine the bus
 range below the bridge, window registers that describe the apertures, etc.
 These are all device-specific, non-architected things, so the only way a
 PNP0A03/PNP0A08 driver can manage them is via _PRS/_CRS/_SRS, which contain
-the device-specific details.  The host bridge registers also include ECAM
+the device-specific details.  The host bridge registers also include ECAM
 space, since it is consumed by the host bridge.
 
 ACPI defines a Consumer/Producer bit to distinguish the bridge registers
@@ -66,7 +66,7 @@ the PNP0A03/PNP0A08 device itself.  The workaround was to describe the
 bridge registers (including ECAM space) in PNP0C02 catch-all devices [6].
 With the exception of ECAM, the bridge register space is device-specific
 anyway, so the generic PNP0A03/PNP0A08 driver (pci_root.c) has no need to
-know about it.  
+know about it.  
 
 New architectures should be able to use "Consumer" Extended Address Space
 descriptors in the PNP0A03 device for bridge registers, including ECAM,
@@ -75,9 +75,9 @@ ia64 kernels assume all address space descriptors, including "Consumer"
 Extended Address Space ones, are windows, so it would not be safe to
 describe bridge registers this way on those architectures.
 
-PNP0C02 "motherboard" devices are basically a catch-all.  There's no
+PNP0C02 "motherboard" devices are basically a catch-all.  There's no
 programming model for them other than "don't use these resources for
-anything else."  So a PNP0C02 _CRS should claim any address space that is
+anything else."  So a PNP0C02 _CRS should claim any address space that is
 (1) not claimed by _CRS under any other device object in the ACPI namespace
 and (2) should not be assigned by the OS to something else.
 
diff --git a/Documentation/PCI/endpoint/pci-endpoint-cfs.rst b/Documentation/PCI/endpoint/pci-endpoint-cfs.rst
index 696f8eeb4738..db609b97ad58 100644
--- a/Documentation/PCI/endpoint/pci-endpoint-cfs.rst
+++ b/Documentation/PCI/endpoint/pci-endpoint-cfs.rst
@@ -125,4 +125,4 @@ all the EPF devices are created and linked with the EPC device.
 						| interrupt_pin
 						| function
 
-[1] :doc:`pci-endpoint`
+[1] Documentation/PCI/endpoint/pci-endpoint.rst
diff --git a/Documentation/PCI/pci-error-recovery.rst b/Documentation/PCI/pci-error-recovery.rst
index 84ceebb08cac..187f43a03200 100644
--- a/Documentation/PCI/pci-error-recovery.rst
+++ b/Documentation/PCI/pci-error-recovery.rst
@@ -295,7 +295,7 @@ and let the driver restart normal I/O processing.
 A driver can still return a critical failure for this function if
 it can't get the device operational after reset.  If the platform
 previously tried a soft reset, it might now try a hard reset (power
-cycle) and then call slot_reset() again.  It the device still can't
+cycle) and then call slot_reset() again.  If the device still can't
 be recovered, there is nothing more that can be done;  the platform
 will typically report a "permanent failure" in such a case.  The
 device will be considered "dead" in this case.
diff --git a/Documentation/PCI/pci.rst b/Documentation/PCI/pci.rst
index 814b40f8360b..fa651e25d98c 100644
--- a/Documentation/PCI/pci.rst
+++ b/Documentation/PCI/pci.rst
@@ -265,7 +265,7 @@ Set the DMA mask size
 ---------------------
 .. note::
    If anything below doesn't make sense, please refer to
-   :doc:`/core-api/dma-api`. This section is just a reminder that
+   Documentation/core-api/dma-api.rst. This section is just a reminder that
    drivers need to indicate DMA capabilities of the device and is not
    an authoritative source for DMA interfaces.
 
@@ -291,7 +291,7 @@ Many 64-bit "PCI" devices (before PCI-X) and some PCI-X devices are
 Setup shared control data
 -------------------------
 Once the DMA masks are set, the driver can allocate "consistent" (a.k.a. shared)
-memory.  See :doc:`/core-api/dma-api` for a full description of
+memory.  See Documentation/core-api/dma-api.rst for a full description of
 the DMA APIs. This section is just a reminder that it needs to be done
 before enabling DMA on the device.
 
@@ -421,7 +421,7 @@ owners if there is one.
 
 Then clean up "consistent" buffers which contain the control data.
 
-See :doc:`/core-api/dma-api` for details on unmapping interfaces.
+See Documentation/core-api/dma-api.rst for details on unmapping interfaces.
 
 
 Unregister from other subsystems