docs: Grammar and spelling fixes
Signed-off-by: Ville Skyttä <ville.skytta@iki.fi> Reviewed-by: Peter Maydell <peter.maydell@linaro.org> Reviewed-by: Eric Blake <eblake@redhat.com> Message-id: 20180612065150.21110-1-ville.skytta@iki.fi Signed-off-by: Peter Maydell <peter.maydell@linaro.org>
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@ -145,7 +145,7 @@ and redirect indev's packet to filter.
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COLO-compare, we do packet comparing job.
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Packets coming from the primary char indev will be sent to outdev.
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Packets coming from the secondary char dev will be dropped after comparing.
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COLO-comapre need two input chardev and one output chardev:
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COLO-compare needs two input chardevs and one output chardev:
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primary_in=chardev1-id (source: primary send packet)
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secondary_in=chardev2-id (source: secondary send packet)
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outdev=chardev3-id
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@ -185,7 +185,7 @@
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# attached to it.
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#
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# We also create an optical disk, mostly for installation
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# purposes: once the guest OS has been succesfully
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# purposes: once the guest OS has been successfully
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# installed, the guest will no longer boot from optical
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# media. If you don't want, or no longer want, to have an
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# optical disk in the guest you can safely comment out
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@ -191,7 +191,7 @@
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# attached to it.
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#
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# We also create an optical disk, mostly for installation
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# purposes: once the guest OS has been succesfully
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# purposes: once the guest OS has been successfully
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# installed, the guest will no longer boot from optical
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# media. If you don't want, or no longer want, to have an
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# optical disk in the guest you can safely comment out
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@ -130,7 +130,7 @@
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# it to that controller so that the guest can use it.
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#
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# We also create an optical disk, mostly for installation
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# purposes: once the guest OS has been succesfully
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# purposes: once the guest OS has been successfully
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# installed, the guest will no longer boot from optical
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# media. If you don't want, or no longer want, to have an
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# optical disk in the guest you can safely comment out
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@ -136,7 +136,7 @@
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# attached to it.
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#
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# We also create an optical disk, mostly for installation
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# purposes: once the guest OS has been succesfully
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# purposes: once the guest OS has been successfully
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# installed, the guest will no longer boot from optical
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# media. If you don't want, or no longer want, to have an
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# optical disk in the guest you can safely comment out
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@ -141,7 +141,7 @@
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# attached to it.
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#
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# We also create an optical disk, mostly for installation
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# purposes: once the guest OS has been succesfully
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# purposes: once the guest OS has been successfully
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# installed, the guest will no longer boot from optical
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# media. If you don't want, or no longer want, to have an
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# optical disk in the guest you can safely comment out
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@ -37,7 +37,7 @@ over any transport.
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- tcp migration: do the migration using tcp sockets
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- unix migration: do the migration using unix sockets
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- exec migration: do the migration using the stdin/stdout through a process.
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- fd migration: do the migration using an file descriptor that is
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- fd migration: do the migration using a file descriptor that is
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passed to QEMU. QEMU doesn't care how this file descriptor is opened.
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In addition, support is included for migration using RDMA, which
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@ -316,7 +316,7 @@ other cores sharing access to the memory. The classic example is the
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x86 cmpxchg instruction.
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The second type offer a pair of load/store instructions which offer a
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guarantee that an region of memory has not been touched between the
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guarantee that a region of memory has not been touched between the
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load and store instructions. An example of this is ARM's ldrex/strex
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pair where the strex instruction will return a flag indicating a
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successful store only if no other CPU has accessed the memory region
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@ -326,8 +326,8 @@ in the image file.
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It contains pointers to the second level structures which are called refcount
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blocks and are exactly one cluster in size.
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Given a offset into the image file, the refcount of its cluster can be obtained
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as follows:
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Given an offset into the image file, the refcount of its cluster can be
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obtained as follows:
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refcount_block_entries = (cluster_size * 8 / refcount_bits)
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@ -365,7 +365,7 @@ The L1 table has a variable size (stored in the header) and may use multiple
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clusters, however it must be contiguous in the image file. L2 tables are
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exactly one cluster in size.
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Given a offset into the virtual disk, the offset into the image file can be
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Given an offset into the virtual disk, the offset into the image file can be
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obtained as follows:
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l2_entries = (cluster_size / sizeof(uint64_t))
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@ -108,12 +108,12 @@ Depending on the request type, payload can be:
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IOVA: a 64-bit I/O virtual address programmed by the guest
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Size: a 64-bit size
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User address: a 64-bit user address
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Permissions: a 8-bit value:
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Permissions: an 8-bit value:
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- 0: No access
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- 1: Read access
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- 2: Write access
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- 3: Read/Write access
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Type: a 8-bit IOTLB message type:
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Type: an 8-bit IOTLB message type:
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- 1: IOTLB miss
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- 2: IOTLB update
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- 3: IOTLB invalidate
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@ -62,7 +62,7 @@ It's also possible to start a guest with memory cold-plugged into the
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hotpluggable memory slots. This might seem counterintuitive at first,
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but this allows for a lot of flexibility when using the file backend.
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In the following command-line example, a 8GB guest is created where 6GB
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In the following command-line example, an 8GB guest is created where 6GB
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comes from regular RAM, 1GB is a 1GB hugepage page and 256MB is from
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2MB pages. Also, the guest has additional memory slots to hotplug more
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2GB if needed:
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@ -62,7 +62,7 @@ to its own window so you can see both display devices side-by-side.
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For vnc some additional configuration on the command line is needed.
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We'll create two vnc server instances, and bind the second one to the
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second seat, simliar to input devices:
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second seat, similar to input devices:
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-display vnc=:1,id=primary \
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-display vnc=:2,id=secondary,display=video.2
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@ -524,7 +524,7 @@ You can create a cloned image from the existing snapshot.
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@example
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qemu-img create -b sheepdog:///@var{base}#@var{tag} sheepdog:///@var{image}
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@end example
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where @var{base} is a image name of the source snapshot and @var{tag}
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where @var{base} is an image name of the source snapshot and @var{tag}
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is its tag name.
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You can use an unix socket instead of an inet socket:
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@ -1,7 +1,7 @@
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; qemupciserial.inf for QEMU, based on MSPORTS.INF
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; The driver itself is shipped with Windows (serial.sys). This is
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; just a inf file to tell windows which pci id the serial pci card
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; just an inf file to tell windows which pci id the serial pci card
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; emulated by qemu has, and to apply a name tag to it which windows
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; will show in the device manager.
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@ -72,7 +72,8 @@ for NVDIMM ACPI.
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Memory:
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QEMU uses BIOS Linker/loader feature to ask BIOS to allocate a memory
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page and dynamically patch its into a int32 object named "MEMA" in ACPI.
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page and dynamically patch its address into an int32 object named "MEMA"
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in ACPI.
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This page is RAM-based and it is used to transfer data between _DSM
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method and QEMU. If ACPI has control, this pages is owned by ACPI which
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@ -10,7 +10,7 @@ calls which are mostly used as a private interface between the firmware
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running in the guest and QEMU.
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All those hypercalls start at hcall number 0xf000 which correspond
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to a implementation specific range in PAPR.
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to an implementation specific range in PAPR.
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- H_RTAS (0xf000)
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@ -252,7 +252,7 @@ swtpm socket --tpmstate dir=/tmp/mytpm1 \
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--ctrl type=unixio,path=/tmp/mytpm1/swtpm-sock \
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--log level=20 --tpm2
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In the 2nd terminal restore the state of the VM using the additonal
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In the 2nd terminal restore the state of the VM using the additional
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'-incoming' option.
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qemu-system-x86_64 -display sdl -accel kvm \
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@ -41,7 +41,7 @@ the PIIX3 chipset. The USB 1.1 bus will carry the name "usb-bus.0".
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You can use the standard -device switch to add a EHCI controller to
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your virtual machine. It is strongly recommended to specify an ID for
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the controller so the USB 2.0 bus gets a individual name, for example
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the controller so the USB 2.0 bus gets an individual name, for example
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'-device usb-ehci,id=ehci". This will give you a USB 2.0 bus named
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"ehci.0".
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