add boot partition size

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2023-12-11 d2ccde1c8e90d38cee87a1b0309ad2827f3fd30d

 kernel/Documentation/ABI/stable/firewire-cdev
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@@ -14,13 +14,17 @@
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 		Each /dev/fw* is associated with one IEEE 1394 node, which can
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 		be remote or local nodes.  Operations on a /dev/fw* file have
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 		different scope:
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+
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 		  - The 1394 node which is associated with the file:
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+
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 			  - Asynchronous request transmission
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 			  - Get the Configuration ROM
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 			  - Query node ID
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 			  - Query maximum speed of the path between this node
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 			    and local node
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+
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 		  - The 1394 bus (i.e. "card") to which the node is attached to:
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+
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 			  - Isochronous stream transmission and reception
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 			  - Asynchronous stream transmission and reception
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 			  - Asynchronous broadcast request transmission
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@@ -31,7 +35,9 @@
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 			    manager
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 			  - Query cycle time
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 			  - Bus reset initiation, bus reset event reception
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+
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 		  - All 1394 buses:
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+
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 			  - Allocation of IEEE 1212 address ranges on the local
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 			    link layers, reception of inbound requests to such
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 			    an address range, asynchronous response transmission
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@@ -43,6 +49,7 @@
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 		userland implement different access permission models, some
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 		operations are restricted to /dev/fw* files that are associated
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 		with a local node:
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+
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 			  - Addition of descriptors or directories to the local
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 			    nodes' Configuration ROM
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 			  - PHY packet transmission and reception
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@@ -55,50 +62,50 @@
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 		The following file operations are supported:
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 		open(2)
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-		Currently the only useful flags are O_RDWR.
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+		    Currently the only useful flags are O_RDWR.
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 		ioctl(2)
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-		Initiate various actions.  Some take immediate effect, others
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-		are performed asynchronously while or after the ioctl returns.
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-		See the inline documentation in <linux/firewire-cdev.h> for
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-		descriptions of all ioctls.
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+		    Initiate various actions.  Some take immediate effect, others
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+		    are performed asynchronously while or after the ioctl returns.
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+		    See the inline documentation in <linux/firewire-cdev.h> for
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+		    descriptions of all ioctls.
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 		poll(2), select(2), epoll_wait(2) etc.
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-		Watch for events to become available to be read.
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+		    Watch for events to become available to be read.
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 		read(2)
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-		Receive various events.  There are solicited events like
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-		outbound asynchronous transaction completion or isochronous
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-		buffer completion, and unsolicited events such as bus resets,
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-		request reception, or PHY packet reception.  Always use a read
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-		buffer which is large enough to receive the largest event that
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-		could ever arrive.  See <linux/firewire-cdev.h> for descriptions
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-		of all event types and for which ioctls affect reception of
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-		events.
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+		    Receive various events.  There are solicited events like
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+		    outbound asynchronous transaction completion or isochronous
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+		    buffer completion, and unsolicited events such as bus resets,
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+		    request reception, or PHY packet reception.  Always use a read
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+		    buffer which is large enough to receive the largest event that
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+		    could ever arrive.  See <linux/firewire-cdev.h> for descriptions
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+		    of all event types and for which ioctls affect reception of
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+		    events.
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 		mmap(2)
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-		Allocate a DMA buffer for isochronous reception or transmission
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-		and map it into the process address space.  The arguments should
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-		be used as follows:  addr = NULL, length = the desired buffer
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-		size, i.e. number of packets times size of largest packet,
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-		prot = at least PROT_READ for reception and at least PROT_WRITE
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-		for transmission, flags = MAP_SHARED, fd = the handle to the
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-		/dev/fw*, offset = 0.
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+		    Allocate a DMA buffer for isochronous reception or transmission
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+		    and map it into the process address space.  The arguments should
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+		    be used as follows:  addr = NULL, length = the desired buffer
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+		    size, i.e. number of packets times size of largest packet,
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+		    prot = at least PROT_READ for reception and at least PROT_WRITE
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+		    for transmission, flags = MAP_SHARED, fd = the handle to the
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+		    /dev/fw*, offset = 0.
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 		Isochronous reception works in packet-per-buffer fashion except
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 		for multichannel reception which works in buffer-fill mode.
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 		munmap(2)
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-		Unmap the isochronous I/O buffer from the process address space.
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+		    Unmap the isochronous I/O buffer from the process address space.
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 		close(2)
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-		Besides stopping and freeing I/O contexts that were associated
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-		with the file descriptor, back out any changes to the local
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-		nodes' Configuration ROM.  Deallocate isochronous channels and
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-		bandwidth at the IRM that were marked for kernel-assisted
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-		re- and deallocation.
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+		    Besides stopping and freeing I/O contexts that were associated
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+		    with the file descriptor, back out any changes to the local
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+		    nodes' Configuration ROM.  Deallocate isochronous channels and
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+		    bandwidth at the IRM that were marked for kernel-assisted
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+		    re- and deallocation.
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-Users:		libraw1394
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-		libdc1394
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-		libhinawa
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+Users:		libraw1394;
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+		libdc1394;
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+		libhinawa;
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 		tools like linux-firewire-utils, fwhack, ...