* A memory leak occurs when this happens in the content process
* I added an assertion that we only create it in the parent process
MozReview-Commit-ID: 1UTyusRg0qx
--HG--
extra : rebase_source : 400cfb21ee094ad33e15681f213af6dbe20ebbf5
* A memory leak occurs when this happens in the content process
* I added an assertion that we only create it in the parent process
MozReview-Commit-ID: 1UTyusRg0qx
--HG--
extra : rebase_source : 646c1c82d141cadc6c1b19843b4cc750e1a1ce59
For netwerk/cache2/CacheFileInputStream.cpp:148 and netwerk/protocol/http/nsHttpHeaderArray.cpp:358,
missing "()" in the if statement.
For netwerk/base/rust-url-capi/test/test.cpp:29, netwerk/streamconv/converters/nsHTTPCompressConv.cpp:297,
and netwerk/streamconv/converters/nsHTTPCompressConv.cpp:300, null pointer will be returned but the
original memory buffer will not be freed if |realloc| fails. We should remember the original memory
buffer and free it if error is detected.
MozReview-Commit-ID: 2ggXsL73jYV
--HG--
extra : rebase_source : e47e41f2b37f717207bd13990efead22a14db1c0
We should not be declaring forward declarations for nsString classes directly,
instead we should use nsStringFwd.h. This will make changing the underlying
types easier.
--HG--
extra : rebase_source : b2c7554e8632f078167ff2f609392e63a136c299
These are all easy cases where an nsXPIDLCString local variable is set via
getter_Copies() and then is null checked. The patch uses IsVoid() to replace
the null checks (and get() and EqualsLiteral() calls to replace any implicit
conversions).
--HG--
extra : rebase_source : 484ad42a7816b34b86afbe072e04ba131c1619c6
These are all easy cases where an nsXPIDLCString local variable is set via
getter_Copies() and then is only used in ways that nsCStrings can also be used
(i.e. no null checks or implicit conversions to |char*|).
In every case the patch trivially replaces the nsXPIDLCString with an
nsCString. (Also, there are a couple of unused nsXPIDLCString variables that
the patch simply removes.)
This parameter isn't used by any implementation of onDispatchedEvent,
and keeping the parameter makes later refactorings in this bug more difficult.
MozReview-Commit-ID: 90VY2vYtwCW
We have a minimum requirement of VS 2015 for Windows builds, which supports
the z length modifier for format specifiers. So we don't need SizePrintfMacros.h
any more, and can just use %zu and friends directly everywhere.
MozReview-Commit-ID: 6s78RvPFMzv
--HG--
extra : rebase_source : 009ea39eb4dac1c927aa03e4f97d8ab673de8a0e
kIndexTimeNotAvailable has a special meaning when reading the times from the index, but measured times are passed to CacheFile::SetNetworkTimes and 65535ms is a valid time.
CacheFile::OnChunkRead and CacheFile::OnChunkWritten now correctly handle discarded chunks. It's now also ensured that the chunk which is going to be discarded isn't references by any input stream.
CachePerfStats gathers performance data for single open, read and write operations as well as the whole cache entry opening. It maintains long term and short term average. The long term average filters out excessive values and it represents and average time for a given operation when the cache is not busy. The short term average represents the current cache speed. By comparing these two stats we know pretty quickly that the cache is getting slower and then we race the cache with network immediately without a delay. Otherwise the delay is based on the average cache entry open time.
All the instances are converted as follows.
- nsSubstring --> nsAString
- nsCSubstring --> nsACString
--HG--
extra : rebase_source : cfd2238c52e3cb4d13e3bd5ddb80ba6584ab6d91
CachePerfStats gathers performance data for single open, read and write operations as well as the whole cache entry opening. It maintains long term and short term average. The long term average filters out excessive values and it represents and average time for a given operation when the cache is not busy. The short term average represents the current cache speed. By comparing these two stats we know pretty quickly that the cache is getting slower and then we race the cache with network immediately without a delay. Otherwise the delay is based on the average cache entry open time.
CachePerfStats gathers performance data for single open, read and write operations as well as the whole cache entry opening. It maintains long term and short term average. The long term average filters out excessive values and it represents and average time for a given operation when the cache is not busy. The short term average represents the current cache speed. By comparing these two stats we know pretty quickly that the cache is getting slower and then we race the cache with network immediately without a delay. Otherwise the delay is based on the average cache entry open time.
