为什么1.20e版本的war3进vswar3局域网看不到主机机 而且显示的是NO PI...

c++ - M_PI works with math.h but not with cmath in Visual Studio - Stack Overflow
to customize your list.
Join the Stack Overflow Community
Stack Overflow is a community of 6.4 million programmers, just like you, helping each other.
J it only takes a minute:
This question already has an answer here:
I am using Visual Studio 2010. I have read that in C++ it is better to use &cmath& rather than &math.h&.
But in the program I am trying to write (Win32 console application, empty project) if I write:
#define _USE_MATH_DEFINES
#include &math.h&
it compiles, while if I write
#define _USE_MATH_DEFINES
#include &cmath&
it fails with
error C2065: 'M_PI' : undeclared identifier
Is it normal? Does it matter if I use cmath or math.h? If yes, how can I make it work with cmath?
UPDATE: if I define _USE_MATH_DEFINES in the GUI, it works. Any clue why this is happening?
3,486135194
marked as duplicate by ,
&c++ badge can single-handedly close
questions as duplicates and reopen them as needed.
This question has been asked before and already has an answer. If those answers do not fully address your question, please .
Interestingly I checked this on an app of mine and I got the same error.
I spent a while checking through headers to see if there was anything undef'ing the _USE_MATH_DEFINES and found nothing.
So I moved the
#define _USE_MATH_DEFINES
#include &cmath&
to be the first thing in my file (I don't use PCHs so if you are you will have to have it after the #include "stdafx.h") and suddenly it compile perfectly.
Try moving it higher up the page.
Totally unsure as to why this would cause issues though.
Edit: Figured it out.
The #include
occurs within cmath's header guards.
This means that something higher up the list of #includes is including cmath without the #define specified.
math.h is specifically designed so that you can include it again with that define now changed to add M_PI etc.
This is NOT the case with cmath.
So you need to make sure you #define _USE_MATH_DEFINES before you include anything else.
Hope that clears it up for you :)
Failing that just include math.h you are using non-standard C/C++ as already pointed out :)
Edit 2: Or as David points out in the comments just make yourself a constant that defines the value and you have something more portable anyway :)
43.9k1489161
This works for me:
#define _USE_MATH_DEFINES
#include &cmath&
#include &iostream&
int main()
cout && M_PI &&
Compiles and prints pi like is should: cl /O2 main.cpp /link /out:test.exe.
There must be a mismatch in the code you have posted and the one you're trying to compile.
Be sure there are no precompiled headers being pulled in before your #define.
42.6k13104192
Consider adding the switch /D_USE_MATH_DEFINES to your compilation command line, or to define the macro in the project settings. This will drag the symbol to all reachable dark corners of include and source files leaving your source clean for multiple platforms. If you set it globally for the whole project, you will not forget it later in a new file(s).
Not the answer you're looking for?
Browse other questions tagged
Stack Overflow works best with JavaScript enabled114网址导航GCC 4.9 Release SeriesChanges, New Features, and Fixes
The mudflap run time checker has been removed.
The mudflap
options remain, but do nothing.
Support for a number of older systems and recently
unmaintained or untested target ports of GCC has been declared
obsolete in GCC 4.9.
Unless there is activity to revive them, the
next release of GCC will have their sources permanently
The following ports for individual systems on
particular architectures have been obsoleted:
Solaris 9 (*-*-solaris2.9).
Details can be found in the
On AArch64, the singleton vector types int64x1_t,
uint64x1_t and float64x1_t exported by
arm_neon.h are defined to be the same as their base types.
This results in incorrect application of parameter passing rules to
arguments of types int64x1_t and uint64x1_t,
with respect to the AAPCS64 ABI specification.
In addition, names of
C++ functions with parameters of these types (including
float64x1_t) are not mangled correctly.
The current
typedef declarations also unintentionally allow implicit
casting between singleton vector types and their base types.
issues will be resolved in a near future release.
for more information.
More information on porting to GCC 4.9 from previous versions
of GCC can be found in
for this release.
General Optimizer Improvements
AddressSanitizer, a fast memory error detector, is now available on ARM.
UndefinedBehaviorSanitizer (ubsan), a fast undefined behavior detector,
has been added and can be enabled via -fsanitize=undefined.
Various computations will be instrumented to detect undefined behavior
at runtime.
UndefinedBehaviorSanitizer is currently available for the C
and C++ languages.
Link-time optimization (LTO) improvements:
Type merging was rewritten. The new implementation is significantly faster
and uses less memory.
Better partitioning algorithm resulting in less streaming during
link time.
Early removal of virtual methods reduces the size of object files and
improves link-time memory usage and compile time.
Function bodies are now loaded on-demand and released early improving
overall memory usage at link time.
C++ hidden keyed methods can now be optimized out.
When using a linker plugin, compiling with the -flto
option now generates slim object files (.o) which only
contain intermediate language representation for LTO. Use
-ffat-lto-objects to create files which contain
additionally the object code.
To generate static libraries suitable
for LTO processing, use gcc-ar and
gcc-ranlib; to list symbols from a slim object file use
gcc-nm. (This requires that ar,
ranlib and nm have been compiled with
plugin support.)
Memory usage building Firefox with debug enabled was reduced from 15GB to
3.5GB; link time from 1700 seconds to 350 seconds.
Inter-procedural optimization improvements:
New type inheritance analysis module improving devirtualization.
Devirtualization now takes into account anonymous name-spaces and the
C++11 final keyword.
New speculative devirtualization pass (controlled by
-fdevirtualize-speculatively.
Calls that were speculatively made direct are turned back to indirect
where direct call is not cheaper.
Local aliases are introduced for symbols that are known to be
semantically equivalent across shared libraries improving dynamic
linking times.
Feedback directed optimization improvements:
Profiling of programs using C++ inline functions is now more reliable.
New time profiling determines typical order in which functions are
A new function reordering pass (controlled by
-freorder-functions) significantly reduces
startup time of large applications.
Until binutils support is
completed, it is effective only with link-time optimization.
Feedback driven indirect call removal and devirtualization now handle
cross-module calls when link-time optimization is enabled.
New Languages and Language specific improvements
Version 4.0 of the
is now supported in the C and C++ compilers
and starting with the 4.9.1 release also in the Fortran compiler.
The new -fopenmp-simd option can be used to enable OpenMP's
SIMD directives while ignoring other OpenMP directives. The new -fsimd-cost-model= option permits to tune the
vectorization cost model for loops annotated with OpenMP and Cilk
Plus simd directives. -Wopenmp-simd warns when
the current cost model overrides simd directives set by the user.
The -Wdate-time option has been added for the C, C++ and
Fortran compilers, which warns when the __DATE__,
__TIME__ or __TIMESTAMP__ macros are used.
Those macros might prevent bit-wise-identical reproducible
compilations.
GNAT switched to Ada 2012 instead of Ada 2005 by default.
Support for colorizing diagnostics emitted by GCC has been added.
The -fdiagnostics-color=auto will enable it when
outputting to terminals, -fdiagnostics-color=always
unconditionally.
The GCC_COLORS environment variable
can be used to customize the colors or disable coloring.
If GCC_COLORS variable is present in the environment,
the default is -fdiagnostics-color=auto, otherwise
-fdiagnostics-color=never.
Sample diagnostics output:
$ g++ -fdiagnostics-color=always -S -Wall test.C
test.C: In function &int foo()&:
test.C:1:14: warning: no return statement in function returning non-void [-Wreturn-type]
int foo () { }
test.C:2:46: error: template instantiation depth exceeds maximum of 900 (use -ftemplate-depth= to increase the maximum) instantiating &struct X&100&&
template &int N& struct X { static const int value = X&N-1&:: }; template struct X&1000&;
test.C:2:46:
recursively required from &const int X&999&::value&
test.C:2:46:
required from &const int X&1000&::value&
test.C:2:88:
required from here
test.C:2:46: error: incomplete type &X&100&& used in nested name specifier
With the new #pragma GCC ivdep, the user can assert that there are no
loop-carried dependencies which would prevent concurrent execution of
consecutive iterations using SIMD (single instruction multiple data)
instructions.
Support for
added and can be enabled with the -fcilkplus option.
is an extension to the C and C++ languages to support data and task
parallelism.
The present implementation follows ABI version 1.2; all
features but _Cilk_for have been implemented.
ISO C11 atomics (the _Atomic type specifier and
qualifier and the &stdatomic.h& header) are now
supported.
ISO C11 generic selections (_Generic keyword) are
now supported.
ISO C11 thread-local storage (_Thread_local,
similar to GNU C __thread) is now supported.
ISO C11 support is now at a similar level of completeness to ISO
C99 support: substantially complete modulo bugs, extended
identifiers (supported except for corner cases
when -fextended-identifiers is used), floating-point
issues (mainly but not entirely relating to optional C99 features
from Annexes F and G) and the optional Annexes K (Bounds-checking
interfaces) and L (Analyzability).
A new C extension __auto_type provides a subset of
the functionality of C++11 auto in GNU C.
The G++ implementation of
return type deduction for normal
functions has been updated to conform to
the proposal accepted into the working paper.
Most notably, it adds decltype(auto) for
getting decltype semantics rather than the template argument deduction semantics of plain auto:
i1 = f(); // int
decltype(auto) i2 = f(); // int&
G++ supports
lambda capture initializers:
[x = 42]{ ... };
Actually, they have been accepted since GCC 4.5, but now the compiler doesn't
warn about them with -std=c++1y, and supports parenthesized and
brace-enclosed initializers as well.
G++ supports
variable length
G++ has supported GNU/C99-style VLAs for a long time, but now
additionally supports initializers and lambda capture by reference.
C++1y mode G++ will complain about VLA uses that are not permitted by
the draft standard, such as forming a pointer to VLA type or
applying sizeof to a VLA variable.
Note that it now appears
that VLAs will not be part of C++14, but will be part of a separate
document and then perhaps C++17.
void f(int n) {
int a[n] = { 1, 2, 3 }; // throws std::bad_array_length if n & 3
[&a]{ for (int i : a) { cout && i && } }();
&a; // error, taking address of VLA
G++ supports the
[[deprecated]]
attribute modulo bugs in the underlying [[gnu::deprecated]] attribute.
and functions can be marked deprecated and a diagnostic message added:
int bar(int n);
#if __cplusplus & 201103
class [[deprecated("A is deprecated in C++14; Use B instead")]] A;
[[deprecated(" use foo() instead")]]
int bar(int n);
int foo(int n);
A // warning: 'A' is deprecated : A is deprecated in C++14; Use B instead
int j = bar(2); // warning: 'int bar(int)' is deprecated : use foo() instead
G++ supports
digit separators.
Long numeric literals can be subdivided with a single quote ' to enhance readability:
int i = 1048576;
int j = 1'048'576;
int k = 0x10'0000;
int m = 0'004'000'000;
int n = 0b00'00;
double x = 1.602'176'565e-19;
double y = 1.602'176'565e-1'9;
G++ supports
generic (polymorphic) lambdas.
// a functional object that will increment any type
auto incr = [](auto x) { return x++; };
As a GNU extension, G++ supports explicit template parameter
syntax for generic lambdas.
This can be combined in the expected
way with the standard auto syntax.
// a functional object that will add two like-type objects
auto add = [] &typename T& (T a, T b) { return a + };
G++ supports unconstrained generic functions as specified
by &4.1.2 and &5.1.1 of
auto may be used as a type-specifier in a parameter
declaration of any function declarator in order to introduce an
implicit function template parameter, akin to generic lambdas.
// the following two function declarations are equivalent
auto incr(auto x) { return x++; }
template &typename T&
auto incr(T x) { return x++; }
Runtime Library (libstdc++)
, including:
support for ®ex&;
The associative containers in &map& and
&set& and the unordered associative containers
in &unordered_map& and &unordered_set&
meet the allocator-aware co
including:
fixing constexpr member functions without const;
implementation of the std::exchange()
implemention of std::make_unique;
implemention of std::shared_lock;
making std::result_of SFINAE-
adding operator() to std::integral_constant;
adding user-defined literals for standard library types
std::basic_string, std::chrono::duration,
and std::complex;
adding two range overloads to non-modifying sequence oprations
std::equal and std::mismatch;
adding IO manipulator
adding constexpr members to &utility&,
&complex&, &chrono&,
adding compile-time std::integer_sequence;
adding cleaner t
making &functional&s operator functors easier to use
An implementation of std::experimental::optional.
An implementation of std::experimental::string_view.
The non-standard function std::copy_exception has been deprecated
and will be removed in a future version. std::make_exception_ptr
should be used instead.
Compatibility notice:
Module files: The version of the module files (.mod)
additionally, module files are now compressed.
Fortran MODULEs compiled by earlier GCC versions have
to be recompiled, when they are USEd by files compiled
with GCC 4.9.
GCC 4.9 is not able to read .mod
files of earlier GCC attempting to do so gives an error
message. Note: The ABI of the produced assembler data itself has not
changed: object files and libraries are fully compatible with older
versions (except as stated below).
ABI changes:
The argument passing ABI has changed for scalar dummy
arguments of type INTEGER, REAL,
COMPLEX and LOGICAL, which have
both the VALUE and the OPTIONAL
attributes.
To support finalization the virtual table associated
with polymorphic variables has changed.
Code containing
CLASS should be recompiled, including all files which
define derived types involved in the type definition used by
polymorphic variables. (Note: Due to the incremented module version,
trying to mix old code with new code will usually give an error
GNU Fortran no longer deallocates allocatable variables or
allocatable components of variables declared in the main program. Since
Fortran 2008, the standard explicitly states that variables declared
in the Fortran main program automatically have the S***E
attribute.
When opening files, the close-on-exec flag is set if the system
supports such a feature. This is generally considered good practice
these days, but if there is a need to pass file descriptors to child
processes the parent process must now remember to clear the
close-on-exec flag by calling fcntl(), e.g. via
ISO_C_BINDING, before executing the child process.
The deprecated command-line option -fno-whole-file
has been removed. (-fwhole-file is the default since
GCC 4.6.) -fwhole-file/-fno-whole-file
continue to be accepted but do not influence the code generation.
The compiler no longer unconditionally warns
about DO loops with zero iterations.
This warning is now
controlled by the -Wzerotrip option, which is implied by
The new NO_ARG_CHECK attribute of the !GCC$ directive can be used to disable the
type-kind-rank (TKR) argument check for a dummy argument. The feature
is similar to ISO/IEC TS 's TYPE(*), except that
it additionally also disables the rank check. Variables with
NO_ARG_CHECK have to be dummy arguments and may only be
used as argument to ISO_C_BINDING's C_LOC
and as actual argument to another NO_ARG_CHECK dummy
also the other constraints of TYPE(*) apply.
The dummy arguments should be declared as scalar or assumed-size
variable of type type(*) (recommended) & or of
type integer, real, complex
or logical. With NO_ARG_CHECK, a pointer
to the data without further type or shape information is passed,
similar to C's void*. Note that also TS 29113's
type(*),dimension(..) accepts arguments of any type and
contrary to NO_ARG_CHECK assumed-rank arguments
pass an array descriptor which contains the array shape and stride
of the argument.
Finalization is now supported.
It is currently only done for a
subset of those situations in which it should occur.
Experimental support for scalar character components with
deferred length (i.e. allocatable string length) in derived types has
been added. (Deferred-length character variables are supported since
When STOP or ERROR STOP are used to terminate
the execution and any exception (but inexact) is signaling, a warning is
printed to ERROR_UNIT, indicating which exceptions are
signaling. The -ffpe-summary= command-line option can be used to fine-tune
for which exceptions the warning should be shown.
Rounding on input (READ) is now handled on systems where
strtod honours the rounding mode. (For output, rounding is
supported since GCC 4.5.) Note that for input, the
compatible rounding mode is handled as nearest
(i.e., rounding to an even least significant [cf. IEC ]
for a tie, while compatible rounds away from zero in
that case).
GCC 4.9 provides a complete implementation of the Go 1.2.1
New Targets and Target Specific Improvements
The ARMv8-A crypto and CRC instructions are now supported through
intrinsics. These are enabled when the architecture supports these
and are available through the -march=armv8-a+crc
and -march=armv8-a+crypto options.
Initial support for ILP32 has now been added to the
compiler. This is now available through the command-line option
-mabi=ilp32. Support for ILP32 is
considered experimental as the ABI specification is still beta.
Coverage of more of the ISA including the SIMD extensions has
been added. The Advanced SIMD intrinsics have also been improved.
The new local register allocator (LRA) is now on by default
for the AArch64 backend.
The REE (Redundant extension elimination) pass has now been enabled
by default for the AArch64 backend.
Tuning for the Cortex-A53 and Cortex-A57 has been improved.
Initial big.LITTLE tuning support for the combination of Cortex-A57
and Cortex-A53 was added through the -mcpu=cortex-a57.cortex-a53
A number of structural changes have been made to both the ARM
and AArch64 backends to facilitate improved code-generation.
As of GCC 4.9.2 a workaround for the ARM Cortex-A53 erratum
835769 has been added and can be enabled by giving the
-mfix-cortex-a53-835769 option.
Alternatively it can be enabled by default by configuring GCC with the
--enable-fix-cortex-a53-835769 option.
A port for Synopsys Designware ARC has been contributed by
Embecosm and Synopsys Inc.
Use of Advanced SIMD (Neon) for 64-bit scalar computations has been
disabled by default. This was found to generate better code in only
a small number of cases. It can be turned back on with the
-mneon-for-64bits option.
Further support for the ARMv8-A architecture, notably implementing
the restriction around IT blocks in the Thumb32 instruction set has
been added. The -mrestrict-it option can be used with
-march=armv7-a or the -march=armv7ve options
to make code generation fully compatible with the deprecated instructions
in ARMv8-A.
Support has now been added for the ARMv7ve variant of the
architecture. This can be used by the -march=armv7ve option.
The ARMv8-A crypto and CRC instructions are now supported through
intrinsics and are available through the -march=armv8-a+crc
and mfpu=crypto-neon-fp-armv8 options.
LRA is now on by default for the ARM target. This can be turned off
using the -mno-lra option. This option is a purely
transitionary command-line option and will be removed in a future
release. We are interested in any bug reports regarding functional and
performance regressions with LRA.
A new option -mslow-flash-data to improve performance
of programs fetching data on slow flash memory has now been
introduced for the ARMv7-M profile cores.
A new option -mpic-data-is-text-relative for targets
that allows data segments to be relative to text segments has
been added. This is on by default for all targets except VxWorks RTP.
A number of infrastructural changes have been made to both the ARM
and AArch64 backends to facilitate improved code-generation.
GCC now supports Cortex-A12 and the Cortex-R7 through the
-mcpu=cortex-a12 and -mcpu=cortex-r7 options.
GCC now has tuning for the Cortex-A57 and Cortex-A53
through the -mcpu=cortex-a57 and -mcpu=cortex-a53
Initial big.LITTLE tuning support for the combination of Cortex-A57
and Cortex-A53 was added through the -mcpu=cortex-a57.cortex-a53
option. Similar support was added for the combination of
Cortex-A15 and Cortex-A7 through the -mcpu=cortex-a15.cortex-a7
Further performance optimizations for the Cortex-A15 and the
Cortex-M4 have been added.
A number of code generation improvements for Thumb2 to reduce code
size when compiling for the M-profile processors.
A new command-line option -mfract-convert-truncate has been
added. It allows compiler to use truncation instead of rounding towards
zero for fractional fixed-point types.
IA-32/x86-64
-mfpmath=sse is now implied by -ffast-math
on all targets where SSE2 is supported.
Intel ***X-512 support was added to GCC.
That includes inline
assembly support, new registers and extending existing ones,
new intrinsics (covered by corresponding testsuite), and basic
autovectorization.
***X-512 instructions are available via
the following GCC switches: ***X-512 foundation instructions:
-mavx512f, ***X-512 prefetch instructions: -mavx512pf,
***X-512 exponential and reciprocal instructions: -mavx512er,
***X-512 conflict detection instructions: -mavx512cd.
It is now possible to call x86 intrinsics from select functions in
a file that are tagged with the corresponding target attribute without
having to compile the entire file with the -mxxx option.
This improves the usability of x86 intrinsics and is particularly useful
when doing Function Multiversioning.
GCC now supports the new Intel microarchitecture named Silvermont
through -march=silvermont.
GCC now supports the new Intel microarchitecture named Broadwell
through -march=broadwell.
Optimizing for other Intel microarchitectures have been renamed
to -march=nehalem, westmere,
sandybridge, ivybridge,
haswell, bonnell.
-march=generic has been retuned for better support of
Intel core and AMD Bulldozer architectures.
Performance of AMD K7, K8,
Intel Pentium-M, and Pentium4 based CPUs is no longer considered important
for generic.
-mtune=intel can now be used to generate code running
well on the most current Intel processors, which are Haswell
and Silvermont for GCC 4.9.
Support to encode 32-bit assembly instructions in 16-bit format
is now available through the -m16 command-line option.
Better inlining of memcpy and memset
that is aware of value ranges and produces shorter alignment prologues.
-mno-accumulate-outgoing-args is now honored when unwind
information is output.
Argument accumulation is also now turned off
for portions of programs optimized for size.
Support for new AMD family 15h processors (Excavator core)
is now available through the -march=bdver4 and
-mtune=bdver4 options.
A new command-line option -mcpu= has been added to the MSP430 backend.
This option is used to specify the ISA to be used.
Accepted values are
msp430 (the default), msp430x and msp430xv2.
The ISA is no longer deduced
from the -mmcu= option as there are far too many different MCU names.
-mmcu= option is still supported, and this is still used to select linker
scripts and generate a C preprocessor symbol that will be recognised by the
msp430.h header file.
A new nds32 port supports the 32-bit architecture from Andes
Technology Corporation.
The port provides initial support for the V2, V3, V3m
instruction set architectures.
A port for the Altera Nios II has been contributed by
Mentor Graphics.
PowerPC / PowerPC64 / RS6000
GCC now supports Power ISA 2.07, which includes support for Hardware
Transactional Memory (HTM), Quadword atomics and several VMX and VSX
additions, including Crypto, 64-bit integer, 128-bit integer and
decimal integer operations.
Support for the POWER8 processor is now available through the
-mcpu=power8 and -mtune=power8 options.
The libitm library has been modified to add a HTM fastpath that
automatically uses POWER's HTM hardware instructions when it is
executing on a HTM enabled processor.
Support for the new powerpc64le-linux platform has been added.
It defaults to generating code that conforms to the ELFV2 ABI.
S/390, System z
Support for the Transactional Execution Facility included with
the IBM zEnterprise zEC12 processor has been added.
GCC style builtins as well as XLC style builtins are provided.
The builtins are enabled by default when using
the -march=zEC12 option but can explicitly be
disabled with -mno-htm.
Using the GCC builtins also libitm supports hardware
transactions on S/390.
The hotpatch features allows to prepare functions for
hotpatching.
A certain amount of bytes is reserved before the
function entry label plus a NOP is inserted at its very
beginning to implement a backward jump when applying a patch.
The feature can either be enabled per compilation unit via the
command-line option -mhotpatch or per function using
the hotpatch attribute.
The shrink wrap optimization is now supported on S/390 and
enabled by default.
A major rework of the routines to determine which registers
need to be saved and restored in function prologue/epilogue now
allow to use floating point registers as save slots.
happen for certain leaf function with -march=z10
or higher.
The LRA rtl pass replaces reload by default on S/390.
The port now allows to specify the RX100, RX200, and RX600 processors
with the command-line options -mcpu=rx100,
-mcpu=rx200 and -mcpu=rx600.
Minor improvements to code generated for integer arithmetic and code
that involves the T bit.
Added support for the SH2A clips and clipu
instructions.
The compiler will now try to utilize them for min/max
expressions such as max (-128, min (127, x)).
Added support for the cmp/str instruction through built-in
functions such as __builtin_strlen.
When not optimizing for
size, the compiler will now expand calls to e.g. strlen as an
inlined sequences which utilize the cmp/str instruction.
Improved code generated around volatile memory loads and stores.
The option -mcbranchdi has been deprecated.
Specifying it
will result in a warning and will not influence code generation.
The option -mcmpeqdi has been deprecated.
Specifying it
will result in a warning and will not influence code generation.
This is the list
of problem reports (PRs) from GCC's bug tracking system that are
known to be fixed in the 4.9.1 release. This list might not be
complete (that is, it is possible that some PRs that have been fixed
are not listed here).
Version 4.0 of the
is supported even in Fortran, not just C and
This is the list
of problem reports (PRs) from GCC's bug tracking system that are
known to be fixed in the 4.9.2 release. This list might not be
complete (that is, it is possible that some PRs that have been fixed
are not listed here).
This is the list
of problem reports (PRs) from GCC's bug tracking system that are
known to be fixed in the 4.9.3 release. This list might not be
complete (that is, it is possible that some PRs that have been fixed
are not listed here).
This is the list
of problem reports (PRs) from GCC's bug tracking system that are
known to be fixed in the 4.9.4 release. This list might not be
complete (that is, it is possible that some PRs that have been fixed
are not listed here).

参考资料

 

随机推荐