JM プロジェクトは、主に Linux 関連のマニュアルページの日本語ページを翻訳・公開しています。
... rocess-directed because it was generated by the kernel for reasons other than a hardware exception, or because it was sent using kill (2) or sigqueue (3). A thread-directed signal is one that is targeted at a specific thread. A signal may be thread-di ... (e.g., SIGSEGV for an invalid memory access, or SIGFPE for a math error), or because it was targeted at a specific thread using interfaces such as tgkill (2) or pthread_kill (3). A process-directed signal may be delivered to any one of the threads th ... talled by a call to sigaction (2) that specified the SA_ONSTACK flag and the thread has defined an alternate signal stack (using sigaltstack (2)), then that stack is installed. c) Various pieces of signal-related context are saved into a special frame ... ... nting.rst を参照のこと。 Normally, malloc () allocates memory from the heap, and adjusts the size of the heap as required, using sbrk (2). When allocating blocks of memory larger than MMAP_THRESHOLD bytes, the glibc malloc () implementation allocates ... the memory as a private anonymous mapping using mmap (2). MMAP_THRESHOLD is 128 kB by default, but is adjustable using mallopt (3). Prior to Linux 4.7 allocations perform ... ed using mmap (2) were unaffected by the RLIMIT_DATA resource limit; since Linux 4.7, this limit is also enforced for allocations p ... ... nting.rst を参照のこと。 Normally, malloc () allocates memory from the heap, and adjusts the size of the heap as required, using sbrk (2). When allocating blocks of memory larger than MMAP_THRESHOLD bytes, the glibc malloc () implementation allocates ... the memory as a private anonymous mapping using mmap (2). MMAP_THRESHOLD is 128 kB by default, but is adjustable using mallopt (3). Prior to Linux 4.7 allocations perform ... ed using mmap (2) were unaffected by the RLIMIT_DATA resource limit; since Linux 4.7, this limit is also enforced for allocations p ... ... nting.rst を参照のこと。 Normally, malloc () allocates memory from the heap, and adjusts the size of the heap as required, using sbrk (2). When allocating blocks of memory larger than MMAP_THRESHOLD bytes, the glibc malloc () implementation allocates ... the memory as a private anonymous mapping using mmap (2). MMAP_THRESHOLD is 128 kB by default, but is adjustable using mallopt (3). Prior to Linux 4.7 allocations perform ... ed using mmap (2) were unaffected by the RLIMIT_DATA resource limit; since Linux 4.7, this limit is also enforced for allocations p ... ... nting.rst を参照のこと。 Normally, malloc () allocates memory from the heap, and adjusts the size of the heap as required, using sbrk (2). When allocating blocks of memory larger than MMAP_THRESHOLD bytes, the glibc malloc () implementation allocates ... the memory as a private anonymous mapping using mmap (2). MMAP_THRESHOLD is 128 kB by default, but is adjustable using mallopt (3). Prior to Linux 4.7 allocations perform ... ed using mmap (2) were unaffected by the RLIMIT_DATA resource limit; since Linux 4.7, this limit is also enforced for allocations p ... ... nting.rst を参照のこと。 Normally, malloc () allocates memory from the heap, and adjusts the size of the heap as required, using sbrk (2). When allocating blocks of memory larger than MMAP_THRESHOLD bytes, the glibc malloc () implementation allocates ... the memory as a private anonymous mapping using mmap (2). MMAP_THRESHOLD is 128 kB by default, but is adjustable using mallopt (3). Prior to Linux 4.7 allocations perform ... ed using mmap (2) were unaffected by the RLIMIT_DATA resource limit; since Linux 4.7, this limit is also enforced for allocations p ... ... るような マルチスレッドプログラムでの使用に適している。 The random_r () function is like random (3), except that instead of using state information maintained in a global variable, it uses the state information in the argument pointed to by buf , which ... so long as buf is still in use. (So, statebuf should typically be allocated as a static variable, or allocated on the heap using malloc (3) or similar.) The setstate_r () function is like setstate (3) except that it modifies the state in the object po ... inted to by buf , rather than modifying the global state variable. state must first have been initialized using initstate_r () or be the result of a previous call of setstate_r (). 返り値 これらの関数はすべて、成功すると 0 を返す。 エ ... ... るような マルチスレッドプログラムでの使用に適している。 The random_r () function is like random (3), except that instead of using state information maintained in a global variable, it uses the state information in the argument pointed to by buf , which ... so long as buf is still in use. (So, statebuf should typically be allocated as a static variable, or allocated on the heap using malloc (3) or similar.) The setstate_r () function is like setstate (3) except that it modifies the state in the object po ... inted to by buf , rather than modifying the global state variable. state must first have been initialized using initstate_r () or be the result of a previous call of setstate_r (). 返り値 これらの関数はすべて、成功すると 0 を返す。 エ ... ... るような マルチスレッドプログラムでの使用に適している。 The random_r () function is like random (3), except that instead of using state information maintained in a global variable, it uses the state information in the argument pointed to by buf , which ... so long as buf is still in use. (So, statebuf should typically be allocated as a static variable, or allocated on the heap using malloc (3) or similar.) The setstate_r () function is like setstate (3) except that it modifies the state in the object po ... inted to by buf , rather than modifying the global state variable. state must first have been initialized using initstate_r () or be the result of a previous call of setstate_r (). 返り値 これらの関数はすべて、成功すると 0 を返す。 エ ... ... るような マルチスレッドプログラムでの使用に適している。 The random_r () function is like random (3), except that instead of using state information maintained in a global variable, it uses the state information in the argument pointed to by buf , which ... so long as buf is still in use. (So, statebuf should typically be allocated as a static variable, or allocated on the heap using malloc (3) or similar.) The setstate_r () function is like setstate (3) except that it modifies the state in the object po ... inted to by buf , rather than modifying the global state variable. state must first have been initialized using initstate_r () or be the result of a previous call of setstate_r (). 返り値 これらの関数はすべて、成功すると 0 を返す。 エ ... 日本語の文書やマニュアルを配布している個人/プロジェクトへのリンクです。