Memory location

Every main memory location is one byte long .

每个主存位置的长度都是一个字节。

A description of the contents of actual memory location .

一种对实际存储器单元内容的描述。

The source of the appended data is a memory location .

用于追加的数据的源是一个内存地址。

More than one virtual address can refer to the same physical memory location .

多个虚拟地址可以指向同一物理地址。

A number used in information storage or retrieval that is assigned to a specific memory location

存储器位置，地址，编址指定于某个特定区域内，用于信息存储或提取的数字

Memory location register an element of a database record in which one piece of information is stored .

存储（单元）寄存器存储了一条信息的数据库记录的元素。

Answer : This is the shared memory location used by the splogger library .

解答：这是splogger库所使用的共享内存的位置。

The address of a memory location at which a floating-point number can be accessed .

一个浮点数字可以被存取的记忆体位置的位址。

It becomes the responsibility of the calling function to keep track of this memory location and handle it properly .

跟踪该内存位置并正确地处理它就成为了calling函数的职责。

The actual address that is placed on the address bus when accessing a memory location or register .

当访问内存位置或寄存器时，在地址总线上的真实的地址。

The C language allows indirect access memory location by pointer without boundary check , which may cause buffer overflow .

由于C语言允许通过指针进行间接内存访问，但并不进行边界检查，因此可能存在缓冲区溢出。

It illustrates the behaviour of some simple types of oscillator . A description of the contents of actual memory location .

它描述一个简单的振荡器特性。一种对实际存储器单元内容的描述。

After you initialize a memory location , it becomes green , representing allocated and initialized memory .

当您初始化一个内存单元后，它就会变成绿色，这表明内存被分配和初始化。

However , this references a different memory location than the previous one , even though they share the same name and the same code .

然而，尽管它们共享了相同的名字和代码，但它所引用的内存地址与前一次不同。

The address bus is used by the processor to select aspecific memory location or register within a particular peripheral .

地址总线被处理器用来选择在特定外设中的存储器地址或寄存器。

In other words , the memory location pointed by newArea becomes an orphan and results in memory leak .

换句话说，newArea所指向的内存位置变为了孤立的，从而导致了内存泄漏。

Suppose there is a pointer memoryArea pointing to a memory location of10 bytes .

假设有一个指针memoryArea，它指向一个10字节的内存位置。

The most common analysis is data dependence analysis , which is to determine the instructions that use the variable ( register or memory location ) modified by another instruction .

最通常的分析是数据依存性分析，它用来确定指令使用的变量（寄存器或内存位置）是否被另一条指令修改。

The ASN1 variety of this function loads an ASN1-encoded digital certificate from the specified memory location into the SSL context .

这个函数的ASN1变种可以将指定内存位置处的使用ASN1编码的数字证书加载到SSL环境中。

The third byte of this memory location further points to some other dynamically allocated memory location of 10 bytes , as shown in Figure 6 .

该内存位置的第三个字节又指向某个动态分配的10字节的内存位置，如图6所示。

Enabling memory location optimizations for NUMA multi-CPU systems ( - XX : + UseNUMA ) .

为NUMA多CPU系统启用内存位置优化（-XX：+UseNUMA）。

A memory location is either an object of scalar type , or a maximal sequence of adjacent bit-fields all having non-zero width .

一个内存位置要么是一个标量、要么是一组紧邻的具有非零长度的位域。

The memory location to which newArea was pointing cannot be freed , as there is no pointer left pointing to that location .

newArea以前所指向的内存位置无法释放，因为已经没有指向该位置的指针。

In the absence of synchronization , it is allowable ( according to the JMM ) for two threads to see different values in the same memory location .

在缺少同步的情况下，JMM会允许两个线程在同一个内存地址上看到不同的值。

This process can occur when a memory location is requested whose page is not in memory ( no mapping is present in the memory management unit [ MMU ] ) .

该进程在请求存储位置时发生，存储位置的页面不在存储器中（在存储器管理单元[MMU]中无映射）。

In the example above , the call to the func () function inside the callingFunc () function is not handling the return address of the memory location .

在上面的示例中，callingFunc（）函数中对func（）函数的调用未处理该内存位置的返回地址。

Because it 's not possible to determine the number of bytes to be accessed from a memory location , a method is needed to find out the amount of memory addressed .

因为不可能决定从一个内存位置开始访问的字节数，所以需要用一个方法计算访问的内存量。

This shared memory location is stored in the handle passed from the OPEN_LOG procedure to the subsequent calls to LOGGER and LOGINFO .

共享内存的位置存储在句柄中，从OPENLOG到后续的LOGGER和LOGINFO调用都会传递这个句柄。

What 's happening here is that the instruction is checking whether a memory location has an expected value ; if it does , then the new value is copied into the location .

这里发生的操作是：指令检查一个内存位置是否包含预期的值；如果是这样，就把新的值复制到这个位置。

One of them contains shared memory location of the token and its logging actions , and the second structure contains the timestamp of when the DB2.OPEN_LOG was invoked .

其中一个包含标记名的共享内存的位置及其日志操作，第二个结构包含调用DB2.OPENLOG时的时间戳。