Figure 5 - The DB2 agent process memory address space.
图5-DB 2代理进程内存地址空间。
Each DB2 agent process has its own memory address space.
每个DB 2代理进程都有其自己的内存地址空间。
Figure 6 shows the 32-bit memory address space for a DB2 agent process.
图6展示了用于一个DB 2代理进程的32位内存地址空间。
It is important to set this limit so the stack and Shared memory address space do not collide with each other.
设置这个限制，使堆栈和共享内存地址空间不会相互冲突，这一点很重要。
Threads, on the other hand, automatically have access to the same memory address space and file descriptors.
另一方面，线程可以自动的访问相同的内存地址和文件描述符。
That's more than twice the entire memory address space of the original 8088 chip used in the first PC and clones.
这比最初的8088芯片内存大两倍。
Referring to Figure 6, the method begins by processing logic receiving a memory access request to a location in graphics virtual local memory address space (processing block 600).
参照图6，该方法通过处理逻辑接收对图形虚拟本地存储器地址空间中的位置的存储器存取请求开始(处理框600)。
However, if two or more processes want to communicate using Shared memory, they need to have the same address space, thus limiting the addresses they can utilize.
然而，如果两个或更多进程要使用共享内存进行通信，那么它们需要有相同的地址空间，从而限制了它们所能使用的地址。
However, a Shared memory segment cannot be "split" across quadrants and be guaranteed a contiguous address space.
但是，共享内存段不能跨象限“拆分”，而应该保证是一个连续的地址空间。
This way, each process gets its own address space to play in and can access more memory than you have physically installed.
这样，每个进程都获得了自己可以使用的地址空间，可以访问比您物理上安装的内存更多的内存。
Operating systems map memory segments in a processes' address space to memory pages through an internal table which defines what memory segments are owned by what processes, and so on.
操作系统通过一个内部表将处理器地址空间中的内存段映射到内存页，该表定义哪些内存段由哪些处理器所拥有，等等。
The first page of virtual memory in the kernel address space can be accessed by kernel code, but is marked as read-only.
内核地址空间中的第一页虚拟内存可通过内核代码访问，但是被标记为只读。
DB2 needs a contiguous address space for the Shared memory area.
DB 2需要一个连续的地址空间来作为共享内存区域。
Regions in a process's virtual address space can be mapped to physical memory, to a file, or to any other addressable storage.
进程的虚拟地址空间中的区域可被映射到物理内存、文件或任何其他可寻址存储。
This can be quite different from the size of the total address space if the process reserves memory but doesn't commit it.
如果进程保留内存而没有提交，那么该值就与总地址空间的大小有很大的差别。
You should have no problem fitting all the DB2 memory sets into this address space.
将所有DB 2内存集放入这个地址空间应该没有问题。
Note that as shown here, a process may have a large address space, but it is sparse, meaning that small regions (pages) of the address space refer to physical memory through the page tables.
注意这里的显示，进程可能有一个大的地址空间，但是很少见，就是说小的地址空间的区域(页面)通过页表指向物理内存。
It has an integrated memory management unit that is normally used to provide access to the address space of one process by using the same page table lookup as the PPE.
它具有一个集成的内存管理单元，通常使用与PPE类似的页表查询机制来提供对某个进程地址空间的访问。
Although reserving chunks of the address space will not exhaust physical resources, it does prevent that memory from being used for other purposes.
虽然保留地址空间块不会耗尽物理资源，但它确实能防止内存用于其他目的。
This does not mean the kernel USES that much physical memory, only that it has that portion of address space available to map whatever physical memory it wishes.
这并不意味着系统内核能够肆无忌惮的使用物理内存，系统内核只能使用其管辖的虚拟地址空间所对应的物理内存。
Most modern non-64-bit systems have the ability to create an address space of 36 bits, yielding 64 GB of addressable memory.
大多数现代的非 64位系统都能够创建36位的地址空间，从而产生 64GB 的可寻址内存。
If you have enough physical memory and address space, you can allow the leak to continue on the basis that you will restart your application before the process address space is exhausted.
如果您有足够的物理内存和地址空间，您可以允许泄漏继续，但必须在进程地址空间耗尽之前重新启动应用程序。
You probably have noticed that the 4GB address space present in Figure 9 does not include any kernel memory.
您可能注意到，图9中给出的4GB地址空间没有包括任何内核内存。
Figure 1 illustrates how virtual pages in a process's address space are mapped to physical page frames in memory.
图1说明了进程地址空间中的虚拟页如何映射到内存中的物理页帧。
A native memory leak or excessive native memory use will cause different problems depending on whether you exhaust the address space or run out of physical memory.
本机内存泄漏或本机内存过度使用会造成各种问题，这取决于您是耗尽了地址空间还是用完了物理内存。
For a process to use a Shared memory object, the process has to map the object in its address space.
使用共享内存对象的进程必须在自己的地址空间中映射对象。
The distinct bands in the address space correspond to memory segments like the heap, stack, and so on.
内存地址空间是由诸如堆、栈等段式内存管理 方式进行管理的。
When running on a system with more process address space than physical memory, a memory leak or excessive use of native memory will force the OS to swap out some of the virtual address space.
在进程地址空间大于物理内存的系统中，内存泄漏或本机内存过度使用会迫使操作系统提供一些虚拟地址空间。
The memory addresses in the address space allow the agent to access the memories in the physical RAM.
在内存空间中的内存地址允许代理访问物理ram中的内存。
Within a driver, the mmap function is implemented through the remap_pfn_range kernel function, which provides a linear mapping of device memory into a user's address space.
在一个驱动程序中，mmap函数通过remap _ pfn_range内核函数实现，它提供设备内存到用户地址空间的线性映射。
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