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Polling loops waste much of the CPU's time executing the same code repeatedly while waiting for some event (like a key press) to occur At any given time, a thread is in one of three basic states The first state is when the thread is actually running The actual CPU registers are where the thread's registers are kept When a thread is in the running state, all other threads in the system are suspended The second state is the "ready to run" state In this state, there's no reason why the thread couldn't be running -- except that some other thread is currently using the CPU In due time, the ready-to-run thread will get control of the CPU The third state is the blocked state When a thread is blocked, it's waiting for something to happen Until that thing happens, the scheduler won't allow the thread to execute.

So, given that a real Win32 USER subsystem was out, the Windows 95 team did the next best thing. They started with the Windows 3.1 USER.EXE code and, unlike the Win32s team, were allowed to modify it. Since Windows 95's design necessitates at least an 80386, the Windows 95 USER team went hog wild with USER.EXE. There are 32-bit instructions all throughout USER.EXE's 16-bit code segments. (That's why you find so many size-override opcodes (66h) in the Windows 95 USER.EXE code segments.) The fact that USER.EXE uses 32-bit data offsets throughout much of its 16-bit code bears a closer look. Much of USER's code is written in C, and, as you probably know, C compilers for the PC use memory models when generating their code. A regular 16-bit C compiler like Borland C++ emits 16-bit code instructions, which use segments and access data with 16-bit offsets. Even if the 16-bit compiler is allowed to generate 32-bit instructions, the generated code still won't generate instructions that index more than 64K into a segment. In contrast, 32-bit compilers use the flat memory model. In the flat model, PC C compilers forget that segments exists. The code they generate never explicitly references the code selector, data selector, or stack selectors (the CS, DS, and SS registers). The code in Windows 95's USER.EXE looks like a hybrid of the 16-bit and flat memory models. That is, USER.EXE's code resides in 16-bit segments, and the code explicitly uses segment registers. On the other hand, the USER code also contains instructions that address more than 64K into a segment. Consider the following code snippet from USER.EXE:

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The things that a thread blocks on are called synchronization objects The Windows 95 synchronization objects are critical sections, mutexes, events, and semaphores I described the basic functionality of the Windows 95 synchronization objects in 2, so I won't repeat myself here In this book, I don't give the same full treatment to the inner workings of synchronization objects that I give to processes, threads, and modules There are many good books, such as Jeffrey Richter's Advanced Windows, that go over the details of using synchronization objects; consult them if you'd like more information on this topic In this book, however, you'll just have to assume that synchronization objects exist and that they work as described Initially, every process starts out with one thread If the process wants, it can create additional threads so that the CPU can execute through different sections of the process's code at the same time.

Recourse and nonrecourse are terms used by investors and lenders to refer to the degree of personal liability attached to a given loan. For example, if you

DESCRIPTION ORDER CONTACT MECHANISM CONTACT MECHANISM PURPOSE TYPE ID ORDER ID CONTACT MECHANISM ID ORDER ITEM ORDER ID ORDER ITEM SEQ ID BUDGET ID BUDGET ITEM SEQ ID PRODUCT ID QUOTED ITEM SEQ ID QUOTE ID PRODUCT FEATURE ID QUANTITY UNIT PRICE ESTIMATED DELIVERY DATE SHIPPING INSTRUCTIONS ITEM DESCRIPTION COMMENT BUDGET TYPE ID ORDER ITEM ASSOCIATION SALES ORDER ID

The standard example that's.

HeapWalk is a Windows NT function that iterates through all the blocks of a Win32 heap. This API is a wonderful example of the farce that the Win32 API has become. The Windows 95 coders ignored HeapAlloc when defining the Windows 95 APl. They left it out because they didn't have time (or so they said). However, after making the decision to omit HeapWalk from the Windows 95 API subset, they added the TOOLHELP32 Heap32First and Heap32Next functions. See the VirtualLock description for details on how CommonUnimpStub works.

The shared list shouldn't be too surprising. KRNL386's DGROUP and KERNEL32.DLL are both part of system DLLs, which you would certainly hope to be shared. PHYS.EXE's code and resources are shared, which means that Windows 95 is trying to be efficient about using memory. PHYS explicitly created the two remaining shared items (the shared section and the memory mapped file) to share memory with other instances. The items in the nonshared list aren't too surprising either. All of the items are read/write program data. If Windows 95 were to try and share these memory regions, running multiple instances of PHYS would quickly cause a crash.

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