445 lines
14 KiB
C
445 lines
14 KiB
C
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/*++
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Copyright (c) 1991 Microsoft Corporation
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Module Name:
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vdmredir.h
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Abstract:
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Contains common defines, structures, macros, etc. for VdmRedir. This file
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contains macros to read and write the 3 basic data structures from/to VDM
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memory. We *must* use these macros because the MIPS processor does not like
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unaligned data: a DWORD must be read/written on a DWORD boundary (low two
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bits in address = 00), a WORD must be read/written on a WORD boundary (low
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two bits in address = X0) and a BYTE can be read/written to any address (low
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two bits in address = XX). It is illegal to access a WORD at an address
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whose LSB is not 0, and a DWORD at an address whose 2 least significant bits
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are not both 0. Dos programs don't care much about alignment (smart ones do
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because there is a performance penalty for unaligned data on x86, but it
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still works). So we have to assume the worst case for MIPS and break down
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the read/writes of WORDs and DWORDs in VDM memory into BYTE read/writes
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In order to improve efficiency of load/store to potentially unaligned
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addresses, the following data pointer types are made available from this
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include file:
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ULPBYTE - unaligned byte pointer (same as LPBYTE)
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ULPWORD - unaligned word pointer
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ULPDWORD - unaligned dword pointer
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NB. Dependent upon mvdm.h
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Author:
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Richard L Firth (rfirth) 16-Sep-1991
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Revision History:
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16-Sep-1991 rfirth
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Created
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--*/
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#ifndef _VDMREDIR_
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#define _VDMREDIR_
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#include <softpc.h>
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//
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// PRIVATE - make a routine/data type inaccessible outside current module, but
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// only if not DEBUG version
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//
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#if DBG
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#define PRIVATE
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#else
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#define PRIVATE static
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#endif
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//
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// unaligned data pointer types. These produce exactly the same code as memory
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// accesses through 'aligned' pointers on x86, but generate code specific to
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// unaligned read/writes on MIPS (& other RISCs)
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//
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#ifdef UNALIGNED_VDM_POINTERS
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typedef BYTE UNALIGNED * ULPBYTE;
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typedef WORD UNALIGNED * ULPWORD;
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typedef DWORD UNALIGNED * ULPDWORD;
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#else
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typedef LPBYTE ULPBYTE;
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typedef LPWORD ULPWORD;
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typedef LPDWORD ULPDWORD;
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#endif
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//
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// misc. defines
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//
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#define BITS_IN_A_BYTE 8
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#define LOCAL_DEVICE_PREFIX "\\\\."
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//
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// Define network interrupt to be on Irql 14.
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// If NETWORK_ICA changes to ICA_MASTER then vrnetb.c should only execute 1 eoi
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// If either change then NETWORK_INTERRUPT in int5c.inc must also change.
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//
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#if defined(NEC_98)
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#define NETWORK_ICA ICA_MASTER
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#define NETWORK_LINE 5
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#else
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#define NETWORK_ICA ICA_SLAVE
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#define NETWORK_LINE 2
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#endif
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//
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// helper macros
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//
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//
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// MAKE_DWORD - converts 2 16-bit words into a 32-bit double word
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//
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#define MAKE_DWORD(h, l) ((DWORD)(((DWORD)((WORD)(h)) << 16) | (DWORD)((WORD)(l))))
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//
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// DWORD_FROM_WORDS - converts two 16-bit words into a 32-bit dword
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//
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#define DWORD_FROM_WORDS(h, l) MAKE_DWORD((h), (l))
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//
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// HANDLE_FROM_WORDS - converts a pair of 16-bit words into a 32-bit handle
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//
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#define HANDLE_FROM_WORDS(h, l) ((HANDLE)(MAKE_DWORD((h), (l))))
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//
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// POINTER_FROM_WORDS - returns a flat 32-bit VOID pointer (in the VDM) OR the
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// NULL macro, given the 16-bit real-mode segment & offset. On x86 this will
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// return 0 if we pass in 0:0 because all GetVDMAddr does is seg << 4 + off.
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// The MIPS version adds this to the start of the virtual DOS memory. The
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// problem arises when we have a NULL pointer, and want to keep it NULL - we
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// convert it to non-NULL on not x86
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//
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//#define POINTER_FROM_WORDS(seg, off) ((LPVOID)GetVDMAddr((seg), (off)))
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//#define POINTER_FROM_WORDS(seg, off) (((((DWORD)(seg)) << 16) | (off)) ? ((LPVOID)GetVDMAddr((seg), (off))) : ((LPVOID)0))
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#define POINTER_FROM_WORDS(seg, off) _inlinePointerFromWords((WORD)(seg), (WORD)(off))
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//
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// LPSTR_FROM_WORDS - returns a 32-bit pointer to an ASCIZ string given the
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// 16-bit real-mode segment & offset
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//
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#define LPSTR_FROM_WORDS(seg, off) ((LPSTR)POINTER_FROM_WORDS((seg), (off)))
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//
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// LPBYTE_FROM_WORDS - returns a 32-bit byte pointer given the 16-bit
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// real-mode segment & offset
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//
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#define LPBYTE_FROM_WORDS(seg, off) ((LPBYTE)POINTER_FROM_WORDS((seg), (off)))
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//
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// READ_FAR_POINTER - read the pair of words in VDM memory, currently pointed at
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// by a 32-bit flat pointer and convert them to a 32-bit flat pointer
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//
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#define READ_FAR_POINTER(addr) ((LPVOID)(POINTER_FROM_WORDS(GET_SELECTOR(addr), GET_OFFSET(addr))))
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//
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// READ_BYTE - retrieve a single byte from VDM memory. Both x86 and MIPS can
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// handle reading a single byte without pain
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//
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#define READ_BYTE(addr) (*((LPBYTE)(addr)))
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//
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// READ_WORD - read a single 16-bit little-endian word from VDM memory. x86 can
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// handle unaligned data, MIPS (&other RISCs) must be broken down into individual
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// BYTE reads & the WORD pieced together by shifting & oring. If we are using
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// UNALIGNED pointers then the RISC processor can handle non-aligned data
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//
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#ifdef i386
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#define READ_WORD(addr) (*((LPWORD)(addr)))
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#else
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#ifdef UNALIGNED_VDM_POINTERS
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#define READ_WORD(addr) (*((ULPWORD)(addr)))
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#else
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#define READ_WORD(addr) (((WORD)READ_BYTE(addr)) | (((WORD)READ_BYTE((LPBYTE)(addr)+1)) << 8))
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#endif // UNALIGNED_VDM_POINTERS
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#endif // i386
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//
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// READ_DWORD - read a 4-byte little-endian double word from VDM memory. x86 can
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// handle unaligned data, MIPS (&other RISCs) must be broken down into individual
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// BYTE reads & the DWORD pieced together by shifting & oring. If we are using
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// UNALIGNED pointers then the RISC processor can handle non-aligned data
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//
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#ifdef i386
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#define READ_DWORD(addr) (*((LPDWORD)(addr)))
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#else
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#ifdef UNALIGNED_VDM_POINTERS
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#define READ_DWORD(addr) (*((ULPDWORD)(addr)))
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#else
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#define READ_DWORD(addr) (((DWORD)READ_WORD(addr)) | (((DWORD)READ_WORD((LPWORD)(addr)+1)) << 16))
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#endif // UNALIGNED_VDM_POINTERS
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#endif // i386
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//
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// WRITE_BYTE - write a single byte in VDM memory. Both x86 and MIPS (RISC) can
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// write a single byte to a non-aligned address
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//
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#define WRITE_BYTE(addr, value) (*(LPBYTE)(addr) = (BYTE)(value))
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//
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// WRITE_WORD - write a 16-bit little-endian value into VDM memory. x86 can write
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// WORD data to non-word-aligned address; MIPS (& other RISCs) cannot, so we
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// break down the write into 2 byte writes. If we are using UNALIGNED pointers
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// then the MIPS (&other RISCs) can generate code to handle this situation
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//
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#ifdef i386
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#define WRITE_WORD(addr, value) (*((LPWORD)(addr)) = (WORD)(value))
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#else
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#ifdef UNALIGNED_VDM_POINTERS
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#define WRITE_WORD(addr, value) (*((ULPWORD)(addr)) = (WORD)(value))
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#else
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#define WRITE_WORD(addr, value) \
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{\
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((LPBYTE)(addr))[0] = LOBYTE(value); \
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((LPBYTE)(addr))[1] = HIBYTE(value); \
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}
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#endif // UNALIGNED_VDM_POINTERS
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#endif // i386
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//
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// WRITE_DWORD - write a 32-bit DWORD value into VDM memory. x86 can write
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// DWORD data to non-dword-aligned address; MIPS (& other RISCs) cannot, so we
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// break down the write into 4 byte writes. If we are using UNALIGNED pointers
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// then the MIPS (&other RISCs) can generate code to handle this situation
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//
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#ifdef i386
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#define WRITE_DWORD(addr, value) (*((LPDWORD)(addr)) = (DWORD)(value))
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#else
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#ifdef UNALIGNED_VDM_POINTERS
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#define WRITE_DWORD(addr, value) (*((ULPDWORD)(addr)) = (DWORD)(value))
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#else
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#define WRITE_DWORD(addr, value) \
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{ \
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((LPBYTE)(addr))[0] = LOBYTE(LOWORD((DWORD)(value))); \
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((LPBYTE)(addr))[1] = HIBYTE(LOWORD((DWORD)(value))); \
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((LPBYTE)(addr))[2] = LOBYTE(HIWORD((DWORD)(value))); \
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((LPBYTE)(addr))[3] = HIBYTE(HIWORD((DWORD)(value))); \
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}
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#endif // UNALIGNED_VDM_POINTERS
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#endif // i386
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//
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// WRITE_FAR_POINTER - write a 16:16 pointer into VDM memory. This is the same
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// as writing a DWORD
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//
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#define WRITE_FAR_POINTER(addr, ptr) WRITE_DWORD((addr), (DWORD)(ptr))
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//
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// GET_SELECTOR - retrieves the selector word from the intel 32-bit far pointer
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// (DWORD) pointed at by <pointer> (remember: stored as offset, segment)
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//
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#define GET_SELECTOR(pointer) READ_WORD((LPWORD)(pointer)+1)
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//
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// GET_SEGMENT - same as GET_SELECTOR
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//
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#define GET_SEGMENT(pointer) GET_SELECTOR(pointer)
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//
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// GET_OFFSET - retrieves the offset word from an intel 32-bit far pointer
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// (DWORD) pointed at by <pointer> (remember: stored as offset, segment)
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//
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#define GET_OFFSET(pointer) READ_WORD((LPWORD)(pointer))
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//
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// SET_SELECTOR - writes a word into the segment word of a real-mode far pointer
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// (DWORD) pointed at by <pointer> (remember: stored as offset, segment)
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//
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#define SET_SELECTOR(pointer, word) WRITE_WORD(((LPWORD)(pointer)+1), (word))
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//
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// SET_SEGMENT - same as SET_SELECTOR
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//
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#define SET_SEGMENT(pointer, word) SET_SELECTOR(pointer, word)
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//
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// SET_OFFSET - writes a word into the offset word of a real-mode far pointer
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// (DWORD) pointed at by <pointer> (remember: stored as offset, segment)
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//
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#define SET_OFFSET(pointer, word) WRITE_WORD((LPWORD)(pointer), (word))
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//
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// POINTER_FROM_POINTER - read a segmented pointer in the VDM from an address
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// pointed at by a flat 32-bit pointer. Convert the segmented pointer to a
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// flat pointer. SAME AS READ_FAR_POINTER
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//
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#define POINTER_FROM_POINTER(pointer) POINTER_FROM_WORDS(GET_SELECTOR(pointer), GET_OFFSET(pointer))
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//
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// LPSTR_FROM_POINTER - perform a POINTER_FROM_POINTER, casting the result to
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// a string pointer. SAME AS READ_FAR_POINTER
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//
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#define LPSTR_FROM_POINTER(pointer) ((LPSTR)POINTER_FROM_POINTER(pointer))
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//
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// LPBYTE_FROM_POINTER - perform a POINTER_FROM_POINTER, casting the result to
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// a byte pointer. SAME AS READ_FAR_POINTER
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//
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#define LPBYTE_FROM_POINTER(pointer) ((LPBYTE)POINTER_FROM_POINTER(pointer))
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//
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// SET_ERROR - sets the caller's AX register in the VDM context descriptor to
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// the value given and sets the caller's VDM carry flag
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//
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#define SET_ERROR(err) {setAX(err); setCF(1);}
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//
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// SET_SUCCESS - sets the VDM caller's AX register to NERR_Success and clears
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// the carry flag
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//
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#define SET_SUCCESS() {setAX(NERR_Success); setCF(0);}
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//
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// SET_OK - an explicit version of SET_SUCCESS wherein NERR_Success would be
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// an inappropriate error, although the right value
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//
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#define SET_OK(value) {setAX(value); setCF(0);}
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//
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// Miscellaneous macros for working out sizes of things
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//
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//
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// ARRAY_ELEMENTS - gives the number of elements of a particular type in an
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// array
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//
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#define ARRAY_ELEMENTS(a) (sizeof(a)/sizeof((a)[0]))
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//
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// LAST_ELEMENT - returns the index of the last element in array
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//
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#define LAST_ELEMENT(a) (ARRAY_ELEMENTS(a)-1)
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//
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// BITSIN - returns the number of bits in a data type or structure. This is
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// predicated upon the number of bits in a byte being 8 and all data types
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// being composed of a collection of bytes (safe assumption?)
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//
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#define BITSIN(thing) (sizeof(thing) * BITS_IN_A_BYTE)
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//
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// Miscellaneous other macros
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//
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//
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// IS_ASCII_PATH_SEPARATOR - returns TRUE if ch is / or \. ch is a single
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// byte (ASCII) character
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//
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#define IS_ASCII_PATH_SEPARATOR(ch) (((ch) == '/') || ((ch) == '\\'))
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//
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// macros for setting CF and ZF flags for return from hardware interrupt
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// callback
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//
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#define SET_CALLBACK_NOTHING() {setZF(0); setCF(0);}
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#define SET_CALLBACK_NAMEPIPE() {setZF(0); setCF(1);}
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#define SET_CALLBACK_DLC() {setZF(1); setCF(0);}
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|
|
#define SET_CALLBACK_NETBIOS() {setZF(1); setCF(1);}
|
||
|
|
|
||
|
|
//
|
||
|
|
// DLC-specific macros etc.
|
||
|
|
//
|
||
|
|
|
||
|
|
extern LPVDM_REDIR_DOS_WINDOW lpVdmWindow;
|
||
|
|
|
||
|
|
//
|
||
|
|
// setPostRoutine - if dw is not 0 then we write the (DOS segmented) address of
|
||
|
|
// the post routine into the dwPostRoutine field of the VDM_REDIR_DOS_WINDOW
|
||
|
|
// structure passed to us at redir DLC initialization. We also set the flags
|
||
|
|
// to indicate to the redir's hardware interrupt routine there is a DLC post
|
||
|
|
// routine to run. If dw is 0 then we set the flags to indicate that there is
|
||
|
|
// no post routine processing
|
||
|
|
//
|
||
|
|
#define setPostRoutine( dw ) if (dw) {\
|
||
|
|
(lpVdmWindow->dwPostRoutine = (DWORD)(dw));\
|
||
|
|
SET_CALLBACK_DLC();\
|
||
|
|
} else {\
|
||
|
|
SET_CALLBACK_NOTHING();\
|
||
|
|
}
|
||
|
|
|
||
|
|
//
|
||
|
|
// VR_ASYNC_DISPOSITION - we maintain a serialized list of these structures.
|
||
|
|
// Used to dispose of VDM redir asynchronous completions in the order in which
|
||
|
|
// they occurred
|
||
|
|
//
|
||
|
|
|
||
|
|
typedef struct _VR_ASYNC_DISPOSITION {
|
||
|
|
|
||
|
|
//
|
||
|
|
// Next - maintains a singly-linked list of dispositions
|
||
|
|
//
|
||
|
|
|
||
|
|
struct _VR_ASYNC_DISPOSITION* Next;
|
||
|
|
|
||
|
|
//
|
||
|
|
// AsyncDispositionRoutine - pointer to VOID function taking no args which
|
||
|
|
// will dispose of the next asynchronous completion - Netbios, named pipe
|
||
|
|
// or DLC
|
||
|
|
//
|
||
|
|
|
||
|
|
VOID (*AsyncDispositionRoutine)(VOID);
|
||
|
|
} VR_ASYNC_DISPOSITION, *PVR_ASYNC_DISPOSITION;
|
||
|
|
|
||
|
|
//
|
||
|
|
// _inlinePointerFromWords - the POINTER_FROM_WORDS macro is inefficient if the
|
||
|
|
// arguments are calls to eg. getES(), getBX() - the calls are made twice if
|
||
|
|
// the pointer turns out to be non-zero. Use an inline function to achieve the
|
||
|
|
// same results, but only call function arguments once
|
||
|
|
//
|
||
|
|
|
||
|
|
#ifdef i386
|
||
|
|
|
||
|
|
__inline LPVOID _inlinePointerFromWords(WORD seg, WORD off) {
|
||
|
|
|
||
|
|
WORD _seg = seg;
|
||
|
|
WORD _off = off;
|
||
|
|
|
||
|
|
return (_seg + _off) ? (LPVOID)GetVDMAddr(_seg, _off) : 0;
|
||
|
|
}
|
||
|
|
|
||
|
|
#else
|
||
|
|
LPVOID _inlinePointerFromWords(WORD seg, WORD off);
|
||
|
|
#endif
|
||
|
|
|
||
|
|
//
|
||
|
|
// CONVERT_ADDRESS - convert a segmented (real or protect-mode) address to a
|
||
|
|
// flat 32-bit address
|
||
|
|
//
|
||
|
|
|
||
|
|
//#define CONVERT_ADDRESS(seg, off, size, mode) !((WORD)(seg) | (WORD)(off)) ? 0 : Sim32GetVDMPointer((((DWORD)seg) << 16) + (DWORD)(off), (size), (mode))
|
||
|
|
#define CONVERT_ADDRESS(seg, off, size, mode) _inlineConvertAddress((WORD)(seg), (WORD)(off), (WORD)(size), (BOOLEAN)(mode))
|
||
|
|
|
||
|
|
#ifdef i386
|
||
|
|
|
||
|
|
__inline LPVOID _inlineConvertAddress(WORD Seg, WORD Off, WORD Size, BOOLEAN Pm) {
|
||
|
|
|
||
|
|
WORD _seg = Seg;
|
||
|
|
WORD _off = Off;
|
||
|
|
|
||
|
|
return (_seg | _off) ? Sim32GetVDMPointer(((DWORD)_seg << 16) + _off, Size, Pm) : 0;
|
||
|
|
}
|
||
|
|
|
||
|
|
#else
|
||
|
|
extern LPVOID _inlineConvertAddress(WORD Seg, WORD Off, WORD Size, BOOLEAN Pm);
|
||
|
|
#endif
|
||
|
|
|
||
|
|
#endif // _VDMREDIR_
|