forked from MirrorRepos/RomWBW
Wayne Warthen
8 years ago
85 changed files with 2517 additions and 735 deletions
@ -0,0 +1,6 @@ |
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@echo off |
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setlocal |
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|
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if exist *.com del *.com |
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|
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setlocal & cd Tunes && call Clean || exit /b 1 & endlocal |
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@ -0,0 +1,14 @@ |
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*********************************************************************** |
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*** *** |
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*** R o m W B W *** |
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*** *** |
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*** Z80/Z180 System Software *** |
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*** *** |
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*********************************************************************** |
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|
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This directory contains the executable application files that |
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are specific to RomWBW. The source for these applications is found |
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in the Source\Apps directory of the distribution. |
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|
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The Tunes subdirectory contains some sample ProTracker sound |
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files that can be played by the PTxPlay application. |
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@ -0,0 +1,4 @@ |
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@echo off |
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setlocal |
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|
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if exist *.pt? del *.pt? |
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@ -0,0 +1,10 @@ |
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*********************************************************************** |
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*** *** |
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*** R o m W B W *** |
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*** *** |
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*** Z80/Z180 System Software *** |
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*** *** |
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*********************************************************************** |
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|
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This directory contains some sample ProTracker sound |
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files that can be played by the PTxPlay application. |
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@ -1,4 +1,6 @@ |
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@echo off |
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setlocal |
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|
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if exist *.com del *.com |
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if exist *.lst del *.lst |
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if exist *.zip del *.zip |
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|
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@ -0,0 +1,13 @@ |
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@echo off |
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setlocal |
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|
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set TOOLS=../../../Tools |
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set PATH=%TOOLS%\tasm32;%PATH% |
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set TASMTABS=%TOOLS%\tasm32 |
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|
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tasm -t180 -g3 -fFF PTxPlay.asm PTxPlay.com PTxPlay.lst |
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|
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if errorlevel 1 goto :eof |
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|
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copy /Y PTxPlay.com ..\..\..\Binary\Apps\ |
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copy /Y Tunes\*.pt3 ..\..\..\Binary\Apps\Tunes\ |
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@ -0,0 +1,5 @@ |
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@echo off |
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setlocal |
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|
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if exist *.com del *.com |
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if exist *.lst del *.lst |
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@ -0,0 +1,113 @@ |
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Universal PT2 and PT3 player for ZX Spectrum and MSX Release 1 |
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(c)2004-2007 S.V.Bulba <vorobey@mail.khstu.ru> |
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http://bulba.untergrund.net/ (http://bulba.at.kz/) |
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Release date: 30 of April 2007 |
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|
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Common remarks |
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-------------- |
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|
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The project is a compact combination of two players: Vortex Tracker II v1.0 PT3 |
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player for ZX Spectrum and Universal PT2 player for ZX Spectrum and MSX |
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computers. This player is a little slower than standalone players, but more |
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compact: less than 2K instead of 2.6K (1.6+1). |
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|
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As bonus there are some additional functions (conditional assembly): |
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|
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1) ROUT procedure for ZX or MSX; |
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2) positions counter at (START+11); |
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3) ability to change channels allocation during playing; |
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4) checking loop point; |
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5) disabling official identificator. |
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|
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New for this release: added PT v3.7 features (commands 1.xx and 2.xx). |
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|
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Project was compiled in assembler for Win32: |
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|
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SjASM Z80 Assembler v0.39f |
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Copyright 2005 Sjoerd Mastijn |
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|
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Files |
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----- |
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|
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PTxPlay.asm - source Z80 assembler code. |
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PTxPlay.h - same text is prepared for Alasm. |
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PTxPlay.txt - same text is prepared for ZX Asm 3.10. |
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PTxPlay - assembled binary code block in minimal configuration for ZX Spectrum |
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with identificator to load at #C000 address, zeroes at end can be truncated. |
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|
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Entry points |
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------------ |
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|
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Before playing at (START+10) set bit 1 for PT2 and reset for PT3 and call START |
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(loading) address. To detect module type you can use UniSearch by Spectre. |
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|
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Player is not reallocable, so you need to assemble with other ORG value, if you |
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want to load code at other than #C000 address, also you can place VARS area to |
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any other address too. After calling START AY is stop any sounding. At START+10 |
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is located SETUP byte, where bit 0 is used to control looping of melody. At any |
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time you can set bit 0 to disable loop. Bit 7 can be checked at any moment, it |
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is set after reaching end of module (finishing playing of last position). Bits |
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2 and 3 is used for setting channels allocation. Only first three combinations |
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of these bits are allowed: 0 - ABC, 1 - ACB, 2 - BAC. ABC is used to output |
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channels "as is". ACB swaps B and C, and BAC swaps A and B. So, any stereo |
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combinations can be heard: ABC-stereo for the most xUSSR ZX-clones, ACB - East |
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Europe ones, and BAC - ZS Scorpion 256K. |
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|
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In current compilation module must be loaded after variables (by default). Of |
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course, you can change it in source or in assembled code. Also you can specify |
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module address in HL as follows: |
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|
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LD HL,PT3ModuleAddress |
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XOR A ;PT3 |
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LD (START+10),A |
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CALL START+3 |
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|
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By calling START you are proceeding INIT procedure, which analyzes module type |
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bit and prepares corresponding player branches, checks PT3 module version and |
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prepares corresponding note and volume tables (it is need for correct playing of |
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modules of different PT3 subversions). Also you can call START after stopping |
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playing to mute AY sound. In last case you can call START+8 to simple mute AY |
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sound, to continue playing simply continue calling START+5 as usually. |
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|
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To play, call START+5 address each 1/50 of second (interrupt). Playing selects |
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right portamento algorithm for old (v3.5-) and new (v3.6+ or VT II) modules. |
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During running PLAY subprogram no any interrupts are expected, it is your task |
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to right call PLAY. For example, next example is totaly right: |
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|
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CALL #C000 ;calling init |
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EI ;enable interrupts |
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_LP HALT ;wait for next interrupt |
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CALL #C005 ;call play, player uses 10500 tacts max, |
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;so no interrupt can be before next HALT |
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XOR A ;test keyboard |
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IN A,(#FE) |
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CPL |
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AND 15 |
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JR Z,_LP |
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CALL #C008 ;mute AY sound (you can resume playing from current place) |
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RET |
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|
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At START+11 current position byte can be placed (see conditional assembly keys). |
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To get common number of position, see module header or use UniSearch by Spectre. |
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|
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Example of playing without loop: |
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LD A,1 |
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LD (START+10),A |
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CALL START |
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EI |
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LOOP HALT |
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CALL START+5 |
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LD A,(START+10) |
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RLA |
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JR NC,LOOP |
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RET |
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|
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Read also all comments in source file. |
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|
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Thanks to Andrey Bogdanovich aka Spectre for help and UniSearch; Ivan Roshin for |
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tone and volume tables generators; Alfonso D.C. aka Dioniso for info about MSX. |
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|
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Sergey Bulba |
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|
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19 of September 2004 - 30 of April 2007 |
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@ -1,564 +0,0 @@ |
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|
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DDTZ v2.7 |
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by C.B. Falconer |
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edited by George A. Havach |
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|
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Introduction: |
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============ |
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DDTZ v2.7 is a complete replacement for DDT, Digital Research's |
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famous Dynamic Debugging Tool, with improved functionality, bug |
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extermination, and full Z80 support. In general, DDTZ is fully |
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compatible with the original utility, but it has extra and |
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extended commands and many fewer quirks. All Z80-specific |
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instructions can be (dis)assembled, though in Intel rather then |
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Zilog format. Furthermore, DDTZ will correctly trace ('T' and 'U' |
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commands) both 8080 and Z80 instructions, depending on which CPU |
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is operating. On startup, the program announces which CPU it is |
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running on. |
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|
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DDTZ v2.7 now handles the 64180 added opcodes. It does NOT test |
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for a 64180 CPU, since this cannot be done without executing |
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illegal Z80 instructions, which in turn will crash some |
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simulators. However v2.7 does not execute any 64180 instructions |
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internally, only in the subject program. |
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|
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This issue supplies the "M" version assembled, to avoid errors |
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when switching between MSDOS and CPM systems. The command table |
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is updated accordingly. Most CPM users are also MSDOS users, but |
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not vice-versa. |
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|
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The program is invoked by typing |
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|
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ddtz<ret> |
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or |
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ddtz [d:]filespec<ret> |
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|
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In the second form, DDTZ will load the specified file into |
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memory starting at 0100H, unless it's a .HEX file that sets its |
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own load address. Besides reporting the NEXT free address and |
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the PC (program counter) after a successful load, DDTZ also shows |
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the number of memory pages needed for a SAVE. Instead of having |
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to write all this down, just use the 'X' command at any time to |
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redisplay these three values for the current application. |
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|
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NOTE: loading more code above the NEXT pointer revises these |
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values. |
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|
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As in DDT, when a program is loaded above the area holding the |
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'A' and 'U' (and now 'W') command code, these commands are |
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disabled, and the extra memory is released to the user. Thus, |
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DDTZ can occupy as little as 3K total memory space. Unlike DDT, |
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however, DDTZ will not overwrite itself or the system on program |
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loads (except .HEX files). |
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|
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At initialization, the stack pointer (SP) points to a return to |
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DDTZ, just like for the CCP. Thus, programs that normally return |
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to the CCP will be returned to DDTZ. The 'B' command |
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reinitializes this condition. |
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|
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|
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The intercept vector copies the BDOS version number, etc., so |
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an object program does not know that DDTZ is running (except |
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for BIOS-BDOS vector size). Thus, programs that check the version |
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number should execute correctly under DDTZ. |
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|
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All input parameters can now be entered in any of three formats: |
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|
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(1) hexadecimal (as in DDT), |
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(2) decimal, by adding a leading '#' character, |
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(3) ASCII, by enclosing between either single or double |
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quotes; either one or two characters are allowed. |
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|
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Leading blanks in command lines and parameters are absorbed. |
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Either a comma or a (single) space is a valid delimiter. |
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Either uppercase or lowercase input is accepted. |
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|
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The default command (for anything not otherwise recognizable) |
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is 'H'. This allows convenient calculation, along with the other |
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features described below. So, to convert a number, just enter |
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it! |
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|
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As in DDT, the prompt character is '-', and the only error |
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message is the query ('?'), which generally kicks you back to |
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command mode. |
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|
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New Commands (Over DDT): |
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======================= |
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|
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NOTE: letters in parenthesis, e.g. "(U)", show the equivalent |
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command for DDTZM version (compatible with MSDOS debug). |
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|
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@ Sets or shows (with no parameter) the internally stored |
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"base" value. Also used with the 'S' and 'D' commands as |
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an optional parameter (though without the '@') to display |
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memory from an arbitrary base marker (offset). When set to |
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zero (the default), it does not affect any screen displays. |
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|
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B B)egin: resets the USER stack pointer to its initial value, |
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such that any program that exits by an RET will return to |
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DDTZ. DDTZ provides a default stack space of |
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approximately 24 bytes for user programs. |
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|
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C C)ompare first_address,last_address,against_address: shows |
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all the byte differences between two memory areas, in the |
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format |
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XXXX aa YYYY bb |
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|
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where XXXX and YYYY are the comparative memory addresses, |
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and aa and bb are the corresponding byte values. Can be |
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used to verify the identity of two files by first |
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loading them into different memory areas with the 'R' |
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command (see below). |
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|
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|
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W Write: stores the modified memory area to disk under the |
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(K) filename specified by the 'I' command, overwriting the |
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original file from which it was loaded (the user is queried |
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before doing so). By default, the image of memory from |
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0100H through the "NEXT" value -1 is saved. "K first_addr, |
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last_address" overrides this and allows writing ANY memory |
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area to a file. Almost a necessity for CPM 3.0 (no SAVE!). |
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K)eep on DDTZ |
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|
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X eXamine: redisplays the "NEXT PC SAVE" report at any time. |
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(Q) Q)uery size on DDTZ. |
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|
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S S)earch first_address, last_addr, value: searches the |
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(W) specified memory area for the value (a 16-bit word, not a |
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byte) and shows the locations of all such. Very useful for |
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finding CALL's or JMP's to a particular address, etc. |
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W)here on DDTZ |
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|
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Y Y)our_option parm1,parm2,address: executes an arbitrary |
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routine at the specified address, with the BC and DE |
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registers set to parm1 and parm2, respectively. |
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|
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Z Displays (but does not alter) the Z80's alternate register |
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set, including the index registers (disabled if running on |
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an 8080). On Z80's, automatically included as the last |
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part of the display by the 'X' command. |
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|
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|
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Based (Offset) Displays: |
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======================= |
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|
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The 'D' and 'E' commands can use a stored base value (offset), |
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as set by the '@' command. The current @ value may be |
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overridden for a single execution of these commands by adding the |
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base as an extra parameter in the command line. The effect is |
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to add this value to the first/last address and display |
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accordingly. The address listing on the left becomes XXXX:YYYY, |
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where XXXX is the offset address and YYYY is the actual memory |
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address being displayed. For example, if you have a data area |
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located at 42B7H and wish to preserve easy access, just enter |
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"@42b7". Now, "d0,3f" will dump memory starting at 4237H. |
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|
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|
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Further Changes from DDT: |
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======================== |
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|
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A A)ssemble now accepts the full Z80 as well as 8080 |
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instruction set, although it expects them in Intel rather |
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than Zilog format (see notes below under the 'L' |
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command). When in doubt, see the mnemnonic list below. |
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|
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D D)isplay or D)ump will accept an optional third parameter |
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to set the base value for a single execution only. Format |
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has been cleaned up. |
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|
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H H)ex_arithmetic on two values also shows their |
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difference in decimal. With only one value, converts to |
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hexadecimal, decimal, and ASCII (low-order byte only). |
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|
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|
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N N)ame now allows drive specification (d:...) and sets up |
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(I) the complete command line, including both FCB's (at |
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addresses 005CH and 006CH). The tail (stored at 0081H up) |
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is NOT upshifted. |
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I)nput on DDTZ |
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|
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U U)nassemble now displays the raw hexcode, especially handy |
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(L) when examining non-code areas. Intel (8080 style) mnemonics |
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are used, so some disassembled instructions may look |
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strange. E.g., the Z80's 'IN B,(C)' and 'OUT (C),B' become |
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'INP B' and 'OUTP B', respectively; 'LD (nnnn),BC' becomes |
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'SBCD nnnn', 'ADD IX, BC' becomes 'DADX B', and 'JP (IX)' |
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becomes 'PCIX'. |
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L)ist on DDTZ |
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|
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L L)oad now permits loading a file into memory with an |
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(R) offset, which is added to the default load address of |
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0100H. When reading in a .HEX file with a preset bias, |
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the 'R' command will not transfer control to an invalid |
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execution point. Another execution of the 'R' command will |
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reread the input file, e.g.: |
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|
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n blah<ret> |
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l<ret> |
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...modify the code and generally mess about... |
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l<ret> |
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|
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The original file is reloaded, and the modifications are |
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removed. |
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R)ead on DDTZ |
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|
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E E)nter, like D)isplay, now accepts an optional second |
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(S) parameter to set the base value for a single execution |
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only. |
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S)ubstitute or S)et on DDTZ |
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|
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T T)rap/trace on termination now shows the complete CPU |
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state. Traps and traces no longer lock up when a user RST |
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7 instruction is executed. Tracing of BDOS/BIOS calls is |
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heavily trun cated, avoiding clutter and preventing system |
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crashes. |
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|
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NOTE: Most of the UNDOCUMENTED Z80 op-codes are handled. Others |
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can crash the system. |
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|
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R R)egisters also shows what two-byte values the HL and SP |
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(X) registers are actually pointing to. On Z80's, displays the |
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alternate register set. |
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eX)amine on DDTZ |
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|
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NOTE: Any use of the 'W' or 'L' command resets the system DMA |
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transfer address to the standard default value of 0080H. |
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|
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|
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; This is the output of DDTZ when disassembling OPTYPE.TRY |
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NOP LDA 06A4 MOV M,H |
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LXI B,06A4 DCX SP MOV M,L |
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STAX B INR A HLT |
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INX B DCR A MOV M,A |
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INR B MVI A,20 MOV A,B |
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DCR B CMC MOV A,C |
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MVI B,20 MOV B,B MOV A,D |
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RLC MOV B,C MOV A,E |
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EXAF MOV B,D MOV A,H |
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DAD B MOV B,E MOV A,L |
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LDAX B MOV B,H MOV A,M |
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DCX B MOV B,L MOV A,A |
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INR C MOV B,M ADD B |
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DCR C MOV B,A ADD C |
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MVI C,20 MOV C,B ADD D |
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RRC MOV C,C ADD E |
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DJNZ 0134 MOV C,D ADD H |
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LXI D,06A4 MOV C,E ADD L |
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STAX D MOV C,H ADD M |
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INX D MOV C,L ADD A |
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INR D MOV C,M ADC B |
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DCR D MOV C,A ADC C |
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MVI D,20 MOV D,B ADC D |
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RAL MOV D,C ADC E |
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JR 0134 MOV D,D ADC H |
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DAD D MOV D,E ADC L |
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LDAX D MOV D,H ADC M |
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DCX D MOV D,L ADC A |
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INR E MOV D,M SUB B |
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DCR E MOV D,A SUB C |
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MVI E,20 MOV E,B SUB D |
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RAR MOV E,C SUB E |
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JRNZ 0134 MOV E,D SUB H |
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LXI H,06A4 MOV E,E SUB L |
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SHLD 06A4 MOV E,H SUB M |
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INX H MOV E,L SUB A |
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INR H MOV E,M SBB B |
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DCR H MOV E,A SBB C |
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MVI H,20 MOV H,B SBB D |
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DAA MOV H,C SBB E |
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JRZ 0134 MOV H,D SBB H |
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DAD H MOV H,E SBB L |
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LHLD 06A4 MOV H,H SBB M |
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DCX H MOV H,L SBB A |
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INR L MOV H,M ANA B |
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DCR L MOV H,A ANA C |
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MVI L,20 MOV L,B ANA D |
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CMA MOV L,C ANA E |
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JRNC 0134 MOV L,D ANA H |
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LXI SP,06A4 MOV L,E ANA L |
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STA 06A4 MOV L,H ANA M |
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INX SP MOV L,L ANA A |
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INR M MOV L,M XRA B |
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DCR M MOV L,A XRA C |
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MVI M,20 MOV M,B XRA D |
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STC MOV M,C XRA E |
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JRC 0134 MOV M,D XRA H |
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DAD SP MOV M,E XRA L |
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|
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|
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XRA M JPE 06A4 SLAR M |
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XRA A XCHG SLAR A |
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ORA B CPE 06A4 SRAR B |
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ORA C XRI 20 SRAR C |
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ORA D RST 5 SRAR D |
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ORA E RP SRAR E |
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ORA H POP PSW SRAR H |
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ORA L JP 06A4 SRAR L |
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ORA M DI SRAR M |
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ORA A CP 06A4 SRAR A |
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CMP B PUSH PSW SLLR B |
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CMP C ORI 20 SLLR C |
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CMP D RST 6 SLLR D |
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CMP E RM SLLR E |
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CMP H SPHL SLLR H |
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CMP L JM 06A4 SLLR L |
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CMP M EI SLLR M |
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CMP A CM 06A4 SLLR A |
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RNZ CPI 20 SRLR B |
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POP B RST 7 SRLR C |
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JNZ 06A4 RLCR B SRLR D |
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JMP 06A4 RLCR C SRLR E |
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CNZ 06A4 RLCR D SRLR H |
|||
PUSH B RLCR E SRLR L |
|||
ADI 20 RLCR H SRLR M |
|||
RST 0 RLCR L SRLR A |
|||
RZ RLCR M BIT 0,B |
|||
RET RLCR A BIT 0,C |
|||
JZ 06A4 RRCR B BIT 0,D |
|||
CZ 06A4 RRCR C BIT 0,E |
|||
CALL 06A4 RRCR D BIT 0,H |
|||
ACI 20 RRCR E BIT 0,L |
|||
RST 1 RRCR H BIT 0,M |
|||
RNC RRCR L BIT 0,A |
|||
POP D RRCR M BIT 1,B |
|||
JNC 06A4 RRCR A BIT 1,C |
|||
OUT 20 RALR B BIT 1,D |
|||
CNC 06A4 RALR C BIT 1,E |
|||
PUSH D RALR D BIT 1,H |
|||
SUI 20 RALR E BIT 1,L |
|||
RST 2 RALR H BIT 1,M |
|||
RC RALR L BIT 1,A |
|||
EXX RALR M BIT 2,B |
|||
JC 06A4 RALR A BIT 2,C |
|||
IN 20 RARR B BIT 2,D |
|||
CC 06A4 RARR C BIT 2,E |
|||
SBI 20 RARR D BIT 2,H |
|||
RST 3 RARR E BIT 2,L |
|||
RPO RARR H BIT 2,M |
|||
POP H RARR L BIT 2,A |
|||
JPO 06A4 RARR M BIT 3,B |
|||
XTHL RARR A BIT 3,C |
|||
CPO 06A4 SLAR B BIT 3,D |
|||
PUSH H SLAR C BIT 3,E |
|||
ANI 20 SLAR D BIT 3,H |
|||
RST 4 SLAR E BIT 3,L |
|||
RPE SLAR H BIT 3,M |
|||
PCHL SLAR L BIT 3,A |
|||
|
|||
|
|||
BIT 4,B RES 3,D SET 2,H |
|||
BIT 4,C RES 3,E SET 2,L |
|||
BIT 4,D RES 3,H SET 2,M |
|||
BIT 4,E RES 3,L SET 2,A |
|||
BIT 4,H RES 3,M SET 3,B |
|||
BIT 4,L RES 3,A SET 3,C |
|||
BIT 4,M RES 4,B SET 3,D |
|||
BIT 4,A RES 4,C SET 3,E |
|||
BIT 5,B RES 4,D SET 3,H |
|||
BIT 5,C RES 4,E SET 3,L |
|||
BIT 5,D RES 4,H SET 3,M |
|||
BIT 5,E RES 4,L SET 3,A |
|||
BIT 5,H RES 4,M SET 4,B |
|||
BIT 5,L RES 4,A SET 4,C |
|||
BIT 5,M RES 5,B SET 4,D |
|||
BIT 5,A RES 5,C SET 4,E |
|||
BIT 6,B RES 5,D SET 4,H |
|||
BIT 6,C RES 5,E SET 4,L |
|||
BIT 6,D RES 5,H SET 4,M |
|||
BIT 6,E RES 5,L SET 4,A |
|||
BIT 6,H RES 5,M SET 5,B |
|||
BIT 6,L RES 5,A SET 5,C |
|||
BIT 6,M RES 6,B SET 5,D |
|||
BIT 6,A RES 6,C SET 5,E |
|||
BIT 7,B RES 6,D SET 5,H |
|||
BIT 7,C RES 6,E SET 5,L |
|||
BIT 7,D RES 6,H SET 5,M |
|||
BIT 7,E RES 6,L SET 5,A |
|||
BIT 7,H RES 6,M SET 6,B |
|||
BIT 7,L RES 6,A SET 6,C |
|||
BIT 7,M RES 7,B SET 6,D |
|||
BIT 7,A RES 7,C SET 6,E |
|||
RES 0,B RES 7,D SET 6,H |
|||
RES 0,C RES 7,E SET 6,L |
|||
RES 0,D RES 7,H SET 6,M |
|||
RES 0,E RES 7,L SET 6,A |
|||
RES 0,H RES 7,M SET 7,B |
|||
RES 0,L RES 7,A SET 7,C |
|||
RES 0,M SET 0,B SET 7,D |
|||
RES 0,A SET 0,C SET 7,E |
|||
RES 1,B SET 0,D SET 7,H |
|||
RES 1,C SET 0,E SET 7,L |
|||
RES 1,D SET 0,H SET 7,M |
|||
RES 1,E SET 0,L SET 7,A |
|||
RES 1,H SET 0,M DADX B |
|||
RES 1,L SET 0,A DADX D |
|||
RES 1,M SET 1,B LXI X,06A4 |
|||
RES 1,A SET 1,C SIXD 06A4 |
|||
RES 2,B SET 1,D INX X |
|||
RES 2,C SET 1,E DADX X |
|||
RES 2,D SET 1,H LIXD 06A4 |
|||
RES 2,E SET 1,L DCX X |
|||
RES 2,H SET 1,M INR [X+05] |
|||
RES 2,L SET 1,A DCR [X+05] |
|||
RES 2,M SET 2,B MVI [X+05],20 |
|||
RES 2,A SET 2,C DADX SP |
|||
RES 3,B SET 2,D MOV B,[X+05] |
|||
RES 3,C SET 2,E MOV C,[X+05] |
|||
|
|||
|
|||
MOV D,[X+05] DSBC B DADY B |
|||
MOV E,[X+05] SBCD 06A4 DADY D |
|||
MOV H,[X+05] NEG LXI Y,06A4 |
|||
MOV L,[X+05] RETN SIYD 06A4 |
|||
MOV [X+05],B IM0 INX Y |
|||
MOV [X+05],C LDIA DADY Y |
|||
MOV [X+05],D INP C LIYD 06A4 |
|||
MOV [X+05],E OUTP C DCX Y |
|||
MOV [X+05],H DADC B INR [Y+05] |
|||
MOV [X+05],L LBCD 06A4 DCR [Y+05] |
|||
MOV [X+05],A RETI MVI [Y+05],2 |
|||
MOV A,[X+05] LDRA DADY SP |
|||
ADD [X+05] INP D MOV B,[Y+05] |
|||
ADC [X+05] OUTP D MOV C,[Y+05] |
|||
SUB [X+05] DSBC D MOV D,[Y+05] |
|||
SBB [X+05] SDED 06A4 MOV E,[Y+05] |
|||
ANA [X+05] IM1 MOV H,[Y+05] |
|||
XRA [X+05] LDAI MOV L,[Y+05] |
|||
ORA [X+05] INP E MOV [Y+05],B |
|||
CMP [X+05] OUTP E MOV [Y+05],C |
|||
POP X DADC D MOV [Y+05],D |
|||
XTIX LDED 06A4 MOV [Y+05],E |
|||
PUSH X IM2 MOV [Y+05],H |
|||
PCIX LDAR MOV [Y+05],L |
|||
SPIX INP H MOV [Y+05],A |
|||
RLCR [X+05] OUTP H MOV A,[Y+05] |
|||
RRCR [X+05] DSBC H ADD [Y+05] |
|||
RALR [X+05] shld 06A4 ADC [Y+05] |
|||
RARR [X+05] RRD SUB [Y+05] |
|||
SLAR [X+05] INP L SBB [Y+05] |
|||
SRAR [X+05] OUTP L ANA [Y+05] |
|||
SRLR [X+05] DADC H XRA [Y+05] |
|||
BIT 0,[X+05] lhld 06A4 ORA [Y+05] |
|||
BIT 1,[X+05] RLD CMP [Y+05] |
|||
BIT 2,[X+05] INP M POP Y |
|||
BIT 3,[X+05] OUTP M XTIY |
|||
BIT 4,[X+05] DSBC SP PUSH Y |
|||
BIT 5,[X+05] SSPD 06A4 PCIY |
|||
BIT 6,[X+05] INP A SPIY |
|||
BIT 7,[X+05] OUTP A RLCR [Y+05] |
|||
RES 0,[X+05] DADC SP RRCR [Y+05] |
|||
RES 1,[X+05] LSPD 06A4 RALR [Y+05] |
|||
RES 2,[X+05] LDI RARR [Y+05] |
|||
RES 3,[X+05] CCI SLAR [Y+05] |
|||
RES 4,[X+05] INI SRAR [Y+05] |
|||
RES 5,[X+05] OTI SRLR [Y+05] |
|||
RES 6,[X+05] LDD BIT 0,[Y+05] |
|||
RES 7,[X+05] CCD BIT 1,[Y+05] |
|||
SET 0,[X+05] IND BIT 2,[Y+05] |
|||
SET 1,[X+05] OTD BIT 3,[Y+05] |
|||
SET 2,[X+05] LDIR BIT 4,[Y+05] |
|||
SET 3,[X+05] CCIR BIT 5,[Y+05] |
|||
SET 4,[X+05] INIR BIT 6,[Y+05] |
|||
SET 5,[X+05] OTIR BIT 7,[Y+05] |
|||
SET 6,[X+05] LDDR RES 0,[Y+05] |
|||
SET 7,[X+05] CCDR RES 1,[Y+05] |
|||
INP B INDR RES 2,[Y+05] |
|||
OUTP B OTDR RES 3,[Y+05] |
|||
|
|||
|
|||
RES 4,[Y+05] SET 0,[Y+05] SET 4,[Y+05] |
|||
RES 5,[Y+05] SET 1,[Y+05] SET 5,[Y+05] |
|||
RES 6,[Y+05] SET 2,[Y+05] SET 6,[Y+05] |
|||
RES 7,[Y+05] SET 3,[Y+05] SET 7,[Y+05] |
|||
|
|||
; These are the result of disassembling 64180OPS.TRY |
|||
; These opcodes are available ONLY on the 64180 CPU |
|||
; DDTZ will both assemble and disassemble these. |
|||
IN0 B,20 TST E MLT B |
|||
OUT0 20,B IN0 H,20 MLT D |
|||
TST B OUT0 20,H TSTI 20 |
|||
IN0 C,20 TST H MLT H |
|||
OUT0 20,C IN0 L,20 TSIO 20 |
|||
TST C OUT0 20,L SLP |
|||
IN0 D,20 TST L MLT SP |
|||
OUT0 20,D TST M OTIM |
|||
TST D IN0 A,20 OTDM |
|||
IN0 E,20 OUT0 20,A OIMR |
|||
OUT0 20,E TST A ODMR |
|||
|
|||
; The following are UNDOCUMENTED z80 opcodes from XTDOPS.TRY. |
|||
; DDTZ will disassemble these, but will not assemble them. |
|||
; They use xh/xl (or yh/yl) as separate byte registers. |
|||
; Use these at your own risk. |
|||
INRX H ACXR H MOVY H,B |
|||
DCRX H ACXR L MOVY H,C |
|||
MVIX H,20 SUXR H MOVY H,D |
|||
INRX L SUXR L MOVY H,E |
|||
DCRX L SBXR H MOVY H,A |
|||
MVIX L,20 SBXR L MOVY L,B |
|||
MOVX B,H NDXR H MOVY L,C |
|||
MOVX B,L NDXR L MOVY L,D |
|||
MOVX C,H XRXR H MOVY L,E |
|||
MOVX C,L XRXR L MOVY L,A |
|||
MOVX D,H ORXR H MOVY A,H |
|||
MOVX D,L ORXR L MOVY A,L |
|||
MOVX E,H CPXR H ADYR H |
|||
MOVX E,L CPXR L ADYR L |
|||
MOVX H,B INRY H ACYR H |
|||
MOVX H,C DCRY H ACYR L |
|||
MOVX H,D MVIY H,20 SUYR H |
|||
MOVX H,E INRY L SUYR L |
|||
MOVX H,A DCRY L SBYR H |
|||
MOVX L,B MVIY L,20 SBYR L |
|||
MOVX L,C MOVY B,H NDYR H |
|||
MOVX L,D MOVY B,L NDYR L |
|||
MOVX L,E MOVY C,H XRYR H |
|||
MOVX L,A MOVY C,L XRYR L |
|||
MOVX A,H MOVY D,H ORYR H |
|||
MOVX A,L MOVY D,L ORYR L |
|||
ADXR H MOVY E,H CPYR H |
|||
ADXR L MOVY E,L CPYR L |
|||
|
|||
|
|||
Command Summary: |
|||
=============== |
|||
|
|||
DDTZM command DDTZ command |
|||
============= ============ |
|||
@ (base) |
|||
A)ssemble first_address A |
|||
B)egin {i.e., initialize stack and return} B |
|||
C)ompare first_address,last_address,against_address C |
|||
D)ump first_address[,last_address[,base]] D |
|||
E)nter_in_memory first_address[,base] S)ubstitute |
|||
F)ill first_address,last_address,value F |
|||
G)o_to [address][,trap1[,trap2]] G |
|||
H)ex_arithmetic value1(,value2) H |
|||
L)oad_file (offset) R)ead |
|||
M)ove first_address,last_address,destination M |
|||
N)nput FCBs_command_line I)nput |
|||
Q)uit (not avail) |
|||
R)egister examine/change [register|flag] X)amine |
|||
S)earch first_address,last_address,word W)hereis |
|||
T)race_execution [count] T |
|||
Untrace_execution [count] (i.e. do count instr) U)ntrace |
|||
U)nassemble_code first_address[,last_address] L)ist code |
|||
W)rite [first_address,last_address] K)eep |
|||
X)amine {i.e. display memory parameters for application} Q)uery |
|||
Y)our_option BC:=parm1,DE:=parm2,call_address Y |
|||
Z)80_register_display Z |
|||
|
|||
|
|||
If you find this program useful, contributions will be gratefully |
|||
accepted and will encourage further development and release of |
|||
useful CPM programs. My practice is to include source. |
|||
|
|||
C.B. Falconer |
|||
680 Hartford Turnpike, |
|||
Hamden, Conn. 06517 (203) 281-1438 |
|||
|
|||
DDTZ and its associated documentation and other files are |
|||
copyright (c) 1980-1988 by C.B. Falconer. They may be freely |
|||
copied and used for non-commercial purposes ONLY. |
|||
|
|||
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Reference in new issue