Release 1.0.2

This commit is contained in:
Eric Rangell 2018-07-29 09:44:35 -04:00
parent c2deabc106
commit d09f917eb7
13 changed files with 544 additions and 527 deletions

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.DS_Store vendored

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@ -11,4 +11,118 @@ Each MIDI file should have a type of $D7 and a suffix of .MID
The program "CHANGETYPE" can be used to change the type of a file. The program "CHANGETYPE" can be used to change the type of a file.
2018-JUL-26: Tested MIDIDRVR.OBJ on real hardware - the code to change the Annunciator works. The Negative Logic does not work yet.
TEST PLAN:
GIVEN wiring has 2 inverters (positive logic), and MIDI OUT circuit is hooked up to AN0
WHEN you boot the DSK and select option 1 (Test MIDI OUT)
THEN chord plays on a connected MIDI instrument
GIVEN 9018:02
WHEN 9000G
THEN BRK is hit, displays address 9026
WHEN 9003G
THEN BRK is hit, displays address 90A2
GIVEN 9018:01, and wiring has 1 inverter (negative logic) and MIDI OUT circuit is hooked up to AN0
WHEN 900EG
THEN plays a chord on the connected MIDI Instrument
GIVEN negative logic MIDI OUT circuit
WHEN
LOAD TESTCHORD
15 POKE 9*4096+16+8,1 : CALL 9*4096
RUN
THEN chord plays on connected MIDI instrument
GIVEN midi out circuit is connected to AN1
WHEN
9017:01
9014G
900EG N 9011G
THEN short duration chord plays on connected MIDI instrument
GIVEN midi out circuit is connected to AN2
WHEN
9017:02
9014G
900EG N 9011G
THEN short duration chord plays on connected MIDI instrument
GIVEN midi out circuit is connected to AN3
WHEN
9017:03
9014G
900EG N 9011G
THEN short duration chord plays on connected MIDI instrument
GIVEN midi out circuit can play a chord
WHEN
900EG N 900BG
THEN very short duration chord plays on connected MIDI instrument (due to all sounds off message)
GIVEN midi out circuit can play a chord, and driver is loaded at $9000
WHEN you enter the following Applesoft BASIC program and run it
10 P=36868: M=36867 : REM P=ADDRESS TO POKE MIDI BYTE, M=CALL TO MIDI OUT DRIVER
20 FOR N = 60 TO 72 : REM NOTE NUMBERS FOR MIDDLE C THRU ONE OCTAVE ABOVE MIDDLE C
30 POKE P,144: CALL M: REM 144 (0X90) IS THE MIDI MESSAGE FOR NOTE ON
40 POKE P,N: CALL M: REM FIRST DATABYTE OF NOTE ON MESSAGE IS NOTE NUMBER
50 POKE P,64: CALL M: REM SECOND DATABYTE IS VELOCITY OF KEYPRESS (0=127)
60 FOR DE=1 TO 250: NEXT : REM DELAY LOOP
70 POKE P,N : CALL M : REM USING RUNNING STATUS - MESSAGE IS STILL NOTE ON, BUT NEW DATABYTES
80 POKE P,0: CALL M : REM VELOCITY OF 0 TURNS A NOTE OFF
90 NEXT N: REM REPEAT FOR EACH NOTE IN CHROMATIC SCALE
THEN you hear a chromatic scale played on your MIDI instrument.

BIN
SRC/.DS_Store vendored

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@ -1,14 +1,14 @@
Modules list: Modules list:
------------- -------------
main.o: main.o:
CODE Offs = 000000 Size = 0002E8 CODE Offs = 000000 Size = 000259
Segment list: Segment list:
------------- -------------
Name Start End Size Name Start End Size
-------------------------------------------- --------------------------------------------
CODE 009000 0092E7 0002E8 CODE 009000 009258 000259
Exports list: Exports list:

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@ -24,7 +24,7 @@ PGM=MIDIDRVR.OBJ
# http://cc65.github.io/cc65/doc/apple2enh.html#s4 # http://cc65.github.io/cc65/doc/apple2enh.html#s4
# #
# Uncomment the one you want below (the first one is the default): # Uncomment the one you want below (the first one is the default):
# MACHINE = apple2 MACHINE = apple2
# MACHINE = apple2-dos33 # MACHINE = apple2-dos33
# MACHINE = apple2-system # MACHINE = apple2-system
# MACHINE = apple2-loader # MACHINE = apple2-loader
@ -39,6 +39,7 @@ PGM=MIDIDRVR.OBJ
# Uncomment and set this to your starting address in Apple II memory # Uncomment and set this to your starting address in Apple II memory
# if necessary: # if necessary:
START_ADDR = 9000 START_ADDR = 9000
# ASMPARMS = "INTERRUPTS=0 \n ANNUNCIATOR=2 \n"
# Set the default CPU to assemble for. You can change this in the # Set the default CPU to assemble for. You can change this in the
# body of a .s file using control commands like ".PC02". Uncomment # body of a .s file using control commands like ".PC02". Uncomment
@ -228,6 +229,8 @@ COPYDIRS=
# might need. # might need.
gen: gen:
# echo "$(ASMPARMS) > $(SRCDIRS)/ASMPARMS.txt"
# For any files you generated in the gen target above, you should # For any files you generated in the gen target above, you should
# add rules in genclean to remove those generated files when you # add rules in genclean to remove those generated files when you
# clean your build. # clean your build.

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@ -3,20 +3,20 @@ Main file : main.s
Current file: main.s Current file: main.s
000000r 1 ;------------------------------------------------------------------------- 000000r 1 ;-------------------------------------------------------------------------
000000r 1 ; 000000r 1 ; APPLE ][ SERIES ANNUNCIATOR MIDI DRIVER
000000r 1 ; Copyright © 1998-2018 Eric Rangell. MIT License.
000000r 1 ;-------------------------------------------------------------------------;
000000r 1 ; main.s 000000r 1 ; main.s
000000r 1 ; A2NoSlotMidi 000000r 1 ; A2NoSlotMidi
000000r 1 ; 000000r 1 ; Created by Eric Rangell on 17 JULY 2018.
000000r 1 ; Created by Eric Rangell on 7/17/18. 000000r 1 ; VERSION 1.0.1 released 26 JULY 2018
000000r 1 ;------------------------------------------------------------------------- 000000r 1 ; VERSION 1.0.2 released 29 JULY 2018
000000r 1 ; APPLE MIDI DRIVER THROUGH ANNUNCIATOR 0
000000r 1 ; Copyright © 1998-2018 Eric Rangell. MIT License.
000000r 1 ;------------------------------------------------------------------------- 000000r 1 ;-------------------------------------------------------------------------
000000r 1 ; THIS DRIVER IMPLEMENTS ASYNCHRONOUS SERIAL DATA TRANSMISSION 000000r 1 ; THIS DRIVER IMPLEMENTS ASYNCHRONOUS SERIAL DATA TRANSMISSION
000000r 1 ; THROUGH THE APPLE ANNUNCIATOR 0 OUTPUT PORT OF THE GAME CONNECTOR 000000r 1 ; THROUGH AN APPLE ][ ANNUNCIATOR OUTPUT PORT OF THE GAME CONNECTOR
000000r 1 ; USING 32 CYCLES PER BIT TO ACHIEVE A 31.25K MIDI BAUD RATE. 000000r 1 ; USING 32 CYCLES PER BIT TO ACHIEVE A 31.25K MIDI BAUD RATE.
000000r 1 ; 000000r 1 ;
000000r 1 ; //GS USERS NEED TO RUN THIS PROGRAM IN NORMAL SPEED MODE 000000r 1 ; APPLE //GS USERS NEED TO RUN THIS PROGRAM IN NORMAL SPEED MODE (1MHZ)
000000r 1 ; 000000r 1 ;
000000r 1 ; THE OUTPUT IS INITIALIZED TO A HIGH LOGIC VOLTAGE. WHEN IT GOES 000000r 1 ; THE OUTPUT IS INITIALIZED TO A HIGH LOGIC VOLTAGE. WHEN IT GOES
000000r 1 ; LOW FOR 32 MICROSECONDS, THAT INDICATES THE START BIT OF A MIDI BYTE. 000000r 1 ; LOW FOR 32 MICROSECONDS, THAT INDICATES THE START BIT OF A MIDI BYTE.
@ -38,15 +38,13 @@ Current file: main.s
000000r 1 ; $900E = SEND A TEST MESSAGE - C MAJOR CHORD NOTE ONS 000000r 1 ; $900E = SEND A TEST MESSAGE - C MAJOR CHORD NOTE ONS
000000r 1 ; $9011 = SEND A TEST MESSAGE - C MAJOR CHORD NOTE OFFS 000000r 1 ; $9011 = SEND A TEST MESSAGE - C MAJOR CHORD NOTE OFFS
000000r 1 ; 000000r 1 ;
000000r 1 ; IF THE FOLLOWING ROUTINES ARE USED, THEY SHOULD BE CALLED IMMEDIATELY AFTER BLOADING 000000r 1 ; IF THE FOLLOWING ROUTINE IS USED, IT SHOULD BE CALLED IMMEDIATELY AFTER BLOADING
000000r 1 ; THE BINARY, THEN THE INITIALIZE ROUTINE SHOULD BE CALLED AT $9000. 000000r 1 ; THE BINARY. AT THE END, IT WILL CALL THE INIT ROUTINE FOR THE SELECTED ANNUNCIATOR.
000000r 1 ; 000000r 1 ;
000000r 1 ; $9014 = CHANGE ANNUNCIATOR - MODIFIES CODE TO USE DIFFERENT ANNUNCIATOR 000000r 1 ; $9014 = CHANGE ANNUNCIATOR - MODIFIES CODE TO USE DIFFERENT ANNUNCIATOR
000000r 1 ; $9017 = ANNUNCIATOR TO USE: 0-3 - only looks at least significant 2 bits 000000r 1 ; $9017 = ANNUNCIATOR TO USE: 0-3 - only looks at least significant 2 bits
000000r 1 ; DO NOT RUN MORE THAN ONCE - BLOAD THE PROGRAM IF NEED TO CHANGE AGAIN.
000000r 1 ; 000000r 1 ;
000000r 1 ; $9018 = CHANGE LOGIC (POSITIVE OR NEGATIVE LOGIC FOR WIRING) 000000r 1 ; $9018 = SET TO 1 TO USE NEGATIVE LOGIC (ONLY ONE INVERTER IN THE MIDI CIRCUIT)
000000r 1 ; $901B = SET BIT 7 TO USE NEGATIVE LOGIC (ONLY ONE INVERTER IN THE MIDI CIRCUIT)
000000r 1 ;------------------------------------------------------------------------- 000000r 1 ;-------------------------------------------------------------------------
000000r 1 ; Enhancements for 2018: 000000r 1 ; Enhancements for 2018:
000000r 1 ; 1. Disable interrupts during critical timing sections, preserve interrupt status 000000r 1 ; 1. Disable interrupts during critical timing sections, preserve interrupt status
@ -83,391 +81,343 @@ Current file: main.s
00000Er 1 4C rr rr JMP TESTMSG1 ;SEND TEST MESSAGE 1 - C MAJOR CHORD ON 00000Er 1 4C rr rr JMP TESTMSG1 ;SEND TEST MESSAGE 1 - C MAJOR CHORD ON
000011r 1 TEST2: 000011r 1 TEST2:
000011r 1 4C rr rr JMP TESTMSG2 ;SEND TEST MESSAGE 2 - C MAJOR CHORD OFF 000011r 1 4C rr rr JMP TESTMSG2 ;SEND TEST MESSAGE 2 - C MAJOR CHORD OFF
000014r 1 ;
000014r 1 CHNGANNC: 000014r 1 CHNGANNC:
000014r 1 4C rr rr JMP CHGANNC ;RECONFIGURE PROGRAM TO USE ANNUNCIATOR NUMBER IN NEXT BYTE 000014r 1 4C rr rr JMP CHGANNC ;RECONFIGURE PROGRAM TO USE ANNUNCIATOR NUMBER IN NEXT BYTE
000017r 1 ANNC2USE: 000017r 1 ANNC2USE:
000017r 1 00 .byte $00 ;ONLY LEAST SIGNIFICANT 2 BITS ARE USED 000017r 1 00 .byte $00 ;ONLY LEAST SIGNIFICANT 2 BITS ARE USED
000018r 1 CHNGLOGC: 000018r 1 NEGLOGIC:
000018r 1 4C rr rr JMP CHGLOGIC ;RECONFIGURE PROGRAM TO USE POSITIVE OR NEGATIVE LOGIC 000018r 1 00 .byte $00 ;SET TO 1 TO USE NEGATIVE LOGIC, OTHERWISE LEAVE 0 FOR POSITIVE LOGIC (DEFAULT). DO NOT USE ANY OTHER VALUES!
00001Br 1 LOGICBYT: 000019r 1 ;---------------------------------------------------------------------------
00001Br 1 00 .byte $00 ;SET HIGH BIT TO 1 TO USE NEGATIVE LOGIC, ELSE POSITIVE LOGIC (DEFAULT) 000019r 1 01 MAJVER: .byte $01 ;BYTES USED TO TRACK VERSION OF RELEASED EXECUTABLES
00001Cr 1 ;--------------------------------------------------------------------------- 00001Ar 1 02 MINVER: .byte $02 ;NIBBLES ARE USED FOR THE VERSION NUMBER ($0102 = VERSION 1.0.2)
00001Cr 1 00 SAVENBYT: .byte $00 ;SAVE AREA FOR NUMBYTES 00001Br 1 00 ASAVE: .byte $00 ;SAVE AREA FOR ACCUMULATOR
00001Dr 1 00 TEMPA: .byte $00 00001Cr 1 00 SAVENBYT: .byte $00 ;SAVE AREA FOR NUMBYTES
00001Er 1 00 TEMPX: .byte $00 00001Dr 1 ;---------------------------------------------------------------------------
00001Fr 1 ;ANNPAIR: .byte $00 ; ANNUNCIATOR NUMBER TIMES 2 (1=C05A, 2=C05C, 3=C05E) 00001Dr 1 AD rr rr INIT: LDA NEGLOGIC
00001Fr 1 ;--------------------------------------------------------------------------- 000020r 1 29 FE AND #$FE
00001Fr 1 2C 59 C0 INIT: BIT AN0ON 000022r 1 F0 01 BEQ OK2INIT
000022r 1 60 RTS 000024r 1 00 BRK ;ABEND IF NEGLOGIC NOT 0 OR 1
000023r 1 ;--------------------------------------------------------------------------- 000025r 1 OK2INIT:
000023r 1 ; CRITICAL TIMING SECTION BELOW MUST NOT CROSS A PAGE BOUNDARY 000025r 1 A9 59 LDA #<AN0ON ;MODIFY BIT INSTRUCTION BELOW - FLIP LEAST SIGNIFICANT BIT IF NEGATIVE LOGIC
000023r 1 ;--------------------------------------------------------------------------- 000027r 1 4D rr rr EOR NEGLOGIC
000023r 1 XMITBITS: 00002Ar 1 8D rr rr STA INITANNC+1
000023r 1 08 PHP ;SAVE CURRENT INTERRUPT STATUS 00002Dr 1 INITANNC:
000024r 1 78 SEI ;MASK INTERRUPTS DURING CRITICAL TIMING SECTION 00002Dr 1 2C 59 C0 BIT AN0ON
000025r 1 2C 58 C0 MOD9: BIT AN0OFF ;4 CYCLES - TRANSMIT START BIT - ALWAYS LOW 000030r 1 60 RTS
000028r 1 20 rr rr JSR DELAY22 ;6+22 000031r 1 ;---------------------------------------------------------------------------
00002Br 1 BIT0: 000031r 1 ; CRITICAL TIMING SECTION BELOW MUST NOT CROSS A PAGE BOUNDARY
00002Br 1 2C 58 C0 BIT AN0OFF ;4 000031r 1 ;---------------------------------------------------------------------------
00002Er 1 20 rr rr JSR DELAY22 ;6+22 000031r 1 XMITBITS:
000031r 1 BIT1: 000031r 1 08 PHP ;SAVE CURRENT INTERRUPT STATUS
000031r 1 2C 58 C0 BIT AN0OFF ;4 000032r 1 78 SEI ;MASK INTERRUPTS DURING CRITICAL TIMING SECTION
000034r 1 20 rr rr JSR DELAY22 ;6+22 000033r 1 STRTBIT:
000037r 1 BIT2: 000033r 1 2C 58 C0 BIT AN0OFF ;4 CYCLES - TRANSMIT START BIT - ALWAYS LOW
000037r 1 2C 58 C0 BIT AN0OFF ;4 000036r 1 20 rr rr JSR DELAY22 ;6+22
00003Ar 1 20 rr rr JSR DELAY22 ;6+22 000039r 1 BIT0:
00003Dr 1 BIT3: 000039r 1 2C 58 C0 BIT AN0OFF ;4
00003Dr 1 2C 58 C0 BIT AN0OFF ;4 00003Cr 1 20 rr rr JSR DELAY22 ;6+22
000040r 1 20 rr rr JSR DELAY22 ;6+22 00003Fr 1 BIT1:
000043r 1 BIT4: 00003Fr 1 2C 58 C0 BIT AN0OFF ;4
000043r 1 2C 58 C0 BIT AN0OFF ;4 000042r 1 20 rr rr JSR DELAY22 ;6+22
000046r 1 20 rr rr JSR DELAY22 ;6+22 000045r 1 BIT2:
000049r 1 BIT5: 000045r 1 2C 58 C0 BIT AN0OFF ;4
000049r 1 2C 58 C0 BIT AN0OFF ;4 000048r 1 20 rr rr JSR DELAY22 ;6+22
00004Cr 1 20 rr rr JSR DELAY22 ;6+22 00004Br 1 BIT3:
00004Fr 1 BIT6: 00004Br 1 2C 58 C0 BIT AN0OFF ;4
00004Fr 1 2C 58 C0 BIT AN0OFF ;4 00004Er 1 20 rr rr JSR DELAY22 ;6+22
000052r 1 20 rr rr JSR DELAY22 ;6+22 000051r 1 BIT4:
000055r 1 BIT7: 000051r 1 2C 58 C0 BIT AN0OFF ;4
000055r 1 2C 58 C0 BIT AN0OFF ;4 000054r 1 20 rr rr JSR DELAY22 ;6+22
000058r 1 20 rr rr JSR DELAY22 ;6+22 000057r 1 BIT5:
00005Br 1 2C 59 C0 MOD10: BIT AN0ON ;4 ;TRANSMIT STOP BIT - ALWAYS HIGH 000057r 1 2C 58 C0 BIT AN0OFF ;4
00005Er 1 20 rr rr JSR DELAY22 ;6+22 00005Ar 1 20 rr rr JSR DELAY22 ;6+22
000061r 1 28 PLP ;4 ;RESTORE SAVED INTERRUPT STATUS 00005Dr 1 BIT6:
000062r 1 60 RTS ;TOTAL TIME INTERRUPTS DISABLED: 324 MICROSECONDS 00005Dr 1 2C 58 C0 BIT AN0OFF ;4
000063r 1 ;----------------------------------------------------------------------- 000060r 1 20 rr rr JSR DELAY22 ;6+22
000063r 1 DELAY22: 000063r 1 BIT7:
000063r 1 EA NOP ;WAIT 22 CYCLES 000063r 1 2C 58 C0 BIT AN0OFF ;4
000064r 1 EA NOP 000066r 1 20 rr rr JSR DELAY22 ;6+22
000065r 1 EA NOP 000069r 1 STOPBIT:
000066r 1 EA NOP 000069r 1 2C 59 C0 BIT AN0ON ;4 ;TRANSMIT STOP BIT - ALWAYS HIGH
000067r 1 EA NOP 00006Cr 1 20 rr rr JSR DELAY22 ;6+22
000068r 1 EA NOP 00006Fr 1 28 PLP ;4 ;RESTORE SAVED INTERRUPT STATUS
000069r 1 EA NOP 000070r 1 60 RTS ;TOTAL TIME INTERRUPTS DISABLED: 324 MICROSECONDS
00006Ar 1 EA NOP 000071r 1 ;-----------------------------------------------------------------------
00006Br 1 60 RTS 000071r 1 DELAY22:
00006Cr 1 ;--------------------------------------------------------------------------- 000071r 1 EA NOP ;WAIT 22 CYCLES
00006Cr 1 XMITMSG: 000072r 1 EA NOP
00006Cr 1 A5 D7 LDA NUMBYTES ;SAVE NUMBER OF BYTES 000073r 1 EA NOP
00006Er 1 8D rr rr STA SAVENBYT ;BECAUSE WE WILL CLOBBER IT 000074r 1 EA NOP
000071r 1 A0 00 LDY #$00 ;Y WILL BE AN INDEX INTO THE DATA AREA 000075r 1 EA NOP
000073r 1 XMITLOOP: 000076r 1 EA NOP
000073r 1 B1 CE LDA (DATAPTR),Y ;GET A DATA BYTE 000077r 1 EA NOP
000075r 1 20 rr rr JSR XMITONE 000078r 1 EA NOP
000078r 1 C8 INY ;POINT TO NEXT BYTE 000079r 1 60 RTS
000079r 1 C6 D7 DEC NUMBYTES ;DECREMENT COUNTER 00007Ar 1 ;---------------------------------------------------------------------------
00007Br 1 A5 D7 LDA NUMBYTES ;CHECK IF ZERO 00007Ar 1 XMITMSG:
00007Dr 1 D0 F4 BNE XMITLOOP ;LOOP UNTIL DONE SENDING ALL BYTES 00007Ar 1 A5 D7 LDA NUMBYTES ;SAVE NUMBER OF BYTES
00007Fr 1 AD rr rr LDA SAVENBYT 00007Cr 1 8D rr rr STA SAVENBYT ;BECAUSE WE WILL CLOBBER IT
000082r 1 85 D7 STA NUMBYTES ;RESTORE ORIGINAL VALUE OF NUMBYTES 00007Fr 1 A0 00 LDY #$00 ;Y WILL BE AN INDEX INTO THE DATA AREA
000084r 1 60 RTS 000081r 1 XMITLOOP:
000085r 1 ;--------------------------------------------------------------------------- 000081r 1 B1 CE LDA (DATAPTR),Y ;GET A DATA BYTE
000085r 1 XMITONE: 000083r 1 20 rr rr JSR XMITONE
000085r 1 8D rr rr STA TEMPA ;SAVE A AND X REGISTERS 000086r 1 C8 INY ;POINT TO NEXT BYTE
000088r 1 8E rr rr STX TEMPX 000087r 1 C6 D7 DEC NUMBYTES ;DECREMENT COUNTER
00008Br 1 ; 000089r 1 A5 D7 LDA NUMBYTES ;CHECK IF ZERO
00008Br 1 0A ASL A ;SHIFT BIT INTO CARRY 00008Br 1 D0 F4 BNE XMITLOOP ;LOOP UNTIL DONE SENDING ALL BYTES
00008Cr 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 00008Dr 1 AD rr rr LDA SAVENBYT
00008Dr 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 000090r 1 85 D7 STA NUMBYTES ;RESTORE ORIGINAL VALUE OF NUMBYTES
00008Fr 1 69 58 MOD1: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 000092r 1 60 RTS
000091r 1 8D rr rr STA BIT7+1 ;MODIFY THE XMITBITS SUBROUTINE 000093r 1 ;---------------------------------------------------------------------------
000094r 1 8A TXA ;RESTORE ACCUMULATOR 000093r 1 XMITONE:
000095r 1 ; 000093r 1 8D rr rr STA ASAVE ;ABEND IF NEGLOGIC NOT 0 OR 1
000095r 1 0A ASL A ;SHIFT BIT INTO CARRY 000096r 1 AD rr rr LDA NEGLOGIC
000096r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 000099r 1 29 FE AND #$FE
000097r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 00009Br 1 F0 04 BEQ OK2XMIT
000099r 1 69 58 MOD2: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 00009Dr 1 AD rr rr LDA ASAVE
00009Br 1 8D rr rr STA BIT6+1 ;MODIFY THE XMITBITS SUBROUTINE 0000A0r 1 00 BRK
00009Er 1 8A TXA ;RESTORE ACCUMULATOR 0000A1r 1 OK2XMIT:
00009Fr 1 ; 0000A1r 1 8A TXA ;SAVE X AND A ON STACK IN CASE THIS CODE GETS INTERRUPTED
00009Fr 1 0A ASL A ;SHIFT BIT INTO CARRY 0000A2r 1 48 PHA
0000A0r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 0000A3r 1 AD rr rr LDA ASAVE
0000A1r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 0000A6r 1 48 PHA
0000A3r 1 69 58 MOD3: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 0000A7r 1 ;
0000A5r 1 8D rr rr STA BIT5+1 ;MODIFY THE XMITBITS SUBROUTINE 0000A7r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000A8r 1 8A TXA ;RESTORE ACCUMULATOR 0000A8r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000A9r 1 ; 0000A9r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000A9r 1 0A ASL A ;SHIFT BIT INTO CARRY 0000ABr 1 69 58 MOD1: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000AAr 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 0000ADr 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000ABr 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 0000B0r 1 8D rr rr STA BIT7+1 ;MODIFY THE XMITBITS SUBROUTINE
0000ADr 1 69 58 MOD4: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 0000B3r 1 8A TXA ;RESTORE ACCUMULATOR
0000AFr 1 8D rr rr STA BIT4+1 ;MODIFY THE XMITBITS SUBROUTINE 0000B4r 1 ;
0000B2r 1 8A TXA ;RESTORE ACCUMULATOR 0000B4r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000B3r 1 ; 0000B5r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000B3r 1 0A ASL A ;SHIFT BIT INTO CARRY 0000B6r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000B4r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 0000B8r 1 69 58 MOD2: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000B5r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 0000BAr 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000B7r 1 69 58 MOD5: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 0000BDr 1 8D rr rr STA BIT6+1 ;MODIFY THE XMITBITS SUBROUTINE
0000B9r 1 8D rr rr STA BIT3+1 ;MODIFY THE XMITBITS SUBROUTINE 0000C0r 1 8A TXA ;RESTORE ACCUMULATOR
0000BCr 1 8A TXA ;RESTORE ACCUMULATOR 0000C1r 1 ;
0000BDr 1 ; 0000C1r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000BDr 1 0A ASL A ;SHIFT BIT INTO CARRY 0000C2r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000BEr 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 0000C3r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000BFr 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 0000C5r 1 69 58 MOD3: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000C1r 1 69 58 MOD6: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 0000C7r 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000C3r 1 8D rr rr STA BIT2+1 ;MODIFY THE XMITBITS SUBROUTINE 0000CAr 1 8D rr rr STA BIT5+1 ;MODIFY THE XMITBITS SUBROUTINE
0000C6r 1 8A TXA ;RESTORE ACCUMULATOR 0000CDr 1 8A TXA ;RESTORE ACCUMULATOR
0000C7r 1 ; 0000CEr 1 ;
0000C7r 1 0A ASL A ;SHIFT BIT INTO CARRY 0000CEr 1 0A ASL A ;SHIFT BIT INTO CARRY
0000C8r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE 0000CFr 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000C9r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD 0000D0r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000CBr 1 69 58 MOD7: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS 0000D2r 1 69 58 MOD4: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000CDr 1 8D rr rr STA BIT1+1 ;MODIFY THE XMITBITS SUBROUTINE 0000D4r 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000D0r 1 8A TXA ;RESTORE ACCUMULATOR 0000D7r 1 8D rr rr STA BIT4+1 ;MODIFY THE XMITBITS SUBROUTINE
0000D1r 1 ;
0000D1r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000D2r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000D3r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000D5r 1 69 58 MOD8: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000D7r 1 8D rr rr STA BIT0+1 ;MODIFY THE XMITBITS SUBROUTINE
0000DAr 1 8A TXA ;RESTORE ACCUMULATOR 0000DAr 1 8A TXA ;RESTORE ACCUMULATOR
0000DBr 1 ; 0000DBr 1 ;
0000DBr 1 20 rr rr JSR XMITBITS ;SEND THE BYTE OUT 0000DBr 1 0A ASL A ;SHIFT BIT INTO CARRY
0000DEr 1 AE rr rr LDX TEMPX 0000DCr 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000E1r 1 AD rr rr LDA TEMPA ;RESTORE X AND A 0000DDr 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000E4r 1 60 RTS 0000DFr 1 69 58 MOD5: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000E5r 1 ;----------------------------------------------------------------------- 0000E1r 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000E5r 1 TESTMSG1: 0000E4r 1 8D rr rr STA BIT3+1 ;MODIFY THE XMITBITS SUBROUTINE
0000E5r 1 A9 07 LDA #7 0000E7r 1 8A TXA ;RESTORE ACCUMULATOR
0000E7r 1 85 D7 STA NUMBYTES 0000E8r 1 ;
0000E9r 1 A9 rr LDA #<TESTDAT1 0000E8r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000EBr 1 85 CE STA DATAPTR 0000E9r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000EDr 1 A9 rr LDA #>TESTDAT1 0000EAr 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000EFr 1 85 CF STA DATAPTR+1 0000ECr 1 69 58 MOD6: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000F1r 1 20 rr rr JSR SENDMSG 0000EEr 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000F4r 1 60 RTS 0000F1r 1 8D rr rr STA BIT2+1 ;MODIFY THE XMITBITS SUBROUTINE
0000F5r 1 ;----------------------------------------------------------------------- 0000F4r 1 8A TXA ;RESTORE ACCUMULATOR
0000F5r 1 TESTMSG2: 0000F5r 1 ;
0000F5r 1 A9 07 LDA #7 0000F5r 1 0A ASL A ;SHIFT BIT INTO CARRY
0000F7r 1 85 D7 STA NUMBYTES 0000F6r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
0000F9r 1 A9 rr LDA #<TESTDAT2 0000F7r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
0000FBr 1 85 CE STA DATAPTR 0000F9r 1 69 58 MOD7: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
0000FDr 1 A9 rr LDA #>TESTDAT2 0000FBr 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
0000FFr 1 85 CF STA DATAPTR+1 0000FEr 1 8D rr rr STA BIT1+1 ;MODIFY THE XMITBITS SUBROUTINE
000101r 1 20 rr rr JSR SENDMSG 000101r 1 8A TXA ;RESTORE ACCUMULATOR
000104r 1 60 RTS 000102r 1 ;
000105r 1 ;----------------------------------------------------------------------- 000102r 1 0A ASL A ;SHIFT BIT INTO CARRY
000105r 1 QUIET: 000103r 1 AA TAX ;SAVE CURRENT IMAGE OF DATA BYTE
000105r 1 A9 90 LDA #$90 000104r 1 A9 00 LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
000107r 1 85 D7 STA NUMBYTES 000106r 1 69 58 MOD8: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
000109r 1 A9 rr LDA #<QUIETMSG 000108r 1 4D rr rr EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
00010Br 1 85 CE STA DATAPTR 00010Br 1 8D rr rr STA BIT0+1 ;MODIFY THE XMITBITS SUBROUTINE
00010Dr 1 A9 rr LDA #>QUIETMSG 00010Er 1 8A TXA ;RESTORE ACCUMULATOR
00010Fr 1 85 CF STA DATAPTR+1 00010Fr 1 ;
000111r 1 20 rr rr JSR SENDMSG 00010Fr 1 A9 58 MOD9: LDA #<AN0OFF ;FLIP ANNUNCIATOR ADDRESSES OF START AND STOP BITS IF USING NEGATIVE LOGIC
000114r 1 60 RTS 000111r 1 4D rr rr EOR NEGLOGIC
000115r 1 ;----------------------------------------------------------------------- 000114r 1 8D rr rr STA STRTBIT+1
000115r 1 CHGANNC: 000117r 1 ;
000115r 1 AD rr rr LDA ANNC2USE 000117r 1 A9 59 MOD10: LDA #<AN0ON
000118r 1 29 03 AND #$03 ;KEEP ONLY 2 LEAST SIGNIFICANT BITS 000119r 1 4D rr rr EOR NEGLOGIC
00011Ar 1 0A ASL ;MULTIPLY BY 2 00011Cr 1 8D rr rr STA STOPBIT+1
00011Br 1 48 PHA ;SAVE THIS VALUE FOR EACH MOD BEING DONE BELOW 00011Fr 1 ;
00011Cr 1 18 CLC 00011Fr 1 20 rr rr JSR XMITBITS ;SEND THE BYTE OUT
00011Dr 1 6D rr rr ADC MOD1+1 ;MODIFY LOW BYTE OF EACH ANNUNCIATOR ADDRESS IN CODE ABOVE 000122r 1 68 PLA ;RESTORE A AND X
000120r 1 8D rr rr STA MOD1+1 000123r 1 8D rr rr STA ASAVE
000123r 1 ; 000126r 1 68 PLA
000123r 1 68 PLA ;GET VALUE TO ADD 000127r 1 AA TAX
000124r 1 48 PHA ;SAVE IT AGAIN 000128r 1 AD rr rr LDA ASAVE
000125r 1 18 CLC 00012Br 1 60 RTS
000126r 1 6D rr rr ADC MOD2+1 00012Cr 1 ;-----------------------------------------------------------------------
000129r 1 8D rr rr STA MOD2+1 00012Cr 1 TESTMSG1:
00012Cr 1 ; 00012Cr 1 A9 07 LDA #7
00012Cr 1 68 PLA ;GET VALUE TO ADD 00012Er 1 85 D7 STA NUMBYTES
00012Dr 1 48 PHA ;SAVE IT AGAIN 000130r 1 A9 rr LDA #<TESTDAT1
00012Er 1 18 CLC 000132r 1 85 CE STA DATAPTR
00012Fr 1 6D rr rr ADC MOD3+1 000134r 1 A9 rr LDA #>TESTDAT1
000132r 1 8D rr rr STA MOD3+1 000136r 1 85 CF STA DATAPTR+1
000135r 1 ; 000138r 1 20 rr rr JSR SENDMSG
000135r 1 68 PLA ;GET VALUE TO ADD 00013Br 1 60 RTS
000136r 1 48 PHA ;SAVE IT AGAIN 00013Cr 1 ;-----------------------------------------------------------------------
000137r 1 18 CLC 00013Cr 1 TESTMSG2:
000138r 1 6D rr rr ADC MOD4+1 00013Cr 1 A9 07 LDA #7
00013Br 1 8D rr rr STA MOD4+1 00013Er 1 85 D7 STA NUMBYTES
00013Er 1 ; 000140r 1 A9 rr LDA #<TESTDAT2
00013Er 1 68 PLA ;GET VALUE TO ADD 000142r 1 85 CE STA DATAPTR
00013Fr 1 48 PHA ;SAVE IT AGAIN 000144r 1 A9 rr LDA #>TESTDAT2
000140r 1 18 CLC 000146r 1 85 CF STA DATAPTR+1
000141r 1 6D rr rr ADC MOD5+1 000148r 1 20 rr rr JSR SENDMSG
000144r 1 8D rr rr STA MOD5+1 00014Br 1 60 RTS
000147r 1 ; 00014Cr 1 ;-----------------------------------------------------------------------
000147r 1 68 PLA ;GET VALUE TO ADD 00014Cr 1 QUIET:
000148r 1 48 PHA ;SAVE IT AGAIN 00014Cr 1 A9 90 LDA #$90
000149r 1 18 CLC 00014Er 1 85 D7 STA NUMBYTES
00014Ar 1 6D rr rr ADC MOD6+1 000150r 1 A9 rr LDA #<QUIETMSG
00014Dr 1 8D rr rr STA MOD6+1 000152r 1 85 CE STA DATAPTR
000150r 1 ; 000154r 1 A9 rr LDA #>QUIETMSG
000150r 1 68 PLA ;GET VALUE TO ADD 000156r 1 85 CF STA DATAPTR+1
000151r 1 48 PHA ;SAVE IT AGAIN 000158r 1 20 rr rr JSR SENDMSG
000152r 1 18 CLC 00015Br 1 60 RTS
000153r 1 6D rr rr ADC MOD7+1 00015Cr 1 ;-----------------------------------------------------------------------
000156r 1 8D rr rr STA MOD7+1 00015Cr 1 CHGANNC:
000159r 1 ; 00015Cr 1 AD rr rr LDA ANNC2USE
000159r 1 68 PLA ;GET VALUE TO ADD 00015Fr 1 29 03 AND #$03 ;KEEP ONLY 2 LEAST SIGNIFICANT BITS
00015Ar 1 48 PHA ;SAVE IT AGAIN 000161r 1 0A ASL ;MULTIPLY BY 2
00015Br 1 18 CLC 000162r 1 48 PHA ;SAVE THIS VALUE FOR EACH MOD BEING DONE BELOW
00015Cr 1 6D rr rr ADC MOD8+1 000163r 1 18 CLC
00015Fr 1 8D rr rr STA MOD8+1 000164r 1 69 58 ADC #<AN0OFF ;MODIFY LOW BYTE OF EACH ANNUNCIATOR ADDRESS IN CODE ABOVE
000162r 1 ; 000166r 1 8D rr rr STA MOD1+1
000162r 1 68 PLA ;GET VALUE TO ADD 000169r 1 ;
000163r 1 48 PHA ;SAVE IT AGAIN 000169r 1 68 PLA ;GET VALUE TO ADD
000164r 1 18 CLC 00016Ar 1 48 PHA ;SAVE IT AGAIN
000165r 1 6D rr rr ADC MOD9+1 00016Br 1 18 CLC
000168r 1 8D rr rr STA MOD9+1 00016Cr 1 69 58 ADC #<AN0OFF
00016Br 1 ; 00016Er 1 8D rr rr STA MOD2+1
00016Br 1 68 PLA ;GET VALUE TO ADD 000171r 1 ;
00016Cr 1 48 PHA ;SAVE IT AGAIN 000171r 1 68 PLA ;GET VALUE TO ADD
00016Dr 1 18 CLC ;ADD AN EXTRA 1 TO GET ANNUNCIATOR ON ADDRESS 000172r 1 48 PHA ;SAVE IT AGAIN
00016Er 1 6D rr rr ADC MOD10+1 000173r 1 18 CLC
000171r 1 8D rr rr STA MOD10+1 000174r 1 69 58 ADC #<AN0OFF
000174r 1 ; 000176r 1 8D rr rr STA MOD3+1
000174r 1 68 PLA ;GET VALUE TO ADD 000179r 1 ;
000175r 1 18 CLC ;ADD AN EXTRA 1 TO GET ANNUNCIATOR ON ADDRESS 000179r 1 68 PLA ;GET VALUE TO ADD
000176r 1 6D rr rr ADC INIT+1 00017Ar 1 48 PHA ;SAVE IT AGAIN
000179r 1 8D rr rr STA INIT+1 00017Br 1 18 CLC
00017Cr 1 60 RTS 00017Cr 1 69 58 ADC #<AN0OFF
00017Dr 1 ;----------------------------------------------------------------------- 00017Er 1 8D rr rr STA MOD4+1
00017Dr 1 CHGLOGIC: 000181r 1 ;
00017Dr 1 AD rr rr LDA LOGICBYT 000181r 1 68 PLA ;GET VALUE TO ADD
000180r 1 10 6B BPL POSITIVE ; HIGH BIT DETERMINES POSITIVE OR NEGATIVE LOGIC 000182r 1 48 PHA ;SAVE IT AGAIN
000182r 1 AD rr rr LDA MOD1+1 000183r 1 18 CLC
000185r 1 29 FE AND #$FE ;SET THE LEAST SIGNIFICANT BIT TO 1 TO GET C059, C05B, C05D, C05F 000184r 1 69 58 ADC #<AN0OFF
000187r 1 09 01 ORA #$01 000186r 1 8D rr rr STA MOD5+1
000189r 1 8D rr rr STA MOD1+1 000189r 1 ;
00018Cr 1 AD rr rr LDA MOD2+1 000189r 1 68 PLA ;GET VALUE TO ADD
00018Fr 1 29 FE AND #$FE 00018Ar 1 48 PHA ;SAVE IT AGAIN
000191r 1 09 01 ORA #$01 00018Br 1 18 CLC
000193r 1 8D rr rr STA MOD2+1 00018Cr 1 69 58 ADC #<AN0OFF
000196r 1 AD rr rr LDA MOD3+1 00018Er 1 8D rr rr STA MOD6+1
000199r 1 29 FE AND #$FE 000191r 1 ;
00019Br 1 09 01 ORA #$01 000191r 1 68 PLA ;GET VALUE TO ADD
00019Dr 1 8D rr rr STA MOD3+1 000192r 1 48 PHA ;SAVE IT AGAIN
0001A0r 1 AD rr rr LDA MOD4+1 000193r 1 18 CLC
0001A3r 1 29 FE AND #$FE 000194r 1 69 58 ADC #<AN0OFF
0001A5r 1 09 01 ORA #$01 000196r 1 8D rr rr STA MOD7+1
0001A7r 1 8D rr rr STA MOD4+1 000199r 1 ;
0001AAr 1 AD rr rr LDA MOD5+1 000199r 1 68 PLA ;GET VALUE TO ADD
0001ADr 1 29 FE AND #$FE 00019Ar 1 48 PHA ;SAVE IT AGAIN
0001AFr 1 09 01 ORA #$01 00019Br 1 18 CLC
0001B1r 1 8D rr rr STA MOD5+1 00019Cr 1 69 58 ADC #<AN0OFF
0001B4r 1 AD rr rr LDA MOD6+1 00019Er 1 8D rr rr STA MOD8+1
0001B7r 1 29 FE AND #$FE 0001A1r 1 ;
0001B9r 1 09 01 ORA #$01 0001A1r 1 68 PLA ;GET VALUE TO ADD
0001BBr 1 8D rr rr STA MOD6+1 0001A2r 1 48 PHA ;SAVE IT AGAIN
0001BEr 1 AD rr rr LDA MOD7+1 0001A3r 1 18 CLC
0001C1r 1 29 FE AND #$FE 0001A4r 1 69 58 ADC #<AN0OFF ;START BIT IS ALWAYS LOW
0001C3r 1 09 01 ORA #$01 0001A6r 1 8D rr rr STA MOD9+1
0001C5r 1 8D rr rr STA MOD7+1 0001A9r 1 ;
0001C8r 1 AD rr rr LDA MOD8+1 0001A9r 1 68 PLA ;GET VALUE TO ADD
0001CBr 1 29 FE AND #$FE 0001AAr 1 48 PHA ;SAVE IT AGAIN
0001CDr 1 09 01 ORA #$01 0001ABr 1 18 CLC
0001CFr 1 8D rr rr STA MOD8+1 0001ACr 1 69 59 ADC #<AN0ON ;STOP BIT IS ALWAYS HIGH
0001D2r 1 AD rr rr LDA MOD9+1 0001AEr 1 8D rr rr STA MOD10+1
0001D5r 1 29 FE AND #$FE 0001B1r 1 ;
0001D7r 1 09 01 ORA #$01 0001B1r 1 68 PLA ;GET VALUE TO ADD
0001D9r 1 8D rr rr STA MOD9+1 0001B2r 1 18 CLC
0001DCr 1 AD rr rr LDA MOD10+1 0001B3r 1 69 59 ADC #<AN0ON ;INITIALIZE MIDI BY SENDING HIGH "CARRIER" BIT
0001DFr 1 29 FE AND #$FE ;ZERO THE LEAST SIGNIFICANT BIT TO GET C058, C05A, C05C, C05E 0001B5r 1 8D rr rr STA OK2INIT+1
0001E1r 1 8D rr rr STA MOD10+1 0001B8r 1 4C rr rr JMP INIT ;TURN ON THE NEWLY SELECTED ANNUNCIATOR
0001E4r 1 AD rr rr LDA INIT+1 0001BBr 1 ;-----------------------------------------------------------------------
0001E7r 1 29 FE AND #$FE 0001BBr 1 TESTDAT1:
0001E9r 1 8D rr rr STA INIT+1 0001BBr 1 90 3C 40 40 .byte $90,$3C,$40,$40,$40,$43,$40
0001ECr 1 60 RTS 0001BFr 1 40 43 40
0001EDr 1 POSITIVE: 0001C2r 1 TESTDAT2:
0001EDr 1 AD rr rr LDA MOD1+1 0001C2r 1 90 3C 00 40 .byte $90,$3C,$00,$40,$00,$43,$00
0001F0r 1 29 FE AND #$FE ;ZERO THE LEAST SIGNIFICANT BIT TO GET C058, C05A, C05C, C05E 0001C6r 1 00 43 00
0001F2r 1 8D rr rr STA MOD1+1 0001C9r 1 QUIETMSG:
0001F5r 1 AD rr rr LDA MOD2+1 0001C9r 1 B0 78 00 B0 .byte $B0,$78,$00,$B0,$79,$00,$B0,$7B,$00
0001F8r 1 29 FE AND #$FE 0001CDr 1 79 00 B0 7B
0001FAr 1 8D rr rr STA MOD2+1 0001D1r 1 00
0001FDr 1 AD rr rr LDA MOD3+1 0001D2r 1 B1 78 00 B1 .byte $B1,$78,$00,$B1,$79,$00,$B1,$7B,$00
000200r 1 29 FE AND #$FE 0001D6r 1 79 00 B1 7B
000202r 1 8D rr rr STA MOD3+1 0001DAr 1 00
000205r 1 AD rr rr LDA MOD4+1 0001DBr 1 B2 78 00 B2 .byte $B2,$78,$00,$B2,$79,$00,$B2,$7B,$00
000208r 1 29 FE AND #$FE 0001DFr 1 79 00 B2 7B
00020Ar 1 8D rr rr STA MOD4+1 0001E3r 1 00
00020Dr 1 AD rr rr LDA MOD5+1 0001E4r 1 B3 78 00 B3 .byte $B3,$78,$00,$B3,$79,$00,$B3,$7B,$00
000210r 1 29 FE AND #$FE 0001E8r 1 79 00 B3 7B
000212r 1 8D rr rr STA MOD5+1 0001ECr 1 00
000215r 1 AD rr rr LDA MOD6+1 0001EDr 1 B4 78 00 B4 .byte $B4,$78,$00,$B4,$79,$00,$B4,$7B,$00
000218r 1 29 FE AND #$FE 0001F1r 1 79 00 B4 7B
00021Ar 1 8D rr rr STA MOD6+1 0001F5r 1 00
00021Dr 1 AD rr rr LDA MOD7+1 0001F6r 1 B5 78 00 B5 .byte $B5,$78,$00,$B5,$79,$00,$B5,$7B,$00
000220r 1 29 FE AND #$FE 0001FAr 1 79 00 B5 7B
000222r 1 8D rr rr STA MOD7+1 0001FEr 1 00
000225r 1 AD rr rr LDA MOD8+1 0001FFr 1 B6 78 00 B6 .byte $B6,$78,$00,$B6,$79,$00,$B6,$7B,$00
000228r 1 29 FE AND #$FE 000203r 1 79 00 B6 7B
00022Ar 1 8D rr rr STA MOD8+1 000207r 1 00
00022Dr 1 AD rr rr LDA MOD9+1 000208r 1 B7 78 00 B7 .byte $B7,$78,$00,$B7,$79,$00,$B7,$7B,$00
000230r 1 29 FE AND #$FE 00020Cr 1 79 00 B7 7B
000232r 1 8D rr rr STA MOD9+1 000210r 1 00
000235r 1 AD rr rr LDA MOD10+1 000211r 1 B8 78 00 B8 .byte $B8,$78,$00,$B8,$79,$00,$B8,$7B,$00
000238r 1 29 FE AND #$FE 000215r 1 79 00 B8 7B
00023Ar 1 09 01 ORA #$01 ;SET THE LEAST SIGNIFICANT BIT TO 1 TO GET C059, C05B, C05D, C05F 000219r 1 00
00023Cr 1 8D rr rr STA MOD10+1 00021Ar 1 B9 78 00 B9 .byte $B9,$78,$00,$B9,$79,$00,$B9,$7B,$00
00023Fr 1 AD rr rr LDA INIT+1 00021Er 1 79 00 B9 7B
000242r 1 29 FE AND #$FE 000222r 1 00
000244r 1 09 01 ORA #$01 000223r 1 BA 78 00 BA .byte $BA,$78,$00,$BA,$79,$00,$BA,$7B,$00
000246r 1 8D rr rr STA INIT+1 000227r 1 79 00 BA 7B
000249r 1 60 RTS 00022Br 1 00
00024Ar 1 ;----------------------------------------------------------------------- 00022Cr 1 BB 78 00 BB .byte $BB,$78,$00,$BB,$79,$00,$BB,$7B,$00
00024Ar 1 TESTDAT1: 000230r 1 79 00 BB 7B
00024Ar 1 90 3C 40 40 .byte $90,$3C,$40,$40,$40,$43,$40 000234r 1 00
00024Er 1 40 43 40 000235r 1 BC 78 00 BC .byte $BC,$78,$00,$BC,$79,$00,$BC,$7B,$00
000251r 1 TESTDAT2: 000239r 1 79 00 BC 7B
000251r 1 90 3C 00 40 .byte $90,$3C,$00,$40,$00,$43,$00 00023Dr 1 00
000255r 1 00 43 00 00023Er 1 BD 78 00 BD .byte $BD,$78,$00,$BD,$79,$00,$BD,$7B,$00
000258r 1 QUIETMSG: 000242r 1 79 00 BD 7B
000258r 1 B0 78 00 B0 .byte $B0,$78,$00,$B0,$79,$00,$B0,$7B,$00 000246r 1 00
00025Cr 1 79 00 B0 7B 000247r 1 BE 78 00 BE .byte $BE,$78,$00,$BE,$79,$00,$BE,$7B,$00
000260r 1 00 00024Br 1 79 00 BE 7B
000261r 1 B1 78 00 B1 .byte $B1,$78,$00,$B1,$79,$00,$B1,$7B,$00 00024Fr 1 00
000265r 1 79 00 B1 7B 000250r 1 BF 78 00 BF .byte $BF,$78,$00,$BF,$79,$00,$BF,$7B,$00
000269r 1 00 000254r 1 79 00 BF 7B
00026Ar 1 B2 78 00 B2 .byte $B2,$78,$00,$B2,$79,$00,$B2,$7B,$00 000258r 1 00
00026Er 1 79 00 B2 7B 000259r 1 ;----------------
000272r 1 00 000259r 1 ; END OF PROGRAM
000273r 1 B3 78 00 B3 .byte $B3,$78,$00,$B3,$79,$00,$B3,$7B,$00 000259r 1 ;----------------
000277r 1 79 00 B3 7B 000259r 1 .endproc
00027Br 1 00 000259r 1
00027Cr 1 B4 78 00 B4 .byte $B4,$78,$00,$B4,$79,$00,$B4,$7B,$00
000280r 1 79 00 B4 7B
000284r 1 00
000285r 1 B5 78 00 B5 .byte $B5,$78,$00,$B5,$79,$00,$B5,$7B,$00
000289r 1 79 00 B5 7B
00028Dr 1 00
00028Er 1 B6 78 00 B6 .byte $B6,$78,$00,$B6,$79,$00,$B6,$7B,$00
000292r 1 79 00 B6 7B
000296r 1 00
000297r 1 B7 78 00 B7 .byte $B7,$78,$00,$B7,$79,$00,$B7,$7B,$00
00029Br 1 79 00 B7 7B
00029Fr 1 00
0002A0r 1 B8 78 00 B8 .byte $B8,$78,$00,$B8,$79,$00,$B8,$7B,$00
0002A4r 1 79 00 B8 7B
0002A8r 1 00
0002A9r 1 B9 78 00 B9 .byte $B9,$78,$00,$B9,$79,$00,$B9,$7B,$00
0002ADr 1 79 00 B9 7B
0002B1r 1 00
0002B2r 1 BA 78 00 BA .byte $BA,$78,$00,$BA,$79,$00,$BA,$7B,$00
0002B6r 1 79 00 BA 7B
0002BAr 1 00
0002BBr 1 BB 78 00 BB .byte $BB,$78,$00,$BB,$79,$00,$BB,$7B,$00
0002BFr 1 79 00 BB 7B
0002C3r 1 00
0002C4r 1 BC 78 00 BC .byte $BC,$78,$00,$BC,$79,$00,$BC,$7B,$00
0002C8r 1 79 00 BC 7B
0002CCr 1 00
0002CDr 1 BD 78 00 BD .byte $BD,$78,$00,$BD,$79,$00,$BD,$7B,$00
0002D1r 1 79 00 BD 7B
0002D5r 1 00
0002D6r 1 BE 78 00 BE .byte $BE,$78,$00,$BE,$79,$00,$BE,$7B,$00
0002DAr 1 79 00 BE 7B
0002DEr 1 00
0002DFr 1 BF 78 00 BF .byte $BF,$78,$00,$BF,$79,$00,$BF,$7B,$00
0002E3r 1 79 00 BF 7B
0002E7r 1 00
0002E8r 1 ;----------------
0002E8r 1 ; END OF PROGRAM
0002E8r 1 ;----------------
0002E8r 1 .endproc
0002E8r 1

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@ -1,18 +1,18 @@
;------------------------------------------------------------------------- ;-------------------------------------------------------------------------
; ; APPLE ][ SERIES ANNUNCIATOR MIDI DRIVER
; Copyright © 1998-2018 Eric Rangell. MIT License.
;-------------------------------------------------------------------------;
; main.s ; main.s
; A2NoSlotMidi ; A2NoSlotMidi
; ; Created by Eric Rangell on 17 JULY 2018.
; Created by Eric Rangell on 7/17/18. ; VERSION 1.0.1 released 26 JULY 2018
;------------------------------------------------------------------------- ; VERSION 1.0.2 released 29 JULY 2018
; APPLE MIDI DRIVER THROUGH ANNUNCIATOR 0
; Copyright © 1998-2018 Eric Rangell. MIT License.
;------------------------------------------------------------------------- ;-------------------------------------------------------------------------
; THIS DRIVER IMPLEMENTS ASYNCHRONOUS SERIAL DATA TRANSMISSION ; THIS DRIVER IMPLEMENTS ASYNCHRONOUS SERIAL DATA TRANSMISSION
; THROUGH THE APPLE ANNUNCIATOR 0 OUTPUT PORT OF THE GAME CONNECTOR ; THROUGH AN APPLE ][ ANNUNCIATOR OUTPUT PORT OF THE GAME CONNECTOR
; USING 32 CYCLES PER BIT TO ACHIEVE A 31.25K MIDI BAUD RATE. ; USING 32 CYCLES PER BIT TO ACHIEVE A 31.25K MIDI BAUD RATE.
; ;
; //GS USERS NEED TO RUN THIS PROGRAM IN NORMAL SPEED MODE ; APPLE //GS USERS NEED TO RUN THIS PROGRAM IN NORMAL SPEED MODE (1MHZ)
; ;
; THE OUTPUT IS INITIALIZED TO A HIGH LOGIC VOLTAGE. WHEN IT GOES ; THE OUTPUT IS INITIALIZED TO A HIGH LOGIC VOLTAGE. WHEN IT GOES
; LOW FOR 32 MICROSECONDS, THAT INDICATES THE START BIT OF A MIDI BYTE. ; LOW FOR 32 MICROSECONDS, THAT INDICATES THE START BIT OF A MIDI BYTE.
@ -34,15 +34,13 @@
; $900E = SEND A TEST MESSAGE - C MAJOR CHORD NOTE ONS ; $900E = SEND A TEST MESSAGE - C MAJOR CHORD NOTE ONS
; $9011 = SEND A TEST MESSAGE - C MAJOR CHORD NOTE OFFS ; $9011 = SEND A TEST MESSAGE - C MAJOR CHORD NOTE OFFS
; ;
; IF THE FOLLOWING ROUTINES ARE USED, THEY SHOULD BE CALLED IMMEDIATELY AFTER BLOADING ; IF THE FOLLOWING ROUTINE IS USED, IT SHOULD BE CALLED IMMEDIATELY AFTER BLOADING
; THE BINARY, THEN THE INITIALIZE ROUTINE SHOULD BE CALLED AT $9000. ; THE BINARY. AT THE END, IT WILL CALL THE INIT ROUTINE FOR THE SELECTED ANNUNCIATOR.
; ;
; $9014 = CHANGE ANNUNCIATOR - MODIFIES CODE TO USE DIFFERENT ANNUNCIATOR ; $9014 = CHANGE ANNUNCIATOR - MODIFIES CODE TO USE DIFFERENT ANNUNCIATOR
; $9017 = ANNUNCIATOR TO USE: 0-3 - only looks at least significant 2 bits ; $9017 = ANNUNCIATOR TO USE: 0-3 - only looks at least significant 2 bits
; DO NOT RUN MORE THAN ONCE - BLOAD THE PROGRAM IF NEED TO CHANGE AGAIN.
; ;
; $9018 = CHANGE LOGIC (POSITIVE OR NEGATIVE LOGIC FOR WIRING) ; $9018 = SET TO 1 TO USE NEGATIVE LOGIC (ONLY ONE INVERTER IN THE MIDI CIRCUIT)
; $901B = SET BIT 7 TO USE NEGATIVE LOGIC (ONLY ONE INVERTER IN THE MIDI CIRCUIT)
;------------------------------------------------------------------------- ;-------------------------------------------------------------------------
; Enhancements for 2018: ; Enhancements for 2018:
; 1. Disable interrupts during critical timing sections, preserve interrupt status ; 1. Disable interrupts during critical timing sections, preserve interrupt status
@ -79,22 +77,28 @@ TEST1:
JMP TESTMSG1 ;SEND TEST MESSAGE 1 - C MAJOR CHORD ON JMP TESTMSG1 ;SEND TEST MESSAGE 1 - C MAJOR CHORD ON
TEST2: TEST2:
JMP TESTMSG2 ;SEND TEST MESSAGE 2 - C MAJOR CHORD OFF JMP TESTMSG2 ;SEND TEST MESSAGE 2 - C MAJOR CHORD OFF
;
CHNGANNC: CHNGANNC:
JMP CHGANNC ;RECONFIGURE PROGRAM TO USE ANNUNCIATOR NUMBER IN NEXT BYTE JMP CHGANNC ;RECONFIGURE PROGRAM TO USE ANNUNCIATOR NUMBER IN NEXT BYTE
ANNC2USE: ANNC2USE:
.byte $00 ;ONLY LEAST SIGNIFICANT 2 BITS ARE USED .byte $00 ;ONLY LEAST SIGNIFICANT 2 BITS ARE USED
CHNGLOGC: NEGLOGIC:
JMP CHGLOGIC ;RECONFIGURE PROGRAM TO USE POSITIVE OR NEGATIVE LOGIC .byte $00 ;SET TO 1 TO USE NEGATIVE LOGIC, OTHERWISE LEAVE 0 FOR POSITIVE LOGIC (DEFAULT). DO NOT USE ANY OTHER VALUES!
LOGICBYT:
.byte $00 ;SET HIGH BIT TO 1 TO USE NEGATIVE LOGIC, ELSE POSITIVE LOGIC (DEFAULT)
;--------------------------------------------------------------------------- ;---------------------------------------------------------------------------
SAVENBYT: .byte $00 ;SAVE AREA FOR NUMBYTES MAJVER: .byte $01 ;BYTES USED TO TRACK VERSION OF RELEASED EXECUTABLES
TEMPA: .byte $00 MINVER: .byte $02 ;NIBBLES ARE USED FOR THE VERSION NUMBER ($0102 = VERSION 1.0.2)
TEMPX: .byte $00 ASAVE: .byte $00 ;SAVE AREA FOR ACCUMULATOR
;ANNPAIR: .byte $00 ; ANNUNCIATOR NUMBER TIMES 2 (1=C05A, 2=C05C, 3=C05E) SAVENBYT: .byte $00 ;SAVE AREA FOR NUMBYTES
;--------------------------------------------------------------------------- ;---------------------------------------------------------------------------
INIT: BIT AN0ON INIT: LDA NEGLOGIC
AND #$FE
BEQ OK2INIT
BRK ;ABEND IF NEGLOGIC NOT 0 OR 1
OK2INIT:
LDA #<AN0ON ;MODIFY BIT INSTRUCTION BELOW - FLIP LEAST SIGNIFICANT BIT IF NEGATIVE LOGIC
EOR NEGLOGIC
STA INITANNC+1
INITANNC:
BIT AN0ON
RTS RTS
;--------------------------------------------------------------------------- ;---------------------------------------------------------------------------
; CRITICAL TIMING SECTION BELOW MUST NOT CROSS A PAGE BOUNDARY ; CRITICAL TIMING SECTION BELOW MUST NOT CROSS A PAGE BOUNDARY
@ -102,7 +106,8 @@ INIT: BIT AN0ON
XMITBITS: XMITBITS:
PHP ;SAVE CURRENT INTERRUPT STATUS PHP ;SAVE CURRENT INTERRUPT STATUS
SEI ;MASK INTERRUPTS DURING CRITICAL TIMING SECTION SEI ;MASK INTERRUPTS DURING CRITICAL TIMING SECTION
MOD9: BIT AN0OFF ;4 CYCLES - TRANSMIT START BIT - ALWAYS LOW STRTBIT:
BIT AN0OFF ;4 CYCLES - TRANSMIT START BIT - ALWAYS LOW
JSR DELAY22 ;6+22 JSR DELAY22 ;6+22
BIT0: BIT0:
BIT AN0OFF ;4 BIT AN0OFF ;4
@ -128,7 +133,8 @@ BIT6:
BIT7: BIT7:
BIT AN0OFF ;4 BIT AN0OFF ;4
JSR DELAY22 ;6+22 JSR DELAY22 ;6+22
MOD10: BIT AN0ON ;4 ;TRANSMIT STOP BIT - ALWAYS HIGH STOPBIT:
BIT AN0ON ;4 ;TRANSMIT STOP BIT - ALWAYS HIGH
JSR DELAY22 ;6+22 JSR DELAY22 ;6+22
PLP ;4 ;RESTORE SAVED INTERRUPT STATUS PLP ;4 ;RESTORE SAVED INTERRUPT STATUS
RTS ;TOTAL TIME INTERRUPTS DISABLED: 324 MICROSECONDS RTS ;TOTAL TIME INTERRUPTS DISABLED: 324 MICROSECONDS
@ -160,13 +166,23 @@ XMITLOOP:
RTS RTS
;--------------------------------------------------------------------------- ;---------------------------------------------------------------------------
XMITONE: XMITONE:
STA TEMPA ;SAVE A AND X REGISTERS STA ASAVE ;ABEND IF NEGLOGIC NOT 0 OR 1
STX TEMPX LDA NEGLOGIC
AND #$FE
BEQ OK2XMIT
LDA ASAVE
BRK
OK2XMIT:
TXA ;SAVE X AND A ON STACK IN CASE THIS CODE GETS INTERRUPTED
PHA
LDA ASAVE
PHA
; ;
ASL A ;SHIFT BIT INTO CARRY ASL A ;SHIFT BIT INTO CARRY
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD1: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD1: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT7+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT7+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -174,6 +190,7 @@ MOD1: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD2: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD2: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT6+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT6+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -181,6 +198,7 @@ MOD2: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD3: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD3: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT5+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT5+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -188,6 +206,7 @@ MOD3: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD4: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD4: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT4+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT4+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -195,6 +214,7 @@ MOD4: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD5: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD5: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT3+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT3+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -202,6 +222,7 @@ MOD5: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD6: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD6: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT2+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT2+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -209,6 +230,7 @@ MOD6: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD7: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD7: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT1+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT1+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
; ;
@ -216,12 +238,24 @@ MOD7: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
TAX ;SAVE CURRENT IMAGE OF DATA BYTE TAX ;SAVE CURRENT IMAGE OF DATA BYTE
LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD LDA #$00 ;ZERO OUT ACCUMULATOR FOR ADD
MOD8: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS MOD8: ADC #<AN0OFF ;ADD CARRY TO ANNUNCIATOR ADDRESS
EOR NEGLOGIC ;FLIP ADDRESSES IF USING NEGATIVE LOGIC
STA BIT0+1 ;MODIFY THE XMITBITS SUBROUTINE STA BIT0+1 ;MODIFY THE XMITBITS SUBROUTINE
TXA ;RESTORE ACCUMULATOR TXA ;RESTORE ACCUMULATOR
;
MOD9: LDA #<AN0OFF ;FLIP ANNUNCIATOR ADDRESSES OF START AND STOP BITS IF USING NEGATIVE LOGIC
EOR NEGLOGIC
STA STRTBIT+1
;
MOD10: LDA #<AN0ON
EOR NEGLOGIC
STA STOPBIT+1
; ;
JSR XMITBITS ;SEND THE BYTE OUT JSR XMITBITS ;SEND THE BYTE OUT
LDX TEMPX PLA ;RESTORE A AND X
LDA TEMPA ;RESTORE X AND A STA ASAVE
PLA
TAX
LDA ASAVE
RTS RTS
;----------------------------------------------------------------------- ;-----------------------------------------------------------------------
TESTMSG1: TESTMSG1:
@ -260,152 +294,68 @@ CHGANNC:
ASL ;MULTIPLY BY 2 ASL ;MULTIPLY BY 2
PHA ;SAVE THIS VALUE FOR EACH MOD BEING DONE BELOW PHA ;SAVE THIS VALUE FOR EACH MOD BEING DONE BELOW
CLC CLC
ADC MOD1+1 ;MODIFY LOW BYTE OF EACH ANNUNCIATOR ADDRESS IN CODE ABOVE ADC #<AN0OFF ;MODIFY LOW BYTE OF EACH ANNUNCIATOR ADDRESS IN CODE ABOVE
STA MOD1+1 STA MOD1+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD2+1 ADC #<AN0OFF
STA MOD2+1 STA MOD2+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD3+1 ADC #<AN0OFF
STA MOD3+1 STA MOD3+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD4+1 ADC #<AN0OFF
STA MOD4+1 STA MOD4+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD5+1 ADC #<AN0OFF
STA MOD5+1 STA MOD5+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD6+1 ADC #<AN0OFF
STA MOD6+1 STA MOD6+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD7+1 ADC #<AN0OFF
STA MOD7+1 STA MOD7+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD8+1 ADC #<AN0OFF
STA MOD8+1 STA MOD8+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC CLC
ADC MOD9+1 ADC #<AN0OFF ;START BIT IS ALWAYS LOW
STA MOD9+1 STA MOD9+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
PHA ;SAVE IT AGAIN PHA ;SAVE IT AGAIN
CLC ;ADD AN EXTRA 1 TO GET ANNUNCIATOR ON ADDRESS CLC
ADC MOD10+1 ADC #<AN0ON ;STOP BIT IS ALWAYS HIGH
STA MOD10+1 STA MOD10+1
; ;
PLA ;GET VALUE TO ADD PLA ;GET VALUE TO ADD
CLC ;ADD AN EXTRA 1 TO GET ANNUNCIATOR ON ADDRESS CLC
ADC INIT+1 ADC #<AN0ON ;INITIALIZE MIDI BY SENDING HIGH "CARRIER" BIT
STA INIT+1 STA OK2INIT+1
RTS JMP INIT ;TURN ON THE NEWLY SELECTED ANNUNCIATOR
;-----------------------------------------------------------------------
CHGLOGIC:
LDA LOGICBYT
BPL POSITIVE ; HIGH BIT DETERMINES POSITIVE OR NEGATIVE LOGIC
LDA MOD1+1
AND #$FE ;SET THE LEAST SIGNIFICANT BIT TO 1 TO GET C059, C05B, C05D, C05F
ORA #$01
STA MOD1+1
LDA MOD2+1
AND #$FE
ORA #$01
STA MOD2+1
LDA MOD3+1
AND #$FE
ORA #$01
STA MOD3+1
LDA MOD4+1
AND #$FE
ORA #$01
STA MOD4+1
LDA MOD5+1
AND #$FE
ORA #$01
STA MOD5+1
LDA MOD6+1
AND #$FE
ORA #$01
STA MOD6+1
LDA MOD7+1
AND #$FE
ORA #$01
STA MOD7+1
LDA MOD8+1
AND #$FE
ORA #$01
STA MOD8+1
LDA MOD9+1
AND #$FE
ORA #$01
STA MOD9+1
LDA MOD10+1
AND #$FE ;ZERO THE LEAST SIGNIFICANT BIT TO GET C058, C05A, C05C, C05E
STA MOD10+1
LDA INIT+1
AND #$FE
STA INIT+1
RTS
POSITIVE:
LDA MOD1+1
AND #$FE ;ZERO THE LEAST SIGNIFICANT BIT TO GET C058, C05A, C05C, C05E
STA MOD1+1
LDA MOD2+1
AND #$FE
STA MOD2+1
LDA MOD3+1
AND #$FE
STA MOD3+1
LDA MOD4+1
AND #$FE
STA MOD4+1
LDA MOD5+1
AND #$FE
STA MOD5+1
LDA MOD6+1
AND #$FE
STA MOD6+1
LDA MOD7+1
AND #$FE
STA MOD7+1
LDA MOD8+1
AND #$FE
STA MOD8+1
LDA MOD9+1
AND #$FE
STA MOD9+1
LDA MOD10+1
AND #$FE
ORA #$01 ;SET THE LEAST SIGNIFICANT BIT TO 1 TO GET C059, C05B, C05D, C05F
STA MOD10+1
LDA INIT+1
AND #$FE
ORA #$01
STA INIT+1
RTS
;----------------------------------------------------------------------- ;-----------------------------------------------------------------------
TESTDAT1: TESTDAT1:
.byte $90,$3C,$40,$40,$40,$43,$40 .byte $90,$3C,$40,$40,$40,$43,$40

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