More play-around
This commit is contained in:
Lucas Scharenbroich
parent
30cb545e5e
commit
5e757f3cc5
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@ -0,0 +1,32 @@
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;
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; Dereference a handle that is on the top of the stack
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;
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_Deref MAC
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phb ; save caller's data bank register
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pha ; push high word of handle on stack
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plb ; sets B to the bank byte of the pointer
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lda |$0002,x ; load the high word of the master pointer
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pha ; and save it on the stack
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lda |$0000,x ; load the low word of the master pointer
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tax ; and return it in X
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pla ; restore the high word in A
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plb ; pull the handle's high word high byte off the
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; stack
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plb ; restore the caller's data bank register
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<<<
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****************************************
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* Basic Error Macro *
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****************************************
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_Err mac
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bcc NoErr
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do ]0 ; (DO if true)
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jsr PgmDeath ; this is conditionally compiled if
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str ]1 ; we pass in an error statement
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else ; (ELSE)
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jmp PgmDeath0 ; we just call the simpler error handler
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fin ; (FIN)
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NoErr eom
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@ -4,7 +4,7 @@
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"description": "A game engine for the Applie IIgs written in 65816 assembly language",
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"main": "index.js",
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"config": {
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"merlin32": "C:\\Programs\\IIgsXDev\\bin\\Merlin32.exe",
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"merlin32": "C:\\Programs\\IIgsXDev\\bin\\Merlin32-1.1.9.exe",
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"cadius": "C:\\Programs\\IIgsXDev\\bin\\Cadius.exe",
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"gsport": "C:\\Programs\\gsport\\gsport_0.31\\GSPort.exe",
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"macros": "C:\\Programs\\BrutalDeluxe\\Merlin32\\Library"
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@ -0,0 +1,132 @@
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; Template and utility function for a single line of the GTE blitter. See the other GTE.Line.s file
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; for details on the general structure of this template.
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;
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; This is a variant that places the snippets inline within the code field. We give up
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; the speed of three-byte code sequences, but eliminate the double JMP and simplify the
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; handling of odd-alignment.
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;
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; This mode is best when the scenes are always complicated.
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;
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; Odd:
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MX %00
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entry_1 ldx #0000 ; patch with the address of the direct page tiles. Fixed.
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entry_2 ldy #0000 ; patch with the address of the line in the second layer. Set when BG1 scroll position changes.
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entry_3 lda #0000 ; patch with the address of the right edge of the line. Set when origin position changes.
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tcs
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entry_jmp jmp $2000 ; always jump into the same location. For odd line, the end
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; ; of the snippet will be patched to handle the right-edge case.
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right_odd sep #$20 ; enter here from the code field
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pha
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rep #$20
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jmp $2000 ; jump back into the code field
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jmp odd_exit
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jmp even_exit
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; Code field, each block is N bytes
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loop
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lda #1234 ; PEA $0000 becomes LDA #0000 / BRA / PHA
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bra l0
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jmp exit ; 'normal' exit point
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jmp left_odd ; handler for pushing a single byte to the left edge
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jmp right_odd ; handler for pushing a single byte to the right edge
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l0 pha ; always end with a PHA, this is the patch point
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lda (00),y ;
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and #MASK
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ora #data
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bra l1
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jmp exit ; 'normal' exit point
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jmp left_odd ; handler for pushing a single byte to the left edge
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jmp right_odd ; handler for pushing a single byte to the right edge
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l0 pha ; always end with a PHA, this is the patch point
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...
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jmp loop
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jmp even_exit
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left_odd sep #$20
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xba
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pha
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rep #$20
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exit jmp $0000 ; Jump to the next line. We set up the blitter to do 8 or 16 lines at a time
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; ; before restoring the machine state and re-enabling interrupts. This makes
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; ; the blitter interrupt friendly to allow things like music player to continue
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; ; to function.
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;
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; ; When it's time to exit, the next_entry address points to an alternate exit point
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; These are the special code snippets -- there is a 1:1 relationship between each snippet space
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; and a 3-byte entry in the code field. Thus, each snippet has a hard-coded JMP to return to
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; the next code field location
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;
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; The snippet is required to handle the odd-alignment in-line; there is no facility for
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; patching or intercepting these values due to their complexity. The only requirements
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; are:
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;
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; 1. Carry Clear -> 16-bit write and return to the next code field operand
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; 2. Carry Set
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; a. Overflow set -> Low 8-bit write and return to the next code field operand
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; b. Overflow clear -> High 8-bit write and exit the line
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; c. Always clear the Carry flags. It's actually OK to leave the overflow bit in
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; its passed state, because having the carry bit clear prevent evaluation of
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; the V bit.
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;
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; Snippet Samples:
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;
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; Standard Two-level Mix (27 bytes)
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;
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; Optimal = 18 cycles (LDA/AND/ORA/PHA)
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; 16-bit write = 23 cycles
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; 8-bit low = 35 cycles
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; 8-bit high = 36 cycles
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;
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; start lda (00),y
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; and #MASK
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; ora #DATA ; 14 cycles to load the data
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; bcs 8_bit
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; pha
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; out jmp next ; Fast-path completes in 9 additional cycles
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; 8_bit sep #$30 ; Switch to 8 bit mode
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; bvs r_edge ; Need to switch if doing the left edge
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; xba
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; r_edge pha ; push the value
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; rep #$31 ; put back into 16-bit mode and clear the carry bit, as required
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; bvs out ; jmp out and continue if this is the right edge
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; jmp even_exit ; exit the line otherwise
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; ;
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; ; The slow paths have 21 and 22 cycles for the right and left
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; ; odd-aligned cases respectively.
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snippets ds 32*82
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@ -221,3 +221,4 @@ snippets ds 32*82
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120
test/App.Init.s
120
test/App.Init.s
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@ -14,49 +14,93 @@
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; - 1 page for pointer to the second background
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; - 8 pages for the dynamic tiles
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mx %00
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mx %00
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MemInit PushLong #0 ; space for result
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PushLong #$008000 ; size (32k)
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PushWord UserId
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PushWord #%11000000_00010111 ; Fixed location
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PushLong #$002000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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sta Buff00+2
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stx Buff00
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MemInit PushLong #0 ; space for result
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PushLong #$008000 ; size (32k)
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PushWord UserId
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PushWord #%11000000_00010111 ; Fixed location
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PushLong #$002000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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stx Buff00
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sta Buff00+2
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PushLong #0 ; space for result
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PushLong #$008000 ; size (32k)
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PushWord UserId
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PushWord #%11000000_00010111 ; Fixed location
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PushLong #$012000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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sta Buff01+2
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stx Buff01
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PushLong #0 ; space for result
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PushLong #$008000 ; size (32k)
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PushWord UserId
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PushWord #%11000000_00010111 ; Fixed location
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PushLong #$012000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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stx Buff01
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sta Buff01+2
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PushLong #0 ; space for result
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PushLong #$000A00 ; size (10 pages)
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PushWord UserId
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PushWord #%11000000_00010101 ; Page-aligned, fixed bank
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PushLong #$000000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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stx ZeroPage
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sta ZeroPage+2
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PushLong #0
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PushLong #$10000
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PushWord UserId
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PushWord #%11000000_00011100
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PushLong #0
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_NewHandle
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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stx BlitBuff
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sta BlitBuff+2
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rts
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Buff00 ds 4
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Buff01 ds 4
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ZeroPage ds 4
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BlitBuff ds 4
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; Bank allocator (for one full, fixed bank of memory. Can be immediately deferenced)
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AllocOneBank PushLong #0
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PushLong #$10000
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PushWord UserId
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PushWord #%11000000_00011100
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PushLong #0
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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xba ; swap accumulator bytes to XX00
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sta :bank+2 ; store as bank for next op (overwrite $XX00)
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:bank ldal $000001,X ; recover the bank address in A=XX/00
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rts
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; Set up the interrupts
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;
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; oldOneVect = GetVector( oneSecHnd );
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; SetVector( oneSecHnd, (Pointer) ONEHANDLER );
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; IntSource( oSecEnable );
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; SetHeartBeat( VBLTASK );
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IntInit rts
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; IntSource( oSecDisable ); /* disable one second interrupts */
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; SetVector( oneSecHnd, oldOneVect ); /* reset to the old handler */
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ShutDown rts
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PushLong #0 ; space for result
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PushLong #$000A00 ; size (10 pages)
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PushWord UserId
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PushWord #%11000000_00010101 ; Page-aligned, fixed bank
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PushLong #$000000
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_NewHandle ; returns LONG Handle on stack
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plx ; base address of the new handle
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pla ; high address 00XX of the new handle (bank)
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_Deref
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sta ZeroPage+2
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stx ZeroPage
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rts
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Buff00 ds 4
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Buff01 ds 4
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ZeroPage ds 4
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568
test/App.Main.s
568
test/App.Main.s
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@ -1,263 +1,429 @@
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; Test program for graphics stufff...
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rel
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rel
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use Util.Macs.s
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use Locator.Macs.s
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use Mem.Macs.s
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use Misc.Macs.s
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put ..\macros\App.Macs.s
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put ..\macros\EDS.GSOS.MACS.s
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use Util.Macs.s
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use Locator.Macs.s
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use Mem.Macs.s
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use Misc.Macs.s
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put ..\macros\App.Macs.s
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put ..\macros\EDS.GSOS.MACS.s
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mx %00
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mx %00
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SHADOW_REG equ $E0C035
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NEW_VIDEO_REG equ $E0C029
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BORDER_REG equ $E0C034 ; 0-3 = border 4-7 Text color
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VBL_VERT_REG equ $E0C02E
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VBL_HORZ_REG equ $E0C02F
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KBD_REG equ $E0C000
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KBD_STROBE_REG equ $E0C010
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VBL_STATE_REG equ $E0C019
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; Typical init
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phk
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plb
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phk
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plb
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; Tool startup
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_TLStartUp ; normal tool initialization
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pha
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_MMStartUp
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_Err ; should never happen
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pla
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sta MasterId ; our master handle references the memory allocated to us
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ora #$0100 ; set auxID = $01 (valid values $01-0f)
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sta UserId ; any memory we request must use our own id
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_TLStartUp ; normal tool initialization
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pha
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_MMStartUp
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_Err ; should never happen
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pla
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sta MasterId ; our master handle references the memory allocated to us
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ora #$0100 ; set auxID = $01 (valid values $01-0f)
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sta UserId ; any memory we request must use our own id
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_MTStartUp
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; Install interrupt handlers
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PushLong #0
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pea $0015 ; Get the existing 1-second interrupt handler and save
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_GetVector
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PullLong OldOneSecVec
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pea $0015 ; Set the new handler and enable interrupts
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PushLong #OneSecHandler
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_SetVector
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pea $0006
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_IntSource
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PushLong #VBLTASK ; Also register a Heart Beat Task
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_SetHeartBeat
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; Start up the graphics engine...
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jsr MemInit
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jsr MemInit
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lda BlitBuff+2 ; Fill in this bank
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jsr BuildBank
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; Load a picture and copy it into Bank $E1. Then turn on the screen.
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jsr AllocOneBank ; Alloc 64KB for Load/Unpack
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sta BankLoad ; Store "Bank Pointer"
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jsr AllocOneBank ; Alloc 64KB for Load/Unpack
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sta BankLoad ; Store "Bank Pointer"
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ldx #ImageName ; Load+Unpack Boot Picture
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jsr LoadPicture ; X=Name, A=Bank to use for loading
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jsr GrafOn
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lda BankLoad ; get address of loaded/uncompressed picture
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clc
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adc #$0080 ; skip header?
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sta :copySHR+2 ; and store that over the 'ldal' address below
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ldx #$7FFE ; copy all image data
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:copySHR ldal $000000,x ; load from BankLoad we allocated
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stal $E12000,x ; store to SHR screen
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dex
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dex
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bpl :copySHR
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EvtLoop
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jsr WaitForKey
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cmp #'q'
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bne :1
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brl Exit
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:1 cmp #'l'
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bne :2
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brl DoLoadPic
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:2 cmp #'m'
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beq DoMessage
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bra EvtLoop
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jsr GrafOn
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jsr WaitForKey
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HexToChar dfb '0','1','2','3','4','5','6','7','8','9','A','B','C','D','E','F'
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DoMessage
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sep #$20
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ldx #0
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lda BlitBuff+2
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and #$F0
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lsr
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lsr
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lsr
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lsr
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tax
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lda HexToChar,x
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sta Hello+1
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; Deallocate all of our memory
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PushWord UserId
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_DisposeAll
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lda BlitBuff+2
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and #$0F
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tax
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lda HexToChar,x
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sta Hello+2
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Exit _QuitGS qtRec
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lda BlitBuff+1
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and #$F0
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lsr
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lsr
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lsr
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lsr
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tax
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lda HexToChar,x
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sta Hello+4
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bcs Fatal
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Fatal brk $00
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lda BlitBuff+1
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and #$0F
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tax
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lda HexToChar,x
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sta Hello+5
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WaitForKey sep #$30
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:WFK ldal $00C000
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bpl :WFK
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stal $00C010
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rep #$30
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rts
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lda BlitBuff
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and #$F0
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lsr
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lsr
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lsr
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lsr
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tax
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lda HexToChar,x
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sta Hello+6
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lda BlitBuff
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and #$0F
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tax
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lda HexToChar,x
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sta Hello+7
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rep #$20
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lda #Hello
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ldx #{60*160+30}
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ldy #$7777
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jsr DrawString
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jmp EvtLoop
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DoLoadPic
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lda BankLoad
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ldx #ImageName ; Load+Unpack Boot Picture
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jsr LoadPicture ; X=Name, A=Bank to use for loading
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lda BankLoad ; get address of loaded/uncompressed picture
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clc
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adc #$0080 ; skip header?
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sta :copySHR+2 ; and store that over the 'ldal' address below
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ldx #$7FFE ; copy all image data
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:copySHR ldal $000000,x ; load from BankLoad we allocated
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stal $E12000,x ; store to SHR screen
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dex
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dex
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bpl :copySHR
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jmp EvtLoop
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Exit
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pea $0007 ; disable 1-second interrupts
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_IntSource
|
||||
|
||||
PushLong #VBLTASK ; Remove our heartbeat task
|
||||
_DelHeartBeat
|
||||
|
||||
pea $0015
|
||||
PushLong OldOneSecVec ; Reset the interrupt vector
|
||||
_SetVector
|
||||
|
||||
PushWord UserId ; Deallocate all of our memory
|
||||
_DisposeAll
|
||||
|
||||
_QuitGS qtRec
|
||||
|
||||
bcs Fatal
|
||||
Fatal brk $00
|
||||
|
||||
Hello str '00/0000'
|
||||
|
||||
****************************************
|
||||
* Fatal Error Handler *
|
||||
****************************************
|
||||
PgmDeath tax
|
||||
pla
|
||||
inc
|
||||
phx
|
||||
phk
|
||||
pha
|
||||
bra ContDeath
|
||||
PgmDeath0 pha
|
||||
pea $0000
|
||||
pea $0000
|
||||
ContDeath ldx #$1503
|
||||
jsl $E10000
|
||||
PgmDeath tax
|
||||
pla
|
||||
inc
|
||||
phx
|
||||
phk
|
||||
pha
|
||||
bra ContDeath
|
||||
PgmDeath0 pha
|
||||
pea $0000
|
||||
pea $0000
|
||||
ContDeath ldx #$1503
|
||||
jsl $E10000
|
||||
|
||||
; Interrupt handlers. We install a heartbeat (1/60th second and a 1-second timer)
|
||||
OneSecHandler mx %11
|
||||
phb
|
||||
pha
|
||||
phk
|
||||
plb
|
||||
|
||||
rep #$20
|
||||
inc OneSecondCounter
|
||||
sep #$20
|
||||
|
||||
ldal $E0C032
|
||||
and #%10111111 ;clear IRQ source
|
||||
stal $E0C032
|
||||
|
||||
pla
|
||||
plb
|
||||
clc
|
||||
rtl
|
||||
mx %00
|
||||
OneSecondCounter dw 0
|
||||
OldOneSecVec ds 4
|
||||
|
||||
VBLTASK hex 00000000
|
||||
dw 0
|
||||
hex 5AA5
|
||||
|
||||
|
||||
; Graphic screen initialization
|
||||
|
||||
GrafInit ldx #$7FFE
|
||||
lda #0000
|
||||
:loop stal $E12000,x
|
||||
dex
|
||||
dex
|
||||
bne :loop
|
||||
rts
|
||||
GrafInit ldx #$7FFE
|
||||
lda #0000
|
||||
:loop stal $E12000,x
|
||||
dex
|
||||
dex
|
||||
bne :loop
|
||||
rts
|
||||
|
||||
; Return the current border color ($0 - $F) in the accumulator
|
||||
GetBorderColor lda #0000
|
||||
sep #$20
|
||||
ldal BORDER_REG
|
||||
and #$0F
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
GrafOn sep #$30
|
||||
lda #$81
|
||||
stal $00C029
|
||||
rep #$30
|
||||
rts
|
||||
; Set the border color to the accumulator value.
|
||||
SetBorderColor sep #$20 ; ACC = $X_Y, REG = $W_Z
|
||||
eorl BORDER_REG ; ACC = $(X^Y)_(Y^Z)
|
||||
and #$0F ; ACC = $0_(Y^Z)
|
||||
eorl BORDER_REG ; ACC = $W_(Y^Z^Z) = $W_Y
|
||||
stal BORDER_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
; Bank allocator (for one full, fixed bank of memory. Can be immediately deferenced)
|
||||
; Turn SHR screen On/Off
|
||||
GrafOn sep #$20
|
||||
lda #$81
|
||||
stal NEW_VIDEO_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
AllocOneBank PushLong #0
|
||||
PushLong #$10000
|
||||
PushWord UserId
|
||||
PushWord #%11000000_00011100
|
||||
PushLong #0
|
||||
_NewHandle ; returns LONG Handle on stack
|
||||
plx ; base address of the new handle
|
||||
pla ; high address 00XX of the new handle (bank)
|
||||
xba ; swap accumulator bytes to XX00
|
||||
sta :bank+2 ; store as bank for next op (overwrite $XX00)
|
||||
:bank ldal $000001,X ; recover the bank address in A=XX/00
|
||||
rts
|
||||
GrafOff sep #$20
|
||||
lda #$01
|
||||
stal NEW_VIDEO_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
; Enable/Disable Shadowing.
|
||||
ShadowOn sep #$20
|
||||
ldal SHADOW_REG
|
||||
and #$F7
|
||||
stal SHADOW_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
ShadowOff sep #$20
|
||||
ldal SHADOW_REG
|
||||
ora #$08
|
||||
stal SHADOW_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
GetVBL sep #$20
|
||||
ldal VBL_HORZ_REG
|
||||
asl
|
||||
ldal VBL_VERT_REG
|
||||
rol ; put V5 into carry bit, if needed. See TN #39 for details.
|
||||
rep #$20
|
||||
and #$00FF
|
||||
rts
|
||||
|
||||
WaitForVBL sep #$20
|
||||
:wait1 ldal VBL_STATE_REG ; If we are already in VBL, then wait
|
||||
bmi :wait1
|
||||
:wait2 ldal VBL_STATE_REG
|
||||
bpl :wait2 ; spin until transition into VBL
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
WaitForKey sep #$20
|
||||
stal KBD_STROBE_REG ; clear the strobe
|
||||
:WFK ldal KBD_REG
|
||||
bpl :WFK
|
||||
rep #$20
|
||||
and #$007F
|
||||
rts
|
||||
|
||||
ClearKeyboardStrobe sep #$20
|
||||
stal KBD_STROBE_REG
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
; Graphics helpers
|
||||
|
||||
LoadPicture jsr LoadFile ; X=Nom Image, A=Banc de chargement XX/00
|
||||
bcc :loadOK
|
||||
brl Exit
|
||||
:loadOK jsr UnpackPicture ; A=Packed Size
|
||||
rts
|
||||
LoadPicture
|
||||
jsr LoadFile ; X=Nom Image, A=Banc de chargement XX/00
|
||||
bcc :loadOK
|
||||
rts
|
||||
:loadOK
|
||||
jsr UnpackPicture ; A=Packed Size
|
||||
rts
|
||||
|
||||
|
||||
UnpackPicture sta UP_PackedSize ; Size of Packed Data
|
||||
lda #$8000 ; Size of output Data Buffer
|
||||
sta UP_UnPackedSize
|
||||
lda BankLoad ; Banc de chargement / Decompression
|
||||
sta UP_Packed+1 ; Packed Data
|
||||
clc
|
||||
adc #$0080
|
||||
stz UP_UnPacked ; On remet a zero car modifie par l'appel
|
||||
stz UP_UnPacked+2
|
||||
sta UP_UnPacked+1 ; Unpacked Data buffer
|
||||
UnpackPicture sta UP_PackedSize ; Size of Packed Data
|
||||
lda #$8000 ; Size of output Data Buffer
|
||||
sta UP_UnPackedSize
|
||||
lda BankLoad ; Banc de chargement / Decompression
|
||||
sta UP_Packed+1 ; Packed Data
|
||||
clc
|
||||
adc #$0080
|
||||
stz UP_UnPacked ; On remet a zero car modifie par l'appel
|
||||
stz UP_UnPacked+2
|
||||
sta UP_UnPacked+1 ; Unpacked Data buffer
|
||||
|
||||
PushWord #0 ; Space for Result : Number of bytes unpacked
|
||||
PushLong UP_Packed ; Pointer to buffer containing the packed data
|
||||
PushWord UP_PackedSize ; Size of the Packed Data
|
||||
PushLong #UP_UnPacked ; Pointer to Pointer to unpacked buffer
|
||||
PushLong #UP_UnPackedSize ; Pointer to a Word containing size of unpacked data
|
||||
_UnPackBytes
|
||||
pla ; Number of byte unpacked
|
||||
rts
|
||||
PushWord #0 ; Space for Result : Number of bytes unpacked
|
||||
PushLong UP_Packed ; Pointer to buffer containing the packed data
|
||||
PushWord UP_PackedSize ; Size of the Packed Data
|
||||
PushLong #UP_UnPacked ; Pointer to Pointer to unpacked buffer
|
||||
PushLong #UP_UnPackedSize ; Pointer to a Word containing size of unpacked data
|
||||
_UnPackBytes
|
||||
pla ; Number of byte unpacked
|
||||
rts
|
||||
|
||||
UP_Packed hex 00000000 ; Address of Packed Data
|
||||
UP_PackedSize hex 0000 ; Size of Packed Data
|
||||
UP_UnPacked hex 00000000 ; Address of Unpacked Data Buffer (modified)
|
||||
UP_UnPackedSize hex 0000 ; Size of Unpacked Data Buffer (modified)
|
||||
UP_Packed hex 00000000 ; Address of Packed Data
|
||||
UP_PackedSize hex 0000 ; Size of Packed Data
|
||||
UP_UnPacked hex 00000000 ; Address of Unpacked Data Buffer (modified)
|
||||
UP_UnPackedSize hex 0000 ; Size of Unpacked Data Buffer (modified)
|
||||
|
||||
; Basic I/O function to load files
|
||||
|
||||
LoadFile stx openRec+4 ; X=File, A=Bank/Page XX/00
|
||||
sta readRec+5
|
||||
LoadFile stx openRec+4 ; X=File, A=Bank/Page XX/00
|
||||
sta readRec+5
|
||||
|
||||
:openFile _OpenGS openRec
|
||||
bcs :openReadErr
|
||||
lda openRec+2
|
||||
sta eofRec+2
|
||||
sta readRec+2
|
||||
:openFile _OpenGS openRec
|
||||
bcs :openReadErr
|
||||
lda openRec+2
|
||||
sta eofRec+2
|
||||
sta readRec+2
|
||||
|
||||
_GetEOFGS eofRec
|
||||
lda eofRec+4
|
||||
sta readRec+8
|
||||
lda eofRec+6
|
||||
sta readRec+10
|
||||
_GetEOFGS eofRec
|
||||
lda eofRec+4
|
||||
sta readRec+8
|
||||
lda eofRec+6
|
||||
sta readRec+10
|
||||
|
||||
_ReadGS readRec
|
||||
bcs :openReadErr
|
||||
_ReadGS readRec
|
||||
bcs :openReadErr
|
||||
|
||||
:closeFile _CloseGS closeRec
|
||||
clc
|
||||
lda eofRec+4 ; File Size
|
||||
rts
|
||||
:closeFile _CloseGS closeRec
|
||||
clc
|
||||
lda eofRec+4 ; File Size
|
||||
rts
|
||||
|
||||
:openReadErr jsr :closeFile
|
||||
nop
|
||||
nop
|
||||
:openReadErr jsr :closeFile
|
||||
nop
|
||||
nop
|
||||
|
||||
PushWord #0
|
||||
PushLong #msgLine1
|
||||
PushLong #msgLine2
|
||||
PushLong #msgLine3
|
||||
PushLong #msgLine4
|
||||
_TLTextMountVolume
|
||||
pla
|
||||
cmp #1
|
||||
bne :loadFileErr
|
||||
brl :openFile
|
||||
:loadFileErr sec
|
||||
rts
|
||||
PushWord #0
|
||||
PushLong #msgLine1
|
||||
PushLong #msgLine2
|
||||
PushLong #msgLine3
|
||||
PushLong #msgLine4
|
||||
_TLTextMountVolume
|
||||
pla
|
||||
cmp #1
|
||||
bne :loadFileErr
|
||||
brl :openFile
|
||||
:loadFileErr sec
|
||||
rts
|
||||
|
||||
msgLine1 str 'Unable to load File'
|
||||
msgLine2 str 'Press a key :'
|
||||
msgLine3 str ' -> Return to Try Again'
|
||||
msgLine4 str ' -> Esc to Quit'
|
||||
msgLine1 str 'Unable to load File'
|
||||
msgLine2 str 'Press a key :'
|
||||
msgLine3 str ' -> Return to Try Again'
|
||||
msgLine4 str ' -> Esc to Quit'
|
||||
|
||||
; Data storage
|
||||
ImageName strl '1/test.pic'
|
||||
MasterId ds 2
|
||||
UserId ds 2
|
||||
BankLoad hex 0000
|
||||
|
||||
openRec dw 2 ; pCount
|
||||
ds 2 ; refNum
|
||||
adrl ImageName ; pathname
|
||||
|
||||
eofRec dw 2 ; pCount
|
||||
ds 2 ; refNum
|
||||
ds 4 ; eof
|
||||
|
||||
readRec dw 4 ; pCount
|
||||
ds 2 ; refNum
|
||||
ds 4 ; dataBuffer
|
||||
ds 4 ; requestCount
|
||||
ds 4 ; transferCount
|
||||
|
||||
closeRec dw 1 ; pCount
|
||||
ds 2 ; refNum
|
||||
|
||||
qtRec adrl $0000
|
||||
da $00
|
||||
|
||||
put App.Init.s
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
ImageName strl '1/test.pic'
|
||||
MasterId ds 2
|
||||
UserId ds 2
|
||||
BankLoad hex 0000
|
||||
|
||||
openRec dw 2 ; pCount
|
||||
ds 2 ; refNum
|
||||
adrl ImageName ; pathname
|
||||
|
||||
eofRec dw 2 ; pCount
|
||||
ds 2 ; refNum
|
||||
ds 4 ; eof
|
||||
|
||||
readRec dw 4 ; pCount
|
||||
ds 2 ; refNum
|
||||
ds 4 ; dataBuffer
|
||||
ds 4 ; requestCount
|
||||
ds 4 ; transferCount
|
||||
|
||||
closeRec dw 1 ; pCount
|
||||
ds 2 ; refNum
|
||||
|
||||
qtRec adrl $0000
|
||||
da $00
|
||||
|
||||
put App.Init.s
|
||||
put font.s
|
||||
put blitter/Template.s
|
||||
put blitter/Tables.s
|
||||
|
||||
lda #BG1_ADDR
|
||||
|
||||
|
||||
|
||||
|
|
|
|||
|
|
@ -0,0 +1,26 @@
|
|||
; Collection of data tables
|
||||
;
|
||||
|
||||
; Tile2CodeOffset
|
||||
;
|
||||
; Takes a tile number (0 - 40) and returns the offset into the blitter code
|
||||
; template.
|
||||
;
|
||||
; This is used for rendering tile data into the code field. For example, is we assume that
|
||||
; we are filling in the operans for a bunch of PEA values, we could do this
|
||||
;
|
||||
; ldy tileNumber*2
|
||||
; lda #DATA
|
||||
; ldx Tile2CodeOffset,y
|
||||
; sta $0001,x
|
||||
;
|
||||
; This table is necessary, because due to the data being draw via stack instructions, the
|
||||
; tile order is reversed.
|
||||
|
||||
PER_TILE_SIZE equ 6
|
||||
]step equ 0
|
||||
Tile2CodeOffset lup 41
|
||||
dw CODE_TOP+{]step*PER_TILE_SIZE}
|
||||
]step equ ]step+1
|
||||
--^
|
||||
|
||||
|
|
@ -0,0 +1,279 @@
|
|||
; Template and equates for GTE blitter
|
||||
|
||||
mx %00
|
||||
|
||||
DP_ADDR equ entry_1-base+1
|
||||
BG1_ADDR equ entry_2-base+1
|
||||
STK_ADDR equ entry_3-base+1
|
||||
|
||||
CODE_TOP equ loop-base
|
||||
CODE_LEN equ top-base
|
||||
|
||||
; Locations that need the page offset added
|
||||
PagePatches da {long_0-base+2}
|
||||
da {long_1-base+2}
|
||||
da {long_2-base+2}
|
||||
da {long_3-base+2}
|
||||
da {long_4-base+2}
|
||||
da {long_5-base+2}
|
||||
da {long_6-base+2}
|
||||
da {odd_entry-base+2}
|
||||
da {loop_exit_1-base+2}
|
||||
da {loop_exit_2-base+2}
|
||||
da {loop_back-base+2}
|
||||
da {loop_exit_3-base+2}
|
||||
PagePatchNum equ *-PagePatches
|
||||
|
||||
BankPatches da {long_0-base+3}
|
||||
da {long_1-base+3}
|
||||
da {long_2-base+3}
|
||||
da {long_3-base+3}
|
||||
da {long_4-base+3}
|
||||
da {long_5-base+3}
|
||||
da {long_6-base+3}
|
||||
BankPatchNum equ *-BankPatches
|
||||
|
||||
target equ 0
|
||||
BuildBank
|
||||
stz target
|
||||
sta target+2
|
||||
:next
|
||||
jsr BuildLine2
|
||||
lda target
|
||||
clc
|
||||
adc #$1000
|
||||
sta target
|
||||
bcc :next
|
||||
|
||||
rts
|
||||
|
||||
; this is a relocation subroutine, it is responsible for copying the template to a
|
||||
; memory location and patching up the necessary instructions.
|
||||
;
|
||||
; X = low word of address (must be a multiple of $1000)
|
||||
; A = high word of address (bank)
|
||||
BuildLine
|
||||
stx target
|
||||
sta target+2
|
||||
|
||||
BuildLine2
|
||||
lda #CODE_LEN ; round up to an even number of bytes
|
||||
inc
|
||||
and #$FFFE
|
||||
beq :nocopy
|
||||
dec
|
||||
dec
|
||||
tay
|
||||
:loop lda base,y
|
||||
sta [target],y
|
||||
|
||||
dey
|
||||
dey
|
||||
bpl :loop
|
||||
|
||||
:nocopy lda #0 ; copy is complete, now patch up the addresses
|
||||
sep #$20
|
||||
|
||||
ldx #0
|
||||
lda target+2 ; patch in the bank for the absolute long addressing mode
|
||||
:dobank ldy BankPatches,x
|
||||
sta [target],y
|
||||
inx
|
||||
inx
|
||||
cpx #BankPatchNum
|
||||
bcc :dobank
|
||||
|
||||
ldx #0
|
||||
:dopage ldy PagePatches,x ; patch the page addresses by adding the page offset to each
|
||||
lda [target],y
|
||||
clc
|
||||
adc target+1
|
||||
sta [target],y
|
||||
inx
|
||||
inx
|
||||
cpx #PagePatchNum
|
||||
bcc :dopage
|
||||
|
||||
:out
|
||||
rep #$20
|
||||
rts
|
||||
|
||||
; start of the template code
|
||||
base
|
||||
entry_1 ldx #0000
|
||||
entry_2 ldy #0000
|
||||
entry_3 lda #0000
|
||||
tcs
|
||||
|
||||
long_0
|
||||
entry_jmp jmp $0100
|
||||
dfb $00 ; if the screen is odd-aligned, then the opcode is set to
|
||||
; ; $AF to convert to a LDA long instruction. This puts the
|
||||
; ; first two bytes of the instruction field in the accumulator
|
||||
; ; and falls through to the next instruction.
|
||||
;
|
||||
; ; We structure the line so that the entry point only needs to
|
||||
; ; update the low-byte of the address, the means it takes only
|
||||
; ; an amortized 4-cycles per line to set the entry pointbra
|
||||
|
||||
right_odd bit #$000B ; Check the bottom nibble to quickly identify a PEA instruction
|
||||
beq r_is_pea ; This costs 6 cycles in the fast-path
|
||||
|
||||
bit #$0040 ; Check bit 6 to distinguish between JMP and all of the LDA variants
|
||||
bne r_is_jmp
|
||||
|
||||
long_1 stal *+4-base
|
||||
dfb $00,$00 ; this here to avoid needing a BRA instruction back. So the fast-path
|
||||
; ; gets a 1-cycle penalty, but we save 3 cycles here.
|
||||
|
||||
r_is_pea xba ; fast code for PEA
|
||||
sep #$30
|
||||
pha
|
||||
rep #$30
|
||||
odd_entry jmp $0100 ; unconditionally jump into the "next" instruction in the
|
||||
; ; code field. This is OK, even if the entry point was the
|
||||
; ; last instruction, because there is a JMP at the end of
|
||||
; ; the code field, so the code will simply jump to that
|
||||
; ; instruction directly.
|
||||
; ;
|
||||
; ; As with the original entry point, because all of the
|
||||
; ; code field is page-aligned, only the low byte needs to
|
||||
; ; be updated when the scroll position changes
|
||||
|
||||
r_is_jmp sep #$41 ; Set the C and V flags which tells a snippet to push only the low byte
|
||||
long_2 ldal entry_jmp+1-base
|
||||
long_3 stal *+5-base
|
||||
dfb $4C,$00,$00 ; Jump back to address in entry_jmp (this takes 16 cycles, is there a better way?)
|
||||
|
||||
; This is the spot that needs to be page-aligned. In addition to simplifying the entry address
|
||||
; and only needing to update a byte instad of a word, because the code breaks out of the
|
||||
; code field with a BRA instruction, we keep everything within a page to avoid the 1-cycle
|
||||
; page-crossing penalty of the branch.
|
||||
ds 204
|
||||
loop_exit_1 jmp odd_exit-base ; +0 Alternate exit point depending on whether the left edge is
|
||||
loop_exit_2 jmp even_exit-base ; +3 odd-aligned
|
||||
|
||||
loop lup 82 ; +6 Set up 82 PEA instructions, which is 328 pixels and consumes 246 bytes
|
||||
pea $0000 ; This is 41 8x8 tiles in width. Need to have N+1 tiles for screen overlap
|
||||
--^
|
||||
loop_back jmp loop-base ; +252 Ensure execution continues to loop around
|
||||
loop_exit_3 jmp even_exit-base ; +255
|
||||
|
||||
odd_exit lda #0000 ; This operand field is *always* used to hold the original 2 bytes of the code field
|
||||
; ; that are replaced by the needed BRA instruction to exit the code field. When the
|
||||
; ; left edge is odd-aligned, we are able to immediately load the value and perform
|
||||
; ; similar logic to the right_odd code path above
|
||||
|
||||
left_odd bit #$000B
|
||||
beq l_is_pea
|
||||
|
||||
bit #$0040
|
||||
bne l_is_jmp
|
||||
|
||||
long_4 stal *+4-base
|
||||
dfb $00,$00
|
||||
l_is_pea xba
|
||||
sep #$30
|
||||
pha
|
||||
rep #$30
|
||||
bra even_exit
|
||||
l_is_jmp sep #$01 ; Set the C flag (V is always cleared at this point) which tells a snippet to push only the high byte
|
||||
long_5 ldal entry_jmp+1-base
|
||||
long_6 stal *+5-base
|
||||
dfb $4C,$00,$00 ; Jump back to address in entry_jmp (this takes 13 cycles, is there a better way?)
|
||||
|
||||
even_exit jmp $1000 ; Jump to the next line. We set up the blitter to do 8 or 16 lines at a time
|
||||
; ; before restoring the machine state and re-enabling interrupts. This makes
|
||||
; ; the blitter interrupt friendly to allow things like music player to continue
|
||||
; ; to function.
|
||||
;
|
||||
; ; When it's time to exit, the next_entry address points to an alternate exit point
|
||||
|
||||
; These are the special code snippets -- there is a 1:1 relationship between each snippet space
|
||||
; and a 3-byte entry in the code field. Thus, each snippet has a hard-coded JMP to return to
|
||||
; the next code field location
|
||||
;
|
||||
; The snippet is required to handle the odd-alignment in-line; there is no facility for
|
||||
; patching or intercepting these values due to their complexity. The only requirements
|
||||
; are:
|
||||
;
|
||||
; 1. Carry Clear -> 16-bit write and return to the next code field operand
|
||||
; 2. Carry Set
|
||||
; a. Overflow set -> Low 8-bit write and return to the next code field operand
|
||||
; b. Overflow clear -> High 8-bit write and exit the line
|
||||
; c. Always clear the Carry flags. It's actually OK to leave the overflow bit in
|
||||
; its passed state, because having the carry bit clear prevent evaluation of
|
||||
; the V bit.
|
||||
;
|
||||
; Snippet Samples:
|
||||
;
|
||||
; Standard Two-level Mix (27 bytes)
|
||||
;
|
||||
; Optimal = 18 cycles (LDA/AND/ORA/PHA)
|
||||
; 16-bit write = 23 cycles
|
||||
; 8-bit low = 35 cycles
|
||||
; 8-bit high = 36 cycles
|
||||
;
|
||||
; start lda (00),y
|
||||
; and #MASK
|
||||
; ora #DATA ; 14 cycles to load the data
|
||||
; bcs 8_bit
|
||||
; pha
|
||||
; out jmp next ; Fast-path completes in 9 additional cycles
|
||||
|
||||
; 8_bit sep #$30 ; Switch to 8 bit mode
|
||||
; bvs r_edge ; Need to switch if doing the left edge
|
||||
; xba
|
||||
; r_edge pha ; push the value
|
||||
; rep #$31 ; put back into 16-bit mode and clear the carry bit, as required
|
||||
; bvs out ; jmp out and continue if this is the right edge
|
||||
; jmp even_exit ; exit the line otherwise
|
||||
; ;
|
||||
; ; The slow paths have 21 and 22 cycles for the right and left
|
||||
; ; odd-aligned cases respectively.
|
||||
|
||||
; snippets ds 32*82
|
||||
top
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
|
@ -0,0 +1,645 @@
|
|||
****************************************
|
||||
* FONT ENGINE (v3?) *
|
||||
* *
|
||||
* Dagen Brock <dagenbrock@gmail.com> *
|
||||
* 2013-07-20 *
|
||||
****************************************
|
||||
* A= ptr to string preceded by length *
|
||||
* X= screen location *
|
||||
****************************************
|
||||
; each char:
|
||||
; draw char at loc
|
||||
; update loc
|
||||
; see if length hit - no? back to draw char
|
||||
rel
|
||||
mx %00
|
||||
]F_Length ds 2 ;length of string (only one byte currently used)
|
||||
]F_CharIdx ds 2 ;index of current character
|
||||
]F_CurrentPos ds 2 ;current top left char position
|
||||
]F_StrPtr equ $00 ;pointer to string (including length byte) / DP
|
||||
]F_StrClr equ $02
|
||||
|
||||
DrawString
|
||||
sta ]F_StrPtr ;store at dp 0 ($00) for indirect loads
|
||||
stx ]F_CurrentPos
|
||||
sty ]F_StrClr
|
||||
stz ]F_CharIdx
|
||||
lda (]F_StrPtr)
|
||||
and #$00ff ;strip off first char (len is only one byte)
|
||||
sta ]F_Length ;get our length byte
|
||||
|
||||
NextChar lda ]F_CharIdx
|
||||
cmp ]F_Length
|
||||
bne :notDone
|
||||
rts ;DONE! Return to caller
|
||||
|
||||
:notDone inc ]F_CharIdx
|
||||
ldy ]F_CharIdx
|
||||
lda ($00),y ;get next char!
|
||||
and #$00FF ;mask high byte
|
||||
sec
|
||||
sbc #' ' ;our table starts with space ' '
|
||||
asl ;*2
|
||||
tay
|
||||
ldx ]F_CurrentPos
|
||||
jsr :drawChar
|
||||
inc ]F_CurrentPos ;compare to addition time (?)
|
||||
inc ]F_CurrentPos
|
||||
inc ]F_CurrentPos
|
||||
inc ]F_CurrentPos ;update screen pos (2 words=8 pixels)
|
||||
bra NextChar
|
||||
|
||||
;x = TopLeft screen pos
|
||||
;y = char table offset
|
||||
:drawChar lda FontTable,y ;get real address of char data
|
||||
sec
|
||||
sbc #FontData ;pivot offset - now a is offset of fontdata
|
||||
tay ;so we'll index with that
|
||||
|
||||
lda FontData,y
|
||||
and ]F_StrClr
|
||||
stal $E12000,x
|
||||
|
||||
lda FontData+2,y
|
||||
and ]F_StrClr
|
||||
stal $E12000+2,x
|
||||
|
||||
lda FontData+4,y
|
||||
and ]F_StrClr
|
||||
stal $E12000+160,x
|
||||
|
||||
lda FontData+6,y
|
||||
and ]F_StrClr
|
||||
stal $E12000+160+2,x
|
||||
|
||||
lda FontData+8,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*2},x
|
||||
|
||||
lda FontData+10,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*2+2},x
|
||||
|
||||
lda FontData+12,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*3},x
|
||||
|
||||
lda FontData+14,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*3+2},x
|
||||
|
||||
lda FontData+16,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*4},x
|
||||
|
||||
lda FontData+18,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*4+2},x
|
||||
|
||||
lda FontData+20,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*5},x
|
||||
|
||||
lda FontData+22,y
|
||||
and ]F_StrClr
|
||||
stal {$E12000+160*5+2},x
|
||||
rts
|
||||
|
||||
FontTable dw s_Space
|
||||
dw s_Exclaim
|
||||
dw s_Quote
|
||||
dw s_Number
|
||||
dw s_Dollar
|
||||
dw s_Percent
|
||||
dw s_Amper
|
||||
dw s_Single
|
||||
dw s_OpenParen
|
||||
dw s_CloseParen
|
||||
dw s_Asterix
|
||||
dw s_Plus
|
||||
dw s_Comma
|
||||
dw s_Minus
|
||||
dw s_Period
|
||||
dw s_Slash
|
||||
dw s_N0
|
||||
dw s_N1
|
||||
dw s_N2
|
||||
dw s_N3
|
||||
dw s_N4
|
||||
dw s_N5
|
||||
dw s_N6
|
||||
dw s_N7
|
||||
dw s_N8
|
||||
dw s_N9
|
||||
dw s_Colon
|
||||
dw s_Semi
|
||||
dw s_LAngle
|
||||
dw s_Equal
|
||||
dw s_RAngle
|
||||
dw s_Question
|
||||
dw s_At
|
||||
dw s_A
|
||||
dw s_B
|
||||
dw s_C
|
||||
dw s_D
|
||||
dw s_E
|
||||
dw s_F
|
||||
dw s_G
|
||||
dw s_H
|
||||
dw s_I
|
||||
dw s_J
|
||||
dw s_K
|
||||
dw s_L
|
||||
dw s_M
|
||||
dw s_N
|
||||
dw s_O
|
||||
dw s_P
|
||||
dw s_Q
|
||||
dw s_R
|
||||
dw s_S
|
||||
dw s_T
|
||||
dw s_U
|
||||
dw s_V
|
||||
dw s_W
|
||||
dw s_X
|
||||
dw s_Y
|
||||
dw s_Z
|
||||
dw s_LBracket
|
||||
dw s_BackSlash
|
||||
dw s_RBracket
|
||||
dw s_Carot
|
||||
dw s_UnderLine
|
||||
|
||||
FontData = *
|
||||
s_Space hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
s_Exclaim hex 000FF000
|
||||
hex 000FF000
|
||||
hex 000FF000
|
||||
hex 000FF000
|
||||
hex 00000000
|
||||
hex 000FF000
|
||||
|
||||
s_Quote hex 0FF00FF0
|
||||
hex 00F000F0
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
s_Number hex 00000000
|
||||
hex 00F00F00
|
||||
hex 0FFFFFF0
|
||||
hex 00F00F00
|
||||
hex 0FFFFFF0
|
||||
hex 00F00F00
|
||||
|
||||
s_Dollar hex 000F0F00
|
||||
hex 00FFFFF0
|
||||
hex 0F0F0F00
|
||||
hex 00FFFF00
|
||||
hex 000F0FF0
|
||||
hex 0FFFFF00
|
||||
|
||||
s_Percent hex 0FF000F0
|
||||
hex 00000F00
|
||||
hex 0000F000
|
||||
hex 000F0000
|
||||
hex 00F00000
|
||||
hex 0F000FF0
|
||||
|
||||
s_Amper hex 000FF000
|
||||
hex 00F00F00
|
||||
hex 0F00F000
|
||||
hex 00F000F0
|
||||
hex 0F0FFF00
|
||||
hex 00F0F000
|
||||
|
||||
s_Single hex 000FF000
|
||||
hex 0000F000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
s_OpenParen hex 000FF000
|
||||
hex 00FF0000
|
||||
hex 0FF00000
|
||||
hex 0FF00000
|
||||
hex 00FF0000
|
||||
hex 000FF000
|
||||
|
||||
s_CloseParen hex 000FF000
|
||||
hex 0000FF00
|
||||
hex 00000FF0
|
||||
hex 00000FF0
|
||||
hex 0000FF00
|
||||
hex 000FF000
|
||||
|
||||
|
||||
s_Asterix hex 00000000
|
||||
hex 00F0F0F0
|
||||
hex 000FFF00
|
||||
hex 00FFFFF0
|
||||
hex 000FFF00
|
||||
hex 00F0F0F0
|
||||
|
||||
s_Plus hex 000F0000
|
||||
hex 000F0000
|
||||
hex 0FFFFF00
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 00000000
|
||||
|
||||
s_Comma hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 0000FF00
|
||||
hex 0000F000
|
||||
|
||||
s_Minus hex 00000000
|
||||
hex 00000000
|
||||
hex 0FFFFF00
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
|
||||
s_Period hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 0000FF00
|
||||
hex 0000FF00
|
||||
|
||||
s_Slash hex 000000F0
|
||||
hex 00000F00
|
||||
hex 0000F000
|
||||
hex 000F0000
|
||||
hex 00F00000
|
||||
hex 0F000000
|
||||
|
||||
s_N0 hex 00FFFF00
|
||||
hex 0F000FF0
|
||||
hex 0F00F0F0
|
||||
hex 0F0F00F0
|
||||
hex 0FF000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_N1 hex 000F0000
|
||||
hex 00FF0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 00FFF000
|
||||
|
||||
s_N2 hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 00000F00
|
||||
hex 000FF000
|
||||
hex 00F00000
|
||||
hex 0FFFFFF0
|
||||
|
||||
s_N3 hex 00FFFF00
|
||||
hex 000000F0
|
||||
hex 000FFF00
|
||||
hex 000000F0
|
||||
hex 000000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_N4 hex 0000FF00
|
||||
hex 000F0F00
|
||||
hex 00F00F00
|
||||
hex 0FFFFFF0
|
||||
hex 00000F00
|
||||
hex 00000F00
|
||||
|
||||
s_N5 hex 0FFFFFF0
|
||||
hex 0F000000
|
||||
hex 0FFFFF00
|
||||
hex 000000F0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_N6 hex 000FFF00
|
||||
hex 00F00000
|
||||
hex 0F000000
|
||||
hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 00FFFFF0
|
||||
|
||||
s_N7 hex 0FFFFFF0
|
||||
hex 000000F0
|
||||
hex 00000F00
|
||||
hex 0000F000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
|
||||
s_N8 hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_N9 hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
hex 0000F000
|
||||
hex 000F0000
|
||||
hex 00F00000
|
||||
|
||||
s_Colon hex 000FF000
|
||||
hex 000FF000
|
||||
hex 00000000
|
||||
hex 000FF000
|
||||
hex 000FF000
|
||||
hex 00000000
|
||||
|
||||
s_Semi hex 00000000
|
||||
hex 000FF000
|
||||
hex 000FF000
|
||||
hex 00000000
|
||||
hex 000FF000
|
||||
hex 000F0000
|
||||
|
||||
s_LAngle hex 0000F000
|
||||
hex 000F0000
|
||||
hex 00F00000
|
||||
hex 000F0000
|
||||
hex 0000F000
|
||||
hex 00000000
|
||||
|
||||
s_Equal hex 00000000
|
||||
hex 00000000
|
||||
hex 0FFFFF00
|
||||
hex 00000000
|
||||
hex 0FFFFF00
|
||||
hex 00000000
|
||||
|
||||
s_RAngle hex 0000F000
|
||||
hex 00000F00
|
||||
hex 000000F0
|
||||
hex 00000F00
|
||||
hex 0000F000
|
||||
hex 00000000
|
||||
|
||||
s_Question hex 00FFF000
|
||||
hex 0F000F00
|
||||
hex 00000F00
|
||||
hex 000FF000
|
||||
hex 00000000
|
||||
hex 000FF000
|
||||
|
||||
s_At hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F00F0F0
|
||||
hex 0FFFF0F0
|
||||
hex 000000F0
|
||||
hex 0FFFFF00
|
||||
|
||||
s_A hex 000FF000
|
||||
hex 00F00F00
|
||||
hex 0F0000F0
|
||||
hex 0FFFFFF0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
|
||||
s_B hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0FFFFF00
|
||||
|
||||
s_C hex 00FFFFF0
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 00FFFFF0
|
||||
|
||||
s_D hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0FFFFF00
|
||||
|
||||
s_E hex 0FFFFFF0
|
||||
hex 0F000000
|
||||
hex 0FFFF000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0FFFFFF0
|
||||
|
||||
s_F hex 0FFFFFF0
|
||||
hex 0F000000
|
||||
hex 0FFFF000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
|
||||
s_G hex 00FFFFF0
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F00FFF0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_H hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0FFFFFF0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
|
||||
s_I hex 0FFFFF00
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 0FFFFF00
|
||||
|
||||
s_J hex 000000F0
|
||||
hex 000000F0
|
||||
hex 000000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_K hex 0F000F00
|
||||
hex 0F00F000
|
||||
hex 0FFF0000
|
||||
hex 0F00F000
|
||||
hex 0F000F00
|
||||
hex 0F000F00
|
||||
|
||||
s_L hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0FFFFFF0
|
||||
|
||||
s_M hex 0F0000F0
|
||||
hex 0FF00FF0
|
||||
hex 0F0FF0F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
|
||||
s_N hex 0F0000F0
|
||||
hex 0FF000F0
|
||||
hex 0F0F00F0
|
||||
hex 0F00F0F0
|
||||
hex 0F000FF0
|
||||
hex 0F0000F0
|
||||
|
||||
s_O hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_P hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 0FFFFF00
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
hex 0F000000
|
||||
|
||||
s_Q hex 00FFFF00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F00F0F0
|
||||
hex 0F000FF0
|
||||
hex 00FFFFF0
|
||||
|
||||
s_R hex 0FFFFF00
|
||||
hex 0F0000F0
|
||||
hex 0FFFFF00
|
||||
hex 0F000F00
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
|
||||
s_S hex 00FFFFF0
|
||||
hex 0F000000
|
||||
hex 00FFFF00
|
||||
hex 000000F0
|
||||
hex 000000F0
|
||||
hex 0FFFFF00
|
||||
|
||||
s_T hex 0FFFFF00
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
|
||||
s_U hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 00FFFF00
|
||||
|
||||
s_V hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 00F00F00
|
||||
hex 000FF000
|
||||
|
||||
s_W hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0000F0
|
||||
hex 0F0FF0F0
|
||||
hex 0FF00FF0
|
||||
hex 0F0000F0
|
||||
|
||||
s_X hex 0F0000F0
|
||||
hex 00F00F00
|
||||
hex 000FF000
|
||||
hex 000FF000
|
||||
hex 00F00F00
|
||||
hex 0F0000F0
|
||||
|
||||
s_Y hex F00000F0
|
||||
hex 0F000F00
|
||||
hex 00F0F000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
|
||||
s_Z hex 0FFFFFF0
|
||||
hex 00000F00
|
||||
hex 0000F000
|
||||
hex 000F0000
|
||||
hex 00F00000
|
||||
hex 0FFFFFF0
|
||||
|
||||
s_LBracket hex 000FFF00
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000F0000
|
||||
hex 000FFF00
|
||||
|
||||
s_BackSlash hex 0F000000
|
||||
hex 00F00000
|
||||
hex 000F0000
|
||||
hex 0000F000
|
||||
hex 00000F00
|
||||
hex 000000F0
|
||||
|
||||
s_RBracket hex 00FFF000
|
||||
hex 0000F000
|
||||
hex 0000F000
|
||||
hex 0000F000
|
||||
hex 0000F000
|
||||
hex 00FFF000
|
||||
|
||||
s_Carot hex 0000F000
|
||||
hex 000F0F00
|
||||
hex 00F000F0
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
s_UnderLine hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex FFFFFFF0
|
||||
|
||||
s_Template hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
hex 00000000
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
|
||||
Loading…
Reference in New Issue