Apollo-11/Luminary099/ERASABLE_ASSIGNMENTS.agc

# Copyright:	Public domain.
# Filename:	ERASABLE ASSIGNMENTS.agc
# Purpose: 	Part of the source code for Luminary 1A build 099.
#		It is part of the source code for the Lunar Module's (LM)
#		Apollo Guidance Computer (AGC), for Apollo 11.
# Assembler:	yaYUL
# Contact:	Onno Hommes <ohommes@cmu.edu>.
# Website:	www.ibiblio.org/apollo.
# Pages:	0090-0152
# Mod history:	2009-05-16 OH	Transcribed from page images.
#		2009-06-05 RSB	Eliminated a variable that shouldn't have
#				survived from Luminary 131.
#		2010-12-31 JL	Fixed page number comment.
#
# This source code has been transcribed or otherwise adapted from
# digitized images of a hardcopy from the MIT Museum.  The digitization
# was performed by Paul Fjeld, and arranged for by Deborah Douglas of
# the Museum.  Many thanks to both.  The images (with suitable reduction
# in storage size and consequent reduction in image quality as well) are
# available online at www.ibiblio.org/apollo.  If for some reason you
# find that the images are illegible, contact me at info@sandroid.org
# about getting access to the (much) higher-quality images which Paul
# actually created.
#
# Notations on the hardcopy document read, in part:
#
#	Assemble revision 001 of AGC program LMY99 by NASA 2021112-061
#	16:27 JULY 14, 1969

# Page 90
# CONVENTIONS AND NOTATIONS UTILIZED FOR ERASABLE ASSIGNMENTS.

#	EQUALS	IS USED IN TWO WAYS.  IT IS OFTEN USED TO CHAIN A GROUP
#		OF ASSIGNMENTS SO THAT THE GROUP MAY BE MOVED WITH THE
#		CHANGING OF ONLY ONE CARD.  EXAMPLE:
#
#			X	EQUALS	START
#			Y	EQUALS	X	+SIZE.X
#			Z	EQUALS	Y	+SIZE.Y
#
#		(X, Y, AND Z ARE CONSECUTIVE AND BEGIN AT START.
#		SIZE.X AND SIZE.Y ARE THE RESPECTIVE SIZES OF X AND Y.
#		USUALLY NUMERIC, IE. 1, 2, 6, 18D, ETC.)

#	EQUALS	OFTEN IMPLIES THE SHARING OF REGISTERS (DIFFERENT NAMES
#		AND DIFFERENT DATA).  EXAMPLE:
#
#			X	EQUALS	Y

#	=	MEANS THAT MULTIPLE NAMES HAVE BEEN GIVEN TO THE SAME DATA.
#		(THIS IS LOGICAL EQUIVALENCE, NOT SHARING.)  EXAMPLE:
#
#			X	=	Y

#	THE SIZE AND UTILIZATION OF AN ERASABLE ARE OFTEN INCLUDED IN
#	THE COMMENTS IN THE FOLLOWING FORM:  M(SIZE)N.
#
#		M	REFERS TO THE MOBILITY OF THE ASSIGNMENT.
#			B	MEANS THAT THE SYMBOL IS REFERENCED BY BASIC
#				INSTRUCTIONS AND THUS IS E-BANK SENSITIVE.
#			I	MEANS THAT THE SYMBOL IS REFERENCED ONLY BY
#				INTERPRETIVE INSTRUCTIONS, AND IS THUS E-BANK
#				INSENSITIVE AND MAY APPEAR IN ANY E-BANK.
#
#		SIZE	IS THE NUMBER OF REGISTERS INCLUDED BY THE SYMBOL.
#
#		N	INDICATES THE NATURE OF PERMANENCE OF THE CONTENTS.
#			PL	MEANS THAT THE CONTENTS ARE PAD LOADED.
#			DSP	MEANS THAT THE REGISTER IS USED FOR A DISPLAY.
#			PRM	MEANS THAT THE REGISTER IS PERMANENT.  IE., IT
#				IS USED DURING THE ENTIRE MISSION FOR ONE
#				PURPOSE AND CANNOT BE SHARED.
#			TMP	MEANS THAT THE REGISTER IS USED TEMPORARILY OR
#				IS A SCRATCH REGISTER FOR THE ROUTINE TO WHICH
#				IT IS ASSIGNED.  THAT IS, IT NEED NOT BE SET
#				PRIOR TO INVOCATION OF THE ROUTINE NOR DOES IT
#				CONTAIN USEFUL OUTPUT TO ANOTHER ROUTINE.  THUS
# Page 91
#				IT MAY BE SHARED WITHANY OTHER ROUTINE WHICH
#				IS NOT ACTIVE IN PARALLEL
#			IN	MEANS INPUT TO THE ROUTINE AND IT IS PROBABLY
#				TEMPORARY FOR A HIGHER-LEVEL ROUTINE/PROGRAM.
#			OUT	MEANS OUTPUT FROM THE ROUTINE, PROBABLY
#				TEMPORARY FOR A HIGHER-LEVEL ROUTINE/PROGRAM.

# Page 92
# SPECIAL REGISTERS.

A		EQUALS	0
L		EQUALS	1		# L AND Q ARE BOTH CHANNELS AND REGISTERS
Q		EQUALS	2
EBANK		EQUALS	3
FBANK		EQUALS	4
Z		EQUALS	5		# ADJACENT TO FBANK AND BBANK FOR DXCH Z
BBANK		EQUALS	6		# (DTCB) AND DXCH FBANK (DTCF).
					# REGISTER 7 IS A ZERO-SOURCE, USED BY ZL.

ARUPT		EQUALS	10		# INTERRUPT STORAGE
LRUPT		EQUALS	11
QRUPT		EQUALS	12
SAMPTIME	EQUALS	13		# SAMPLED TIME 1 & 2.
ZRUPT		EQUALS	15		# (13 AND 14 ARE SPARES.)
BANKRUPT	EQUALS	16		# USUALLY HOLDS FBANK OR BBANK.
BRUPT		EQUALS	17		# RESUME ADDRESS AS WELL.

CYR		EQUALS	20
SR		EQUALS	21
CYL		EQUALS	22
EDOP		EQUALS	23		# EDITS INTERPRETIVE OPERATION CODE PAIRS.

TIME2		EQUALS	24
TIME1		EQUALS	25
TIME3		EQUALS	26
TIME4		EQUALS	27
TIME5		EQUALS	30
TIME6		EQUALS	31
CDUX		EQUALS	32
CDUY		EQUALS	33
CDUZ		EQUALS	34
CDUT		EQUALS	35		# REND RADAR TRUNNION CDU
CDUS		EQUALS	36		# REND RADAR SHAFT CDU
PIPAX		EQUALS	37
PIPAY		EQUALS	40
PIPAZ		EQUALS	41
Q-RHCCTR	EQUALS	42		# RHC COUNTER REGISTERS
P-RHCCTR	EQUALS	43
R-RHCCTR	EQUALS	44
INLINK		EQUALS	45
RNRAD		EQUALS	46
GYROCMD		EQUALS	47
CDUXCMD		EQUALS	50
CDUYCMD		EQUALS	51
CDUZCMD		EQUALS	52
CDUTCMD		EQUALS	53
CDUSCMD		EQUALS	54
# Page 93
THRUST		EQUALS	55
LEMONM		EQUALS	56
OUTLINK		EQUALS	57
ALTM		EQUALS	60

# INTERPRETIVE REGISTERS ADDRESSED RELATIVE TO VAC AREA.

LVSQUARE	EQUALS	34D		# SQUARE OF VECTOR INPUT TO ABVAL AND UNIT
LV		EQUALS	36D		# LENGTH OF VECTOR INPUT TO UNIT.
X1		EQUALS	38D		# INTERPRETIVE SPECIAL REGISTER RELATIVE
X2		EQUALS	39D		# TO THE WORK AREA.
S1		EQUALS	40D
S2		EQUALS	41D
QPRET		EQUALS	42D

# INPUT/OUTPUT CHANNELS

# *** CHANNEL ZERO IS TO BE USED IN AN INDEXED OPERATION ONLY. ***
LCHAN		EQUALS	L
QCHAN		EQUALS	Q
HISCALAR	EQUALS	3
LOSCALAR	EQUALS	4
CHAN5		EQUALS	5
CHAN6		EQUALS	6
SUPERBNK	EQUALS	7		# SUPER-BANK.
OUT0		EQUALS	10
DSALMOUT	EQUALS	11
CHAN12		EQUALS	12
CHAN13		EQUALS	13
CHAN14		EQUALS	14
MNKEYIN		EQUALS	15
NAVKEYIN	EQUALS	16
CHAN30		EQUALS	30
CHAN31		EQUALS	31
CHAN32		EQUALS	32
CHAN33		EQUALS	33
DNTM1		EQUALS	34
DNTM2		EQUALS	35

# END OF CHANNEL ASSIGNMENTS

# Page 94
# INTERPRETIVE SWITCH BIT ASSIGNMENTS

#	** FLAGWORDS AND BITS NOW ASSIGNED AND DEFINED IN THEIR OWN LOG SECTION. **

# Page 95
# GENERAL ERASABLE ASSIGNMENTS

		SETLOC	61
# INTERRUPT TEMPORARY STORAGE POOL.	(11D)

# (ITEMP1 THROUGH RUPTREG4)

# ANY OF THESE MAY BE USED AS TEMPORARIES DURING INTERRUPT OR WITH INTERRUPT INHIBITED. THE ITEMP SERIES
# IS USED DURING CALLS TO THE EXECUTIVE AND WAITLIST -- THE RUPTREGS ARE NOT.

ITEMP1		ERASE
WAITEXIT	EQUALS	ITEMP1
EXECTEM1	EQUALS	ITEMP1

ITEMP2		ERASE
WAITBANK	EQUALS	ITEMP2
EXECTEM2	EQUALS	ITEMP2

ITEMP3		ERASE
RUPTSTOR	EQUALS	ITEMP3
WAITADR		EQUALS	ITEMP3
NEWPRIO		EQUALS	ITEMP3

ITEMP4		ERASE
LOCCTR		EQUALS	ITEMP4
WAITTEMP	EQUALS	ITEMP4

ITEMP5		ERASE
NEWLOC		EQUALS	ITEMP5

ITEMP6		ERASE
NEWLOC+1	EQUALS	ITEMP6		# DP ADDRESS.

		SETLOC	67
NEWJOB		ERASE			# MUST BE AT LOC 67 DUE TO WIRING.

RUPTREG1	ERASE
RUPTREG2	ERASE
RUPTREG3	ERASE
RUPTREG4	ERASE
KEYTEMP1	EQUALS	RUPTREG4
DSRUPTEM	EQUALS	RUPTREG4

# FLAGWORD RESERVATIONS.		(16D)

STATE		ERASE	+15D		# +15D FLAGWORD REGISTERS

# P25 RADAR STORAGE.  (MAY BE UNSHARED IN E7)  (TEMP OVERLAY)  (2D)  OVERLAYS FLGWRD 14 & 15
# Page 96
LASTYCMD	EQUALS	STATE +14D	# B(1)PRM	THESE ARE CALLED BY T4RUPT
LASTXCMD	EQUALS	LASTYCMD +1	# B(1)PRM	THEY MUST BE CONTIGUOUS, Y FIRST

# EXEC TEMPORARIES WHICH MAY BE USED BETWEEN CCS NEWJOBS (32D) (INTB15+ THROUGH RUPTMXTM)
INTB15+		ERASE			# REFLECTS 15TH BIT OF INDEXABLE ADDRESSES
DSEXIT		=	INTB15+		# RETURN FOR DSPIN
EXITEM		=	INTB15+		# RETURN FOR SCALE FACTOR ROUTINE SELECT
BLANKRET	=	INTB15+		# RETURN FOR 2BLANK

INTBIT15	ERASE			# SIMILAR TO ABOVE.
WRDRET		=	INTBIT15	# RETURN FOR 5BLANK
WDRET		=	INTBIT15	# RETURN FOR DSPWD
DECRET		=	INTBIT15	# RETURN FOR PUTCOM(DEC LOAD)
21/22REG	=	INTBIT15	# TEMP FOR CHARIN

# THE REGISTERS BETWEEN ADDRWD AND PRIORITY MUST STAY IN THE FOLLOWING ORDER FOR INTERPRETIVE TRACE.

ADDRWD		ERASE			# 12 BIT INTERPRETIVE OPERAND SUB-ADDRESS.
POLISH		ERASE			# HOLDS CADR MADE FROM POLISH ADDRESS.
UPDATRET	=	POLISH		# RETURN FOR UPDATNN, UPDATVB
CHAR		=	POLISH		# TEMP FOR CHARIN
ERCNT		=	POLISH		# COUNTER FOR ERROR LIGHT RESET
DECOUNT		=	POLISH		# COUNTER FOR SCALING AND DISPLAY (DEC)

FIXLOC		ERASE			# WORK AREA ADDRESS.
OVFIND		ERASE			# SET NON-ZERO ON OVERFLOW.

VBUF		ERASE	+5		# TEMPORARY STORAGE USED FOR VECTORS.
SGNON		=	VBUF		# TEMP FOR +,- ON
NOUNTEM		=	VBUF		# COUNTER FOR MIXNOUN FETCH
DISTEM		= 	VBUF		# COUNTER FOR OCTAL DISPLAY VERB
DECTEM		=	VBUF		# COUNTER FOR FETCH (DEC DISPLAY VERBS)

SGNOFF		=	VBUF +1		# TEMP FOR +,- ON
NVTEMP		=	VBUF +1		# TEMP FOR NVSUB
SFTEMP1		=	VBUF +1		# STORAGE FOR SF CONST HI PART (=SFTEMP2-1)
HITEMIN		=	VBUF +1		# TEMP FOR LOAD OF HRS,MIN,SEC
					# MUST = LOTEMIN-1.

CODE		=	VBUF +2		# FOR DSPIN
SFTEMP2		=	VBUF +2		# STORAGE FOR SF CONST LO PART (=SFTEMP1+1)
LOTEMIN		=	VBUF +2		# TEMP FOR LOAD OF HRS,MIN,SEC
					# MUST = HITEMIN+1

MIXTEMP		=	VBUF +3		# FOR MIXNOUN DATA
SIGNRET		=	VBUF +3		# RETURN FOR +,- ON

# ALSO MIXTEMP+1 = VBUF+4, MIXTEMP+2 = VBUF+5

BUF		ERASE	+2		# TEMPORARY SCALAR STORAGE.
# Page 97
BUF2		ERASE	+1
INDEXLOC	EQUALS	BUF		# CONTAINS ADDRESS OF SPECIFIED INDEX.
SWWORD		EQUALS	BUF		# ADDRESS OF SWITCH WORD.
SWBIT		EQUALS	BUF +1		# SWITCH BIT WITHIN THE SWITCH WORD
MPTEMP		ERASE			# TEMPORARY USED IN MULTIPLY AND SHIFT
DMPNTEMP	=	MPTEMP		# DMPSUB TEMPORARY
DOTINC		ERASE			# COMPONENT INCREMENT FOR DOT SUBROUTINE
DVSIGN		EQUALS	DOTINC		# DETERMINES SIGN OF DDV RESULT
ESCAPE		EQUALS	DOTINC		# USED IN ARCSIN/ARCCOS.
ENTRET		=	DOTINC		# EXIT FROM ENTER

DOTRET		ERASE			# RETURN FROM DOT SUBROUTINE
DVNORMCT	EQUALS	DOTRET		# DIVIDENT NORMALIZATION COUNT IN DDV.
ESCAPE2		EQUALS	DOTRET		# ALTERNATE ARCSIN/ARCCOS SWITCH
WDCNT		=	DOTRET		# CHAR COUNTER FOR DSPWD
INREL		=	DOTRET		# INPUT BUFFER SELECTION ( X,Y,Z, REG)

MATINC		ERASE			# VECTOR INCREMENT IN MXV AND VXM
MAXDVSW		EQUALS	MATINC		# +0 IF DP QUOTIENT IS NEAR ONE -- ELSE -1.
POLYCNT		EQUALS	MATINC		# POLYNOMIAL LOOP COUNTER
DSPMMTEM	=	MATINC		# DSPCOUNT SAVE FOR DSPMM
MIXBR		=	MATINC		# INDICATOR FOR MIXED OR NORMAL NOUN

TEM1		ERASE			# EXEC TEMP
POLYRET		=	TEM1
DSREL		=	TEM1		# REL ADDRESS FOR DSPIN

TEM2		ERASE			# EXEC TEMP
DSMAG		=	TEM2		# MAGNITUDE STORE FOR DSPIN
IDADDTEM	=	TEM2		# MIXNOUN INDIRECT ADDRESS (garbled)

TEM3		ERASE			# EXEC TEMP
COUNT		=	TEM3		# FOR DSPIN

TEM4		ERASE			# EXEC TEMP
LSTPTR		=	TEM4		# LIST POINTER FOR GRABUSY
RELRET		=	TEM4		# RETURN FOR RELDSP
FREERET		=	TEM4		# RETURN FOR FREEDSP
DSPWDRET	=	TEM4		# RETURN FOR DSPSIGN
SEPSCRET	=	TEM4		# RETURN FOR SEPSEC
SEPMNRET	=	TEM4		# RETURN FOR SEPMIN

TEM5		ERASE			# EXEC TEMP
NOUNADD		=	TEM5		# TEMP STORAGE FOR NOUN ADDRESS

NNADTEM		ERASE			# TEMP FOR NOUN ADDRESS TABLE ENTRY
NNTYPTEM	ERASE			# TEMP FOR NOUN TYPE TABLE ENTRY
IDAD1TEM	ERASE			# TEMP FOR INDIR ADDRESS TABLE ENTRY (MIXNN)
					# MUST = IDAD2TEM-1, = IDAD3TEM-2
IDAD2TEM	ERASE			# TEMP FOR INDIR ADDRESS TABLE ENTRY (MIXNN)
# Page 98
					# MUST = IDAD1TEM+1, = IDAD3TEM-1.
IDAD3TEM	ERASE			# TEMP FOR INDIR ADDRESS TABLE ENTRY (MIXNN)
					# MUST = IDAD1TEM+2, = IDAD2TEM+1.
RUTMXTEM	ERASE			# TEMP FOR SF ROUT TABLE ENTRY (MIXNN ONLY)

# AX*SR*T STORAGE.			(6D)
DEXDEX		EQUALS	TEM2		# B(1)TMP
DEX1		EQUALS	TEM3		# B(1)TMP
DEX2		EQUALS	TEM4		# B(1)TMP
RTNSAVER	EQUALS	TEM5		# B(1)TMP
TERM1TMP	EQUALS	MPAC +3		# B(2)TMP

DEXI		=	DEX1

# THE FOLLOWING 10 REGISTERS ARE USED FOR TEMPORARY STORAGE OF THE DERIVATIVE COEFFICIENT TABLE OF
# SUBROUTINE ROOTPSRS.  THEY MUST REMAIN WITHOUT INTERFERENCE WITH ITS SUBROUTINES WHICH ARE POWRSERS (POLY).
# DMPSUB, DMPNSUB, SHORTMP, DDV/BDDV, ABS, AND USPRCADR.

DERCOF-8	=	MPAC -12	# ROOTPSRS DER COF N-4 HI ORDER
DERCOF-7	=	MPAC -11	# ROOTPSRS DER COF N-4 LO ORDER
DERCOF-6	=	MPAC -10	# ROOTPSRS DER COF N-3 HI ORDER
DERCOF-5	=	MPAC -7		# ROOTPSRS DER COF N-3 LO ORDER
DERCOF-4	=	MPAC -6		# ROOTPSRS DER COF N-2 HI ORDER
DERCOF-3	=	MPAC -5		# ROOTPSRS DER COF N-2 LO ORDER
DERCOF-2	=	MPAC -4		# ROOTPSRS DER COF N-1 HI ORDER
DERCOF-1	=	MPAC -3		# ROOTPSRS DER COF N-1 LO ORDER
DERCOFN		=	MPAC -2		# ROOTPSRS DER COF N, HI ORDER
DERCOF+1	=	MPAC -1		# ROOTPSRS DER COF N, LO ORDER

PWRPTR		=	POLISH		# ROOTPSRS POWER TABLE POINTER
DXCRIT		=	VBUF +2		# ROOTPSRS CRITERION FOR ENDING ITERS HI
DXCRIT+1	=	VBUF +3		# ROOTPSRS CRITERION FOR ENDING ITERS LOW
ROOTPS		=	VBUF +4		# ROOTPSRS ROOT HI ORDER
ROOTPS+1	=	VBUF +5		# ROOTPSRS ROOT LO ORDER
RETROOT		=	BUF +2		# ROOTPSRS RETURN ADDRESS OF USER
PWRCNT		=	MATINC		# ROOTPSRS DER TABLE LOOP COUNTER
DERPTR		=	TEM1		# ROOTPSRS DER TABLE POINTER

# Page 99
# DYNAMICALLY ALLOCATED CORE SETS FOR JOBS	(84D)

MPAC		ERASE	+6		# MULTI-PURPOSE ACCUMULATOR.
MODE		ERASE			# +1 FOR TP, +0 FOR DP, OR -1 FOR VECTOR.
LOC		ERASE			# LOCATION ASSOCIATED WITH JOB.
BANKSET		ERASE			# USUALLY CONTAINS BBANK SETTING.
PUSHLOC		ERASE			# WORD OF PACKED INTERPRETIVE PARAMETERS.
PRIORITY	ERASE			# PRIORITY OF PRESENT JOB AND WORK AREA.

		ERASE	+83D		# EIGHT SETS OF 12 REGISTERS EACH

# INCORP STORAGE:  R22 (N29)	(SHARES WITH FOLLOWING SECTION)		(4D)

R22DISP		EQUALS	TIME2SAV	# I(4) N49 DISPLAY OF DELTA R AND DELTA V

# STANDBY VERB ERASABLES.  REDOCTR BEFORE THETADS.	(14D)

TIME2SAV	ERASE	+1
SCALSAVE	ERASE	+1
REDOCTR		ERASE			# CONTAINS NUMBER OF RESTARTS
THETAD		ERASE	+2
CPHI		=	THETAD		# O 	DESIRED GIMBAL ANGLES
CTHETA		=	THETAD +1	# I	FOR
CPSI		=	THETAD +2	# M	MANEUVER
DELV		ERASE	+5
DELVX		=	DELV
DELVY		=	DELV +2
DELVZ		=	DELV +4


# DOWNLINK STORAGE.			(28D)

DNLSTADR	EQUALS	DNLSTCOD

DNLSTCOD	ERASE			# B(1)PRM DOWNLINK LIST CODE
DUMPCNT		ERASE			# B(1)
LDATALST	ERASE	+25D		# (26D)
DNTMGOTO	EQUALS	LDATALST +1	# B(1)
TMINDEX		EQUALS	DNTMGOTO +1	# B(1)
DUMPLOC		EQUALS	TMINDEX		# CONTAINS ECADR OF AGC DP WORD BEING DUMPED
					# AND COUNT OF COMPLETE DUMPS ALREADY
					# SENT.
DNQ		EQUALS	TMINDEX +1	# B(1)
DNTMBUFF	EQUALS	DNQ +1		# B(22)PRM DOWNLINK SNAPSHOT BUFFER

# UNSWITCHED FOR DISPLAY INTERFACE ROUTINES.	(10D) FIVE MORE IN EBANK 2.

# Page 100
RESTREG		ERASE			# B(1)PRM FOR DISPLAY RESTARTS
NVWORD		ERASE
MARKNV		ERASE
NVSAVE		ERASE
# (RETAIN THE ORDER OF CADRFLSH TO FAILREG +2 FOR DOWNLINK PURPOSES)
CADRFLSH	ERASE
CADRMARK	ERASE
TEMPFLSH	ERASE
FAILREG		ERASE	+2		# B(3)PRM 3 ALARM CODE REGISTERS

# VAC AREAS. -- BE CAREFUL OF PLACEMENT --	(220D)

VAC1USE		ERASE
VAC1		ERASE	+42D
VAC2USE		ERASE
VAC2		ERASE	+42D
VAC3USE		ERASE
VAC3		ERASE	+42D
VAC4USE		ERASE
VAC4		ERASE	+42D
VAC5USE		ERASE
VAC5		ERASE	+42D

# WAITLIST REPEAT FLAG.			(1D)
RUPTAGN		ERASE
KEYTEMP2	=	RUPTAGN		# TEMP FOR KEYRUPT, UPRUPT

# STARALIGN ERASABLES.			(13D)

STARCODE	ERASE			# (1)
AOTCODE		=	STARCODE
STARALGN	ERASE	+11D
SINCDU		=	STARALGN
COSCDU		=	STARALGN +6

SINCDUX		=	SINCDU +4
SINCDUY		=	SINCDU
SINCDUZ		=	SINCDU +2
COSCDUX		=	COSCDU +4
COSCDUY		=	COSCDU
COSCDUZ		=	COSCDU +2

# PHASE TABLE AND RESTART COUNTERS		(12D)

-PHASE1		ERASE

# Page 101
PHASE1		ERASE
-PHASE2		ERASE
PHASE2		ERASE
-PHASE3		ERASE
PHASE3		ERASE
-PHASE4		ERASE
PHASE4		ERASE
-PHASE5		ERASE
PHASE5		ERASE
-PHASE6		ERASE
PHASE6		ERASE

# A**SR*T STORAGE.			(6D)

CDUSPOT		ERASE	+5		# B(6)

CDUSPOTY	=	CDUSPOT
CDUSPOTZ	=	CDUSPOT +2
CDUSPOTX	=	CDUSPOT +4

# VERB 37 STORAGE			(2D)

MINDEX		ERASE			# B(1)TMP INDEX FOR MAJOR MODE
MMNUMBER	ERASE			# B(1)TMP MAJOR MODE REQUESTED BY V37

# PINBALL INTERRUPT ACTION		(1D)

DSPCNT		ERASE			# B(1)PRM COUNTER FOR DSPOUT

# PINBALL EXECUTIVE ACTION		(44D)

DSPCOUNT	ERASE			# DISPLAY POSITION INDICATOR
DECBRNCH	ERASE			# +DEC, -DEC, OCT INDICATOR
VERBREG		ERASE			# VERB CODE
NOUNREG		ERASE			# NOUN CODE
XREG		ERASE			# R1 INPUT BUFFER
YREG		ERASE			# R2 INPUT BUFFER
ZREG		ERASE			# R3 INPUT BUFFER
XREGLP		ERASE			# LO PART OF XREG (FOR DEC CONV ONLY)
YREGLP		ERASE			# LO PART OF YREG (FOR DEC CONV ONLY)
HITEMOUT	=	YREGLP		# TEMP FOR DISPLAY OF HRS,MIN,SEC
					# MUST = LOTEMOUT-1.
ZREGLP		ERASE			# LO PART OF ZREG (FOR DEC CONV ONLY)
LOTEMOUT	=	ZREGLP		# TEMP FOR DISPLAY OF HRS,MIN,SEC
					# MUST = HITEMOUT+1
MODREG		ERASE			# MODE CODE

# Page 102
DSPLOCK		ERASE			# KEYBOARD/SUBROUTINE CALL INTERLOCK
REQRET		ERASE			# RETURN REGISTER FOR LOAD
LOADSTAT	ERASE			# STATUS INDICATOR FOR LOADTST
CLPASS		ERASE			# PASS INDICATOR CLEAR
NOUT		ERASE			# ACTIVITY COUNTER FOR DSPTAB
NOUNCADR	ERASE			# MACHINE CADR FOR NOUN
MONSAVE		ERASE			# N/V CODE FOR MONITOR. (= MONSAVE1-1)
MONSAVE1	ERASE			# NOUNCADR FOR MONITOR (MATBS1) = MONSAVE+1
MONSAVE2	ERASE			# NVMONOPT OPTIONS
DSPTAB		ERASE	+11D		# 0-10D, DISPLAY PANEL BUFF.  11D, C/S LTS.
NVQTEM		ERASE			# NVSUB STORAGE FOR CALLING ADDRESS
					# MUST = NVBNKTEM-1.
NVBNKTEM	ERASE			# NVSUB STORAGE FOR CALLING BANK
					# MUST = NVQTEM+1
VERBSAVE	ERASE			# NEEDED FOR RECYCLE
CADRSTOR	ERASE			# ENDIDLE STORAGE
DSPLIST		ERASE			# WAITING REG FOR DSP SYST INTERNAL USE
EXTVBACT	ERASE			# EXTENDED VERB ACTIVITY INTERLOCK
DSPTEM1		ERASE	+2		# BUFFER STORAGE AREA 1 (MOSTLY FOR TIME)
DSPTEM2		ERASE	+2		# BUFFER STORAGE AREA 2 (MOSTLY FOR DEG)

DSPTEMX		EQUALS	DSPTEM2 +1	# B(2) S-S DISPLAY BUFFER FOR EXT. VERBS
NORMTEM1	EQUALS	DSPTEM1		# B(3)DSP NORMAL DISPLAY REGISTERS.

# DISPLAY FOR EXTENDED VERBS (V82, R04(V62), V41(N72) )	(2D)

OPTIONX		EQUALS	DSPTEMX		# (2) EXTENDED VERB OPTION CODE

# TBASES AND PHSPRDT S.			(12D)

TBASE1		ERASE
PHSPRDT1	ERASE
TBASE2		ERASE
PHSPRDT2	ERASE
TBASE3		ERASE
PHSPRDT3	ERASE
TBASE4		ERASE
PHSPRDT4	ERASE
TBASE5		ERASE
PHSPRDT5	ERASE
TBASE6		ERASE
PHSPRDT6	ERASE

# UNSWITCHED FOR DISPLAY INTERFACE ROUTINES.	(6D)

# Page 103
NVWORD1		ERASE			# B(1) PROBABLY FOR DISPLAY DURING SERVICER
EBANKSAV	ERASE
MARKEBAN	ERASE
EBANKTEM	ERASE
MARK2PAC	ERASE
R1SAVE		ERASE

# IMU COMPENSATION UNSWITCHED ERASABLE.		(1D)

1/PIPADT	ERASE

# SINGLE PRECISION SUBROUTINE TEMPORARIES	(2D)

TEMK		ERASE			# (1)
SQ		ERASE			# (1)

# UNSWITCHED RADAR ERASABLE

SAMPLIM		ERASE
SAMPLSUM	ERASE	+3
TIMEHOLD	ERASE	+1
RRTARGET	EQUALS	SAMPLSUM	# HALF U IT VECTOR IN SM OR NB AXES.
TANG		ERASE	+1		# DESIRE TRUNNION AND SHAFT ANGLES.
MODEA		EQUALS	TANG
MODEB		ERASE	+1		# DODES LOBBERS TANG +2.
NSAMP		EQUALS	MODEB
DESRET		ERASE
OLDATAGD	EQUALS	DESRET		# USED IN DATA READING ROUTINES.
DESCOUNT	ERASE

# ******   P22  ******				(6D)

RSUBC		EQUALS	RRTARGET	# I(6) S-S CSM POSITION VECTOR.

# Page 104
# UNSWITCHED FOR ORBIT INTEGRATION		(21D)

TDEC		ERASE	+20D		# I(2)
COLREG		EQUALS	TDEC +2		# I(1)
LAT		EQUALS	COLREG +1	# I(2)
LONG		EQUALS	LAT +2		# I(2)
ALT		EQUALS	LONG +2		# I(2)
YV		EQUALS	ALT +2		# I(6)
ZV		EQUALS	YV +6		# I(6)

# MISCELLANEOUS UNSWITCHED.			(20D)

P40/RET		ERASE			# (WILL BE PUT IN E6 WHEN THERE IS ROOM)
GENRET		ERASE			# B(1) R61 RETURN CADR.
OPTION1		ERASE			# B(1) NOUN 06 USES THIS
OPTION2		ERASE			# B(1) NOUN 06 USES THIS
OPTION3		ERASE			# B(1) NOUN 06 USES THIS
LONGCADR	ERASE +1		# B(2) LONGCALL REGISTER
LONGBASE	ERASE +1
LONGTIME	ERASE +1		# B(2) LONGCALL REGISTER
CDUTEMPX	ERASE			# B(1)TMP
CDUTEMPY	ERASE			# B(1)TMP
CDUTEMPZ	ERASE			# B(1)TMP
PIPATMPX	ERASE			# B(1)TMP
PIPATMPY	ERASE			# B(1)TMP
PIPATMPZ	ERASE			# B(1)TMP

DISPDEX		ERASE			# B(1)
TEMPR60		ERASE			# B(1)
PRIOTIME	ERASE			# B(1)

# P27 (UPDATE PROGRAM) STORAGE			(26D)

UPVERBSV	ERASE			# B(1) UPDATE VERB ATTEMPTED.
UPTEMP		ERASE	+24D		# B(1)TMP SCRATCH
INTWAK1Q	EQUALS	UPTEMP		# (BORROWS UPTEMP REGISTERS)
# RETAIN THE ORDER OF COMPNUMB THRU UPBUFF +19D FOR DOWNLINK PURPOSES.
COMPNUMB	EQUALS	UPTEMP +1	# B(1)TMP NUMBER OF ITEMS TO BE UPLINKED
UPOLDMOD	EQUALS	COMPNUMB +1	# B(1)TMP INTERRUPTD PROGRAM MM
UPVERB		EQUALS	UPOLDMOD +1	# B(1)TMP VERB NUMBER
UPCOUNT		EQUALS	UPVERB +1	# B(1)TMP UPBUFF INDEX
UPBUFF		EQUALS	UPCOUNT +1	# B(20D)

# SPECIAL DEFINITION FOR SYSTEM TEST ERASABLE PGMS.	(2D)

EBUF2		EQUALS	UPTEMP		# B(2) FOR EXCLUSIVE USE OF SYSTEM TEST.

# Page 105
# PERM STATE VECTORS FOR BOOST AND DOWNLINK -- WHOLE MISSION --	(14D)

RN		ERASE	+5		# B(6)PRM
VN		ERASE	+5		# B(6)PRM
PIPTIME		ERASE	+1		# B(2)PRM (MUST BE FOLLOWED BY GDT/2)

# SERVICER -- MUST FOLLOW PIPTIME --		(19D)

GDT/2		ERASE	+19D		# B(6)TMP	** MUST FOLLOW PIPTIME **
MASS		EQUALS	GDT/2 +6	# B(2)
WEIGHT/G	=	MASS
ABDELV		EQUALS	MASS +2		# (KALCMANU STORAGE)
PGUIDE		EQUALS	ABDELV +1	# (2)
DVTHRUSH	EQUALS	PGUIDE +2	# (1)
AVEGEXIT	EQUALS	DVTHRUSH +1	# (2)
AVGEXIT		=	AVEGEXIT
TEMX		EQUALS	AVEGEXIT +2	# (1)
TEMY		EQUALS	TEMX +1		# (1)
TEMZ		EQUALS	TEMY +1		# (1)
PIPAGE		EQUALS	TEMZ +1		# B(1)
OUTROUTE	EQUALS	PIPAGE +1	# B(1)

# PERMANENT LEM DAP STORAGE		(12D)

CH5MASK		ERASE			# B(1)PRM
CH6MASK		ERASE			# B(1)PRM JET FAILURE MASK.
DTHETASM	ERASE +5		#  (6)
SPNDX		ERASE			# B(1)
RCSFLAGS	ERASE			# AUTOPILOT FLAG WORD
					# BIT ASSIGNMENTS:
					#  1) ALTERYZ SWITCH (ZEROOR1)
					#  2) NEEDLER SWITCH
					#  3) NEEDLER SWITCH
					#  4) NEEDLER SWITCH
					#  5) NEEDLER SWITCH
					#  9) JUST-IN-DETENT SWITCH
					# 10) PBIT -- MANUAL CONTROL SWITCH
					# 11) QRBIT -- MANUAL CONTROL SWITCH
					# 12) PSKIP CONTROL (PJUMPADR)
					# 13) 1/ACCJOB CONTROL (ACCSET)
T5ADR		ERASE	+1		# GENADR OF NEXT LM DAP T5RUPT. * 2CADR *
					# BBCON  OF NEXT LM DAP T5RUPT.   2CADR

# ERASABLES FOR P64:  OVERLAY OF DTHETASM, WHICH IS UNUSED	(4D)
ZERLINA		EQUALS	DTHETASM	# B(1)	P64

# Page 106
ELVIRA		EQUALS	ZERLINA +1	# B(1)	P64
AZINCR1		EQUALS	ELVIRA  +1	# B(1)	P64
ELINCR1		EQUALS	AZINCR1 +1	# B(1)	P64

# RCS FAILURE MONITOR STORAGE		(1)

PVALVEST	ERASE			# B(1)PRM

# KALCMANU/DAP INTERFACE			(3D)

DELPEROR	ERASE			# B(1)PRM COMMAND LAGS.
DELQEROR	ERASE			# B(1)PRM
DELREROR	ERASE			# B(1)PRM

# MODE SWITCHING ERASABLE.			(9D)

# RETAIN THE ORDER OF IMODES30 AND IMODES33 FOR DOWNLINK PURPOSES
IMODES30	ERASE			# B(1)
IMODES33	ERASE
MODECADR	ERASE	+2		# B(3)PRM
IMUCADR		EQUALS	MODECADR
OPTCADR		EQUALS	MODECADR +1
RADCADR		EQUALS	MODECADR +2
ATTCADR		ERASE	+2		# B(3)PRM
ATTPRIO		=	ATTCADR +2
MARKSTAT	ERASE

# T4RUPT ERASABLE				(2D)

DSRUPTSW	ERASE
LGYRO		ERASE			# (1)

# RENDEZVOUS RADAR TASK STORAGE			(3D)

RRRET		ERASE	+2D		# B(1)TMP	P20'S, PERHAPS R29 & R12
RDES		EQUALS	RRRET +1	# B(1)TMP
RRINDEX		EQUALS	RDES +1		# B(1)TMP

# MEASINC					(4D)

WIXA		ERASE			# B(1)
WIXB		ERASE			# B(1)
ZIXA		ERASE			# B(1)
ZIXB		ERASE			# B(1)

# Page 107

# AGS DUMMY ID WORD.				(1D)

AGSWORD		ERASE

# SOME MISCELLANEOUS UNSWITCHED.		(6D)

RATEINDX	ERASE			# (1) USED BY KALCMANU
DELAYLOC	ERASE +2
LEMMASS		ERASE			# KEEP CONTIGUOUS W. CSMMASS. (1) EACH
CSMMASS		ERASE

# LESS IS MORE.

# RENDEZVOUS AND LANDING RADAR DOWNLINK STORAGE.	(7D)
#
#	(NORMALLY USED DURING P20, BUT MAY ALSO)
#	(BE REQUIRED FOR THE V62 SPURIOUS TEST.)
#
#		    (PLEASE KEEP IN THIS ORDER)

DNRRANGE	ERASE	+6		# B(1)TMP
DNRRDOT		EQUALS	DNRRANGE +1	# B(1)TMP
DNINDEX		EQUALS	DNRRDOT +1	# B(1)TMP
DNLRVELX	EQUALS	DNINDEX +1	# B(1)TMP
DNLRVELY	EQUALS	DNLRVELX +1	# B(1)TMP
DNLRVELZ	EQUALS	DNLRVELY +1	# B(1)TMP
DNLRALT		EQUALS	DNLRVELZ +1	# B(1)TMP

# INCORPORATION UNSWITCHED			(2D)

W.IND		EQUALS	PIPAGE		# B(1)
W.INDI		EQUALS	W.IND +1	# I(1)

# SUBROUTINE BALLANGS OF R60.

BALLEXIT	ERASE			# B(1) SAVE LOCATION FOR BALLINGS SUBR EXIT

# SOME LEM DAP STORAGE.				(4D)

DAPDATR1	ERASE			# B(1)DSP DAP CONFIG.
TEVENT		ERASE	+1		# B(2)DSP
DB		ERASE			# B(1)TMP DEAD BAND.

# NOUN 87					(2D)
AZ		ERASE	+1D		# B(1) AZ AND EL MUST BE CONTIGUOUS

# Page 108
EL		EQUALS	AZ +1D		# B(1)

# P63, P64, P65, P66, AND P67.			(1D)

WCHPHASE	ERASE			# B(1)

# ERASABLES FOR THE R2 LUNAR POTENTIAL MODEL	(2D)

E3J22R2M	ERASE			# I(1)
E32C31RM	ERASE			# I(1)


RADSKAL		ERASE	+1		# LR ALT DOPPLER BIAS: 2T/LAMBDA SCALED
					# AT 1/(2(7) M/CS)
SKALSKAL	ERASE			# LR ALT SCALE FACTOR RATIO: .2 NOM

END-UE		EQUALS			# NEXT UNUSED UE ADDRESS

# SELF-CHECK ASSIGNMENTS			(17D)

SELFERAS	ERASE 	1357 - 1377	# *** MUST NOT BE MOVED ***
SFAIL		EQUALS	SELFERAS	# B(1)
ERESTORE	EQUALS	SFAIL +1	# B(1)
SELFRET		EQUALS	ERESTORE +1	# B(1) RETURN
SMODE		EQUALS	SELFRET +1	# B(1)
ALMCADR		EQUALS	SMODE +1	# B(2) ALARM-ABORT USER'S 2CADR
ERCOUNT		EQUALS	ALMCADR +2	# B(1)
SCOUNT		EQUALS	ERCOUNT +1	# B(3)
SKEEP1		EQUALS	SCOUNT +3	# B(1)
SKEEP2		EQUALS	SKEEP1 +1	# B(1)
SKEEP3		EQUALS	SKEEP2 +1	# B(1)
SKEEP4		EQUALS	SKEEP3 +1	# B(1)
SKEEP5		EQUALS	SKEEP4 +1	# B(1)
SKEEP6		EQUALS	SKEEP5 +1	# B(1)
SKEEP7		EQUALS	SKEEP6 +1	# B(1)
# Page 109
# EBANK-3 ASSIGNMENTS

		SETLOC	1400

# WAITLIST TASK LISTS.				(26D)

LST1		ERASE	+7		# B(8D)PRM DELTA T'S.
LST2		ERASE	+17D		# B(18D)PRM TASK 2CADR ADDRESSES.

# RESTART STORAGE.				(2D)

RSBBQ		ERASE	+1		# B(2)PRM SAVE BB AND Q FOR RESTARTS

# MORE LONGCALL STORAGE.  (MUST BE IN LST1'S BANK.	(2D)

LONGEXIT	ERASE	+1		# B(2)TMP MAY BE SELDOM OVERLAYED.

# PHASE-CHANGE LISTS PART II.			(12D)


PHSNAME1	ERASE			# B(1)PRM
PHSBB1		ERASE			# B(1)PRM
PHSNAME2	ERASE			# B(1)PRM
PHSBB2		ERASE			# B(1)PRM
PHSNAME3	ERASE			# B(1)PRM
PHSBB3		ERASE			# B(1)PRM
PHSNAME4	ERASE			# B(1)PRM
PHSBB4		ERASE			# B(1)PRM
PHSNAME5	ERASE			# B(1)PRM
PHSBB5		ERASE			# B(1)PRM
PHSNAME6	ERASE			# B(1)PRM
PHSBB6		ERASE			# B(1)PRM

# IMU COMPENSATION PARAMETERS			(22D)

PBIASX		ERASE			# B(1) PIPA BIAS, PIPA SCALE FACTOR TERMS
PIPABIAS	=	PBIASX		# INTERMIXED.
PIPASCFX	ERASE
PIPASCF		=	PIPASCFX
PBIASY		ERASE
PIPASCFY	ERASE
PBIASZ		ERASE
PIPASCFZ	ERASE

NBDX		ERASE			# GYRO BIAS DRIFT
NBDY		ERASE
NBDZ		ERASE
# Page 110
ADIAX		ERASE			# ACCELERATION SENSITIVE DRIFT ALONG THE
ADIAY		ERASE			# INPUT AXIS
ADIAZ		ERASE

ADSRAX		ERASE			# ACCELERATION SENSITIVE DRIFT ALONG THE
ADSRAY		ERASE			# SPIN REFERENCE AXIS
ADSRAZ		ERASE

GCOMP		ERASE	+5		# CONTAINS COMPENSATING TORQUES

COMMAND		EQUALS	GCOMP
CDUIND		EQUALS	GCOMP	+3

GCOMPSW		ERASE

# STATE VECTORS FOR ORBIT INTEGRATION.		(44D)

#		(DIFEQCNT THUR XKEP MUST BE IN THE SAME
#		EBANK AS RRECTCSM, RRECTLEM ETC
#		BECAUSE THE COPY-CYCLES (ATOPCSM,
#		PTOACSM ETC) ARE EXECUTED IN BASIC.
#		ALL OTHER REFERENCES TO THIS GROUP
#		ARE BY INTERPRETIVE INSTRUCTIONS.)
#

DIFEQCNT	ERASE	+43D		# B(1)
# (UPSVFLAG...XKEP MUST BE KEPT IN ORDER)

UPSVFLAG	EQUALS	DIFEQCNT +1	# B(1)
RRECT		EQUALS	UPSVFLAG +1	# B(6)
VRECT		EQUALS	RRECT 	+6	# B(6)
TET		EQUALS	VRECT 	+6	# B(2)
TDELTAV		EQUALS	TET 	+2	# B(6)
TNUV		EQUALS	TDELTAV +6	# B(6)
RCV		EQUALS	TNUV 	+6	# B(6)
VCV		EQUALS	RCV 	+6	# B(6)
TC		EQUALS	VCV 	+6	# B(2)
XKEP		EQUALS	TC 	+2	# B(2)

# PERMANENT STATE VECTORS AND TIMES.

# (DO NOT OVERLAY WITH ANYTHING AFTER BOOST)

# (RRECTCSM...XKEPCSM MUST BE KEPT IN THIS ORDER)

RRECTCSM	ERASE	+5		# B(6)PRM CSM VARIABLES.
RRECTOTH	=	RRECTCSM
VRECTCSM	ERASE	+5		# B(6)PRM
# Page 111
TETCSM		ERASE	+1		# B(2)PRM
TETOTHER	=	TETCSM
DELTACSM	ERASE	+5		# B(6)PRM
NUVCSM		ERASE	+5		# B(6)PRM
RCVCSM		ERASE	+5		# B(6)PRM
VCVCSM		ERASE	+5		# B(6)PRM
TCCSM		ERASE	+1		# B(2)PRM
XKEPCSM		ERASE	+1		# B(2)PRM

# (RRECTLEM...XKEPLEM MUST BE KEPT IN THIS ORDER)

RRECTLEM	ERASE	+5		# B(6)PRM LEM VARIABLES
RRECTHIS	=	RRECTLEM
VRECTLEM	ERASE	+5		# B(6)PRM
TETLEM		ERASE	+1		# B(2)PRM
TETTHIS		=	TETLEM
DELTALEM	ERASE	+5		# B(6)PRM
NUVLEM		ERASE	+5		# B(6)PRM
RCVLEM		ERASE	+5		# B(6)PRM
VCVLEM		ERASE	+5		# B(6)PRM
TCLEM		ERASE	+1		# B(2)PRM
XKEPLEM		ERASE	+1		# B(2)PRM

X789		ERASE	+5
TEPHEM		ERASE	+2
AZO		ERASE	+1
-AYO		ERASE	+1
AXO		ERASE	+1

# STATE VECTORS FOR DOWNLINK			(12D)

R-OTHER		ERASE	+5		# B(6)PRM POS VECT (OTHER VECH) FOR DNLINK
V-OTHER		ERASE	+5		# B(6)PRM VEL VECT (OTHER VECH) FOR DNLINK

T-OTHER		=	TETCSM		# 	      TIME (OTHER VECH) FOR DNLINK

# REFSMMAT.					(18D)

REFSMMAT	ERASE	+17D		# I(18D)PRM

# ACTIVE VEHICLE CENTANG.  MUST BE DISPLAYED ANYTIME (ALMOST.)	(2D)

ACTCENT		ERASE	+1		# I(2) S-S CENTRAL ANGLE BETWEEN ACTIVE
					# VEHICLE AT TPI TIG AND TARGET VECTOR.

# **** USED IN CONICSEX (PLAN INERT ORIENT) ****
# Page 112
TIMSUBO		EQUALS	TEPHEM		# CSEC B-42 (TRIPLE PRECISION)

# LPS20.1 STORAGE	-- ALL ARE PRM --	(9D)

LS21X		ERASE			# I(1)
LOSVEL		ERASE	+5		# I(6)
MLOSV		ERASE	+1		# I(2) MAGNITUDE OF LOS. METERS B-29

# ***** P22 ***** (OVERLAYS LPS 20.1 STORAGE)	(6D)
VSUBC		EQUALS	LOSVEL		# I(6) S-S CSM VELOCITY VECTOR

# PADLOADED ERASABLES FOR P20/P22		(6D)

RANGEVAR	ERASE	+1		# I(2) RR RANGE ERROR VARIANCE
RATEVAR		ERASE	+1		# I(2) RR RANGE RATE ERROR VARIANCE
RVARMIN		ERASE			# I(1) MINIMUM RANGE ERROR VARIANCE
VVARMIN		ERASE			# I(1) MINIMUM RANGE-RATE ERROR VARIANCE

# P32-P33 STORAGE				(2D)

TCDH		ERASE	+1		# I(2) T2 CDH TIME IN CS. (ALSO DOWNLINKED)

END-E3		EQUALS	1777		# ** LAST LOCATION USED IN E3 **

# Page 113
# EBANK-4 ASSIGNMENTS

		SETLOC	2000

# E4 IS, FOR THE MOST PART RESERVED FOR PAD LOADED AND UNSHARABLE ERASE.

AMEMORY		EQUALS

# P20 STORAGE.  -- PAD LOADED --		(6D)

WRENDPOS	ERASE			# B(1)PL	KM*2(-7)
WRENDVEL	ERASE			# B(1)PL	KM(-1/2)*2(11)
WSHAFT		ERASE			# B(1)PL	KM*2(-7)
WTRUN		ERASE			# B(1)PL	KM*2(-7)
RMAX		ERASE			# B(1)PL	METERS*2(-19)
VMAX		ERASE			# B(1)PL	M/CSEC*2(-7)

# LUNAR SURFACE NAVIGATION			(2D)

WSURFPOS	ERASE			# B(1)PL
WSURFVEL	ERASE			# B(1)PL

# P22 STORAGE.  -- PAD LOADED --		(2D)

SHAFTVAR	ERASE			# B(1)PL	RAD SQ*2(12)
TRUNVAR		ERASE			# B(1)PL	RAD SQ*2(10)

# CONISEX STORAGE.  -- PAD LOADED --

504LM		ERASE	+5		# I(6) MOON LIBRATION VECTOR

# V47 (R47) AGS INITIALIZATION STORAGE.  -- PAD LOADED --	(2D)

AGSK		ERASE	+1

# LUNAR LANDING STORAGE.  -- PAD LOADED --	(6D)

RLS		ERASE	+5		# I(6) LANDING SITE VECTOR -- MOON REF

# INTEGRATION STORAGE.				(102D)

PBODY		ERASE	+101D		# I(1)
# Page 114
ALPHAV		EQUALS	PBODY +1	# I(6)
BETAV		EQUALS	ALPHAV +6	# I(6)
PHIV		EQUALS	BETAV +6	# I(6)
PSIV		EQUALS	PHIV +6		# I(6)
FV		EQUALS	PSIV +6		# I(6)	PERTURBING ACCELERATIONS
ALPHAM		EQUALS	FV +6		# I(2)
BETAM		EQUALS	ALPHAM +2	# I(2)
TAU.		EQUALS	BETAM +2	# I(2)
DT/2		EQUALS	TAU. +2		# I(2)
H		EQUALS	DT/2 +2		# I(2)
GMODE		EQUALS	H +2		# I(1)
IRETURN		EQUALS	GMODE +1	# I(1)
NORMGAM		EQUALS	IRETURN +1	# I(1)
RPQV		EQUALS	NORMGAM +1
ORIGEX		EQUALS	RPQV +6		# I(1)
KEPRTN		EQUALS	ORIGEX		# I(1)
RQVV		EQUALS	ORIGEX +1	# I(6)
RPSV		EQUALS	RQVV +6		# I(6)
XKEPNEW		EQUALS	RPSV +6		# I(2)
VECTAB		EQUALS	XKEPNEW +2	# I(36D)
VECTABND	EQUALS	VECTAB +35D	# END MARK

# THESE PROBABLY CAN SHARE MID-COURSE VARIABLES.	(6D)

VACX		EQUALS	VECTAB +6	# I(2)
VACY		EQUALS	VACX +2		# I(2)
VACZ		EQUALS	VACY +2		# I(2)

# SERVICER STORAGE (USED BY ALL POWERED FLIGHT PROGS.)	(18D)

XNBPIP		EQUALS	VECTAB +12D	# I(6)
YNBPIP		EQUALS	XNBPIP +6	# I(6)
ZNBPIP		EQUALS	YNBPIP +6	# I(6)

# SOME VERB 82 STORAGE				(4D)

HAPOX		EQUALS	RQVV +4		# I(2)
HPERX		EQUALS	HAPOX +2	# I(2)

# V82 STORAGE					(6D)

VONE'		EQUALS	VECTAB +30D	# I(T)TMP NORMAL VELOCITY VONE / SQRT. MU

# R32(V83) STORAGE. -- SHARES WITH INTEGRATION STORAGE --	(28D)

# Page 115
BASETHV		EQUALS	RPQV		# I(6) BASE VEL VECTOR THIS VEH

BASETIME	EQUALS	RQVV		# I(2) TIME ASSOC WITH BASE VECS
ORIG		EQUALS	RQVV +2		# I(1) =0 FOR EARTH	=2 FOR MOON
STATEXIT	EQUALS	RQVV +3		# I(1) STQ ADDRESS FOR STATEXTP
BASEOTV		EQUALS	RQVV +4		# I(6) BASE VEL VECTOR OTHER VEH

BASEOTP		EQUALS	VECTAB +6	# I(6) BASE POS VECTOR OTHER VEH

BASETHP		EQUALS	VECTAB +30D	# I(6) BASE POS VECTOR THIS VEH

# KEPLER STORAGE. (KEPLER IS CALLED BY PRECISION INTEGRATION AND (2D)
# CONICS)

EPSILONT	ERASE	+1		# I(2)

# VERB 83 STORAGE				(18D)

RANGE		ERASE	+17D		# I(2)DSP NOUN 54 DISTANCE TO OPTICAL SUBJ
RRATE		EQUALS	RANGE +2	# I(2)DSP NOUN 54 RATE OF APPROACH
RTHETA		EQUALS	RRATE +2	# I(2)DSP NOUN 54.
RONE		EQUALS	RTHETA +2	# I(6)TMP VECTOR STORAGE.  (SCRATCH)
VONE		EQUALS	RONE +6		# I(6)TMP VECTOR STORAGE.  (SCRATCH)

# VERB 67 STORAGE

WWPOS		=	RANGE		# NOUN 99 (V67)
WWVEL		=	RRATE		# NOUN 99 (V67)
WWBIAS		=	RTHETA		# NOUN 99 (V67)

# V82 STORAGE.  (CANNOT OVERLAY RONE OR VONE)	(11D) TWO SEPARAT LOCATIONS

V82FLAGS	EQUALS	VECTAB +6	# (1) FOR V82 BITS.
TFF		EQUALS	V82FLAGS +1	# I(2)
-TPER		EQUALS	TFF +2		# I(2)

HPERMIN		EQUALS	RANGE		# I(2) SET TO 300KFT FOR SR30.1
RPADTEM		EQUALS	HPERMIN +2	# I(2) PAD OR LANDING RADIUS FOR SR30.1
TSTART82	EQUALS	RPADTEM +2	# I(2) TEMP TIME STORAGE VOR V82.

# VARIOUS DISPLAY REGISTERS			(6D) NOUN 84; P76
# Page 116
DELVOV		ERASE	+5D		# (6)

# ALIGNMENT PLANETARY -- INERTIAL TRANSFORMATION STORAGE.	(18D)

# 		UNSHARED WHILE LM ON LUNAR SURFACE.

GSAV		ERASE	+17D		# I(6)
YNBSAV		EQUALS	GSAV +6		# I(6)
ZNBSAV		EQUALS	YNBSAV +6	# I(6)

# KALCMANU STORAGE, CAN OVERLAY GSAV.		(18D)

MFS		EQUALS	GSAV		# I(18)
MFI		EQUALS	MFS		# I
KEL		EQUALS	MFS		# I(18)
E01		EQUALS	MFS		# I(6)
E02		EQUALS	E01 +6		# I(6)

# LR VEL BEAM VECTORS.				(26D)

# CAN OVERLAY GSAV WITH CARE, USED DURING POWERED DESCENT ONLY.

VZBEAMNB	EQUALS	GSAV		# I(6) LR VELOCITY BEAMS IN NB COORDS.
VYBEAMNB	EQUALS	VZBEAMNB +6	# I(6)
VXBEAMNB	EQUALS	VYBEAMNB +6	# I(6) PRESERVE Z,Y,X ORDER

LRVTIME		=	VXBEAMNB +6	# B(2) LR
LRXCDU		=	LRVTIME +2	# B(1) LR
LRYCDU		=	LRXCDU +1	# B(1) LR
LRZCDU		=	LRYCDU +1	# B(1) LR
PIPTEM		=	LRZCDU +1	# B(3) LR

# P32-P35, P72-P75 STORAGE.			(40D)

T1TOT2		ERASE	+1		# (2)	TIME FROM CSI TO CDH
T2TOT3		ERASE	+1		# (2)
ELEV		ERASE	+1		# (2)
UP1		ERASE	+5		# (6)
DELVEET1	ERASE	+5		# I(6)	DV CSI IN REF
DELVEET2	ERASE	+5		# I(6)	DV CSH IN REF
RACT1		ERASE	+5		# (6)	POS VEC OF ACTIVE AT CSI TIME
RACT2		ERASE	+5		# (6)	POS VEC OF ACTIVE AT CDH TIME
# Page 117
RTSR1/MU	ERASE	+1		# (2)	SQ ROOT 1/MU STORAGE
RTMU		ERASE	+1		# (2)	MU STORAGE

# (THE FOLLOWING ERASABLES OVERLAY PORTIONS OF THE PREVIOUS SECTION)

+MGA		EQUALS	T1TOT2		# (2) S-S + MID GIM ANGL TO DELVEET3

UNRM		EQUALS	UP1		# I(6) S-S

DVLOS		EQUALS	RACT1		# I(6) S-S DELTA VELOCITY, LOS COORD-DISPLAY
ULOS		EQUALS	RACT2		# I(6) S-S UNIT LINE OF SIGHT VECTOR

NOMTPI		EQUALS	RTSR1/MU	# (2) S-S NOMINAL TPI-TIME FOR RECYCLE

# SOME P30 STORAGE.				(4D)

HAPO		EQUALS	RTSR1/MU	# I(2)
HPER		EQUALS	HAPO	+2	# I(2)


# SOME P38-P39,P78-79 STORAGE		#	(6D)

DELTAR		EQUALS	DVLOS		# I(2)
DELTTIME	EQUALS	DELTAR +2	# I(2) TIME REPRESENTATION OF DELTAR
TARGTIME	EQUALS	DELTTIME +2	# I(2) TINT MINUS DELTTIME

TINTSOI		EQUALS	DELTAR		# I(2) TIME OF INTERCEPT FOR SOI PHASE

# THE FOLLOWING ARE ERASABLE LOADS DURING A PERFORMANCE TEST.

TRANSM1		=	WRENDPOS	# E4,1400
ALFDK		=	TRANSM1 +18D

# ****** THE FOLLOWING SECTIONS OVERLAY V83 AND DISPLAY STORAGE ******

# V47 (R47) AGS INITIALIZATION PROGRAM STORAGE.  (OVERLAYS V83)	(14D)

AGSBUFF		EQUALS	RANGE		# B(14D)
AGSBUFFE	EQUALS	AGSBUFF +13D	# ENDMARK
# Page 118

# R36 OUT-OF-PLANE RENDEZVOUS DISPLAY STORAGE.  (OVERLAYS V83)	(12D)

RPASS36		EQUALS	RONE		# I(6) S-S
UNP36		EQUALS	RPASS36 +6	# I(6) S-S

# S-BAND ANTENNA GIMBAL ANGLES.  DISPLAYED BY R05 (V64).  (OVERLAYS V83)	(10D)
#			(OPERATES DURING P00 ONLY)
ALPHASB		EQUALS	RANGE		# B(2)DSP NOUN 51.  PITCH ANGLE.
BETASB		EQUALS	ALPHASB +2	# B(2)DSP NOUN 51.  YAW ANGLE.
RLM		EQUALS	BETASB +2	# I(6)S S/C POSITION VECTOR.

# **** USED IN S-BAND ANTENNA FOR LM ****

YAWANG		EQUALS	BETASB
PITCHANG	EQUALS	ALPHASB

# NOUN 56 DATA -- COMPUTED AND DISPLAYED BY VERB 85.

RR-AZ		EQUALS	PITCHANG	# I(2) ANGLE BETWEEN LOS AND X-Z PLANE
RR-ELEV		EQUALS	RR-AZ +2	# I(2) ANGLE BETWEEN LOS AND Y-Z PLANE

# R04 (V62) RADAR TEST STORAGE.
# R04 IS RESTRICTED TO P00.

RSTACK		EQUALS	RANGE		# B(8) BUFFER FOR R04 NOUNS.

# INITVEL STORAGE.  ALSO USED BY P31, P34, P35, P74, P75, P10, P11, MIDGIM, S40.1 AND S40.9.	(18D)

#		(POSSIBLY RINIT & VINIT CAN OVERLAY DELVEET1 & 2 ABOVE)

RINIT		ERASE	+5		# I(6) ACTIVE VEHICLE POSITION
VINIT		ERASE	+5		# I(6) ACTIVE VEHICLE VELOCITY
VIPRIME		ERASE	+5		# I(6) NEW VEL REQUIRED AT INITIAL RADIUS.

# VARIOUS DISPLAY REGISTERS.  BALLANGS		(3D)

FDAIX		ERASE			# I(1)
FDAIY		ERASE			# I(1)
FDAIZ		ERASE			# I(1)

# P34-P35 STORAGE.  DOWNLINKED.			(2D)

DELVTPF		ERASE	+1		# I(2) DELTA V FOR TPF

# SOME R04(V63)-R77 RADAR TEST STORAGE.		(6D)
# Page 119
RTSTDEX		ERASE			# (1)
RTSTMAX		ERASE			# (1)
RTSTBASE	ERASE			# (1)
RTSTLOC		ERASE			# (1)
RSTKLOC		=	RTSTLOC
RSAMPDT		ERASE			# (1)
RFAILCNT	ERASE			# (1)

# LPS20.1 STORAGE.  				(12D)

LMPOS		EQUALS RTSTDEX		# I(6)TMP  STORAGE FOR LM POS. VECTOR.
LMVEL		EQUALS LMPOS +6		# I(6)TMP  STORAGE FOR LM VEL. VECTOR.

# INITVEL STORAGE.  ALSU USED BY P31,34,35,74,75,S40.1 AND DOWNLINKED.	(6D)

DELVEET3	EQUALS	LMVEL +6	# I(6) DELTA V IN INERTIAL COORDINATES


END-E4		EQUALS			# FIRST UNUSED LOCATION IN E4

# SECOND DPS GUIDANCE (LUNAR LANDING)  (OVERLAY P32-35, INITVEL)	(14D)

VHORIZ		EQUALS	PIPTEM +3	# I(2) DISPLAY
ANGTERM		EQUALS	VHORIZ +2	# I(6) GUIDANCE
HBEAMNB		EQUALS	ANGTERM +6	# I(6) LANDING RADAR

# R12 DOWNLINK QUANTITIES			(5D)

LRXCDUDL	EQUALS	/LAND/ +2	# B(1) LANDING RADAR DOWNLINK
LRYCDUDL	EQUALS	LRXCDUDL +1	# B(1) LANDING RADAR DOWNLINK
LRZCDUDL	EQUALS	LRYCDUDL +1	# B(1) LANDING RADAR DOWNLINK
LRVTIMDL	EQUALS	LRZCDUDL +1	# B(2) LANDING RADAR DOWNLINK

# ASCENT GUIDANCE FOR LUNAR LANDING		(54D)

AT		EQUALS	PIPTEM +3	# I(2)TMP ENGINE DATA -- THRUST ACC*2(9)
VE		EQUALS	AT +2		# I(2)TMP EXHAUST VELOCITY * 2(7)M/CS.
TTO		EQUALS	VE +2		# I(2)TMP TAILOFF TIME * 2(17)CS.
TBUP		EQUALS	TTO +2		# I(2)TMP (M/MDOT) * 2(17)CS.
RDOTD		EQUALS	TBUP +2		# I(2)TMP TARGET VELOCITY COMPONENTS
YDOTD		EQUALS	RDOTD +2	# I(2)TMP SCALING IS 2(7)M/CS.
ZDOTD		EQUALS	YDOTD +2	# I(2)TMP

/R/MAG		EQUALS	ZDOTD +2	# I(2)TMP
LAXIS		EQUALS	/R/MAG +2	# I(6)TMP
# Page 120
ZAXIS1		=	UHZP
RDOT		=	HDOTDISP
YDOT		=	LAXIS +6	# I(2)TMP VEL. NORMAL TO REF. PLANE*2(-7)
ZDOT		EQUALS	YDOT +2		# I(2)TMP DOWN RANGE VEL * 2(-7)
GEFF		EQUALS	ZDOT +2		# I(2)TMP EFFECTIVE GRAVITY

# THESE TWO GROUPS OF ASCENT GUIDANCE ARE SPLIT BY THE ASCENT-DESCENT SERVICER SECTION FOLLOWING THIS SECTION

Y		EQUALS	/LAND/ +2	# I(2)TMP OUT-OF-PLANE DIST *2(24)M
DRDOT		EQUALS	Y +2		# I(2)TMP RDOTD - RDOT
DYDOT		EQUALS	DRDOT +2	# I(2)TMP YDOTD - YDOT
DZDOT		EQUALS	DYDOT +2	# I(2)TMP ZDOTD - ZDOT
PCONS		EQUALS	DZDOT +2	# I(2)TMP CONSTANT IN ATR EQUATION
YCONS		EQUALS	PCONS +2	# I(2)TMP CONSTANT IN ATY EQUATION
PRATE		EQUALS	YCONS +2	# I(2)TMP RATE COEFF. IN ATR EQUATION
YRATE		EQUALS	PRATE +2	# I(2)TMP RATE COEFF. IN ATY EQUATION
ATY		EQUALS	YRATE +2	# I(2)TMP OUT-OF-PLANE THRUST COMP. *2(9)
ATR		EQUALS	ATY +2		# I(2)TMP RADIAL THRUST COMP. * 2(9)
ATP		EQUALS	ATR +2		# I(2)TMP DOWN-RANGE THRUST COMP
YAW		EQUALS	ATP +2		# I(2)TMP
PITCH		EQUALS	YAW +2		# I(2)TMP

# SERVICER FOR LUNAR ASCENT AND DESCENT		(14D)

G(CSM)		EQUALS	GEFF	+2	# I(6)	FOR UPDATE OF COMMAND MODULE STATE
R(CSM)		EQUALS	R-OTHER		#	VECTORS BY LEM: ANALOGS OF GDT/2,
V(CSM)		EQUALS	V-OTHER		#	R, AND V, RESPECTIVELY OF THE CSM
WM		EQUALS	G(CSM) +6	# I(6)TMP -- LUNAR ROTATION VECTOR (SM)
/LAND/		EQUALS	WM +6		# B(2) LUNAR RADIUS AT LANDING SITE

# Page 121
# EBANK-5 ASSIGNMENTS

		SETLOC	2400

# W-MATRIX.  ESSENTIALLY UNSHARABLE.		(162D)

W		ERASE	+161D
ENDW		EQUALS	W +162D

# ******* OVERLAY NUMBER 1 IN EBANK 5 *******

# 		W-MATRIX PADLOADS		(124D)

TLAND		EQUALS	W		# I(2)	NOMINAL TIME OF LANDING
RBRFG		EQUALS	TLAND +2	# I(6) BRAKING
VBRFG		EQUALS	RBRFG +6	# I(6)      PHASE
ABRFG		EQUALS	VBRFG +6	# I(6)           TARGET
VBRFG*		EQUALS	ABRFG +6	# I(2)                PARAMETERS:
ABRFG*		EQUALS	VBRFG* +2	# I(2)                     HIGH
JBRFG*		EQUALS	ABRFG* +2	# I(2)                          GATE
GAINBRAK	EQUALS	JBRFG* +2	# B(2)
TCGFBRAK	EQUALS	GAINBRAK +2	# B(1)
TCGIBRAK	EQUALS	TCGFBRAK +1	# B(1)
RAPFG		EQUALS	TCGIBRAK +1	# I(6) APPROACH
VAPFG		EQUALS	RAPFG +6	# I(6)      PHASE
AAPFG		EQUALS	VAPFG +6	# I(6)           TARGET
VAPFG*		EQUALS	AAPFG +6	# I(2)                PARAMETERS:
AAPFG*		EQUALS	VAPFG* +2	# I(2)                     LOW
JAPFG*		EQUALS	AAPFG* +2	# I(2)                          GATE
GAINAPPR	EQUALS	JAPFG* +2	# B(2)
TCGFAPPR	EQUALS	GAINAPPR +2	# B(1)
TCGIAPPR	EQUALS	TCGFAPPR +1	# B(1)
VIGN		EQUALS	TCGIAPPR +1	# I(2)	DESIRED SPEED FOR IGNITION
RIGNX		EQUALS	VIGN +2		# I(2)	DESIRED `ALTITUDE' FOR IGNITION
RIGNZ		EQUALS	RIGNX +2	# I(2)	DESIRED GROUND RANGE FOR IGNITION
KIGNX/B4	EQUALS	RIGNZ +2	# I(2)
KIGNY/B8	EQUALS	KIGNX/B4 +2	# I(2)
KIGNV/B4	EQUALS	KIGNY/B8 +2	# I(2)
LOWCRIT		EQUALS	KIGNV/B4 +2	# B(1) (HIGHCRIT MUST FOLLOW LOWCRIT)
HIGHCRIT	EQUALS	LOWCRIT +1	# B(1)
V2FG		EQUALS	HIGHCRIT +1	# I(6) DESIRED VELOCITY FOR P65.
TAUVERT		EQUALS	V2FG +6		# I(2) TIME CONSTANT FOR P65 VEL. NULLING.
DELQFIX		EQUALS	TAUVERT +2	# I(2) LR ALTITUDE DATA REASONABLE PARM.
LRALPHA		EQUALS	DELQFIX +2	# B(1) POS1 X ROTATION		* MUST *
# Page 122
LRBETA1		EQUALS	LRALPHA +1	# B(1) POS1 Y ROTATION		*  BE  *
LRALPHA2	EQUALS	LRBETA1 +1	# B(1) POS2 X ROTATION		*  IN  *
LRBETA2		EQUALS	LRALPHA2 +1	# B(1) POS2 Y ROTATION		* ORDER*
LRVMAX		EQUALS	LRBETA2 +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRVF		EQUALS	LRVMAX +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVZ		EQUALS	LRVF +1		# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVY		EQUALS	LRWVZ +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVX		EQUALS	LRWVY +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVFZ		EQUALS	LRWVX +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVFY		EQUALS	LRWVFZ +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVFX		EQUALS	LRWVFY +1	# B(1) LR VEL WEIGHTING FUNCTIONS
LRWVFF		EQUALS	LRWVFX +1	# B(1) LR VEL WEIGHTING FUNCTIONS

ABVEL*		EQUALS	BUF		# B(1) LR TEMP
VSELECT*	EQUALS	BUF +1		# B(1) LR TEMP

RODSCALE	EQUALS	LRWVFF +1	# I(1) CLICK SCALE FACTOR FOR ROD
TAUROD		EQUALS	RODSCALE +1	# I(2) TIME CONSTANT FOR R.O.D.
LAG/TAU		EQUALS	TAUROD +2	# I(2) LAG TIME DIVIDED BY TAUROD (P66)
MINFORCE	EQUALS	LAG/TAU +2	# I(2) MINIMUM FORCE P66 WILL COMMAND
MAXFORCE	EQUALS	MINFORCE +2	# I(2) MAXIMUM FORCE P66 WILL COMMAND.
ABTCOF		EQUALS	MAXFORCE +2	# I(16) COEFFICIENTS FOR ABORT TFI POLYS.
VMIN		EQUALS	ABTCOF +16D	# I(2) MINIMUM VELOCITY FOR ABORT INJ.
YLIM		EQUALS	VMIN +2		# I(2) MAXIMUM CROSS-RANGE DIST. IN ABORTS
ABTRDOT		EQUALS	YLIM +2		# I(2) DESIRED RADIAL VEL. FOR ABORTS.
COSTHET1	EQUALS	ABTRDOT +2	# I(2) COS CONE 1 ANGLE FOR ABORTS.
COSTHET2	EQUALS	COSTHET1 +2	# I(2) COS OF CONE 2 ANGLE FOR ABORTS.

# SOME VARIABLES FOR SECOND DPS GUIDANCE.	(34D)

CG		EQUALS	COSTHET2 +2	# I(18D) GUIDANCE
RANGEDSP	EQUALS	CG +18D		# B(2) DISPLAY
OUTOFPLN	EQUALS	RANGEDSP +2	# B(2) DISPLAY
R60VSAVE	EQUALS	OUTOFPLN +2	# I(6)TMP SAVES VALUE OF POINTVSM THRU R51
RGU		EQUALS	R60VSAVE +6	# I(6) UNSHARED FOR DOWNLINK
VBIAS		EQUALS	R60VSAVE	# I(6) PIPA BIAS EQUIV. VELOCITY VECTOR.
L*WCR*T		=	BUF
H*GHCR*T	=	BUF	+1

# ALIGNMENT/SYSTEST/CALCSMSC COMMON STORAGE	(36D)

XSM		EQUALS	ENDW		# B(6)
YSM		EQUALS	XSM	+6	# B(6)
ZSM		EQUALS	YSM	+6	# B(6)

XDC		EQUALS	ZSM	+6	# B(6)
YDC		EQUALS	XDC	+6	# B(6)
ZDC		EQUALS	YDC	+6	# B(6)
# Page 123
XNB		=	XDC
YNB		=	YDC
ZNB		=	ZDC

# OVERLAYS WITHIN ALIGNMENT/SYSTEST/CALCSMSC COMMON STORAGE	(4D)

-COSB		EQUALS	XSM +2		# (2)TMP
SINB		EQUALS	-COSB +2	# (2)TMP

# MORE OVERLAYS TO ALIGNMENT/SYSTEST (THESE ARE P52)	(6D)

LANDLAT		EQUALS	STARAD		# (2) LATTITUDE, LONGITUDE
LANDLONG	EQUALS	LANDLAT +2	# (2)	AND ALTITUDE
LANDALT		EQUALS	LANDLONG +2	# (2)	OF LANDING SITE

# ALIGNMENT/SYSTEST COMMON STORAGE.		(31D)

STARAD		EQUALS	ZDC +6		# I(18D)TMP
STAR		EQUALS	STARAD +18D	# I(6)
GCTR		EQUALS	STAR +6		# B(1)
OGC		EQUALS	GCTR +1		# I(2)
IGC		EQUALS	OGC +2		# I(2)
MGC		EQUALS	IGC +2		# I(2)

# P57 ALIGNMENT (OVERLAY OF ALIGNMENT/SYSTEST COMMON STORAGE)	(12D)

GACC		=	STARAD		# (6) SS
GOUT		=	STARAD +6	# (6) SS

# OVERLAYS WITHIN ALIGNMENT/SYSTEST COMMON STORAGE	(24D)

VEARTH		EQUALS	STARAD		# (6)TMP
VSUN		EQUALS	VEARTH +6	# (6)TMP
VMOON		EQUALS	VSUN +6		# (6)TMP
SAX		EQUALS	VMOON +6	# (6)TMP

# P50'S, R50'S Q STORES				(2D)

QMIN		EQUALS	MGC +2		# B(1)TMP
QMAJ		EQUALS	QMIN +1		# B(1)TMP

# **** USED IN P50S **** (SCATTERED OVERLAYS)

XSCI		EQUALS	STARAD
YSCI		EQUALS	XSCI +6
# Page 124
ZSCI		EQUALS	YSCI
CULTRIX		EQUALS	VEARTH		# VEARTH, VSUN, VMOON
VEC1		EQUALS	STARAD +12D
VEC2		EQUALS	STAR

# ALIGNMENT STORAGE.				(23D)

OGCT		EQUALS	QMAJ +1		# I(6)
BESTI		EQUALS	OGCT +6		# I(1)
BESTJ		EQUALS	BESTI +1
STARIND		EQUALS	BESTJ +1
# RETAIN THE ORDER OF STARSAV1 TO STARSAV2 +5 FOR DOWNLINK PURPOSES
STARSAV1	EQUALS	STARIND +1	# I(6)
STARSAV2	EQUALS	STARSAV1 +6	# I(6)
TALIGN		EQUALS	STARSAV2 +6	# B(2) TIME OF IMU ALIGNMENT (DOWNLINKED)

# P32-35 + SERVICER

RTX1		EQUALS	TALIGN +2	# I(1) X1	-2 EARTH, -10 MOON
RTX2		EQUALS	RTX1 +1		# I(1) X2	0 EARTH, 2 MOON

ZPRIME		=	22D
PDA		=	22D
COSTH		=	16D
SINTH		=	18D
THETA		=	20D
STARM		=	32D

# Page 125
# ******* OVERLAY NUMBER 2 IN EBANK 5 *******

# CONICS ROUTINE STORAGE.			(85D)

DELX		EQUALS	ENDW		# I(2)TMP
DELT		EQUALS	DELX +2		# I(2)TMP
URRECT		EQUALS	DELT +2		# I(6)TMP
RCNORM		EQUALS	34D		# I(2)TMP
XPREV		EQUALS	XKEP		# I(2)TMP
R1VEC		EQUALS	URRECT +6	# I(6)TMP
R2VEC		EQUALS	R1VEC +6	# I(6)TMP
TDESIRED	EQUALS	R2VEC +6	# I(2)TMP
GEOMSGN		EQUALS	TDESIRED +2	# I(1)TMP
UN		EQUALS	GEOMSGN +1	# I(6)TMP
VTARGTAG	EQUALS	UN +6		# I(1)TMP
VTARGET		EQUALS	VTARGTAG +1	# I(6)TMP
RTNLAMB		EQUALS	VTARGET +6	# I(1)TMP
U2		EQUALS	RTNLAMB +1	# I(6)TMP
MAGVEC2		EQUALS	U2 +6		# I(2)TMP
UR1		EQUALS	MAGVEC2 +2	# I(6)TMP
SNTH		EQUALS	UR1 +6		# I(2)TMP
CSTH		EQUALS	SNTH +2		# I(2)TMP
1-CSTH		EQUALS	CSTH +2		# I(2)TMP
CSTH-RHO	EQUALS	1-CSTH +2	# I(2)TMP
P		EQUALS	CSTH-RHO +2	# I(2)TMP
R1A		EQUALS 	P +2		# I(2)TMP
RVEC		EQUALS	R1VEC		# I(6)TMP
VVEC		EQUALS	R1A +2		# I(6)TMP
RTNTT		EQUALS	RTNLAMB		# I(1)TMP
ECC		EQUALS	VVEC +6		# I(2)TMP
RTNTR		EQUALS	RTNLAMB		# I(1)TMP
RTNAPSE		EQUALS	RTNLAMB		# I(1)TMP
R2		EQUALS	MAGVEC2		# I(2)TMP
RTNPRM		EQUALS	ECC +2		# I(1)TMP
SGNRDOT		EQUALS	RTNPRM +1	# I(1)TMP
RDESIRED	EQUALS	SGNRDOT +1	# I(2)TMP
DELDEP		EQUALS	RDESIRED +2	# I(2)TMP
DEPREV		EQUALS	DELDEP +2	# I(2)TMP
TERRLAMB	EQUALS	DELDEP		# I(2)TMP
TPREV		EQUALS	DEPREV		# I(2)TMP
EPSILONL	EQUALS	DEPREV +2	# I(2)TMP
COGA		EQUALS	EPSILONL +2	# I(2)	COTAN OF INITIAL FLIGHT PATH ANGLE.
INDEP		EQUALS	COGA		#	USED BY SUBROUTINE `ITERATOR'.

# Page 126
# ******* OVERLAY NUMBER 3 IN EBANK 5 *******

# INCORP STORAGE.				(18D)

ZI		EQUALS	ENDW		# I(18D)TMP

# INCORP/L SR22.3 STORAGE.			(21D)

DELTAX		EQUALS	ZI +18D		# I(18)
VARIANCE	EQUALS	DELTAX +18D	# I(3)

# MEASUREMENT INCORPORATION -R22- STORAGE.	(49D)

GRP2SVQ		EQUALS	VARIANCE +3	# I(1)TMP QSAVE FOR RESTARTS
OMEGAM1		EQUALS	GRP2SVQ +1	# I(6)
OMEGAM2		EQUALS	OMEGAM1	+6	# I(6)
OMEGAM3		EQUALS	OMEGAM2 +6	# I(6)
HOLDW		EQUALS	OMEGAM3 +6	# I(18)
TDPOS		EQUALS	HOLDW +18D	# I(6)
TDVEL		EQUALS	TDPOS +6	# I(6)

TRIPA		EQUALS	DELTAX		# I(3)TMP
TEMPVAR		EQUALS	TRIPA +3	# I(3)TMP

# INCORPORATION/INTEGRATION Q STORAGE.		(1D)

EGRESS		EQUALS	TDVEL +6	# I(1)

# P30/P31 STORAGE.				(1D) AND ONE OVERLAY

P30EXIT		EQUALS	EGRESS +1	# B(1)TMP

ORIGIN		EQUALS	P30EXIT		# I(1)TMP INTEX DURING INITVEL.

# Page 127
# SYSTEM TEST ERASABLES.  CAN OVERLAY W MATRIX.	(127D)

# ******* OVERLAY NUMBER 0 IN EBANK 5 *******

AZIMUTH		EQUALS	W		# 2
LATITUDE	EQUALS	AZIMUTH +2	# 2
ERVECTOR	EQUALS	LATITUDE +2	# 6
LENGTHOT	EQUALS	ERVECTOR +6	# 1
LOSVEC		EQUALS	LENGTHOT +1	# 6
NDXCTR		EQUALS	LOSVEC +1	# 1
PIPINDEX	EQUALS	NDXCTR +1	# 1
POSITON		EQUALS	PIPINDEX +1	# 1
QPLACE		EQUALS	POSITON +1	# 1
QPLACES		EQUALS	QPLACE +1	# 1
SOUTHDR		EQUALS	QPLACES +1	# 7
TEMPTIME	EQUALS	SOUTHDR +7	# 2
TMARK		EQUALS	TEMPTIME +2	# 2
GENPL		EQUALS	TMARK +2
CDUTIMEI	=	GENPL
CDUTIMEF	=	GENPL +2
CDUDANG		=	GENPL +4
CDUREADF	=	GENPL +5
CDUREADI	=	GENPL +6
CDULIMIT	=	GENPL +7

TEMPADD		=	GENPL +4
TEMP		=	GENPL +5
NOBITS		=	GENPL +6
CHAN		=	GENPL +7

LOS1		=	GENPL +8D
LOS2		=	GENPL +14D

CALCDIR		EQUALS	GENPL +20D
CDUFLAG		EQUALS	GENPL +21D
GYTOBETQ	EQUALS	GENPL +22D
OPTNREG		EQUALS	GENPL +23D
SAVE		EQUALS	GENPL +24D	# THREE ONSEC LOC
SFCONST1	EQUALS	GENPL +27D
TIMER		EQUALS	GENPL +28D

DATAPL		EQUALS	GENPL +30D
RDSP		EQUALS	GENPL		# FIX LATER	POSSIBLY KEEP1
MASKREG		EQUALS	GENPL +64D
CDUNDX		EQUALS	GENPL +66D
RESULTCT	EQUALS	GENPL +67D
COUNTPL		EQUALS	GENPL +70D

CDUANG		EQUALS	GENPL +71D
# Page 128
AINLA		=	GENPL		# 110 DEC OR 156 OCT LOCATIONS

WANGO		EQUALS	AINLA		# VERT ERATE
WANGI		EQUALS	AINLA +2D	# HORIZONTAL ERATE
WANGT		EQUALS	AINLA +4D	# T
TORQNDX		=	WANGT
DRIFTT		EQUALS	AINLA +6D
ALX1S		EQUALS	AINLA +8D
CMPX1		EQUALS	AINLA +9D	# IND
ALK		EQUALS	AINLA +10D	# GAINS
VLAUNS		EQUALS	AINLA +22D
WPLATO		EQUALS	AINLA +24D
INTY		EQUALS	AINLA +28D	# SOUTH  IP INTE
ANGZ		EQUALS	AINLA +30D	# EAST A IS
INTZ		EQUALS	AINLA +32D	# EAST P P I
ANGY		EQUALS	AINLA +34D	# SOUTH
ANGX		EQUALS	AINLA +36D	# VE
DRIFTO		EQUALS	AINLA +38D	# VERT
DRIFTI		EQUALS	AINLA +40D	# SOU
VLAUN		EQUALS	AINLA +44D
ACCWD		EQUALS	AINLA +46D
POSNV		EQUALS	AINLA +52D
DPIPAY		EQUALS	AINLA +54D	# SOUTH
DPIPAZ		EQUALS	AINLA +58D	# NORTH  IP INCREMENT
ALTIM		EQUALS	AINLA +60D
ALTIMS		EQUALS	AINLA +61D	# INDEX
ALDK		EQUALS	AINLA +62D	# TIME  ONSTAN
DELM		EQUALS	AINLA +76D
WPLATI		EQUALS	AINLA +84D
GEOCOMPS	EQUALS	AINLA +86D
ERCOMP		EQUALS	AINLA +87D
ZERONDX		EQUALS	AINLA +93D

THETAN		=	ALK +4
FILDELV		EQUALS	THETAN +6	# AGS ALIGNMENT STORAGE
INTVEC		EQUALS	FILDELV +2
1SECXT		=	AINLA +94D
ASECXT		=	AINLA +95D
PERFDLAY	EQUALS	AINLA +96D	# B(2) DELAY TIME BEF. START DRIFT MEASURE
OVFLOWCK	EQUALS	AINLA +98D	# (1) SET MEANS OVERFLOW IN IMU PERF TEST

END-E5		EQUALS	STARSAV2 +6	# *** FIRST FREE LOCATION IN E5 ***

# Page 129
# EBANK-6 ASSIGNMENTS.

		SETLOC	3000

# DAP PAD-LOADED DATA.				(10D)

# ALL OF THE FOLLOWING EXCEPT PITTIME AND ROLLTIME ARE INITIALIZED IN FRESH START TO PERMIT IMMEDIATE USE OF DAP.

HIASCENT	ERASE			# (1) MASS AFTER STAGING, SCALE AT B16 KG.
ROLLTIME	ERASE			# (1) TIME TO TRIM Z GIMBAL IN R03, CSEC.
PITTIME		ERASE			# (1) TIME TO TRIM Y GIMBAL IN R03, CSEC.
DKTRAP		ERASE			# (1) DAP STATE		   (POSSIBLE 77001
DKOMEGAN	ERASE			# (1)   ESTIMATOR PARA-	     (VALUES 00012
DKKAOSN		ERASE			# (1)     METERS FOR THE	     00074
LMTRAP		ERASE			# (1)       DOCKED AND		     77001
LMOMEGAN	ERASE			# (1)         LEM-ALONE CASES	     00000
LMKAOSN		ERASE			# (1)           RESPECTIVELY         00074
DKDB		ERASE			# (1) WIDTH OF DEADBAND FOR DOCKED RCS
					#     AUTOPILOT (DB=1.4DEG IN FRESH START
					#     DEADBAND = PI/DKDB RAD.

# PADLOADS FOR INTITIALIZATION OF DAP BIAS ACCELERATION (AT P12 IGNITION)	(2D)

IGNAOSQ		ERASE			# B(1)PL
IGNAOSR		ERASE			# B(1)PL

# AXIS TRANSFORMATION MATRIX -- GIMBAL TO PILOT AXES:	(5D)

M11		ERASE			# SCALED AT 1
M21		ERASE			# SCALED AT 1
M31		ERASE
M22		ERASE			# SCALED AT 1.
M32		ERASE			# SCALED AT 1.

# ANGLE MEASUREMENTS

OMEGAP		ERASE 	+4		# BODY-AXIS ROT. RATES SCALED AT PI/4 AND
OMEGAQ		EQUALS	OMEGAP +1	# BODY-AXIS ACCELERATIONS SCALED AT PI/8.
OMEGAR		EQUALS	OMEGAP +2
# RETAIN THE ORDER OF ALPHAQ AND ALPHAR FOR DOWNLINK PURPOSES.
ALPHAQ		EQUALS	OMEGAP +3
ALPHAR		EQUALS	OMEGAP +4
OMEGAU		ERASE	+1
OMEGAV		=	OMEGAU +1

TRAPEDP		ERASE	+5
TRAPEDQ		=	TRAPEDP +1
TRAPEDR		=	TRAPEDP +2
NPTRAPS		=	TRAPEDP +3
# Page 130
NQTRAPS		=	TRAPEDP +4
NRTRAPS		=	TRAPEDP +5
EDOTP		=	EDOT
EDOTQ		ERASE	+1
EDOTR		=	EDOTQ +1	# MANY SHAREING NAMES
QRATEDIF	EQUALS	EDOTQ		# ALTERNATIVE NAMES:
RRATEDIF	EQUALS	EDOTR		# DELETE WHEN NO. OF REFERENCES = 0

URATEDIF	EQUALS	OMEGAU
VRATEDIF	EQUALS	OMEGAV
OLDXFORP	ERASE	+2		# STORED CDU READINGS FOR STATE
OLDYFORP	EQUALS	OLDXFORP +1	# DERIVATIONS: SCALED AT PI RADIANS (2'S)
OLDZFORQ	EQUALS	OLDXFORP +2

# RATE-COMMAND AND MINIMUM IMPULSE MODES

CH31TEMP	ERASE
STIKSENS	ERASE
TCP		ERASE
DXERROR		ERASE	+5
DYERROR		EQUALS	DXERROR +2
DZERROR		EQUALS	DXERROR +4
PLAST		ERASE
QLAST		ERASE
RLAST		ERASE
TCQR		ERASE

# OTHER VARIABLES				(5D)

OLDPMIN		ERASE			# THESE THREE USED IN MIN IMPUSE MODE
OLDQRMIN	ERASE
TEMP31		EQUALS	DAPTEMP1

SAVEHAND	ERASE	+1
PERROR		ERASE
QERROR		EQUALS	DYERROR
RERROR		EQUALS	DZERROR

# JET STATE CHANGE VARIABLES -- TIME (TOFJTCHG), JET BITS WRITTEN NOW	(10D)
# (JTSONNOW), AND JET BITS WRITTEN AT T6 RUPT (JTSATCHG).

NXT6ADR		ERASE
T6NEXT		ERASE	+1
T6FURTHA	ERASE	+1
NEXTP		ERASE	+2
NEXTU		=	NEXTP +1
NEXTV		=	NEXTP +2
-2JETLIM	ERASE	+1		# RATE COMMAND 4-JET RATE DIFFERENCE LIMIT
-RATEDB		EQUALS	-2JETLIM +1	# AND RATE DEADBAND FOR ASCENT OR DESCENT

TARGETDB	EQUALS	-RATEDB		# MAN. CONTROL TARGET DB COMPLEMENT.

# ***Q,R AXIS ERASABLES ***		(3)
# Page 131
PBIT		EQUALS	BIT10
QRBIT		EQUALS	BIT11
UERROR		EQUALS	DAPTREG5	# U,V-AXES ATT ERROR FOR RCS CONTROL LAWS.
VERROR		=	UERROR +1
RETJADR		ERASE
TEMPNUM		EQUALS	DAPTEMP4
NUMBERT		EQUALS	DAPTEMP5
ROTINDEX	EQUALS	DAPTEMP6
ROTEMP1		EQUALS	DAPTEMP1
ROTEMP2		EQUALS	DAPTEMP2
POLYTEMP	EQUALS	DAPTEMP3
SENSETYP	ERASE
ABSTJ		EQUALS	DAPTEMP1	# ABS VALUE OF JET-FIRING TIME
ABSEDOTP	EQUALS	DAPTEMP1

DPSBURN		EQUALS	DAPTREG4	# USED WITH SNUFFBIT.  VERY TEMPORARY.

# Page 132
# TRIM GIMBAL CONTROL LAW ERASABLES:		(11D)

GTSTEMPS	EQUALS	DAPTEMP1	# GTS IS PART OF THE JASK.
SHFTFLAG	EQUALS	GTSTEMPS +2	# COUNT BITS FOR GTSQRT SHIFTING.
ININDEX		EQUALS	GTSTEMPS +5	# INDEX FOR SHIFT LOOP IN GTSQRT.

SAVESR		EQUALS	AXISCTR		# CANNOT BE A DAPTEMP -- GTS USES THEM ALL.

SCRATCH		EQUALS	GTSTEMPS +7	# ROOTCYCL ERASABLE.
HALFARG		EQUALS	GTSTEMPS +8D	# ROOTCYCL ERASABLE.

K2THETA		EQUALS	GTSTEMPS	# D,P., K*ERROR, NEGUSUM
KCENTRAL	EQUALS	GTSTEMPS +2	# S.P., K FROM KQ OR KRDAP, AT PI/2(8)
K2CNTRAL	EQUALS	GTSTEMPS +3	# D.P., GTS SCRATCH CELLS.
WCENTRAL	EQUALS	GTSTEMPS +4	# S.P., OMEGA, AT PI/4 RAD/SEC
ACENTRAL	EQUALS	GTSTEMPS +5	# S.P., ALPHA, AT PI/4 RAD/SEC(2)
DEL		EQUALS	GTSTEMPS +6	# S.P., SGN FUNCTION VALUE.
A2CNTRAL	EQUALS	GTSTEMPS +7	# D.P., GTS SCRATCH CELLS.
QRCNTR		EQUALS	GTSTEMPS +9D	# S.P., INDEX FOR GTS LOOP THROUGH Q,R AXES
FUNCTION	EQUALS	GTSTEMPS +10D	# D.P., ARGUMENT FOR GRSQRT, SCRATCH FOR GTS.

NEGUQ		ERASE	+2		# NEGATIVE OF Q-AXIS GIMBAL DRIVE.
		EQUALS	NEGUQ +1	# DEFINED AND USED ELSEWHERE.
NEGUR		EQUALS	NEGUQ +2	# NEGATIVE OF R-AXIS GIMBAL DRIVE.

KQ		ERASE	+2		# S.P., JERK TERM FOR GTS, AT PI/2(8)
AXISCTR		EQUALS	KQ +1
KRDAP		EQUALS	KQ +2		# .3 ACCDOTR SCALED AT PI/2(8)

ACCDOTQ		ERASE	+3		# Q-JERK SCALED AT PI/2(7) UNSIGNED
QACCDOT		EQUALS	ACCDOTQ +1	# Q-JERK SCALED AT PI/2(7) SIGNED
ACCDOTR		EQUALS	ACCDOTQ +2	# R-JERK SCALED AT PI/2(7) UNSIGNED
RACCDOT		EQUALS	ACCDOTQ +3	# R-JERK SCALED AT PI/2(7) SIGNED

QDIFF		EQUALS	QERROR		# ATTITUDE ERRORS:
RDIFF		EQUALS	RERROR		# SCALED AT PI RADIANS.

# TORQUE VECTOR RECONSTRUCTION VARIABLES:	(18D)

JETRATE		EQUALS	DAPTREG1
JETRATEQ	EQUALS	JETRATE +1	# THE LAST CONTROL SAMPLE PERIOD OF 100 MS.
JETRATER	EQUALS	JETRATE +2	# SCALED AT PI/4 RADIANS/SECOND

DOWNTORK	ERASE	+5		# ACCUMULATED JET TORQUE COMMANDED ABOUT
POSTORKP	EQUALS	DOWNTORK	# 	+,-p, +,-u, +,-v RESPECTIVELY.
NETTOTKP	EQUALS	DOWNTORK +1	#	EMPLOYED EXCLUSIVELY FOR DOWNLIST.
POSTORKU	EQUALS	DOWNTORK +2	#	NOT INITIALIZED:  PERMITTED TO OVERFLOW.
# Page 133
NEGTORKU	EQUALS	DOWNTORK +3	#	SCALED AT 32 JET-SEC, OR ABOUT 2.0 JET-
POSTORKV	EQUALS	DOWNTORK +4	#	MSEC. PER BIT.
NEGTORKV	EQUALS	DOWNTORK +5

NO.PJETS	ERASE	+2
NO.UJETS	=	NO.PJETS +1
NO.VJETS	=	NO.UJETS +1
TJP		ERASE	+2
TJU		=	TJP +1
TJV		=	TJP +2

L,PVT-CG	ERASE
1JACC		ERASE	+4		# ACCELERATIONS DUE TO 1 JET TORQUING
1JACCQ		EQUALS	1JACC +1	# SCALED AT PI/4 RADIANS/SECOND
1JACCR		EQUALS	1JACC +2
1JACCU		EQUALS	1JACC +3	# FOR U,V-AXES THE SCALE FACTOR IS DOFF:
1JACCV		EQUALS	1JACC +4	# SCALED AT PI/2 RADIANS/SECOND (FOR ASC)

# ASCENT VARIABLES				(10D)

SKIPU		ERASE	+1
SKIPV		=	SKIPU +1

# THE FOLLOWING LM DAP ERASABLES ARE ZEROED IN THE STARTDAP SECTION OF THE DAPIDLER PROGRAM AND THE COASTASC
# SECTION OF THE AOSTASK.  THE ORDER MUST BE PRESERVED FOR THE INDEXING METHODS WHICH ARE EMPLOYED IN THOSE
# SECTIONS AND ELSEWHERE.

AOSQ		ERASE	+5		# OFFSET ACC. ESTIMATES, UPDATED IN D.P.,
AOSR		EQUALS	AOSQ +2		# AND SCALED AT PI/2.
AOSU		EQUALS	AOSQ +4		# UV-AXES OFFSET ACC. FROMED BY VECTOR
AOSV		EQUALS	AOSQ +5		# ADDITION OF Q,R. AT PI/2 RAD/SEC(2).

AOSQTERM	ERASE	+1		# (.1-.05K)AOS
AOSRTERM	EQUALS	AOSQTERM +1	# SCALED AT PI/4 RADIANS/SECOND.

# FOR TJET LAW SUBROUTINES:			(TEMPS ONLY)

#NUMBERT	EQUALS	DAPTEMP5	# DEFINED IN QRAXIS.
EDOTSQ		EQUALS	DAPTEMP1
ROTSENSE	EQUALS	DAPTEMP2
FIREFCT		EQUALS	DAPTEMP3	# LOOKED AT BY PAXIS.
TTOAXIS		EQUALS	DAPTEMP4
ADRSDIF2	EQUALS	DAPTEMP6
HOLDQ		EQUALS	DAPTREG1
ADRSDIF1	EQUALS	DAPTREG2
HH		EQUALS	DAPTREG3	# DOUBLE PRECISION.
# HH +1		EQUALS	DAPTREG4
E		EQUALS	DAPTREG6	# TIME SHARE WITH VERROR
EDOT		EQUALS	OMEGAV

# Page 134
# INPUT TO TJET LAW (PERMANENT ERASABLES).	(48D)

TJETU		=	TJU		# EQUATE NAMES.  INDEXED BY -1, 0, +1.
BLOCKTOP	ERASE	+47D
1/ANET1		=	BLOCKTOP +16D	# THESE 8 PARAMETERS ARE SET UP BY 1/ACCS
1/ANET2		=	1/ANET1 +1	# FOR MINIMUM JETS ABOUT THE U-AXIS WHEN
1/ACOAST	=	1/ANET1 +4	# EDOT IS POSITIVE.  TJETLAW INDEXES BY
ACCFCTZ1	=	1/ANET1 +6	# ADRSDIFF FROM THESE REGISTERS TO PICK UP
ACCFCTZ5	=	1/ANET1 +7	# PARAMETERS FOR THE PROPER AXIS, NUMBER
FIREDB		=	1/ANET1 +10D	# OF JETS AND SIGN OF EDOT.  THERE ARE 48
COASTDB		=	1/ANET1 +12D	# REGISTERS IN ALL IN THIS BLOCK.
AXISDIST	=	1/ANET1 +14D	# FOUR NOT REFERENCED (P-AXIS) ARE FILLED
					# IN BY THE FOLLOWING:
ACCSWU		=	BLOCKTOP	# SET BY 1/ACCS TO SHOW WHETHER MAXIMUM
ACCSWV		=	ACCSWU +1	# JETS ARE REQUIRED BECAUSE OF AOS.
FLAT		=	BLOCKTOP +6	# WIDTH OF MINIMUM IMPULSE ZONE.
ZONE3LIM	=	BLOCKTOP +7	# HEIGHT OF MINIMUM IMPULSE ZONE (AT 4 SEC.)

COEFFQ		ERASE	+1		# COEFFQ AND COEFFR ARE USED IN ROT-TOUV
COEFFR		EQUALS	COEFFQ +1	# TO REXOLVE Q,R COMPONENTS INTO U,V COMP.

# VARIABLES FOR GTS-QRAXIS CONTROL EXCHANGE.	(4)

ALLOWGTS	EQUALS	NEGUQ +1	# INSERT INTO UNUSED LOCATION
COTROLER	ERASE			# INDICATES WHICH CONTROL SYSTEM TO USE.
QGIMTIMR	ERASE	+2		# Q-GIMBAL DRIVE ITMER, DECISECONDS.
INGTS		EQUALS	QGIMTIMR +1	# INDICATOR OF CURRENT GTS CONTROL.
RGIMTIMR	EQUALS	QGIMTIMR +2	# R-GIMBAL DRIVE TIMER, DECISECONDS.

# PLEASE RETAIN THE ORDER OF CDUXD THRU CDUZD FOR DOWNLINK PURPOSES.

# KALCMANU:DAP INTERFACE			(9D)

CDUXD		ERASE	+2		# CDU DESIRED REGISTERS:
CDUYD		EQUALS	CDUXD +1	# SCALED AT PI RADIANS (180 DEGREES)
CDUZD		EQUALS	CDUXD +2	# (STORE IN 2'S COMPLEMENT)

DELCDUX		ERASE	+2		# NEGATIVE OF DESIRED 100MS CDU INCREMENT:
DELCDUY		EQUALS	DELCDUX +1	# SCALED AT PI RADIANS (180 DEGREES)
DELCDUZ		EQUALS	DELCDUX +2	# (STORE IN 2'S COMPLEMENT)

# RETAIN THE ORDER OF OMEGAPD TO OMEGARD FOR DOWNLINK PURPOSES.

OMEGAPD		ERASE	+2		# ATTITUDE MANEUVER DESIRED RATES:
OMEGAQD		EQUALS	OMEGAPD +1	# (NOT EXPLICITLY REFERENCED IN GTS CNTRL)
OMEGARD		EQUALS	OMEGAPD +2	# SCALED AT PI/4 RADIANS/SECOND

# KALCMANU STORAGE.				(24D)

MIS		ERASE	+23D		# I(18D)
# Page 135
COF		EQUALS	MIS +18D	# I(6)

# KALCMANU STORAGE.				(33D)
BCDU		ERASE	+30D		# B(3)
KSPNDX		EQUALS	BCDU +3		# B(1)
KDPNDX		EQUALS	KSPNDX +1	# B(1)

TMIS		EQUALS	KDPNDX +1	# I(18) MUST BE IN SAME BANK AS RCS DAP
COFSKEW		EQUALS	TMIS +18D	# I(6)  MUST BE IN THE SAME BANK AS RCS DAP
CAM		EQUALS	COFSKEW +6	# I(2)  MUST BE IN THE SAME BANK AS RCS DAP

AM		ERASE	+1		# I(2) THIS WAS ONCE IN E5 OVERLAYING OGC

# FIRST-ODER OVERLAYS IN KALCMANU		(25D)
KV1		EQUALS	TMIS		# I(6)
MFISYM		EQUALS	TMIS		# I
TMFI		EQUALS	TMIS		# I
NCDU		EQUALS	TMIS		# B
NEXTIME		EQUALS	TMIS +3		# B
TTEMP		EQUALS	TMIS +4		# B
KV2		EQUALS	TMIS +6		# I(6)
BIASTEMP	EQUALS	TMIS +6		# B
KV3		EQUALS	TMIS +12D	# I(6)
OGF		EQUALS	TMIS +12D	# I

BRATE		EQUALS	COFSKEW		# B
IG		EQUALS	COFSKEW		# I

TM		EQUALS	CAM		# B

# SECOND-ORDER OVERLAYS IN KALCMANU		(24D)

K1		=	KV1
K2		=	KV2
K3		=	KV3
P21		EQUALS	KV1		# I(2)
D21		EQUALS	KV1 +2		# I(2)
G21		EQUALS	KV1 +4		# I(2)
C2SQP		EQUALS	KV2		# I(2)
C2SQM		EQUALS	KV2 +2		# I(2)
C2PP		EQUALS	KV2 +4		# I(2)
C2MP		EQUALS	KV3		# I(2)
C1PP		EQUALS	KV3 +2		# I(2)
C1MP		EQUALS	KV3 +4		# I(2)
# Page 136
VECQTEMP	=	COFSKEW

DCDU		=	CDUXD
DELDCDU		=	DELCDUX
DELDCDU1	=	DELCDUY
DELDCDU2	=	DELCDUZ

# *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *

# STORAGE FOR FINDCDUW

# OVERLAYING KALCMANU STORAGE:			(26D)

ECDUW		EQUALS	MIS
ECDUWUSR	EQUALS	ECDUW		# B(1)TMP
QCDUWUSR	EQUALS	ECDUWUSR +1	# I(1)TMP
NDXCDUW		EQUALS	QCDUWUSR +1	# B(1)TMP
FLAGOODW	EQUALS	NDXCDUW +1	# B(1)TMP
FLPAUTNO	EQUALS	FLAGOODW +1	# B(1)TMP
UNFC/2		EQUALS	FLPAUTNO +1	# I(6)IN
UNWC/2		EQUALS	UNFC/2 +6	# I(6)IN
UNFV/2		EQUALS	UNWC/2 +6	# I(6) S-S
UNFVX/2		=	UNFV/2
UNFVY/2		=	UNFV/2 +2
UNFVZ/2		=	UNFV/2 +4
-DELGMB		EQUALS	UNFV/2 +6	# B(3)TMP

# DEFINED IN THE WORK AREA:			(18D)

UNX/2		=	0
UNY/2		=	6
UNZ/2		=	14

# END OF FINDCDUW ERASABLES

# *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *  *

# THE FOLLOWING ARE THE DAP REPLACEMENTS FOR THE ITEMPS AND RUPTREGS, NEEDED BECAUSE DAP IS NOW A TOB,JASK,JAB,TOSK
# ... ANYWAY, THE DAP CAN NOW BE INTERRUPTED.	(18D)

DAPTEMP1	ERASE	+17D
DAPTEMP2	EQUALS	DAPTEMP1 +1
DAPTEMP3	EQUALS	DAPTEMP1 +2
DAPTEMP4	EQUALS	DAPTEMP1 +3
DAPTEMP5	EQUALS	DAPTEMP1 +4
DAPTEMP6	EQUALS	DAPTEMP1 +5
DAPTREG1	EQUALS	DAPTEMP1 +6
DAPTREG2	EQUALS	DAPTEMP1 +7
DAPTREG3	EQUALS	DAPTEMP1 +8D
# Page 137
DAPTREG4	EQUALS	DAPTEMP1 +9D
DAPTREG5	EQUALS	DAPTEMP1 +10D
DAPTREG6	EQUALS	DAPTEMP1 +11D

DAPARUPT	EQUALS	DAPTEMP1 +12D
DAPLRUPT	EQUALS	DAPARUPT +1
DAPBQRPT	EQUALS	DAPARUPT +2
DAPZRUPT	EQUALS	DAPARUPT +4
					# (DAPZRUPT IS ALSO A JASK-IN-PROGRESS FLAG)

# NEEDLER (ATTITUDE ERROR EIGHT BALL DISPLAY) STORAGE.	(6D)

T5TEMP		EQUALS	ITEMP1
DINDX		EQUALS	ITEMP3
AK		ERASE	+2		# NEEDLER ATTITUDE INPUTS, SCALED AT 180
AK1		EQUALS	AK +1		# DEGREES.  P,Q,R AXES IN AK,AK1,AK2.
AK2		EQUALS	AK +2

EDRIVEX		ERASE 	+2		# NEEDLER DISPLAY REGS AT 1800 DEGREES.
EDRIVEY		EQUALS	EDRIVEX +1	# SO THAT 384 BITS REPRESENT 42 3/16 DEGREES.
EDRIVEZ		EQUALS	EDRIVEX +2

# DOCKED JET INHIBITION COUNTERS		(3D)

PJETCTR		ERASE	+2
UJETCTR		EQUALS	PJETCTR +1
VJETCTR		EQUALS	PJETCTR +2

END-E6		EQUALS	VJETCTR

# Page 138
# EBANK-7 ASSIGNMENTS

		SETLOC	3400

# P35 CONSTANTS.	-- PAD LOADED --	(4D)

ATIGINC		ERASE 	+1		# B(2)PL	*MUST BE AT 1400 FOR SYSTEMSTEST
PTIGINC		ERASE	+1		# B(2)PL

# AOTMARK STORAGE.	-- PAD LOADED --	(12D)

AOTAZ		ERASE	+5		# B(6)PL
AOTEL		ERASE	+5		# B(6)PL

# LANDING RADAR 	-- PAD LOADED --	(2D)

LRHMAX		ERASE			# B(1)
LRWH		ERASE			# B(1)

# THROTTLE STORAGE.	-- PAD LOADED --	(1D)

ZOOMTIME	ERASE			# B(1)PL TIME OF DPS THROTTLE-UP COMMAND

# P63 AND P64 CONSTANTS.	-- PAD LOADED --	(4D)

TENDBRAK	ERASE			# B(1) LANDING PHASE SWITCHING CRITERION.
TENDAPPR	ERASE			# B(1) LANDING PHASE SWITCHING CRITERION.
DELTTFAP	ERASE			# B(1) INCREMENT ADDED TO TTF/8 WHEN
					#	SWITCHING FROM P63 TO P64.
LEADTIME	ERASE			# B(1) TIME INCREMENT SPECIFYING HOW MUCH
					#	GUIDANCE IS PROJECTED FORWARD

# LANDING RADAR.	-- PAD LOADED --	(2D)

RPCRTIME	ERASE			# B(1) REPOSITIONING CRITERION (TIME)
RPCRTQSW	ERASE			# B(1) REPOSITIONING CRITERION (ANGLE)

# ASTEER.		-- PAD LOADED --	(2D)

TNEWA		ERASE	+1		# I(2)PL LAMBERT CYCLE PERIOD.

# P22 STORAGE -- OVERLAYS LANDING PADLOADS --	(5D)
# Page 139
REPOSCNT	EQUALS	TENDBRAK	# B(1)TMP COUNTS NUMBER OF PASSES THROUGH
					#	  REPOSITION ROUTINE.
REPOSTM		EQUALS	REPOSCNT +1	# I(2)TMP PRESENT TIME PLUS INCREMENTS OF
					#	  TEN SECONDS.
DELTATM		EQUALS	REPOSTM +2	# I(2)TMP TIME INTERVAL FOR RUNNING
					# 	  DESIGNATE TASK.

# *** RETAIN THE ORDER OF DELVSLV, TIG, RTARG, DELLT4 FOR UPDATE. ***

# P32-35 P72-75 STORAGE.			(6D)

DELVLVC		ERASE	+5		# I(6) DELTA VELOCITY -- LOCAL VERTICAL COO
DELVSLV		=	DELVLVC		# (TEMP STORAGE OF SAME VECTOR)    -RDINATE

# P30-P40 INTERFACE UNSHARED.			(2D)

TIG		ERASE	+1		# B(2)

# INITVEL STORAGE.  ALSO USED BY P34,35,74,75,10,11 OTHERS	(8D)

RTARG		ERASE 	+5		# I(6) TARGET VECTOR
DELLT4		ERASE	+1		# I(2) TIME DIFFERENCE

# P30-P40 INTERFACE UNSHARED.			(3D)

TTOGO		ERASE	+1		# B(2)
TFI		EQUALS	TTOGO
WHICH		ERASE			# B(1)

# *** R21 ***					(1D)

LOSCOUNT	ERASE			# B(1)

# L SR22.3 (RENDEZVOUS NAVIGATION) STORAGE.		(4D)

# RETAIN THE ORDER OF AIG TO TRKMKCNT FOR DOWNLINK PURPOSES.

AIG		ERASE			# B(1)OUT GIMBAL ANGLES
AMG		ERASE			# B(1)OUT (MUST BE
AOG		ERASE			# B(1)OUT  CONSECUTIVE)

TRKMKCNT	ERASE			# B(1)TMP TEMPORARY MARK STORAGE.
MARKCTR		=	TRKMKCNT

# Page 140
# P32-P35, P72-P75 STORAGE.  -- PERMANENT --	(6)

NORMEX		ERASE			# B(1)PRM SAVE FOR Q
QSAVED		ERASE			# B(1)PRM SAVE FOR Q
RTRN		ERASE			# B(1)PRM SAVE FOR Q
NN		ERASE	+1		# B(2)
SUBEXIT		ERASE			# B(1)PRM SAVE Q

E7OVERLA	EQUALS			# START OF E7 OVERLAYS
WHOCARES	EQUALS	E7OVERLA	# DUMMY FOR EBANK INSENSITIVE 2CADRS.

# LUNAR LANDING OVERLAYS			(6D)

/AFC/		EQUALS	NORMEX		# B(2)TMP THROTTLE
FCODD		EQUALS	/AFC/ +2	# B(2)TMP THROTTLE
FP		EQUALS	FCODD +2	# B(2)TMP THROTTLE
# Page 141
# ******* OVERLAY NUMBER 0 IN EBANK 7 *******

# RENDEZVOUS GUIDANCE STORAGE --P32.....P35--	(89D)

TSTRT		EQUALS	DELDV		# MIDCOURSE START TIME
TDEC2		EQUALS	DELVCSI		# TEMP STORAGE FOR INTEGRATION TIME INPUT
KT		EQUALS	DELVTPI		# TEMP STORAGE FOR MIDCOURSE DELTA TIME
VACT1		ERASE	+5D		# VELOCITY VECTOR OF ACTIVE AT CSI TIME
RPASS1		ERASE	+5D		# POSITION VECTOR OF PASSIVE AT CSI TIME
VPASS1		ERASE	+5D		# VELOCITY VECTOR OF PASSIVE AT CSI TIME
VACT2		ERASE	+5D		# VELOCITY VECTOR OF ACTIVE AT CDH TIME
RPASS2		ERASE	+5D		# POSITION VECTOR OF PASSIVE AT CDH TIME
VPASS2		ERASE	+5D		# VELOCITY VECTOR OF PASSIVE AT CDH TIME
RACT3		ERASE	+5D		# POSITION VECTOR OF ACTIVE AT TPI TIME
VACT3		ERASE	+5D		# VELOCITY VECTOR OF ACTIVE AT TPI TIME
RPASS3		ERASE	+5D		# POSITION VECTOR OF PASSIVE AT TPI TIME
VPASS3		ERASE	+5D		# VELOCITY VECTOR OF PASSIVE AT TPI TIME
VACT4		ERASE	+5D		# VELOCITY VECTOR OF ACTIVE AT INTERCEPT
UNVEC		EQUALS	VACT3		# CDHMVR UNIT VECTOR TEMP STORAGE.
DELVCSI		ERASE	+1D		# THRUST VALUE AT CSI
DELVTPI		ERASE	+1D		# THRUST VALUE AT TPI OR MID
DELVMID		EQUALS	DELVTPI
DIFFALT		ERASE	+1D		# ALT DIFFERENT AT CDH
POSTCSI		ERASE	+1		# PERIGEE ALTITUDE AFTER CSI MANEUVER
POSTCDH		ERASE	+1		# PERIGEE ALTITUDE AFTER CDH MANEUVER
POSTTPI		ERASE	+1		# PERIGEE ALTITUDE AFTER TPI MANEUVER
LOOPCT		EQUALS	POSTTPI		# CSI NEWTON ITERATION COUNTER
HAFPA1		EQUALS	POSTCDH		# HALF PERIOD
GAMPREV		ERASE	+1		# PREVIOUS GAMMA
DVPREV		EQUALS	DELVTPI		# PREVIOUS DELVCSI
DELDV		ERASE	+1D
CSIALRM		ERASE	+1		# FIRST SOLUTION ALARM
VERBNOUN	ERASE
TITER		EQUALS	CSIALRM		# ITERATION COUNTER
RDOTV		ERASE	+1
VAPREC		EQUALS	VPASS1		# I(6) S-S PREC VEC FOR NOM TPI TIME (ACTIVE)
RAPREC		EQUALS	RPASS1		# I(6) S-S PREC VEC FOR NOM TPI TIME (ACTIVE)
VPPREC		EQUALS	VPASS2		# I(6) S-S PREC VEC FOR NOM TPI TIME (PASSIVE)
RPPREC		EQUALS	RPASS2		# I(6) S-S PREC VEC FOR NOM TPI TIME (PASSIVE)
DELEL		EQUALS	DELVTPI		# I(2) S-S
DELTEE		EQUALS	DELDV		# I(2) S-S
SECMAX		EQUALS 	DELVCSI		# I(2) S-S MAX STOP SIZE FOR ROUTINE
DELTEEO		EQUALS	POSTTPI		# I(2) S-S BACK VALUES OF DELTA TIME
CENTANG		ERASE	+1		# I(2) CENTRAL ANGLE COVERED (TPI-TPF)

# Page 142
# SOME P47 STORAGE				(6D)

DELVIMU		ERASE	+5		# I(6)DSP NOUN 83 FOR P47 DELTA V (IMU)

# P30-P40 COMMON STORAGE.			(3D)

TPASS4		ERASE	+1		# INTERCEPT TIME
QTEMP		ERASE			# I(1)TMP COMMON RETURN SAVE REGISTER.

# P32,33,34 STORAGE.				(6D)

TCSI		ERASE	+1		# B(2)TMP CSI TIME IN CENTISECONDS
TTPI		ERASE	+1		# B(2)TMP TPI TIME IN CENTISECONDS
TTPIO		ERASE	+1		# B(2)TMP TTPI STORAGE FOR RECYCLE

# P30,P40 INTERFACE.				(21D)

RTIG		ERASE	+19D		# I(6)TMP
VTIG		EQUALS	RTIG +6		# I(6)TMP
DELVSIN		EQUALS	VTIG +6		# I(6)TMP
DELVSAB		EQUALS	DELVSIN	+6	# I(2)TMP
VGDISP		=	DELVSAB

QTEMP1		ERASE			# I(1)TMP HOLDS RETURN.
RGEXIT		EQUALS	QTEMP1		# SAVE Q
SAVQR52		EQUALS	QTEMP1

# INITVEL STORAGE.  (IN OVERLAY 0 AND OVERLAY 1.	(2D)
#	(CALLS LAMBERT, CONIC SUBROUTINES)

VTPRIME		EQUALS	VACT4		# TOTAL VELOCITY AT DESIRED RADIUS
ITCTR		EQUALS	RDOTV		# ITERATION COUNTER
COZY4		ERASE	+1		# COS OF ANGLE WHEN ROTATION STARTS
X1INPUT		EQUALS	DELDV		# X1 TEMP STORAGE
INTIME		EQUALS	GAMPREV		# TIME OF RINIT

# PERIAPO STORAGE.				(2D)

XXXALT		ERASE	+1		# RADIUS TO LAUNCH PAD OR LANDING SITE

END-IN/M 	EQUALS	XXXALT +2	# NEXT AVAIL ERASABLE AFTER INITVEL/MIDGIM

# Page 143
# S40.1 STORAGE.				(12D)

UT		ERASE	+11D		# I(6) THRUST DIRECTION
VGTIG		EQUALS	UT +6		# I(6)OUT
VGPREV		=	VGTIG

# ASTEER STORAGE.				(22D)

VG		ERASE	+21D		# I(6)
RMAG		EQUALS	VG +6		# I(2)
MUASTEER	EQUALS	RMAG  +2	# I(2)
MU/A		EQUALS	MUASTEER +2	# I(2)
RTMAG		EQUALS	MU/A +2		# I(2)
R1C		EQUALS	RTMAG +2	# I(6)
SS		EQUALS	R1C +6		# I(2)

IC		=	DELVSIN
TIGSAVE		=	P21TIME
TIGSAVEP	=	SCAXIS
MUSCALE		=	SCAXIS +2

# P40 STORAGE.					(6D)

# F, MDOT, AND TDECAY MUST BE CONTIGUOUS FOR WLOAD

F		ERASE	+5		# I(2)TMP S40.1 GENERATES THIS FOR S40.3
MDOT		EQUALS	F +2		# I(2)TMP MASS CHNG RATE, KG/CS AT 2**3.
TDECAY		EQUALS	MDOT +2		# I(2)IN DELTA-T TAILOFF, (2**28)CS.
VEX		ERASE	+1		# I(2) EXHAUST VELOCITY FOR TGO COMPUTAT'N

# MIDTOAV1(2) STORAGE.  (CALLED BY P40,P41,P42)		(1D)

IRETURN1	ERASE			# B(1) RETURN FROM MIDTOAV1 AND 2.

# Page 144
# ******* OVERLAY NUMBER 1 IN EBANK 7 *******

# INITVEL (CALLED BY P34,35,38,39,10,11,S40.9,S40.1)	(6D)

RTARG1		EQUALS	VACT1		# I(6)S TEMP STORAGE OF RTARG

# P35-P40 INTERFACE.				(6D)

VPASS4		EQUALS	VPASS1		# I(6)TMP VELOCITY OF PASSIVE AT INTERCEPT

# INITVEL OVERLAYS RENDESVOUS GUIDANCE (LISTED IN OVERLAY O)

# SOME P38-30,P78-79 STORAGE				(2D)
TINT		EQUALS	TPASS4		# I(2) TIME OF INTERCEPT


# LAT-LONG TEMPORARIES.  CAN OVERLAY WITH S40.1		(3D)

ERADM		EQUALS	UT		# I(2)
INCORPEX	EQUALS	ERADM +2	# I(1)

# LRS24.1 STORAGE.  (CAN SHARE WITH P30'S)		(40D)

RLMSRCH		EQUALS	INCORPEX +1	# I(6)TMP LM POSITION VECTOR
VXRCM		EQUALS	RLMSRCH +6	# I(6)	  CM V X R VECTOR
LOSDESRD	EQUALS	VXRCM +6	# I(6)	  DESIRED LOS VECTOR
UXVECT		EQUALS	LOSDESRD +6	# I(6)	  X-AXIS SRCH PATTERN COORDS
UYVECT		EQUALS	UXVECT +6	# I(6)	  Y-AXIS SRCH PATTERN COORDS
DATAGOOD	EQUALS	UYVECT +6	# B(1)DSP FOR R1 -- ALL 1-S WHEN LOCKON
OMEGDISP	EQUALS	DATAGOOD +1	# B(2)	  ANGLE OMEGA DISPLAYED IN R2
OMEGAD		=	OMEGDISP	#	  PINBALL DEFINITION
NSRCHPNT	EQUALS	OMEGDISP +2	# B(1)TMP SEARCH PATTERN POINT COUNTER.
SAVLEMV		EQUALS	NSRCHPNT +1	# I(6)S-S SAVES LOSVEL

# Page 145
# ******* OVERLAY NUMBER 2 IN EBANK 7 *******

# INCORP STORAGE IN E7.				(47D)

TX789		EQUALS	E7OVERLA	# I(6)
GAMMA		EQUALS	TX789 +6	# I(3)
OMEGA		EQUALS	GAMMA +3	# I(18)
BVECTOR		EQUALS	OMEGA +18D	# I(18)
DELTAQ		EQUALS	BVECTOR +18D	# I(2)

# AOTMARK STORAGE				(3D)

MARKCNTR	EQUALS	DELTAQ +2	# I(1)
XYMARK		EQUALS	MARKCNTR +1	# B(1)
MKDEX		EQUALS	XYMARK +1	# B(1)TMP INDEX FOR AOTMARK

# PLANET STORAGE				(8D)

PLANVEC		EQUALS	MKDEX +1	# (6) REFER VECTOR OF PLANET
TSIGHT		EQUALS 	PLANVEC +6	# (2) TIME OF MARK OR EST TIME OF MARK

# LRS22.3 STORAGE.  (CAN SHARE WITH P30'S AND OVERLAY LRS24.1)	(30D)

LGRET		EQUALS	RLMSRCH		# I(1)TMP
RDRET		EQUALS	LGRET		# B(1) TEMP RETURN.
IGRET		EQUALS	LGRET		# B(1) TEMP RETURN.
MX		EQUALS	RDRET +1	# I(6)
MY		EQUALS	MX +6		# I(6)
MZ		EQUALS	MY +6		# I(6)
E0		EQUALS	MX		# I(2)
E1		EQUALS	MX +2		# I(2)
E2		EQUALS	MX +4		# I(2)
E3		EQUALS	E2 +2		# I(2)
SCALSHFT	EQUALS	MZ +6		# B(1) SCALE SHIFT FOR EARTH/MOON
RXZ		EQUALS	SCALSHFT +1	# I(2)
ULC		EQUALS	RXZ +2		# I(6)
SINTHETA	EQUALS	ULC +6		# I(2)

# ***** IN OVERLAY ONE *****

N49FLAG		EQUALS	RDOTMSAV	# B(1)S FLAG INDICATING V0649 RESPONSE

# LRS22.1 STORAGE.  (MUST NOT SHARE WITH P30'S)		(13D)

# (OUTPUTS ARE TO LRS22.3)

# Page 146
RRTRUN		EQUALS	SINTHETA +2	# B(2)OUT RR TRUNNION ANGLE
RRSHAFT		EQUALS	RRTRUN +2	# B(2)OUT RR SHAFT ANGLE
LRS22.1X	EQUALS	RRSHAFT +2	# B(1)TMP
RRBORSIT	EQUALS	LRS22.1X +1	# I(6)TMP RADAR BORESIGHT VECTOR.
RDOTMSAV	EQUALS	RRBORSIT +6	# B(2)S RR RANGE-RATE (FPS)

# LRS22.1 (SAME AS PREVIOUS SECTION) ALSO DOWNLINK FOR RR (R29)		(10D) CANNOT SHARE WITH L.A.D.

RDOTM		EQUALS	RDOTMSAV +2	# B(2)OUT RANGE-RATE READING
TANGNB		EQUALS	RDOTM +2	# B(2)TMP RR GIMBAL ANGLES
# RETAIN THE ORDER OF MKTIME TO RM FOR DOWNLINK PURPOSES
MKTIME		EQUALS	TANGNB +2	# B(2)OUT TIME OF RR READING
RM		EQUALS	MKTIME +2	# I(2)OUT RANGE READING
RANGRDOT	EQUALS	RM +2		# B(2) DOWNLINKED RAW RANGE AND RRATE

# R61LEM -- PREFERRED TRACKING ATTITUDE ROUTINE **IN OVERLAY ONE**
# (CALLED BY P20, R22LEM, LSR22.3)		(1D)

R65CNTR		EQUALS	RRBORSIT +5	# B(1)SS COUNT NUMBER OF TIMES PREFERRED
					#	 TRACKING ROUTINE IS TO CYCLE
WHCHREAD	EQUALS	R65CNTR		# TELLS WHICH RR DATA TRIGGERED N49 DISPLAY

# P21 STORAGE					(2D)

P21TIME		EQUALS	RANGRDOT +2	# I(2)TMP

# KALCMANU, VECPOINT STORAGE.  CALLED BY R63, R61, R65.		(12D)

SCAXIS		EQUALS	P21TIME +2	# I(6)
POINTVSM	EQUALS	SCAXIS +6	# I(6)
# Page 147
# ******* OVERLAY NUMBER 3 IN EBANK 7 *******


# SERVICER STORAGE				(6D)

ABVEL		EQUALS	E7OVERLA	# B(2) DISPLAY
HDOTDISP	EQUALS	ABVEL +2	# B(2) DISPLAY
TTFDISP		EQUALS	HDOTDISP +2	# B(2) DISPLAY

# BURN PROG STORAGE.				(2D)

SAVET-30	EQUALS	TTFDISP +2	# B(2)TMP TIG-30 RESTART

# SERVICER STORAGE.				(69D)

VGBODY		EQUALS	SAVET-30 +2	# B(6)OUT SET BY S41.1 VG LEM, SC.COORDS
DELVCTL		=	VGBODY
DVTOTAL		EQUALS	VGBODY +6	# B(2) DISPLAY NOUN
GOBLTIME	EQUALS	DVTOTAL +2	# B(2) NOMINAL TIG FOR CALC. OF GOBLATE.
ABDVCONV	EQUALS	GOBLTIME +2	# I(2)
DVCNTR		EQUALS	ABDVCONV +2	# B(1)
TGO		EQUALS	DVCNTR +1	# B(2)
R		EQUALS	TGO +2		# I(6)
UNITGOBL	EQUALS	R		# I(6)
V		EQUALS	R +6
DELVREF		EQUALS	V		# I(6)
HCALC		EQUALS	DELVREF +6	# B(2) LR
UNIT/R/		EQUALS	HCALC +2	# I(6)

# (THE FOLLOWING SERVICER ERASABLES CAN BE SHARED WITH SECOND DPS GUIDANCE STORAGE)

RN1		EQUALS	UNIT/R/ +6	# B(6)
VN1		EQUALS	RN1 +6		# I(6)		( IN ORDER )
PIPTIME1	EQUALS	VN1 +6		# B(2)		(    FOR   )
GDT1/2		EQUALS	PIPTIME1 +2	# I(6)		(   COPY   )
MASS1		EQUALS	GDT1/2 +6	# I(2)		(   CYCLE  )
R1S		EQUALS	MASS1 +2	# I(6)
V1S		EQUALS	R1S +6		# I(6)

# ALIGNMENT/S40.2,3 COMMON STORAGE.		(18D)

XSMD		EQUALS	V1S +6		# I(6)
YSMD		EQUALS	XSMD +6		# I(6)
ZSMD		EQUALS	YSMD +6		# I(6)

XSCREF		=	XSMD
YSCREF		=	YSMD
# Page 148
ZSCREF		=	ZSMD

END-ALIG	EQUALS	ZSMD +6		# NEXT AVAIL ERASABLE AFTER ALIGN/S40.2,3

# ****** P22 ******				(24D)

RSUBL		EQUALS	END-ALIG	# I(6)S-S	LM POSITION VECTOR
UCSM		EQUALS	RSUBL +6	# I(6)S-S	VECTOR U
NEWVEL		EQUALS	UCSM +6		# I(6)S-S	TERMINAL VELOCITY VECTOR
NEWPOS		EQUALS	NEWVEL +6	# I(6)S-S	TERMINAL POSITION VECTOR
LNCHTM		EQUALS	NEWPOS +6	# I(2)S-S	EST. LAUNCH TIME FOR LEM
TRANSTM		EQUALS	LNCHTM +2	# I(2)S-S	TRANSFER TIME
NCSMVEL		EQUALS	TRANSTM +2	# I(6)S-S 	NEW CSM VELOCITY

# ****** P21 ******				(18D)

P21ORIG		=	DISPDEX
P21BASER	EQUALS	RLMSRCH		# I(6)TMP
P21BASEV	EQUALS	P21BASER +6	# I(6)TMP
P21VEL		EQUALS	P21BASEV +6	# I(2)TMP	*** NOUN 91 ***
P21GAM		EQUALS	P21VEL +2	# I(2)TMP	*** NOUN 91 ***
P21ALT		EQUALS	P21GAM +2	# I(2)TMP	*** NOUN 91 ***

# Page 149
# ******* OVERLAY NUMBER 4 IN EBANK 7 *******

# VARIABLES FOR SECOND DPS GUIDANCE (THE LUNAR LANDING)		(18D)

# THESE ERASABLES MAY BE SHARED WITH CARE

OURTEMPS	=	RN1		# OVERLAY LAST PART OF SERVICER
LANDTEMP	=	OURTEMPS	# B(6) 	GUIDANCE
TTF/8TMP	=	LANDTEMP +6	# B(2)	GUIDANCE
ELINCR		=	TTF/8TMP +2	# B(2)	GUIDANCE
AZINCR		=	ELINCR +2	# B(2)	GUIDANCE
KEEP-2		=	AZINCR +2	# B(2)	TP PREVENT PIPTIME1 OVERLAY
TABLTTF		=	KEEP-2 +2	# B(2)	GUIDANCE
TPIPOLD		=	TABLTTF +9D	# B(2)	GUIDANCE
E2DPS		EQUALS	OURPERMS

# THESE ERASABLES MUST NOT OVERLAY GOBLTIME OR SERVICER

PIFPSET		=	XSMD		# B(1)	THROTTLE
RTNHOLD		=	PIFPSET +1	# B(1)	THROTTLE
FWEIGHT		=	RTNHOLD +1	# B(2)	THROTTLE
PIF		=	FWEIGHT +2	# B(2)	THROTTLE
PSEUDO55	=	PIF +2		# B(1)	THROTTLE DOWNLINK
FC		=	PSEUDO55 +1	# B(2)	THROTTLE
TTHROT		=	FC +2		# B(1)	THROTTLE
FCOLD		=	TTHROT +1	# B(1)	THROTTLE

# THESE ERASABLES SHOULD NOT BE SHARED DURING P63, P64, P65, P66, P67

OURPERMS	=	FCOLD +1	# MUSTN'T OVERLAY OURTEMPS OR SERVICER
WCHPHOLD	=	OURPERMS	# B(1)	GUIDANCE
FILLER		=	WCHPHOLD +1
FLPASS0		=	FILLER +1	# B(1) 	GUIDANCE
TPIP		=	FLPASS0 +1	# B(2)
VGU		=	TPIP +2		# B(6)	GUIDANCE
LAND		=	VGU +6		# B(6)	GUIDANCE	CONTIGUOUS
TTF/8		=	LAND +6		# B(2)	GUIDANCE	CONTIGUOUS
ELIDUMMY	=	TTF/8 +2	# (1)	DUMMY FOR ELINCR1
AZIDUMMY	=	ELIDUMMY +1	# (1)	DUMMY FOR AZINCR1
ZERDUMMY	=	AZIDUMMY +1	# (1)	DUMMY FOR ZERLINA
ELVDUMMY	=	ZERDUMMY +1	# (1)	DUMMY FOR ELVIRA
LRADRET		=	ELVDUMMY +1	# B(1)	LR
VSELECT		=	LRADRET +1	# B(1)	LR
VMEAS		=	VSELECT +1	# B(2)	LR
HMEAS		=	VMEAS +2	# B(2)	LR
VN2		=	HMEAS +2	# B(6)	LR
# Page 150
GNUR		=	VN2		# B(6)	LR
GNUV		=	VN2		# B(6)	LR
LRADRET1	=	VN2		# B(1)	LR
DELTAH		=	VN2 +6		# B(2)	DISPLAY
FUNNYDSP	=	DELTAH +2	# B(2)	DISPLAY
EOURPERM	EQUALS	FUNNYDSP +2	# NEXT AVAILABLE ERASABLE AFTER OURPERMS

# (ERASABLES WHICH OVERLAY THE ABOVE BLOCK)

VDGVERT		=	ELIDUMMY	# B(2)	P65,P66
NIGNLOOP	=	ZERDUMMY	# B(1)	IGNALG
NGUIDSUB	=	ELVDUMMY	# B(1)	IGNALG
WCHVERT		=	ELVDUMMY	# B(1)	P65,P66,P67
FUELNEED	=	FUNNYDSP	# B(1)	DISPLAY
TREDES		=	FUNNYDSP	# B(1)	DISPLAY
LOOKANGL	=	FUNNYDSP +1	# B(1) 	DISPLAY

# ERASABLES CONVENIENTLY DEFINABLE IN THE WORK AREA

PROJ		=	18D		# I(2) 	GUIDANCE
UNLRB/2		=	20D		# I(6)	GUIDANCE (DURING P64 ONLY)
UNLR/2		=	20D		# I(6)	GUIDANCE

# THE END OF THE LUNAR LANDING ERASABLES

# R12 (FOR LUNAR LANDING)			(6D)

LRLCTR		EQUALS	EOURPERM	# B(1) LR DATA TEST
LRRCTR		EQUALS	LRLCTR +1	# B(1)
LRMCTR		EQUALS	LRRCTR +1	# B(1)
LRSCTR		EQUALS	LRMCTR +1	# B(1)
STILBADH	EQUALS	LRSCTR +1	# B(1)
STILBADV	EQUALS	STILBADH +1	# B(1)

# LANDING ANALOGS DISPLAY STORAGE.		(40D)

LATVMETR	EQUALS	STILBADV +1	# B(1)PRM LATVEL MONITOR METER (AN ORDER)
FORVMETR	EQUALS	LATVMETR +1	# B(1)PRM FORVEL MONITOR METER (-ED PAIR)
LATVEL		EQUALS	FORVMETR +1	# B(1)PRM LATERAL VELOCITY (AN ORDER)
FORVEL		EQUALS	LATVEL +1	# B(1)PRM FORWARD VELOCITY (-ED PAIR)
TRAKLATV	EQUALS	FORVEL +1	# B(1)PRM MONITOR FLG 4 LATVEL (AN ORDER)
TRAKFWDV	EQUALS	TRAKLATV +1	# B(1)PRM MONIT. FLAG FOR FORVEL (ED PAIR)
VHY		EQUALS	TRAKFWDV +1	# B(1)PRM VHY=VMP.UHYP (AN ORDER)
# Page 151
VHZ		EQUALS	VHY +1		# B(1)PRM VHZ=VMP.UHZP (-ED PAIR)
VVECT		EQUALS	VHZ +1		# B(3)PRM UPDATED S.P. VELOCITY VECTOR
ALTRATE		EQUALS	VVECT +3	# B(1)PRM ALTITUDE RATE IN BIT UNITS
ALTSAVE		EQUALS	ALTRATE +1	# B(2)PRM ALTITUDE IN BIT UNITS
LADQSAVE	EQUALS	ALTSAVE +2	# B(1)PARM SAVE Q IN LAND1SP
DT		EQUALS	LADQSAVE +1	# B(1)PRM TIME 1 MINUS (PIPTIME +1)
DALTRATE	EQUALS	DT +1		# B(1)PRM ALTITUDE RATE ERROR CORRECTION
UHYP		EQUALS	DALTRATE +1	# B(6)PRM SM UNIT VECTOR
QAXIS		=	UHYP
UHZP		EQUALS	UHYP +6		# B(6)PRM SM UNIT VECTOR
DELVS		EQUALS	UHZP +6		# B(6)PRM DELVS = WMXR
ALTBITS		EQUALS	DELVS +6	# B(2)PRM ALTITUDE IN BIT UNITS. 2.34 FT/BIT
RUNIT		EQUALS	ALTBITS +2	# B(3)PRM SM HALF-UNIT R VECTOR
LASTLADW	EQUALS	RUNIT +2	# ONLY A TAG TO SIGNIFY LAST L.A.D. WORD

# P66 ERASABLES (R.O.D.)			(1D)

RODCOUNT	EQUALS	RUNIT +3

# P66 ERASABLES (R.O.D.)			(14D)

RODSCAL1	EQUALS	RM		# B(1)
LASTTPIP	EQUALS	RODSCAL1 +1	# I(2)
THISTPIP	EQUALS	LASTTPIP +2	# B(2)
OLDPIPAX	EQUALS	THISTPIP +2	# B(1)
OLDPIPAY	EQUALS	OLDPIPAX +1	# B(1)
OLDPIPAZ	EQUALS	OLDPIPAY +1	# B(1)
DELVROD		EQUALS	OLDPIPAZ +1	# B(6)

# NOUN 63 COMPONENT				(2D)

HCALC1		EQUALS	DELVROD +6	# I(2)

# Page 152
# ******* OVERLAY NUMBER 5 IN EBANK 7 *******

# ASCENT GUIDANCE ERASABLES.			(21D)

RCO		EQUALS	END-ALIG	# I(2)TMP TARGET RADIUS AND OUT-OF-PLANE
YCO		EQUALS	RCO +2		# I(2)TMP DISTANCE, SCALED AT 2(24).
1/DV1		EQUALS	YCO +2		# B(2)TMP ATMAG
1/DV2		EQUALS	1/DV1 +2	# B(2)TMP ATMAG
1/DV3		EQUALS	1/DV2 +2	# B(2)TMP ATMAG
XRANGE		EQUALS	1/DV3 +2	# B(2)TMP
ENGOFFDT	EQUALS	XRANGE +2	# B(1)TMP
VGVECT		EQUALS	ENGOFFDT +1	# I(6)OUT VELOCITY-TO-BE-GAINED.
TXO		EQUALS	VGVECT +6	# I(2)TMP TIME AT WHICH X-AXIS OVERRIDE
					# IS ALLOWED.

# END OF THE ASCENT GUIDANCE ERASABLES

# THE FOLLOWING CARDS KEEP THE ASSEMBLER HAPPY UNTIL THE SYMBOLS ARE DELETED FROM THE PINBALL NOUN TABLES.

END-E7.0	EQUALS 	IRETURN1 +1	# FIRST UNUSED LOCATION IN E7 OVERLAY 0
END-E7.1	EQUALS	N49FLAG +1	# FIRST UNUSED LOCATION IN E7 OVERLAY 1
END-E7.2	EQUALS	POINTVSM +6	# FIRST UNUSED LOCATION IN E7 OVERLAY 2
END-E7.3	EQUALS	END-ALIG	# FIRST UNUSED LOCATION IN E7 OVERLAY 3
END-E7.4	EQUALS	3777		# ** LAST LOCATION USED IN E7 OVERLAY 4 **
END-E7.5	EQUALS	TXO +2		# FIRST UNUSED LOCATION IN E7 OVERLAY 5
END-E7		EQUALS	3777		# ** LAST LOCATION USED IN E7 **