Merge remote-tracking branch 'upstream/master' into master
Dhairya Gada
commit
02c58a5666
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@ -53,10 +53,10 @@ ALTROUT TC DISINDAT # CHECK MODE SELECT SWITCH AND DIDFLG.
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CAF BIT2 # RATE COMMAND IS EXECUTED BEFORE RANGE.
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EXTEND
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WOR CHAN14 # ALTRATE (BIT2 = 1), ALTITUDE (BIT2 = 0).
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ARCOMP CA RUNIT # COMPUTE ALTRATE = RUNIT.VVECT M/CS *(-6).
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ARCOMP CA RUNIT # COMPUTE ALTRATE=RUNIT.VVECT M/CS *2(-6).
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EXTEND
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MP VVECT # MULTIPLY X-COMPONENTS.
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XCH RUPTREG1 # SAVE SINGLE PRECISION RESULT M/CS*2(-6)
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XCH RUPTREG1 # SAVE SINGLE PRECISION RESULT M/CS*2(-6).
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CA RUNIT +1 # MULTIPLY Y-COMPONENTS.
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EXTEND
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MP VVECT +1
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@ -80,10 +80,10 @@ ARCOMP CA RUNIT # COMPUTE ALTRATE = RUNIT.VVECT M/CS *(-6).
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# Page 899
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EXTEND # CHECK POLARITY OF ALTITUDE RATE.
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BZMF +2
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TCF DATAOUT # NEGATIVE -- SEND POS. PULSES TO ALTM REG.
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CA ALTRATE # POSITIVE OR ZERO -- SET SIGN BIT = 1 AND
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AD BIT15 # SEND TO ALTM REGISTER. *DO NOT SEND +0*
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DATAOUT TS ALTM # ACTIVATE THE LANDING ANALOG DISPLAYS
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TCF DATAOUT # NEGATIVE - SEND POS. PULSES TO ALTM REG.
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CA ALTRATE # POSITIVE OR ZERO - SET SIGN BIT = 1 AND
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AD BIT15 # SEND TO ALTM REGISTER. *DO NOT SEND +0*
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DATAOUT TS ALTM # ACTIVATE THE LANDING ANALOG DISPLAYS - -
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CAF BIT3
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EXTEND
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WOR CHAN14 # BIT3 DRIVES THE ALT/ALTRATE METER.
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@ -96,13 +96,13 @@ ALTOUT TC DISINDAT # CHECK MODE SELECT SWITCH AND DIDFLG.
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CS BIT2
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EXTEND
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WAND CHAN14
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CCS ALTBITS # = -1 IF OLD ALT. DATA TO BE EXTRAPOLATED.
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CCS ALTBITS # =-1 IF OLD ALT. DATA TOBE EXTRAPOLATED.
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TCF +4
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TCF +3
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TCF OLDDATA
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TS ALTBITS # SET ALTBITS FROM -0 TO +0.
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CS ONE
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DXCH ALTBITS # SET ALTBITS = -1 FOR SWITCH USE NEXT PASS.
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DXCH ALTBITS # SET ALTBITS=-1 FOR SWITCH USE NEXT PASS.
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DXCH ALTSAVE
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CA BIT10 # NEW ALTITUDE EXTRAPOLATION WITH ALTRATE.
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XCH Q
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@ -150,11 +150,11 @@ DISINDAT EXTEND
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RAND CHAN30 # DISPLAYS? I.E.,
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CCS A # IS THE MODE SELECT SWITCH IN PGNCS?
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TCF DISPRSET # NO. ASTRONAUT REQUESTS NO INERTIAL DATA
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CS FLAGWRD1 # YES. CHECK STATUS OF DIDFLAG.
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CS FLAGWRD1 # YES. CHECK STATUS OF DIDFLAG.
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MASK DIDFLBIT
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EXTEND
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BZF SPEEDRUN # SET. PERFORM DATA DISPLAY SEQUENCE.
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CS FLAGWRD1 # RESET. PERFORM INITIALIZATION FUNCTIONS.
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BZF SPEEDRUN # SET. PERFORM DATA DISPLAY SEQUENCE.
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CS FLAGWRD1 # RESET. PERFORM INITIALIZATION FUNCTIONS.
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MASK DIDFLBIT
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ADS FLAGWRD1 # SET DIDFLAG.
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CS BIT7
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@ -262,24 +262,24 @@ SPEEDRUN CS PIPTIME +1 # UPDATE THE VELOCITY VECTOR
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CA DELVS # HI X OF VELOCITY CORRECTION TERM.
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AD VVECT # HI X OF UPDATED VELOCITY VECTOR.
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TS ITEMP1 # = VX - DVX M/CS *2(-5).
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TS ITEMP1 # = VX - DVX M/CS*2(-5).
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CA DELVS +2 # Y
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AD VVECT +1 # Y
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TS ITEMP2 # = VY - DVY M/CS *2(-5)
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TS ITEMP2 # = VY - DVY M/CS*2(-5).
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CA DELVS +4 # Z
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AD VVECT +2 # Z
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TS ITEMP3 # = VZ - DVZ M/CS *2(-5)
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TS ITEMP3 # = VZ - DVZ M/CS*2(-5).
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CA ITEMP1 # COMPUTE VHY, VELOCITY DIRECTED ALONG THE
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EXTEND # Y-COORDINATE.
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MP UHYP # HI X OF CROSS-RANGE HALF-UNIT VECTOR
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MP UHYP # HI X OF CROSS-RANGE HALF-UNIT VECTOR.
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XCH RUPTREG1
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CA ITEMP2
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EXTEND
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MP UHYP +2 # Y
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MP UHYP +2 # Y
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ADS RUPTREG1 # ACCUMULATE PARTIAL PRODUCTS.
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CA ITEMP3
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EXTEND
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MP UHYP +4 # Z
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MP UHYP +4 # Z
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ADS RUPTREG1
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# Page 903
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CA RUPTREG1
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@ -291,11 +291,11 @@ SPEEDRUN CS PIPTIME +1 # UPDATE THE VELOCITY VECTOR
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XCH RUPTREG1
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CA ITEMP2
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EXTEND
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MP UHZP +2 # Y
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MP UHZP +2 # Y
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ADS RUPTREG1 # ACCUMULATE PARTIAL PRODUCTS.
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CA ITEMP3
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EXTEND
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MP UHZP +4 # Z
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MP UHZP +4 # Z
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ADS RUPTREG1
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CA RUPTREG1
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DOUBLE
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@ -317,7 +317,7 @@ LATFWDV CA ITEMP4 # COMPUTE LATERAL AND FORWARD VELOCITIES.
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CA ITEMP3
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EXTEND
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MP VHZ
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ADS RUPTREG1 # = VHY(COS)AOG+VHZ(SIN)AOG M/CS *2(-5)
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ADS RUPTREG1 # =VHY(COS)AOG+VHZ(SIN)AOG M/CS *2(-5)
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CA VELCONV # CONVERT LATERAL VELOCITY TO BIT UNITS.
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EXTEND
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MP RUPTREG1
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@ -344,7 +344,7 @@ LATFWDV CA ITEMP4 # COMPUTE LATERAL AND FORWARD VELOCITIES.
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CAF ONE # LOOP TWICE.
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VMONITOR TS ITEMP5 # FORWARD AND LATERAL VELOCITY LANDING
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INDEX ITEMP5 # ANALOG DISPLAYS MONITOR.
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INDEX ITEMP5 # ANALOG DISPLAYS MONITOR.
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CCS LATVEL
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TCF +4
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TCF LVLIMITS
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@ -427,7 +427,6 @@ LVLIMITS INDEX ITEMP5
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BZMF +2
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TCF NEGLMLV
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INDEX ITEMP5
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CS LATVEL
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EXTEND
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BZMF LVMINLM
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@ -500,11 +499,11 @@ ZEROLSTY INDEX ITEMP5
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EXTEND
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WOR CHAN14
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TC LADQSAVE # GO TO ALTROUT +1 OR TO ALTOUT +1
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ZERODATA CAF ZERO # ZERO ALTSAVE AND ALTSAVE +1
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TS L # NO NEGATIVE ALTITUDES ALLOWED.
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ZERODATA CAF ZERO # ZERO ALTSAVE AND ALTSAVE +1 - - -
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TS L # NO NEGATIVE ALTITUDES ALLOWED.
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TCF ZDATA2
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# ****************************************************************************
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# ************************************************************************
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DISPRSET CS FLAGWRD0 # ARE WE IN DESCENT TRAJECTORY?
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MASK R10FLBIT
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@ -514,7 +513,7 @@ DISPRSET CS FLAGWRD0 # ARE WE IN DESCENT TRAJECTORY?
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MASK IMODES33 # CHECK IF INERTIAL DATA JUST DISPLAYED.
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CCS A
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CAF BIT2 # YES. DISABLE RR ERROR COUNTER
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AD BIT8 # NO. REMOVE DISPLAY INERTIAL DATA
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AD BIT8 # NO. REMOVE DISPLAY INERTIAL DATA
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COM
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EXTEND
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WAND CHAN12
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@ -525,12 +524,10 @@ ABORTON CS BITS8/7 # RESET INERTIAL DATA, INTERLEAVE FLAGS.
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MASK FLAGWRD1
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TS FLAGWRD1 # RESET DIDFLAG.
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TCF TASKOVER
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# ******************************************************************************
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# ************************************************************************
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BITS8/7 OCT 00300 # INERTIAL DATA AND INTERLEAVE FLAGS.
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BITSET = PRIO6
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# ******************************************************************************
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# ************************************************************************
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@ -35,22 +35,22 @@
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EBANK= XSM
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# THESE TWO ROUTINES COMPUTE THE ACTUAL STATE VECTOR FOR LM,CSM BY ADDING
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# THE CONIC R,V AND THE DEVIATIONS R,V. THE STATE VECTORS ARE CONVERTED TO
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# THE CONIC R,V AND THE DEVIATIONSR,V. THE STATE VECTORS ARE CONVERTED TO
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# METERS B-29 AND METERS/CSEC B-7 AND STORED APPROPRIATELY IN RN,VN OR
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# R-OTHER,V-OTHER FOR DOWNLINK. THE ROUTINES NAMES ARE SWITCHED IN THE
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# R-OTHER , V-OTHER FOR DOWNLINK. THE ROUTINES NAMES ARE SWITCHED IN THE
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# OTHER VEHICLES COMPUTER.
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#
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# INPUT
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# STATE VECTOR IN TEMPORARY STORAGE AREA
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# IF STATE VECTOR IS SCALED POS B27 AND VEL B5
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# SET X2 TO +2
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# IF STATE VECTOR IS SCALED POS B29 AND VEL B7
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# SET X2 TO 0
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# STATE VECTOR IN TEMPORARY STORAGE AREA
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# IF STATE VECTOR IS SCALED POS B27 AND VEL B5
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# SET X2 TO +2
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# IF STATE VECTOR IS SCALED POS B29 AND VEL B7
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# SET X2 TO 0
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#
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# OUTPUT
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# R(T) IN RN, V(T) IN VN, T IN PIPTIME
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# R(T) IN RN, V(T) IN VN, T IN PIPTIME
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# OR
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# R(T) IN R-OTHER, V(T) IN V-OTHER (T IS DEFINED BY T-OTHER)
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# R(T) IN R-OTHER, V(T) IN V-OTHER (T IS DEFINED BY T-OTHER)
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COUNT* $$/GEOM
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SVDWN2 BOF RVQ # SW=1=AVETOMID DOING W-MATRIX INTEG.
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@ -58,14 +58,14 @@ SVDWN2 BOF RVQ # SW=1=AVETOMID DOING W-MATRIX INTEG.
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+1
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VLOAD VSL*
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TDELTAV
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0 -7,2
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0 -7,2
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VAD VSL*
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RCV
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0,2
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STOVL RN
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TNUV
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VSL* VAD
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0 -4,2
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0 -4,2
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VCV
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VSL*
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0,2
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@ -76,14 +76,14 @@ SVDWN2 BOF RVQ # SW=1=AVETOMID DOING W-MATRIX INTEG.
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# Page 321
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SVDWN1 VLOAD VSL*
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TDELTAV
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0 -7,2
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0 -7,2
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VAD VSL*
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RCV
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0,2
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STOVL R-OTHER
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TNUV
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VSL* VAD
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0 -4,2
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0 -4,2
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VCV
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VSL*
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0,2
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@ -91,32 +91,32 @@ SVDWN1 VLOAD VSL*
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RVQ
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# Page 322
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# THE FOLLOWING ROUTINE TAKES A HALF UNIT TARGET VECTOR REFERRED TO NAV BASE COORDINATES AND FINDS BOTH
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# GIMBAL ORIENTATIONS AT WHICH THE RR MIGHT SIGHT THE TARGET. THE GIMBAL ANGLES CORRESPONDING TO THE PRESENT MODE
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# ARE LEFT IN MODEA AND THOSE WHICH WOULD BE USED AFTER A REMODE IN MODEB. THIS ROUTINE ASSUMES MODE 1 IS TRUNNION
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# ANGLE LESS THAN 90 DEGS IN ABS VALUE WITH ARBITRARY SHAFT, WITH A CORRESPONDING DEFINITION FOR MODE 2. MODE
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# THE FOLLOWING ROUTINE TAKES A HALF UNIT TARGET VECTOR REFERRED TO NAV BASE COORDINATES AND FINDS BOTH
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# GIMBAL ORIENTATIONS AT WHICH THE RR MIGHT SIGHT THE TARGET. THE GIMBAL ANGLES CORRESPONDING TO THE PRESENT MODE
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# ARE LEFT IN MODEA AND THOSE WHICH WOULD BE USED AFTER A REMODE IN MODEB. THIS ROUTINE ASSUMES MODE 1 IS TRUNNION
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# ANGLE LESS THAN 90 DEGS IN ABS VALUE WITH ARBITRARY SHAFT, WITH A CORRESPONDING DEFINITION FOR MODE 2. MODE
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# SELECTION AND LIMIT CHECKING ARE DONE ELSEWHERE.
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#
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# THE MODE 1 CONFIGURATION IS CALCULATED FROM THE VECTOR AND THEN MODE 2 IS FOUND USING THE RELATIONS
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# THE MODE 1 CONFIGURATION IS CALCULATED FROM THE VECTOR AND THEN MODE 2 IS FOUND USING THE RELATIONS
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#
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# S(2) = 180 + S(1)
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# T(2) = 180 - T(1)
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# S(2) = 180 + S(1)
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# T(2) = 180 - T(1)
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#
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# THE VECTOR ARRIVES IN MPAC WHERE TRG*SMNG OR *SMNB* WILL HAVE LEFT IT.
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# THE VECTOR ARRIVES IN MPAC WHERE TRG*SMNB OR *SMNB* WILL HAVE LEFT IT.
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RRANGLES STORE 32D
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DLOAD DCOMP # SINCE WE WILL FIND THE MODE 1 SHAFT
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34D # ANGLE LATER, WE CAN FIND THE MODE 1
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SETPD ASIN # TRUNNION BY SIMPLY TAKING THE ARCSIN OF
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0 # THE Y COMPONENT, THE ASIN GIVIN AN
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PUSH BDSU # ANSWER WHOSE ABS VAL IS LESS THAN 90 DEG.
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PUSH BDSU # ANSWER WHOSE ABS VAL IS LESS THAN 90 DEG
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LODPHALF
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STODL 4 # MODE 2 TRUNNION TO 4.
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LO6ZEROS
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STOVL 34D # UNIT THE PROJECTION OF THE VECTOR
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32D # IN THE X-Z PLANE
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UNIT BOVB # IF OVERFLOW, TARGET VECTOR IS ALONG Y
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32D # IN THE X-Z PLANE
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UNIT BOVB # IF OVERFLOW,TARGET VECTOR IS ALONG Y
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LUNDESCH # CALL FOR MANEUVER UNLESS ON LUNAR SURF
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STODL 32D # PROJECTION VECTOR.
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32D
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@ -154,7 +154,7 @@ RRANGLES STORE 32D
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GOTO
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S2
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# Page 324
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||||
# GIVEN RR TRUNNION AND SHAFT (T,S) IN TANGNB,+1, FIND THE ASSOCIATED
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# GIVEN RR TRUNNION AND SHAFT (T,S) IN TANGNB,+1,FIND THE ASSOCIATED
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# LINE OF SIGHT IN NAV BASE AXES. THE HALF UNIT VECTOR, .5(SIN(S)COS(T),
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# -SIN(T),COS(S)COS(T)) IS LEFT IN MPAC AND 32D.
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||||
|
|
@ -190,7 +190,7 @@ RRNB1 PUSH COS # SHAFT ANGLE TO 2
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|||
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||||
RRNBMPAC STODL 20D # SAVE SHAFT CDU IN 21.
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MPAC # SET MODE TO DP. (THE PRECEEDING STORE
|
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# MAY BE DP, TP OR VECTOR.)
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||||
# MAY BE DP. TP OR VECTOR.)
|
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RTB SETPD
|
||||
CDULOGIC
|
||||
0
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||||
|
|
@ -203,7 +203,4 @@ RRNBMPAC STODL 20D # SAVE SHAFT CDU IN 21.
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|||
CDULOGIC
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GOTO
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RRNB1
|
||||
# Page 325
|
||||
# (This page has nothing on it.)
|
||||
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||||
|
||||
# Page 325 (empty page)
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||||
|
|
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|||
|
|
@ -69,11 +69,11 @@
|
|||
|
||||
## অবদান
|
||||
|
||||
কোনো পুল রিকুয়েস্ট খোলার আগে দয়া করে পড়ুন [CONTRIBUTING.md][7]।
|
||||
কোনো পুল রিকুয়েস্ট খোলার আগে দয়া করে [CONTRIBUTING.md][7] তা পড়ুন।
|
||||
|
||||
## সংগ্রহ
|
||||
|
||||
যদি আপনি এই নিয়মগুলি পরিচালনা করেন তবে তা [Virtual AGC][8] দেখুন।
|
||||
যদি আপনি এই নিয়মগুলি পরিচালনা করেন তবে [Virtual AGC][8] তা দেখুন।
|
||||
|
||||
## আরোপণ
|
||||
|
||||
|
|
|
|||
Loading…
Reference in New Issue