report of 204 bqard · c/m rcsc c/m r csc data function/input adapter separa-tion + 2. 5 seconds or...
TRANSCRIPT
REPORT OF APOLLO 204
REVIEW BQARD
THE ADMINISTRATOR ! - NATIONAL AERONAUTICS AND SPACE ADMINISTRATION
APPENDIX C
II '',: .
SM2A-03-SC012
Ai_OLI.O OPERATIONS HANDBOOI'_
SYSTEMS DATA
SECTION g
SUBSECTION 2. _)
SIEQLIENTIAL ,_YSTEMS
L,. •[NTI_ODL' CTI()N,
The _equential _ystt'ms consist ol controland detectien sy._tems
which function durinb_ aBet'lit and entr}, pk_t_tion_ of a mi_._ion or in pre-
orbital ab0rl_. The control function._ ari, sensing 1./\ r _tatus, displa.ving
[,IV _tatu_ to the crew, ,u_tomatically initiating IA_18 aborts in an e|m'r-
gtulcy duri_lg ('arly a_cent, and automatically _equencing Ihe E[,8 during
descent. Backup control_ are provided for critical function_ and normal
e\'ent,_. The systemu are the sequential e\'elll8 COIlll'O[ syStelu (SI'ICS),
¢lnt, t'geucy detection _vslcl_l (F:I')S). launch escape 8yslt, lll (I.,I,,;S). alld.
earth [,uldill_, _yslt'[ll (l.'l,S), The 8yslel/18 illterfact' wtlh the rcaclton
t.0nlrol ,_ystt'ln (IICS),, guidance and navigation (G&N), ,_crvice propulsion
_y._lcm (SI)N), stal)iliaalion and conlrol u}/sli'm (SCS), clectrim_l power
_yslenl (I';PS), lclecommu|_ications (T/C), and cont|'ol8 and displays (t'&l)),
I"UNC I'IONA.I, i)I,:SCRI|'I'ION,
The purpose ol Ihc _cqucntial syslem_ is to provide 8aft, tg Ior lilt'
t'l'l'%V (llll'itlg tho alNl.'t'lll ,llld dt!8_'_.'l'tl [._}/.I.'A_.'.'4 O|' li llliS:;itlll, dlld Ill pt'l"[Ol'llt
normal sep,lration t'ullcl.ioua. Tlu" I,:DS monitor8 ope|',',l.ion oI the I,/V ,ind
\viii iuitiat,e an atltolll,ttlt' ahort ul ,in cn_ere,0tlc}'. The 1,1".S is proxid,'d
|'Of I1._t" dtll"itll_ all t'lllt'l"l.#,t'llC.V .ll*iNitl._ |'1'OIII tll.t|l'ttllCliOll ol l|11" I,/\" or
other ,_ystcms all'eclitlg crew s,llt't}', The l,t':S will be.utilized to itbol't
the lnission in an emc|'gt'nt'y h_" Sel_al'ating the C/M trotn tile I,/V aud
S/M. The IA-:S can he oper,_tional lroII1 II11" 1,lunch pad until tilt' launch
t'Ut',lpt" lov_'er is jt. lli:;tllll'd, l,'ollmving ,ccond stage hot_:_tcr i..t/,llilion, lilt'
l,i':N IOV¢I'I" iS cllisoUCd Irom ihv t'SM-I,/V collll_inalion, The I':I,S i:_
pro_ hlcd Io ,_lahillzc aml decch'|'.lt,' Ihc I,'/M t't_llo_i'ing .in cllll'y iuio the
earlh ,ltl,_obphcrc or ulloi_\'l|l_a ,m abort. The l.;I.N p,lrachutcs will lo,,vcr
,h,, c ,' .,,.,, l, ,, .1u t i,, "\t'uncti,mat dt, scription ot thc scqul,t_t_al_,_,"_tc_'_u },,_ _u}nt,_l't(,¢/ _fl'lltlJ\'?r _,Iolll_\ving p,i r.l!/r,_phs, It '
I.
,Ncquenti;ll l'Nenl._ t'onlrol S_'utcnl ISl':_'_). " _ '_ k:Z'._
Flu' NI"L',N coil,_i.st,_ Ol controllcr:_ (fi,_urc dT'_Ol) that provid,' aut,-.
Ill,tlt_ . st'llll,llllOlll,tlit', 01111| 11hllllt,t| t'Ollll'Ol-lOf [ll[li,l|itlll 111" II, l"I11111A|I_MI
Of ltlllt'tlOII,t[ _"_l'llt_ I|lll'illg _,'.tl'[I.ItIN }.)ll,lNt'N _.lt |lu' Ap_lh_ IIIi.'A._LtIII, III1'
controlh'r_ .11'_' the m.18ter vvcnl,_ ._.qucnt'e t-m_troller (,MlqS('), earth
landing _equl,ncc ..ontl'ollvr (}it,S{'). C/M r_,.lct, ion _,'OI1|1'Ol ,"i}'.'ltt'lll i"Oll-
trolh, r (('_MR_'.Nt'). _of'vict- lllt_dul,'-,l_'ltt_OII cmlt:,_ll,'r (SMJC). Each
_Q}t Iql_
NI,:Q!It,',N I'IAI. ,_ Y,"i _.l'.;Mb
[1Ate I,_ Nov Iql_l_ _'hant:,' D.Iti _2.. '_- I
$MZA-03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
ii Hi I
controller consists of redundant relays, timers, and other devices to
control systems operation and automatic timing of events. Two controllers
are provided in all cases for dual redundancy. The SECS will contr0_ the
automatically sequenced events during a mission abort, normal CSM-SLA
separation, normal C/M;-S/M separation, and events during the earth
landing phase. The SECS provides conditioned signals to telemetry
equipment through the data distribution box so that vital information may
be telemetered to MSFN. i
The SECS will control the launch escape system (LESt during at,
abort up to the time of normal IAtmch escape tower jettison. The SI°S
engin6 is utilized during an abort after LES tower jettison to propel the
CSM away f:omthe L/V, Normal separation of the SLA is 15erfornacd
by the SECS following manual initiation after earth orbit is attained.
Emergency separation of the SLA is performed automaticall_r 1.7 s_conds
after an SPS abort is naanually initiated. C/M-S/M separation is per-
fortned by the SECS, and is mb.nually initiated during the entry phase or .
subsequent to an SPS abort. During a LES abort, the C/M-S/M sepat'a-
tion is performed automatically by the SECS. Events performed by the
earth landing system are automatically controlle.d by the SECS during
normal descent. Switches are provided for manual backup of critical
events.
The basic functions performed by thd SECS ard as follows:
Event
Auto abort _nable
LE and PC
motors fire
Pitch motor
inhibit
Auto RCS oxidize#
dump inhibit
LES towcr
jettison
CSM-SLA
separation
Originatesi
MESC
MESC
C/M R CSC
c/M Rcsc
MESC
MESC
Function/Input
Lift.off _ignal
C/M-S/M separa °
Manual Control
EDS AUTO fiwitch
(M DC- 16)
LES MOTOR FIRE
tion relays
Lift-of_ + 61
seconds
LiftLoff. + 61
seconds
ELS armed, and.
sWitela (MDC- _)
ABORT SYSTEM-
OX DUMP switch
(MDC- 16)
ABORT SYSTEM-
OX DUMP switch
(MDC-16)
ABORT SYSTEM-
Z4H ft baross_tch
closure on
LEs aborts,
manual 3 fix!autos
atttSt _ lift-off
Trafisl[ition con-
trol _ 1.7 ,econds
MODE switches
A and B (MDC-16)
ADAP SEP switch
(MDC-S)
lMis st.,t: , Basic Date 12
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Nov 1960, Change Date , (i) " i-, Page 2 .... 2
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APOLLO OPERATIONS HANDBOOK
Event
RCS/SCS enable
LES abort
initiation
C/M-S/M
Separation
Canard deploy
SPS abort
initiation
RCS/SCS, disable
Apex cow. r
jettison
Drogue parachute,
deploy
Drogue pa rachutos
release and main
parachutes deploy
RCS propellants
bttrll
RCS purge
SYSTEMS
Originates
VIESC
MESC
MESC
MESC
MESC
MESC
MESC
ELSC
ELSC
C/M RCSC
C/M R CSC
DATA
Function/Input
Adapter separa-
tion + 2. 5 seconds
or C/M-S/M
deadface + 1 second
EDS abort signal
from L/V-IU
C/M-S/M d_ad-
face relays
+0. 1 second
LES abort lockup
relaFs +II
seconds
Manual
ELS armed and
Z4K ft baroswitch
closure
ELS armed and
24K £t baroSwitch
closure
+0. 4 second
ELS armed and
24K ft b&roswitch
closure
+i seconds
ELS armed and
24Kft baros_dtch
closure
+ 14 seconds +
10Kit barosx_/tch
closure
Manua I
Manual
Manual Control
REACTION CONTROL
SYSTEM-CMD
switch (MDC- 16)
Translation control
C/M-S/M SEPSwitches A and B
(MDC- 15)
CANARD DEPLOY
switch (MDC-5)
Translation control
REACTION. CON.TR O I,
SYS-CMD switch
(MDC- 16)
APEX COVER .
JETT switch
(MDC-5)
DROGUE DEPLOY
s_vitch (MDC-5)
MAIN DEPLOY
switch (MDC-5)
C/M PROP JETT
DUMP switch
(MDC -8)
C/M PROP JETT
PURGE switch
(MDC-8)
Mission __ Basic D&te
SEQUENTIAL SYS.TEMS
12 Nov 1906. Chanue Date .. - ,, Paga-- ", ,_,-3 ....
SM2A-03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
Evc.nt
Main parachutes
release
Po stlanding
antenna deploy
SYSTEMS DATA
Originates
ELSC
MESC
Function/Input
Manual
Manual
Manual Control
MAIN CHUTE
release switch
(MDC- 16)
POS T LANDING-
AN T ENNA- DEP LO Y
switches A and B
(MDC-Z 5) ,
_.9.,2Z Emergency Detection System.
The EDS is designed to detect and display status and emergency
conditions of the launch vehicle-spacecraft combination to the astronaut.
The EDS also provides automatic abort initiation, under certain condi,-
tions, after lift-off up to the norn-al time of LES tower jettison.
The EDS display circuitry is enabled When the EDS POWER switch
(MDC-24) is in. the ON position and will illuminate lights on MDC-5 to -
indicate L/V statuS. The red L/V RATE light will illuminate, when .
L/V rates are in excess of 20 degrees per second in roll and 5 degrees
per second in pitch and yaw. The rates are sensed by three rate gyrosmounted on each L/V axis in the instrumentation unit (IU). The red
L/V GUID light (MDC_5) illuminates to indicate failure of the guidance.
unit which is also located in the instrumentation unit. The yellow L/V
ENGINES lights (lxCDC-5) illuminate when a respective S-I booster engine
is developing less than 90 percent of total thrust output. The L/V
ENGINES lights are monitored for engine status during thrusting periods.
During staging, the L/V ENGINES lights arc monitored for illumination
to indicate BECO and extinguish to indicate stage separation. After
staging, the number 1 L/V ENGINE light indicates the stat_s of the
S.-IVB Stage engine, it will be extin_uishedwhen the engine is producing
65 percent rat6d thrust. The ABORT light (MDC-3) is a red lamp
assembly containing 4 bulbs. TwcLbulbs are in System A and two bulbs
are in syst6n_ B for redundaricy. The ABORT l_ght is illuminated if
an abort is requested by launch control center for. a.pad abort or an
abort during lift-off via radio. The ABORT light can be illuminated
after lift-of.f by the Raf_ge Safety Officee [ransmitting a destruct arm
command. The destruct arm command will also initiate BECO. An
abort may also be requested via radio from the MSFN after lift-off
*10 seconds.
The EDS automatic abort circuitry is enabled at lift-off providing
the EDS AUTO switch (MDC-16) is it the AUTO position, (See
figure 2.9-2.) A circuit is completed through the lift-off enable and
first motion relays at lift off. The lift-off enable relays are latchifi$
S EQU I::NTIAI. SYSTEMS
Mission ...... Basic Dat- _..1.2 Nov 1966 Chan_e Date , Pa_e 2.9-4
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SMZA-05-SC012
APOLLO O P_'P'ATIONS HANDBOOK
SYSTEMS DATA
type and are latched closed by GSE just prior to lift-oft. The normally
closed first motion relays remain energized by GSE until actual lift-off
occurs. A circuit is completed through the relays and the EDS AUTO
switch upon lift-off. The white LIFT-OFF light (MDC-5) illuminates and
the red NO AUTO ABORT light (MDC-5) should remain extinguished.
The astronaut presses the NO AUTO ABORT switch-light if it illuminates.
The NO AUTO ABORT switch-light should also be pressed if the LIFT
OFF light does not illuminate at lift-off. This would indicate that the
circuit was not completed for illuminating the LIFT OFF light and ener-
gizing the auto abort enabling relays. Pressing the NO AUTO ABORT
switch-light will energize the auto abort enabling relays through circuitry
in the MESC. The EDS AUTO Switch must be at AUTO to complete the
circuit. The LIFT OFF light would not illuminate in this case. (Refer
to Malfunction Procedures in Section 9.) The LIFT OFF light i._extin- .
guishedby circuitry in the L/V IU at approximately 5 seconds after
illumination at lift-off. The EDS will automatically initiate an abort
when two L/V engines fail Qr L/V excessive rates are sensed if these.
tWO functions are enabled. The two functions are enabled with the
ABORT SYSTEM - 2 ENG OUT switch (MDC-16) and ABORT SYSTEM -
RATES switch (MDC-16). The two switches are set to off to inhibit the
two functions prior to S-IB staging. L/V guidance failure will not initiate
an automatic abort. The crew will contact MSFN and a decision made
on the action to be taken. If a destruct arm command is transmitted
priol to inhibiting the two-engine out auto abort capability, the EDS will
detect BECO and initiate an automatic abort. If a destruct arm command
is transmitted after the two-engine out auto abort capability is inhibited,
a manual abort must be initiated immediately when the ABORT light
illuminates. Structural breakup or s.eparation of the structure between
the IU and C/M will also be detected by the EDS and an automatic abort
initiated. During ascent on a n0rmalmission, the EDS AUTO switch must be
set to OFF prior to launch escape tower jettison. Inhibiting of the
auto abort capability _ensures that an automatic abort can not be initiated
at the same time that the launch escape tower is being jettisoned. An
abort may be initiated manually b), rotating the commander's translation
control to the counterclockwise detent positio n (20 degrees).
The pararo.e_ers being sensed h7 the EDS are extremely time-
critical at various periods during the boost phase. When these param-
eters are exceeded, an LES abort is automatically initiated to pr.opel
the cscapi_ g vehicle (C/M and LES) safely away fron_.the launch vehicle
prior to a catastrophic conditioh. Concurrently vcith abort initiation,
either atttomatically or manually, logic circuitry will shut down engines
in the L/V activate stage. The engine shutdown signal is inhibited by
circuitry in the IU fo_ the first 40 seconds of launch because of range
safety restrictions.
A Q-ball (figure 2.9-3) mounted above the LES motors, provides
an el6ctrical signal input to the L/V AOA/SPS Pc indicator on MDC-3
and an electrical signal input to ground cotitrol via telemetry.
- " " SEQUENTIAL SYSTEMS
_iis-:konL -- _Baste Date Iz Nov 1966 ,Chani_e Date_. Page
2.9-9
Q*I_LL
PITCHCONTROt
SMZA-03-SG01Z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
SURMCES
COMPARTMENT
,ONMOTOR
SKIRT
LAUNCHESCAPETOWER LAUNCH ESCAPETOWEk
SEPARATtON NUTS(4 PLACES)
-y
PROTECTIVECOVER
5M-." a,-',; ,,
Fi_2. '_-3. I_aunch E_cape S3"st.,,m
The Q-ball has four static port.,, for mc,lsuring _P which _._ a
function ofangl,:- of attack. Fhe..M _ i_ related Io pitch ae, d yaw, a,_,! _._
elcctronitall_- analyzed and displayed on the t,/V AOASi-_S Pc inctic._,,r
on MDC-3. The indicator i_ gracl,mt_,d to lq0 percent hccause of _',:_
transients of the SPS. 'Flat" indicalor is mo:utor_.d tot Ihc 1,i'V .\t._A
function from 40 seconds after lift-off until approximatt, ly one mi.autc
and 40 seconds.
Position of the red line is based on vchlv:e .slvu_.tural lip,',:t,, .::-,:
laamch vd_iclc capabilitie_._. A dccisi_,n to_- mamml abort initi,ltltm x_;/
be made when the indicator pointer reaches thL' red line and .l ::-,_,.c,
i_ also observed on the FDAI.
Launch Escape Svstt,_,.
Purpose of the I,F:S (figure 2. ')-._) is lo provide imnledi,_le abort
capahilith,._ frOlll the latlnch pad to lh,. llt'll'lllffl tIIll¢" t,lf I,_]S [o'_,t" I it,ill :,
Thv &BORTN'I'S'I'EM - MODI'_ aw_tcl_es 1 and 2 (MDC-Ib) ar,' m tl:,.
LI}]S MODI" po_iihon prior to LES lower iettts_vn, and an ab_rt _tll l,_.
a_ton:pli._hed by ut_h.'.itq4 tlu' l,tlltl_!: c:.t.lpe :¢¥:,[_'111. A lll._llu,_l o|
SF'QUI':NT|A! S_S I'I-;M._
tl, asti" Date ld Nov |_)hb _'h _:_' Y_atO-- , . l.'_i_1_, ' ,). l0
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SM?A-03-SC012
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
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automatic initiated abort signal will activate a masl-cr event scqucnc,
controller (MESC). The MESC will initiate C/M-S/M separation. -and
ignite the launch escape and pitch control motors. Firing of the pitch
control motor is automatically inhibited 61 seconds after lift-off by a
tirnd-delay relay. The LES motors provide sufficient thrust for the lift
and lateral translation of the C/M away from the launch pad, or trajec-
tory of the launch vehicle. Two canard surfaces (figure 2.9-3) ari.
deployed 11 seconds after abort initiation to orient the C/M to a blunt-
end-forward attitude. (R0fer to Abort Procedures in section 9.)
During a normal mission, the LES tower is jettisofled shortly after
second stage booster (S-IVB) engine ignition. LES tower jettison is
manuall3_ initiated approMmately 3 minutes after lift-off by setting the"
ABORT SYSTEM • MODE switches 1 and 2 (MDC-16) to the T.WR JETT
SPS MODE position. E[ther switch will enable systems A and B of the
redundant circuitry. Both switches should be set at the same time.
Any abort, after LES tower jettison, must be accomplish6d in the SPS
mode by utilizing the SPS engine. (Refer to Abort Procedure_ in
section 9.)
A boost protective cover (BPC) completely covers the conical
section oi the command module. Tke. cove_' protects the command
module and windows from heating during the ascent phase, and soot at
launch escape tower jettison in the event of an abort. The cover is
attached to and is jettisoned with the LES tower. A removable Section.
allows access to _he C/M crew.compartment. The cover has one window.
fabricated of fused silica glase and is located over the forward viewing
wifMow_
, n _ 4 Earth Landing System.
The ELS provides for safe return of the command n,.odule and
crexv following anearth orbital mission, a hmar mission, or mission
abort. The ELS consists of two earth landing system controller's (EL,SC)
and paraclmte_. The ELS logic circuitr},, is armed automatically durhig
an abort in the l..ESmode, and is a_med manually with tht, ELS LOGIC
switch on MDC-8 during a SPS abort or normal entry. The ELSC con-
tains bare switches and time-d_lrty relays. After _he logic.circuitry i,_
armed, the Ei,SC'automatieall,.,';enses altitude and initiates deployr_ent
of the parachutes at tl, e proper time. The time-delay relays control
initiation of automatic events after the 24,000 feet bare s_('itch closes.
The parachutes (figure 2.9-4)are located Jr, the forward compartment ot
the C/M. under the apex cover. Duringa normal entry or descent _'rom
an abort initiated ahoy0 30,000 feet, the 24,000 feet hare switch closes
and completes a circuit.to the MESC whic.h jettisons the launch rscapv
tower. The MEsc initiates apex cover jettison 0.4 seconds aftvr launch
escape tow_-r jettison. Closing ot the 24,000 feet bare switch comph.tcs
a circuit to a 2-second time delay and a 14-second time delay to jettison
tht, dro_:ue parachutes in 2_econds. The 14-second tim_, delay comph-tcs
a circuit to tht, 10,000 feet bare switcl;.
SI_QU ENTIA L SYSTEMS
M_sslon. Ba.s:c Date 12 Nov Igbb Change flato - Page 2. q-ll ,.,
SMZA-03-SC01Z
APOLLO OPERATIONS HANDB00K
SYSTEMS DATA
I
• ,.._ _ DROGUEPA_C_UIE$
_.. _ APEX COVER
MAIN PARA(_IUYEg .
• ,_ ''/(3 I'LAC_S).
:. _ __ I_ROGUE PARACHUTES
g: " ,' _!1 -_'--- \ ANOMORTA_"- .,;/ J . _-" " _X CaPu_c_s)
I%|ilsion
Fil.lt_re 2. g-4. EL_ Phr,_chute Equipment
$1_,QU F,N'I'IA I S YS T EI_LS
-Basic _late IZ Nov 1966 Change l'_t_, Pa,ap
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APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
The drogue parachutes are held in a reefed condition for 8 seconos
by two reefing lines. Each reefing line has two reefing line cutters. A
pyrotechnic time-delay train in each reefing line cutter is ignited at the
time of drogue parachute line stretch, causing automatic disreefing after
8 seconds. The drogue parachutes remain attached to the command
module until descent to approximately 10,000 feet where the I0,000 feet
bare switch closes to initiate drogue parachute disconnect. Simultane-
ously with drogue parachute disconnect, three pilot parachutes are
independently mortar deployed, which removes the main parachute packs
from the C/M and extracts the main parachutes from their deployment
bags. The main parachutes are reefed for 8 seconds. Disreefing then
occurs, and the parachutes fully inflate to lower the C/M safely to
landing. Three reefing line cutters are employed on each of the two
reefing liges for the main parachutes.
A 27-1/2-d.egree hang-angle of the C/M is maintained by means of
the main parachutes attachment. The hang-angle contributes to the crew
tolerance impact by ensuring that impact occurs at the specifically
designed C/M structural attenuation point. This attenuation point is on the
+Z-axis.
Special note should be made that the apex cover jettison.and deploy-
ment of the drogue parachutes ma.y be manually "initiated at 45,000 feet
during a normal .entry if the flight characteristics of the .command
module become unstable. (Refer to operational limitations and
restrictions. )
An ELS - AUTO/MAN switch (MDC-16) is provided for the crew to
inhibit automatic deployment of the main parachutes during a low-altitude
abort initiated prior to 61 seconds after lift-off. The Switch is set to the
AUTO position prior to launch. In the event of an abort prior to 61 seconds
after lift-off, the crew will ue£ the switch to MAN after drogue parachute
deployment if the C/M is above an alt{tud6 of 3300 feet. Deployment of the
main parachutes will be manually initiated by pressing the MAIN DEPLOY
switch on MDC-5, when the althueter pointer reaches the adjustable marker
setting (3300 feet) on the altimeter face. This action will preclude the
possibility of the ten, mend module drifting back on a land area. The EI, S
switch should 1,e returned to AUTO after the nlain parachutes are deployed.
This will allow a 14-.second time delay to time out and permit release of
the main parachutes when the MAIN CHUTE RELEASE swltch is actuated
after touchdown.
5}':(Q(" F]N'['[,.\ i. S'_'5 [ }':.kl_
T_,.ls[¢ D,_te l" X,,x' lqot, . ("h,an,_,t, Date - ....
SM_A-03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
SYS TEMS DATA
2.9.3
1.9.3.1
The postlanding recovery aids consist of a sea dye marker,
swimmers umbilical, C/M vent fan, C/M uprighting system, HF
recovery antenna, and a flashing beacon light. The sea dye naarker and
swimmers umbilical are deployed automatically when the recovery
antenna is deployed. The marker and swimmers umbilical are tethered
to the C/M forward compartment deck. The sea dye marker will last
approximately 12 hours. The C/M vent fan (partofthe ECS) is turned on
after landing to vent the C/M to the Outside atmosphere. The C/M
uprighting system is activated only if the C/M is in a Stable inverted
attitude. (Refer to Command Module IJprighting Systen_in section 2. )
The flashing beacon light and two VHF antennas located on the
forward compartment deck on the C/M are automatically deployed to
an upright position after main parachute deployment. The risers of
the main parachutes actuate reefing line cutters, which cut retention
ties and allows the beacon hight and VHF antennas to be extended in 8 seconds.
The beacon light has a self-contained power Supply capable of operating
the light for three 8-hour duty cycles. The flash rate is 15 per minute
at an intensity of 1.2 candle-seconds per flash.
The postlartding control switcheS are located on MDC-25. A
recovery pickup cable is provided on the command module for retrieval
by recovery forces.
MAJOR COMPONENT/SUBSYSTEM DESCRIPTION.
Each of the sequential systems employ redundant circuits for
reliability. Seven batteries are provided in the spacecraft to furnish
electrical power for the spacecraft portion of the systems during opera-
tion. Entry batteries A, B, and C, and two pyro batteries are located
in the command module, and two S/M jettiSon batteries are located in the
service module. Entry batteries A, B, and C are the only batteries that
are rechargeahle during the mission.
Entry batteri_ A and B furnish power for the EDS displays and
MESC logic circuitry,. The pyro batteries furnish poxver for detonation
of pyrotechnic devices during aborts, separation functions, and,para-
.nute operation .during the normal landing sequence. (See figure 1.9-_
for a C/_,{ battery bus tie-in schematic.) A description of each of the
sequential systems i$ contained in the following paragraphs.
Sequential Events Control Systen_.
The SECS consists of two master events' sequence controllers
(MESC), two earth landing sequence controllers (ELSC), two command
Misslon
SEQUENTIAL SYSTEMS
Basic Date I,Z Nov 1966 . Change Date
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SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
ENTRY I_ATTE RY A
"lBAT A
100A F PWR (LEB-15C)
MESC-
LOGICA-BAT A MESC ARM .
(MDC- 5A _ A-BATA22) (MDC-22)
,SA)
5AEDS 1
_BAT A
(MDC-25)
EDS POWER
(MDC-24)
I ENTRY IBATTERY C .
÷I, BAT C
|00A ).i PWR (LEB-150)
I_ EI.S2BATC5A _ (MDC-Z_)
J ENTRY JBATTERY 8
EDS 3
5A 4BAT B(MDC-25)
MESC ARM
B- BAT 8
B
(LEB-150)
MASTER EVENT !MASTER EVENT
SEQ CONT,|. SEQ CONT-2
SAFE PYRO PYRO_ARM ARM
PYRO A PYRO B
SEQ A (LEB-I50) SEQ B (LEB-IS0)
F 0A 20A
• RELAYS
PYRO
BATTERY8
NEGATIVE
LOGICARM OFF q
VOLTAG
MESC-
LOGIC8-BAT B
(MOC,
22)
Figure 2.9-5, C/M Battcr.y Bus Tic-In Schematic
SEQUENTIAl. SYSTEMS
Basic Date 12 Nov 1906 Chan_e Date_Page
$M-2A-757E
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SM2A-03-SCOI2
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
module reaction control system controllers (C/M RCSC), and two service
module jettison controllers (SMJC). The SMJC is located in the service
module. All other controllers are located in the command module. Each
controller consists of relays, timers, and other devices to provide auto-
matid and semiautomatic control of the systems.
Many operations in the SECS are accomplished by pyrotechnic
dex4c6s of varieus types.. Apollo standard initiators (ASI) are used
throughout the spacecraft to in{tiate firing of the pyrotechnic devices.
The initiator acts as a primer, in most applications, for the main
pyrotechnic device. Pins in the initiators are electrically connected
with a one.ohm-resistance wire. When a current of at least 3.5 amperes
at 28 volts is applied, the one.ohm-resistance wire ignites a primary
explosive. The primary explosive, in turn, ignites a secondary explo-
sive to fire a detonator,, igniter, or gas cartridge assembly. The
detonator assemblies are used to transfer detonation from.the AS1/
detonator combination to explosive components to perform a specific
function• The other high explosive devices are flexible, linear-shaped
charges (FLSC).and mild detonating fuzes (MDF) that. are employed
during module separation functions. The igniter assemblies are used
to ignite the LES motors. The gas cartridges are used to actuate the
apex cover thruster assemblies, canard thrusters, SLA thrusters,circuit interrupters, and parachute deployment mortars. A control
relay maintains a shunt across each. pyrotechnic device prior to firing
and simultaneously removes the shunt upon receiving a firing command.
The Apollo. standard initi_.tor (ASI) acts as _ pressure cartridge for RC5
pyrotechnic valve s.
The major pyrotechnic functions performed by the SECS arc
listed below.
Function and
Pyro Device
Spacecraft LEM Adapter
(SLA) separation
a. Umbilical disconnect
b. Adapter separation
(explosive tratty)
c. Panel thrusters (8)
Apex cover jettison
a. Thruster cartridges
b. Apex cover pilot
parachute mortar
Normal Actuating
Control
Automatic signal from
MESC during SPS abort and
manual control from
ADAPT SEP switch
Automatic signal from
MESC
Backup Control
Comrrland pilots translation
control (left arm rest)
APEX CO_v'ER JETT s\vltch
( MDC- 5)
Mission
!
SEQUEN.TIA I. SYSTEMS
Basic Dhte 1g Nov 1.966 Change Date= Paue 2"()'Ir'" ' i
(:..
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SMZA-03-SC012
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
Function and
Pyro Device
RCS oxidizer dump
a. He isolation valves
b. He interConneCt valv,
c. Oxidizer isolation
valve
d. Gas chromatograph
Oxidizer and fuel
burnoff
a. He interconnect
valves
b. Fuel interconnect
valve
c. Oxidizer interconnect
valve
RCS purge
a. Oxidizer bypass
valves
b.. Fuel bypass valves
Drogue parachute
mortars
Pilot parachute
mortars
Main parachute release
mechanism
C/M-S/M separation
a. Tension-tie cutting
charges
Normal Actuating
Control
Automatic signal from
RCSC during a LES abo.rt_
initiated prior to 61
seconds after lift-off.
Manual actuation of the
C/M PROP JETT-DUMP
switch (MDC-8)
C/M PROP JETT - PURGE
switch (MDC-8)
Automatic signal fromELSC
Automatic signal fromELSC
Manual actuation of MAIN
CHUTE RELEASE switch
(MDC_I6)
Automatic signal from
MESC during a LES abert
or C/M-S/M SEP
Switches 1 and Z
during normal mission •
Backu;) Control
None for fast r.,amp.
C/M RCS - He DUMP/OFF
Switch (MDC-Z6), and also.
opposite commands from
rotational controllers one and
two for roll and yaw. One
Controller also commands
minus pitch.
DROGUE DEPLOY switch
(MDC-5)
MAIN DE PLOY switch
(MDC-5)
None
Command pilots translation
control (left arm rest) for
LES abort and C/M-S/M
SEP switches I and Z if
translation control does
not work.
Mission
SEQUEN TIA L- SY5 TEMS
Basic Date 12 Nov 1966 Change Date Page 2.9,1Y ....
FunctionandPyre Device
b. C/M-RCSpres-surizing valves
c. Circuit interr.upters
d. C/M*S/M umbilical
guillotine
e. LE and Pc motors
i_niter cartridges
LE tower (TWR) jettison
a. TWR to C/M attach-
ing nuts •(explo sire)
h.- TWR jettison motor
igniter cartridges
1)ostlanding antenna
deploy
SMZA-03-SC01?-
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
Normal Actuating
Control Backup Control
Automatic signal from
MESC or manual control
from ABORT SYSTEM -
NIODE switches i and Z
ABORT SYSTEM - MODE
switches 1 and 2 (MDC-16)
Manual actuation of
POS TLANDING -
DEPI,OY switches 1
and Z (MDC-25)
i_L
1:t
il
Z.9.3.1. I
2._.3.1.2
_,Itss_on-
_Master Events Sequence Controllers (MESC).
The MESC (figure 2.9-6) provides the logic and _iming to initiate and
terrninate events associated with the ascent and abort modes. Controller
A is in system A and eofitroller B is in system B of the r.edundant sg, st_ n_s.
Crossover circuitry between controllers A and B ensures correct outpuL_
for. detonating pyrotechnic devices even if one redundant circuit is lnupera-
live. The logic circuitry is armed .with the two MESC-LOGIC ARM
switches. 1 and Z on MDC-25. The pyre circuitry is arn_cd with th,, tw,..,
MASTER EVENT SEQ CeNT-PYRe ARM switches I and 2 on MDC-Z4.
Backup controls are provided for most of the events controlled by the
MESC.
Earth Landing System Controllers (ELSC).
The ELSC (figure 2.9.-7) provide automatic and manual control of
drogue parachute deployment, drogue p,_rachute release, and pilot par;_-
chute deployment. Two redundant controllers _rc provided for du.t[
redundancy. Relays are energized in the ELSC and a pyre continuity
verification box (PCVB) to control pyrotechnic devices ancLpe rfornx ti_,
_vents. The _'CVB provides an access for checkout of pyro circuitry,
and conb_lns relays that work in _onjunction with the EI,SC. Tht. El.So
contains bare switches that inhibit automatic operation of the ELS ab,,,vt.
r ........
SEQUEN TIAI. SYSTEMS
Basic Date !Z Nov 196t_ Chantze Date -.- Page .....
SM2A-03-SC012
APOL ?,O OPERATIONS HANDBOOK i
I i SYSTEMS DATA - . I
I
I. the bar0 switch setting. Other events a re controlled by time-delay rela! after the bar0 switches close. Refer to functional description of the ELS.
2.9. 3. 1. 3 Command Module P,eaction Control System 'Controllers (C/ M RCSC).
The C/ M RCSC (figure 2.9-8) provide automatic and manual control
I' of events that occur in the reaction control system. Two redundant controllers a r e provided for dual redundancy. During a n abort initiated
I % prior to 61 seconds after lift-off, the C/M RCS oxidizer and helium a r e 1 ! automatically dumped. When the abort signal i s received, the following pyro valves a r e fired by initiators to pressur ize and dump the RCS i- oxidizer :
1 j I 1
a. Two helium isolation valves b. . Helium interconnect valve I c . Oxidizer interconnec t valve d. Two oxidizer overboard dump valves
i
1 - The oxidizer overboard dump valvee route the oxidizer to a blow-out plug in the aft heat shield of the C/M. P r e s s u r e buildup shears a pin which
h - releases the blowout plug and dumps the oxidizer overboard. 1 I The helium pressure is dumped into the aft compartment 18 seconds
after abort initiation when the following pyro valves a r e fired by initiators:
a . . Helium interconnect valve b. Two oxiditer tanks bypass valves c. Helium overboard dump valve . I The three entry batterieB a r e automatically connected to d-c main
f buses A and B during an LES abort o r normal C/M-S/M separation, RCS I
i controI i s transferred (S/M to C/M). (See figure 2. 9-9 fo r RCS control I
schematic. ) The controllers inhibit automatic oxidizer dump, helium I dump, and LES pitch control motor firing ailtorriatically a t 61 seconds after lift-off. RCS propellant burn.and purge rnus t be manually selected.
'The pyro buses are armed when the MASTER EVENT SEQ CONT - PYRO ARM switches 1 and 2 a r e set to the PYRO ARM position. Backup controls a r e provided for most of the functions p ~ r f o r m e d by the RCSC.
1. 9. 3 . 1. 4 Service Module Jettison Controll.st-s (SMJC).
The SMJC (figure 2. 9-10) program the operation to impart a dcsircd motion to the service module after C/M-S/M separation. The S/M reaction control system will be controlled by.the SMJC and command - continuous firing of the -X jets. It i s possible that the resultant -X
I thrusticg will be offset from the S I M X-axis; therefore, the S / M RCS a roll jets a r e activated for a 5.5-second interval, 2 seconds after
separation. This ensures that a majot componeht of the jettison thrust- ing wil l be in a direction that was parallel to the CSM (-?() axis a t - . . " -. . . ..,".." . . ., . . . . - .. -. .
S E Q L ~ ~ N T I A L SYSTEMS
Bflssion - . B a s i c Date 12-,xo?' ! 9 6 b , ~ h a n ~ l Date P a 2.9-23
. . - . . - - - ... -.
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S.M2A-03-SC012
APOLLO oPERATIONS tIANDBOOK
2. ,l. 3. 1.'_
2.,I. 3. l.t_
2.,1. _._'.
_YSTEMS DATA
,_ta\,er.mce. Tile du&l controller_ are powered b v droll ,ep_lrati,m
batteries located in tile S/IM. The battetqc_ art, not rectlartac,lblc
during tile fni,_$ion.
C/M-S/M 8cpa ration Mrchani,_ln.
['hc C:'M-$/M separation nlech,lni_In (figure 2, '+-It) col+,_ists of
el('¢tl:ica[ circuit inter:ruptrr+, shear ctltnl3P(,ssion pad,4, lcn_iot't tics.
linear-shapcd charges, aud,l dual_blad6 guillotine (umbilical sever.thee
device), l'_edtu'_dartt sy_tenxs (A and 13) irt tile _NII::SC provide dual ,'cdun-
dant connalands to fire du,ll initi,ltor_ and cltarges to t,tlsttl't_' sttddt-tl
complete tension and umbilica 1 scve ra,c,c with ,id(,qu,ltc reliability.
Drier to unxbilic,lL severance. ,ensitix'e circuits in the' umbilical ,ire
doadf,lced by circuit intcrrupturs. 'l'ke _lxear ¢on/prcs_iou p_3ds arc
dt'sig|le(I for itltc,rtcrellco_t'rOe sepat'atiotx after tilt, tension ttcs ,IFc
se\'crcd, A :_0paration signal is scnt to dual redundant service i_,odulc
jettison controll.crs which control tile S/M after it separ,lte8 from theC "M.
Spalteci',lft I.F:M Adapter (Sl-,\) S(,p,lr,ltlon Xtechanisln,
A comtx_and for CSM-SI.A separatior,.is ,lutor_latically _cnt to the
Mf,:Su" when ,i SPS ,Ibort is ll_anu,tlly initiatcd. An -\DAt'T 81']1' switch
Ol_ iXll)C-5 llllty be lised a8 ;l b,ltkup ;llld for nornl,iL C_;,Xt-SI.:\ sepalration
dl.lrill,K ,I IIOl'il'U,l.l llli88iOll. Sep,_l l.'_.l[_iOll of the adapter intt_ four p,lncls
(tigllrt.' 2. '1-12) i:_ accot'nptisllcd by an explo_ive tf'ain. The cxplosisc
re,tin consis(s of 28 dlargc )loldct_s. 2 initiators and shirld,_. S p,lncl
tl'trtlsters, ,R initiator prcs,_urc cartridgr_, ,tlld ,ill unlbilical scp.,,r.llion
8Vstol'tl. [{t'dlllld,llll. dcton, tto:' ,I,_,_el/Ibiie:_ fii'c dU,t[ llllC, _I O[ la/ilti dcto-
ll0tiillt,_ tusc (,Xll)I") insl,liled l_etweeu tilt, ad,lptcr panels, top.,trial hottoux.
.Itad bctwocll e,lcll p,trtcl, . Either line will sere," the ._plicc pl,ltcs l_ctwct,n
tile. tour pllllt'ls ;.tlld ;ll'ol, lnd both t, lldg. t.*Po88OVel ° boo,_ter._ are uscd hi
tile chat'go holder .ioint_ to ensue0 that both lines are. tirlflg SillXtl[t,ll/t'-
ou,_ly for ¢olllpictc rcli,lbility. Tl_e dt, ton,lting lines arc cordilxuotl,,_ Ic.ld
._ht',tlh_ _ul-roundtng ,ill oxplo,_iw' ¢orc ,,vlucll is ,,irgtn lit'IX, cl,l.,,_ tl,
rile Iniid defoliating ruse separate._ tilt' ,id,ipter p, ltlci.s ,_nd lirc_ c,lr-
tl'idges for tilt', p,lllt°l thrusters v,'htth open the totlr p.lncls. ,%illXttit.ltlco
ousi V wit}l this oporilt.ion, ulnbilt¢,ll disconllott taM', pl,tte. I"out"
spring-logldcd rcels }told the panels in .t .l_,-dcgrec opcn position. Ihr
p.lnels are stopped ill tile opi'n position IW eight ,Ittcllu,ttor_ that h.lvc
hell I,' y't" Ollll} CO I't'_.
l';tner_,,nc_" lSetection ,"iv,,,totn.
Thr I-:DS constst, of _ensors. lol_ic cirrtntry and stgltal condi-
tioner:, located in tilt, Iatnich velndo, di_t)lay_ .lltd controls totaled Ill
tilt, C/M. and t_-ball which-is located oil tile lorw,ird tip el tilt, 1,I,;S toxver
above tilt, canard. Tile dit_plavs arid cotttl-Ols ¢olisi:_t of t./X' rate.-i. |.7 _,'
guidance, ahort, anti t, ftgineti IiRhttt. along wltil an at_glr-ut-att.lck
hE_UI',NTIAI. ',_Y._ l'l'2,XIS
.tlt.ttt Date 12 Nov l'lt,t, t'hahRe Date ..... i'i,.,. -4-u'211 _,
i
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SMZA-03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
SPS ABORT
INPUT
G&N, !ICS ANDROTATION
CONTROL INPUTS(ENABLED)
(MDC-16)
ADAPTERSEP
IL
Fr_n : DC
MAIN BUS A
Fr_ : DC MAIN
BUS A
From: IX: MAIN
BUS B.
LES ABORT OR
C/M-S/MSEPARATIO N INPUT ,CMD
ON
AUTO
DIRECTRCS
$CS-RCS CONTROL FUNCTIONAL BLOCK DIAGRAM
S/M RCSULLAGE
PITCH ANDYAW INHIBIT
I
• I
• _r, _"1011 iI , , ! _ [ II ROTATION CONTROL I (MDC-B) t i
I No. i (o_RECTMANUAL_I CONTROL oF RCS _ "
I lJ /I"OTAT'ONCONtROLI I
NO. 2 (DIRECT MANUALL_ j=7 CONTROL OF RCS !_
1 ENGINES) -. _
I I
S/M RCS ]
AUTOMATIC COILS
C/M RCSAUTOMATIC COILS
S/M RCS I
DIRECT COILS
C/M RCSDIR_:CT COILS
SM-,_k-93G
Figure Z. 9-9. SCS-RCS Functional Bluck Diagram _
Mis s;.on ...
SEQUENTIAL SYSTEMS
,Basic Date IZ Nov 1766 Change Da_e Page 2.9-27
$I,,t2 A-0._-SC0 1a
APO IA.O OPERATIONS HANDBOOI¢,
SYST I£'MS DAI'A
I;'tgttre 2. ti. lO. _ervlct" Nl_du|t, Jt, ttt,_ola Ctmtt*ollct 8('|lt'll_itttc
4tt
tat
I
I
I8_;tdl*l']N I L.\I. SYSI'I'7.MS
I
1
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOt_
SYSTEMS DATA
tl
tl
-+
I
l
II
•__ _, 45*
I I , L \
+_ PISTON I "
NEGATOR SPRING REEL
ATTEI'qUATOR (4 PLACES)(0 PLACES)
SM-2A-895A
MLss_on
Figure 2.9-12. _Adapter Separation htechanism
+,
SEQUENTIAL SYSTEMS
• Basic Da.te lZ Nov 1966 _Change D_,t.e_, Page 2.9._31 ,
-f - ~ - - " - ~ . .
,* - \ . . I . ,
, .. S ~ 2 2 ~ - 0 3 - ~ ~ 0 1 L
APOLLO OPERATIONS HANDBOOK
SYSTEMS D A l A
indicator and control switches. The L / V portion oi thc EDS and the Q-bal l a r e po\vered by eight L!V ba t te r ies . Tllc displays a r c po\vt.red by t\vo entry bat tkr ies A and n.
2. '3. 3. 3 Launch Escape Systt.hl.
~ t l e 1,ES collsists o f two lilsjor ;~ssc l l~bl ic*s ( f i g u r ~ 2. 9 - 3 ) that L I~C ' . ins tnllcd on top o i thc co~llnland ~ u o d u l c p r i o r to laluich. , Tht. ii iest s t ructur i . is a ioilr-li.ljgi.ci, \vclded tubiilar t i t au i~un tower. Tllc tower i s i1ttachc.d t,o tlrc conlnland ~ilodiilt; \\tit11 fottr iralrpiblc nuts on stttds. Two de t .ona tor .asscn~bl ics a r c i t~ s tn l l cd in bac11 ntit to b r ~ a k it \vllrl~ 1,ES to\ver jcttison i s conlmanded. The second s t ruc tur c i s cylindric3 in shnpc topped by the Q-bal l , and hous r s the laiincl~ c s c a p r , tower jc t t i - son, . and pitch.contro1 niotors . A canard subs ) r s t rn~ is installt*d tic.ar.tl~c, lo rward end bclo\v the Q-bit 11.
2 . l?. 3. 3. 1 I,ES hlotors .
Each oi thc tl lrcc tllotors in t11c IAES ( t igurc 2. 9 -2 ) a r c i i rcd by t a o igtritrr n s s c ~ l l b l i ~ ~ s . . Tlrc tllrcc lrlk~tors a r c the 1.1unt.h t.scnpc mo to r , to\v~.r jc-ttiso11 lotor or, a l ~ d pitch cont ro l nlator . Tllc p~tclr co r~ t ro l t:lotor \ ~ o r I i s in cvnjl;uctio~l with the launch escnpc ~ l l u t o r ditrirlg a LES abort initiated p r io r to 61 sccollds attt.1. l ift-vif. T l ~ c pi:.c.l~ control l~ lo to r 11~1s ;I
i isvd zc ro-tlcpccc, s i ~ l g l e - ~ x \ ~ a u s t ~ ~ o z z l c and i s t1~0~11ltcc1 bclo\v thc hal las t ctlclositrc in a horizontal position. Thc nlotur prodircc-s approsirl~.rtt~Iy 2 6 0 0 pcr~tnds o i t h r i ~ s t for about 11. 5 sccond to t'orcc, the, n a s r ot' t!re I..k:S t~)wc.r in tllc -Z,.di r r c t i o ~ l . F i r ing of thc pitctr C L I I I ~ rol 111otot. i$ inlr il>ill*d 61 st.conds aitc-r l ift-oii by a s ignal Iran1 thc C /1\1 KCSC. Tlrc I . I I I I I C ~ L - S C ~ I ~ X ! nlotor 11.x~ i o t ~ r 11ozk1t.s thLtt l ~ a v c a c c ~ t t r r l i l ~ c cant ,111pl1~ i ~ t
35 dCgrcc*s. 1 ' 1 1 ~ rfislllt,ig~~ thritst \ . ~ c t o r ' d r i l + c L i o ~ ~ i s obt.li:lc>ci b y o*'lsi::il~s the noz;!lc throat d iamctcru and producitig a t h rus t vcctol. t r l tht. - / d1r1.c- tion. Thrus t output i s appros imntc ly 150,000 pourids which s t a r t s dropping i l l approsiftlately 1 s rcnnds . La t c fn l t rans la t ion oi thc ilsc:.~pc \ , l ,hiilc i s aidcd by thc th rus t vcc tnr alignnlctlt oifsct du!- in^ an 1,ES abort . The. tower j r t t ison nlotor has two nozz les in wi~icll t l ~ c th rus t a.vcctc.r a l ~ g n n ~ ~ . n t is oit'sr:t nppros~rxlatoly 4 dcg rces to producix a t l t r ~ s t c ~ n ~ p o t l c r r t i n 111:
ti' d i r c c t i ~ n , 'l 'hrust output is approsin.atCl*: 33, 009 poi~nd.i.
Tlrc cana rd subs)-stcrr? (tiy;trc 2 . 9 - 3 ) cons is ts oi two tlcp1oy;tblu s ~ r r f a z c s I,rirzd into tlre oiitcr skin of the LES bclo\v the Q-bill1 intcrf,\cc%. E-ic!~ si1rfal.t. 1s mouutcd on tbvo hitlycs and i s opcra tcd open by .I pyro- tccllntc t t~ r i i s t e r \ n t h redundant g a s i.;irtl:idjit.s. Thr s l i r iaccs a r c * p i > r o s i r ~ ~ ~ t c l y 4 7 inchcs long, c lam-sl lc l l shaped, drlcl cons t r~ ic t r t l . a f doiiblr -skin ribbed ~t iconel . Thc c a n a r d s u r f , ~ c c s .irtb ,~\rtor~r,tt~c.;l l l \ . opcnerl during a LES abort and aerodynntnic io rzcs act ing o n tile s r t r - i a ~ v s control a tirrnarou~ici t~lanci ivcr o t the C!Xl. (Reicr to t\l)ort P r o ~ . c d ~ t r c s in s e c t ~ t ~ n '?. )
. . , u . - . .. . - SEQU ENI'IAL SYSTEXIS
. P ':,.. . . . . . -
SMZA-03-SC012
APOLLO' OPERATIONS HANDBOOK
SYSTEMS DATA
2 . 9 . 3. 4 Ear th Landing Subsystem.
The ELS consists of the parachute subsystcm (iigure 2 . 9 - 4 ) , two ea r th landing sequence coi~t ro l lc r s (figure 1. 9-7) , and t t ~ c apex covcr jettison mechanism.
Thc parachute subsys tem i s comprised of two fist-ribbon-type nylon drogue parachutes, 13.7 feet in d iameter ; t h ree ring-slot-type nylon pilot parachutes, 7.2 feet in d iameter ; three ring- sail-type nylon main parachutes, 83 . 5 feet in d iameter ; deploymcnt bags; br id les ; sus - pension l ines; m o r t a r s ; and the necessa ry hardlvarc for attachment to the CJM. The Parachute subsysti.m is housed in the forward compar t - . mcnt under the apex cover of the C/M. .
The ear th landing sequence cont ro l le rs a r e locatcd in the. right equipment.bay o!' the C / M and controls automatic operation of the ELS, Crossover c i rcu i t ry between the cont ro l le rs ensu res c o r r e c t output signals. Backup emergency, switchi.s a re . provided on MDC- 5 fov-apex cover jettison and parachute deployment. The apex covcr . i s jettisoned by four gas-operated thrus ters . Two gas-type ca r t r idges a r c employed for redundancy and opera te two th rus t e r s cach. Either pair .of t h r u s t e r s will jettison the apex cover. A pilot parachute and m o r t a r a r e installed. in the iorwPasd end of the a p e s covct , Thc nlortal* i s fircd a t exactly. the saille time a s the apcx covcr t h rus t e r s to.deploy thc.parac11utc.. T h t parachute \\,ill pull the apcx cower fro111 thc negative prcss t i rc a r ea followil~g tllc C/M. -
PERFORhIANCE AND DESIGN DATA.
Entry descent veloci t ies , altitude, and t i r .e a r e contained in thc following tabulated data. The f igures a r e based on a command module recovery tifright of 1-l., 000 pounds and a standard day ba romet r i c prcssurc'.
The tabulated data s ta tes the a u t ~ n ~ a t i c cvcnts that nornlally occur- in the ELS dui-ing descent. . Under cer ta in cntry conditions, the apcx covcr may be manually jettisoned, and.thc drogue parachutes manually deployed at 45, 000 fobt. Rcfcr to ophrational linlitations aild rcstr ict ions that follow thc tabulated data.
A , . . . . . . . . .......... - . .
SFQUENTIAI . S Y S T C ~ I S
h l i c DitC No3 i9b6 Chankc DBtc
7 .. ..>- ..... - .
' i
SM2A-03-SC01Z
APOLLO OPERATIONS HANDBOOK
Oc¢ll r l'ence
TWO DROGUE PARACHUTES
24, 0t0 .'vet baro switch cJ0ses
Ape. cover jettison
Drogue paraehut0s (2) deploy
10,000 feet bato switch
closes
Drogue parachutes (2) release
aud main parachutes deploy
Main pa.rachutes open (reefed)
a fte r two d rog.ue p:a ra chute s
release
MMu parachutes disreef
ONE DROGU E PARACIIU TE
Drogue parachute (1)releasOs
alad main chutOs deploy
Main parachutes open
(rected) after one drogue
parach',,te releases
,Main parachutes disreOf
I'ouchdown (3 main
p,i rll _."h/lit, s,
t',mchdown (2 tuain
parachutc.*)-
SYS TEMS DA'._A
Time on
Altitude Parachutes
24,900 tO 21, 500 feel
24, tOO feet baro
switch closure + 0.4:
._0condS
24,000 feet baro
switch closure +2.0
seconds
10,950 to 9, 10t feet
it, 000 feet baro
switch closure
84t0 ±Stt feet
10,000 feet baro
switch clOSttrd
8-'.00 :_500 feet
45 to 46 seconds
8 seconds after
line. stretch
40 seconds
8 seconds after
lihe stretch
5 -nlinu t e s
4. 2 llliuutc s
SEQI'I?:N TIAI_ SYSTFMS
Ba_it- Date 12 No,v 19bts, Chang6 Date
Descent
Velocity
425 ff/st.c
410 ft/sec
225 ft/sec
235 ft/sec
1 I0 ft/sec
275 it/see
2n0 ftlsec
ll0 ft/sec
28 ft/sec
33.5 ft/sec
I
l:!
i, I
Mission ........ ,:, Page .fi.,9.-.3:t, ...... , , '
SIVI2A-03-SC012
APOLLO OPERATIONS HANDBOOK
.
f
.
i
I-
2.9.4.1
2.9.5
SYSTEMS DATA
J
Power Requirements.
The SECS requires power only during the launch and ascent phase, for
CSM-SLA separation in orbit, for C/M-S/M separation during the pre-entry
phase, and during the parachute descent phase. Most all events performed
by the SECS occur instantaneously, and not on a continuous duty cycle. In
accordance with the Mission Modular Data Book (SID 66-I177), dated
1 S_ptember 1966, there are no power requirements for the SECS.
OPERATIONAI_ LIMITATIONS AND RESTRICTIONS.
Under certain entry conditions, the spacecraft may bec6me unstable.
Because of the erratic aerodynamic damping coefficients, wind gusts, and
shears, the astron_.ut may not be able to damp the oscillations with single
RCS, If this should occur, the apex cover and drogue parachutes may be
manually deployed at 45,000 f_et. This will stabilize and keep the C/M in
a heat shield forward descending attitude. Figure 2.9-13 portrays thedrogue development design envelope. The following precautions should beobse fred,
• Manual initiation of apex cover jettison and drogue parachut_
deployment should never be accomplished above 45,000 feet
during entry.
• The C/M RCS must be turned off prior to apex cover jettison.
• The LES tower and apex cover should never be manually jettisoned
above the automatic mode of g_ 000 feet during LES aborts.
5O
l\\r \\,_o t. \ \. \
\\,\\I \
30
=..¢
20
10 _ ....
o 0.1 0,2 0.3
umt_bl*.
0.4 0.5 0.6 0,7 0,8
MACH NUMBER
ENTRY ENVELOPE1
bemanvQlly_epl_l ot45,000 foot cluHngontryif the C./'M i_come_
Figure 2. a-13. Drogue Parachuto Deployment Design Envelope
0.9
SM_2A-896
i • i - , i i
SEQUENTIAL SYSTEMS
Missiofl Basic DatelZ Nov 1966 Chaflge Date_ Page 2.9-35
s l \ r 2 A - o 3 - s ~ o l z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
2 , 0.6 TELEMETRY MEASUREMENTS.
The following i s a conlplete l i s t of a l l sequential sys te lns t c l c ~ n c t r y data that i s nlonitored by flight cont ro l le rs and ground support personnel . The l a s t colu111n contains the name and type of S / C c r ew display. Thc display ut i l izes thd sanle pickoff o r s ignal s o u r c e s a s t e l c l l ~ e t r y , dn l c s s a s epa ra t e measurel i lent nulnber i s included in the display column.
hf iss ian . Basic D,ltc 1: NO!. !?"-. chatigr Date paS,? .. 2 , '!- 36..
An a s t e r i s k ( 6 ) by the mttadurement number denotes i n fo rn~a t ion \vhicIl i s not available fop recording o r t$l$metry t r ansmis s ion dur.ing PChd lo\!'
X.lcasurement Nunlbc r
C13 0136 X
CD 0140 X
C D 0141 S
CD 0170 X
CD 0171 X
CD 0173 X
CD 017.4 X .
:I;CD 0200 V
:::CD 0201 V
CD 0230 X
C D 0231 X
CD 0315 X
CD 0316 X .
CI) 1006 X
CI) 1007 S
C E 0001 X
CE'"OOO2 X
CE (1005 X
bit r a t e ope ration. .....
ScnSor Crew Descript ion Range Display
EDS abor t logic ou t B Evcnt Nonc
Direc t ullage, on A Event Nonc
. . . . . . . . . . . . . . . . . Direc t ullage 011 3 E\.cnt i\'onc
RCS act ivate s ignal A Evcnt Sonc
RCS act ivatc s ignal B E\.c nt Nonv
CAM-RCS p r e s s u r i z e s ignal A Evant Konc
CMIRCS pressurize signal B Evcnt Konc
DC voltage logic bus A t0.4-37 vdc Konc . -
DC voltage logic bus B +0/.+3? vdc None .
Forward heat shield jettisol1 -4 E\-c nt Konc
Fo rward heat shield je t t ison R Event K\'anc
EDS cnablc A Evc nt Nonc
EDS cnablc B Exc nr K\'onc
LES tnotor f i rc . initintc A Event Non~,
LES mo to r f i r e initiate B Evcnt N o n ~
Drogue d tp loy re lay close A Ev~.n t Nonc
Drogue deploy re lay c losc I3 Evcnt None
Main parachutt* deploy-droguc r v l ~ * a s e relay A Evcnt None . . . . . .
SEQUENTIAL SYSTEMS
SMZA-03-SC012
APOLLO OPERATIONS HANDBOOK
SYSTEMS D A T A !
I - Sensor Crew I .Measurement Range Display I Number Description i.
I CE 0004 X I Main parachute deploy-drogue r e l ease re lay B Event I None 1 I
Baroswitch lock-in re lay close A
Baroswitch lock-in re lay c lose B
B a r o n ~ e t r i t p re s su re s tat ic re ference
Main chute disconnect relay A . . . -. ... ... - .. ... , .
Main. chute disconnect re lay B .
Q-ball vector sum output
Launch vchicle guidance fail A
Launch vchicle ra te excessive A
Engine No. 1 out A
Engine No. 2 out A
Engine KO. 3 out A
Engine No. 4 out A
Enginc No.. 5 out A
Enginc No. 6 out A
Engine KO. 7 out A
Enginc KO. 8 out A
Lift-off signal B
Event
Event
-Colt15 psia
Evetit
Event
+0/+.5 vdc
Event
Zvent
Evcnt
Event
Event
Event
,I Event
i Evcnt
Evcnt
- -
SEQUENTIAL SYSTEhlS
None
None
Indicator
None
None .
f n d i c a ~ o r
L/ V .GUID light
L / V RATE l ight
ENGINES 1 light
ENGINES e .- light
ENGINES 3 l i gh t
ENGINES 4 light
light
ENGIKES 7 light
ENGINES 8 light
LIE'S O F F light
hIission Basic Date 12 NOV 1966- Change Date Page 2-9-37
SMZA-63-SC0 12
+POLLO OPERATIONS HANDBOOK.
5 y S 7 ' " . . . .* US 1IP.TA
Measura 1 , . . Sensor Crew u ' Descriptiot; Rznpe Display , - - r . . .%- .-. CS t i $ * ~ - . e i ; FL7S abort request A Event APORT
I light
' ' . ' 1 1 .% Tower physical separation monitor A Evcnt Node
1 . .i Tower physical separation inonitor i3 Event None
( . Y CM-Slvi physical separation m a i t o r A Event - None
! i CI\I*SA,l physical separation nlonitor B - ----- Event None .
2 X Shlladaptcr physical scparati.oh monitor A Event None
,. . . 1 . ' X Shlladaptcr physical separation manitor B Event r None
SEQUENTIAL SYSTEhlS
' , ' isston R a s i c Datc 1966 ,C:hange Date page -2 -9-38
1.10.1
.'.10.2
2.10.3
SM2A-03-SC012
APOLLO OPERATIONS I-IANDBO(bK
qYSTEMS DATA
SECTION 2
SUBSECTION Z. I0
CAUTION AN0 WARNING sYSTI_M (C&WS)
INTRODUCTION.
The C&WS monitors cr{tical parameters of most S/C system._ in th6
C/M and S/M, When a malfunction or out-oi-toleranc0 condition occurs in
any of these syst6ms, the crew is immediately alerted in order that cor-
r6ctive action may be taken, ,
FUNCTIONAL DESCRIPTION.
Upon receipt of tnalfunction or out-of-tolerance signals, the C&WS
Simultaneously identifies the abnormal condition and alerts the crew to its
existence. Each signal will activat _ an appropriate systems status indica-tor and a master alarm circuit. The master alarm circuit visually and
aurally attracts the crew's attention by alarm indicators oh the MDC and analarm tone in the headsets. Crew acknowledgement elan abnormal condition
consists of resetting the master alarm circuit, but retaining tl_e particular
systems status malfunction indication. The capability exists for the crew to
select scvcralmodes of observing systems status and master alarm indi-
cators, and of monitoring C/M. or S/M systems.
MAJOR COMPONENT/SUBSYSTEM DESCRIPTION.
The C&WS consists of one major .component, the detection unit. It is
located behindMDC-13 and, therefore, is neither visible nor accessible to
the crew during the mission. The balance of the system is made up of
visual indicators, aural alerting and associated clrcuits, and those switches
required to control the Various Systbtu functions. Visual indicators includethe five uppcr-most electromechanical event devices on MDC-18, as well
as all systc:ns status and mast0r alarm lights.
ThO detection unit circuits consist of comparators, logic, level
detectors, lamp driver_, and a master alarm and tone generator. Also
incorporated are two redundant power supplies that furnish regulated +12
and -12 d-c voltages for the electronics. Inputs to the d_tection unit con-
sist of both analog and event.type signals.
The analog signals, totaling 51 inputs, are in the 0- to 5-volt d-c
range. Alarm limits for these signals trigger voltage comparators, which,
in turn, activate logic and lamp-driver circuits. This causes activation ofthe master alarm circuit and tone gen_rato_, illumination of applicatiou
systems status lights on MDC-10 and -i1, and/or activation of applicableclectromechanical event indicators on MDC-18. A total of 25 event inputs
arc fed to the C&WS detection unit. These signals originat_ from solid
state and mechanical switch closures in malfunction sensing devices. Of
this number, 19 signals will directly illuminate applicable system status
lights, and through logic circuitry, activate the master alarm circuit (and
tone generator). Two other event signal_ directly illuminat0 _he system
_Itsslon ', ,
CAUTION AND WARNING SYSTEM
Basic. Date 12 Nov 1966 Chang 0 Date ..... PaRe 2, I0-I
.... qlb .. " '
SM2A-0 3-$C012
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA..... i i 11 hall i
,_tatus light,_, but r¢_quirc level detect¢_r,_ to _ctivate the _:_a,qter alarm cir-cuit. l_ach of the four remaining evm:t _ignals to set to an OR gate, which
i,,, also f0d by two analog sig1_als. The resulting output will activate lamp
dri_er-q and the master alarm circuit. OIxe other event signal, orxginating
within the det('ction unit directly, iklumihates the CAUT/W:\RN FAIL Light,
out a_ztLvates only the MASTER ALARM lights o_ the MASI_ER ALARMcircuit.
The mastel" alarm, circuit alOrts c rowmembers whe,_eVer abnormal
conditions are d_tbcted. This is accomplished visually by the illuminatiol_
of remote MASTI_R ALARM switch-Lights on MDC-3 and -18, and the
.MASTERAL:\RM light on LEBoI03. An attdio, alarm ton0, gent to the three
h_,adset_, aurally alertg the crew, regardless of whether the telecom syst0m
is activated. The otttput signttl of the tone genOrator is a sqttare wa_,'0 thatis altei'natel.v 750 cps and ?000 cps, chaugii_g at a irequi_ncyof 2.5 cps,
Although tile tone is attdible above the cotlversation level, it does not render
normal conversation indistinct or garbled, When the crew htXs noted the,tbuormal conditioil, the tl_ree alarm lights and the. tone g0neratot are
deactivated and react by pr0ssing either NIASTI(R ALARM switch-light, both
or' wllich iacorporate a puah-switch. This action leaves tl_6 systems status
lights illuminated, and resets the master alarm circuit _or alerting the crewto the next abnormal condition, "i'he indivxdual systmh status lights will
remain illuminated until the malfunction or out-o/-tok, rance Condition is
corrected.
t'he C&WS power suppl:_s inchtde ._ensing and switching circuitry that
assure unit. serf-pr0tection should high-input current, or high° or low-
output voltage ocmtr. Any of these conditions will cau:_e the illumination of
tiw master alarm lights and the CAUT-WARN FAIL systems status light,
The tone generator, however, will not be activate4 due to requiring the
12-volt. output from the mathtnctioned power supply for its operatiot'_. The
c_;ew must then manually select tht_ redundant power supply to return the
C&\VS to operation. In so doing, the CAUT./WARN FAil status light is
extinguished, but_Uhe_master alarm circuit is &ctivated,. thus requiring it tobe _eset_
Incorporated ii_to the C&WS is th{' capability to test the lah_l_sof sys-
tems _tatus and master alarm lights, Position I of the LAMP TEST switch
(M 1)C-23) cent rois the ilhtn_ination of s"_tus lights on MDC- 10 and the
M:XSTI':tLAI_;kR.M ._witch-lights on _ID_ .3 and MDC-IS, Position 2 tests
only the status lights on. MDC-ll. The remaining MASTER ALARM light
is on IA".I3-103, and is t0sted ,._long with tl_e nine G&N condition lights on ,tixat panel by pressii_g tile CHECK CONDITION LAMPS push-switch on
LE_B-I,05. Although those nine [ight_ a#_' not part of the G&WS, all but threeof thenl (PGNS, ZERO ENCODER, and IXIU DISPLAY) are dtmticated on.MDC- 10.
.Switches on the MDC enable the crew to select C&WS operationalllIodes. '['he position of tile MODE switch (MDC-I 1) establishes the SIC
systems to be monitored. Before separation and entry, systems in both theC 'M and S/.X[ are fnonitored _or rltalt'tanCtion Or out-of-tolerafice conditions.
After C.%,Xl st, p.tration, however, only those systems in tile C/M ate moni-.
toted. Repositioning tile switch also prevents SIM systems statu._ ligl_ts,tlld eVellt indicators from remaining activated after separation.
I'he C!W switch (MDC-13} permits thre_" modes of status and alarm
light i[lUllitn,itlon. For motet of tt_e mislion the _witch is ._et to tile
NORM,\I. p,_sition to girt' hernial C&WS light operation; that is, upon receiptOf atmortnal co::dition stgnai._, all systen_ statt,._ Lights _tnd ma_ter alarxh
t
I
.i
SM2A-0_-SC012
A P0 LL00P_IRATIONS HANDBOOK
• 10. _. 1
2. 10..t _
' 10,4 I
10 ",
' 10. "_ 1
SYST I_MS DATA
i i i
lights are capable of illumination. During th,_ ascent phase the switch il a¢,t
to the BOOST position, so that although all other C&WS lights operate nor-
really, the MASTt:'R AI,ARM switch-light on MDC-] will not illuminate.
This prevents possible confusion on MDC-] between the red MASTIqR
AI,ARM light and the adjacent red ABORT light. The ACK switch petition
is selected when the crew dolirel to adapt their eyes to orbital darkness, or
if a contimtously illuminated sy,tems stratus light is undesirable. While in
this mode. incomin_ signals will activate only the master alarm light_ and
the tone generator. TO detortuine the abnormal condition, the crew must
pr6** either MASTI_;R Ai,ARM _witch-l{ght. This illuminates the applicable
sv_tetus ,tatu, light, and deactivates and rE, aet_ the mhster alarm circuit.
T'be i$.,tem* _tatu_ llght will rein&in tlhtmhthted only a* long a, tbb _vitch-
Hght ii pr6_,ed, l lbwever, it t_ay b0 r_call('d a_ lofig as th/_ abno_ _m,_l
rendition exiitt by ag_tif_ pretiing either Switch-light;
Electrical Power Dt,trtbution.
The C&WS only _.6c6tves pow('r from 18-volt d-c _out'ce_. (See
figttre l, 10-|, ) I_(,for0 CSM separation, the pow¢r _oUrce is from th6 ,fuel
celia in thc ,q/M. and following ,eparatl,m. from b.ttteries located tiIthO
CIM.
PI.:R1;'ORMANCI':- AND DI'SIGN DA'i'A.._
C&WS Power Consumption Data.
Total power ¢otxsutued by the C,& X%:S ;u_tXout_ts to 7._ watt,, which i, the
maxhuun_ qtttescent powi:r for d(_t0ction xmit operati0n. Verx Sfuall &tuoum_
o_.power arc aHto requirdd to ilhmtifiate several lafups whenever _ the C&\VS
is activated by malfunction input sigtutl*. Thi'*_' _tuall aiuouuta, however.
are i_ot considered ifi the overall C&WS power t_equiri'tuents.
OP I::l,I AT ION A I, I .iMITATB3N-- q _A_N_D R t,:ST R IL:'F IONS.
t'& WS General lSata.
\Vitl_ _he C/W switch in thi' fXOOST position during ascent, the
MAS'{'f'IR AI,A_'_M thvttch-light on MDC-'_ will not ilhttuiuate should it t_,tl-
function occur. The tXla_te# ahtrtu circuit rt,_i,t capability of the light i_
al*o diaabh, d dul_ingthis tiu'_e,. This requirO_ tht, MASI'I.IR AI.ARM _witch-
light on MDC-18 to he used exclusively for monttof'ifig ahd resetting
functions.
,_cveral peculi,trttte 't,ihOuld be iIoted in re_a rd to t lie t'AUT. W ARN-
I'OWFIR switch. Whetlever this switch tl IBOVed t'rom, or through, the Ot;'["
position to either power ttupply position, the master ,tlaf'ti, circuit iS actt-
v.tted, which then requires it be t'eset. Also. switching froin oite power
supply to another (whetx tl, ete is not power suppl% fallure_ will cause the
cane :\%'ARN FAll statu* light to tlhnninc, te at the OFt" position, and then
be exthlgutJhed when the Other power supply positiolt iS #ea_:hed.
lkitSstoB
CAUI'ION AND WARNING SYS'I'I:IM
..... Ba.tt_ D.tte_ A.' N,,v iq(*t, Chatn_e Date Page
i | .... , ....
2. I0-t
SMZA_03-SC0 IZ
A PO L LO OPERATIONS HANDBOOK
.qYST EMS DATA
DETECTION UNIT
p _ n a_l n Immm m m 1
-- POWERSUPPLY
I -I, ,VDC NO. I
I OFF
CAUT/%NARNPOWER
(MOC=I ! ),11
CAUTAYARNMN A
(MDC-25)
MDC-I8
MASIER
^LARM
_A i
I
(_oo 3)i
I""F-I
IACK
I
I
; ; : ACI_II
r=
rEST /
MOC'2_,;.. !
CSM
CAUT3WARN IMODE
4I Fe-
C,"M
CA U_T_WARN
MN a(MOC-U)
'_i)0A
I
J
, q
To, C/M To. S_M 1o: S/M, To: C:M T& S/MI)ltlnt lyltilm e¥4HIt l_ll_t l_llnt
ltQtlal It_lhA _hQhnell ch_l_ Indl_ltom|m, lm (_'3_ lim_pt(15) (4) fo, (II) hil (_)
ACK modi ACK ,i,_
l%1_sslon $,LIA
_';g_lr_" '. It_-l. C&W._ Power D*_tri._utiou Diagram
i n • -
('AL'I'tON,AND WARNING SYSTEM
._,_t,* I-_.i:,, l_ N,_" 19t_t)mChanle 15ate, pase Z,.IO-4
SM2A-03-SC01 _'
APOLLO OPERATIONS HANDBOOK
SYSTEMS f)AT :X
Should the redundat_t power supply also {all. the C&WS is degraded to
the, following extOtlt. Rcnder_,d inoperative is t|l,,coml_let/" mast¢,r aIarl_.
circuit, a_ \veil as those 8tatu_ lights that illuminate as the result of at_alog-
t);pe input signals. This leaves olxly those statu_ lights operative that
require ex, ent-type input aignala. Included arc the follo,,ving S/M and ('/M
light,: CDU _AIL. G&N ACCV, L I_AIL, IMU FAIL. G&N F/RROR. I,MU
TEMP, GMBL LOCK, AGAP TI'_MP, SPS ROUGII F:CO, I-t2P ACCU.NI
t_'AIL, PITCtt GMBL DR FAIl.., YAW GMBL I3R FAIl., SPS PU SNSR
F'AII., 02 FLOW itI, F/C BUS DISCONN['_CT, AC 1 BUS FAIL, AC BUS 1
OVERLOAD, AC 2 BUS NAIl., AC BUS 2 OVERLOAD, MN BUS A
UNI_ERVOLT, MN BUS B UNDERVOI.T0 and CAUT_WARN D_:XII..
The CAUT/WARN-MODIC ,witch must be in the CSM po_itiotx it\
order to conduct a lamp teat of tho*c statu_ light_ associated with S; M _.vs-
to.m-_, The atatus.light_ of C/M systems may be teated _'ith the MOISt"
_witch iix either position. Circuit de,igtx also perth\its a complete lamp test
to be co|_ducted with the C/W switch in the ACI.i 1._ositiola. .
Normally, each abnormal cotxditiotx signal will actix'ate the C&\VS
master alarm circuit and tone ge,_erator, and illuminate a_ applicable-s.x's-
toms _tatus light. The ot_e exception to this concept is \vhctxthe C&\VS
power supply fail_. The vi-_ualindicator_ will futxction, but not the totxe
getxe.rator portion of the master.alarm circuit. This is due to the tot_o
gcl_era.tor requiring the _12 at_d -12 d-c voltage output of the failed power
_upply for its operation.
The NtASTER AI.AI/M. iight on I.I:;B-103 is part of the master, alarm::
circuit.of ill _ C&WS. As such, it is illuminated \vhet_e_-et.tl_e master
alarm circuit ia activated by an i_coming, ab_ort_at co_dilio_ signal. _'\
lamp cht, ck of this light, however, it t_ot ;_ccomplished bv the C_.Wb.
It\stead, tht' light is checked b_ pressing tile CtlI::CK CONI_ITION 1.AM}_S
pttsi_-switch ot_ I 1.',l_t-10:_. Tht, prim,_r.x ftlllctiotl _f this _x_ilch is lt_ qlxt'_'t,
the' lamps of the hint' G&N ._'oi_diti_i_ liilht._ otx 1 }';B-10_. llOllt' of %%'hit'h ill't'
part' of t}_,, k'g \VS.
N_,_tt, txx Stat_xs l.tght I'_at,_.
l'ht, toll**wmg li_t proxitlt,_ the, lamp tt'igg_,r x,llm,s am! ,_ss_,_,_tt,tl
lil:,,t'I:'alt_ll :t,l" all :;_:;t,.t_" ::tatti:; 1-g!-'.:_ ,,i1 SII_ " 10 ._i_,.! : 11.
,.\l'lIt'N .\NI) %\.k""...... '"t h x,.%l .;,ki'
.!, 10- , .....
all
SMZA-O3-SC012
A_OLLO OPERATIONS HANDBOOK
8_ SI"EM8 DAYA
Status Lq4kt
CDU PAIl.
IMU FAli.
IXIV "I'T.'MI'
AGAP I'HMP
G&N As,'C PI.
I-'AI 1
GMBI 10CI_
I|, I'i_ 1-'88
C .M RCS A
l.iill_p I riilllt'r \'aluc
I. L_,,_ (-_0'%) 2',, _q_.<" ._upply
_ I.{.IIP.'I {'_0" 'I ll%kItOr t_XC&[.% -
lion
_. ICDU error >1,2 )nr for
¢_ _10con_],l
4. XIi'D(' ,,trot :i I. P' uu" lot
.%cl OllL] S
_, {._CDL' error 3,1. 2 n_r for
I, l.oaa {-_0",4 _'00 ,'pa
2. Lo.._s l.r'O"q 800 cps _h,,_q
po _,' L,r
) _ c ¢ orld._
l, IRIG h,u ,I <1%2" l"
L, Ill, IL; teiup>l_,B"l"
_,. I_IDA I,,t_H}<I12"I +"
4. PIPA ,cuq+_)L3._"l"
l, AIw ILMAt;<lo0"F
2, Any BXIAG>ITI"Ic
l. X t'IPA crror,'_27 nil. for
2. ¥ DIPA error'S2; ntr tot
,'ii'V oI%_I S
I,. ." PIll'\ error'S2." i_u" tot
. _evoi%¢|._ --
lullh _,r low
.'.. U|_ t'1%1 bit rat,, too high
_. I.'_-_likk dAtA Ht ,'l'I'Or
TLXI
Code No,
CGS00LX
C GB001 X
C G_O0t_X
CII20 hi\'
CG_OOOX
C G_i,}0-'_ X
{." G'_ 00 ;+X
sic
Other Indlc_it*on Mode-
PGNS hRht dlutuknaleci C/M
LEB- I03).
I}GNS IiRl_i dluuunated C/M
L_2B- I0 q.
None _" / M
None " C / I%l
PGNS lil_ht llhuum.tted C.' XI
{I. F211- tO I),
DSI,;,Y-TM FAlL
(LEB- 10o) _nd PGN8 -
hRhl_ (LEB-IOI)
iIhtiutnated.
L" ,' ,M
I"DAI ,tttitude ball t'rd C M
Retu_rk_
LtRht enabh.d in ttn(,
ahiln mode only,
hilikblt_-d (b_ ABC
proRrim) in co&r_ ah_n
rhode.
IRIG icsup (13S_I ") tel
title PI%,%I ;tnd I%ot end _:&p
tOll%l) 1
I. l.uxk l•.'..t0 psta
2, lank 1"2;0 psla
t, l'ank 2 • 220 ++sla
4 l.utk d _,' ,'0 p:_ia
I. l'Ucl lk Ih" pr,..,ll ,..'l+._ plitii
2, I u,,l tk Ih" |H+e.s"_t '' tl.'lla
t, t +_. ti, Ih" liro.lll _..h,._ p_l,tl
t ! U,'I tk I1,, llr,,ss %'2(, • ll'liA
I. ! U,'i tk I h" Ill c._,'i ." t _ ' ll,lia
I t'_ tk Ih, l_l_,Pll+/_l, , l_lit_l
_," R000 +_P
t" R0 0 1 I P
;one tlniil_l" tit_tt, • ili_.l_l
Ind t ¢,l|l.] i ,
I'ANK Pltl"8:4tq_P-ll_,- l
H%dt c&?o t"
LANK I_RI_8,_VltE lI_,-tlil¢l I i.' !lto i"
t','M lit'8 PRP+sS- I'
inthcato f
lillt %l'l I_ :
C,M l,lt'_'i PRFSS. F"
kni, hcAto P
• M 1¢{'.i4 Plll.t8S-t)X
in(_ It" 31to f
s M
C. ,XI
(" 'M
1.1ilhi ttinctlonlll otily
xvht, i"i ('At" I'/'IVAliN.
XI_?I)F." switch in C.'W
l,ltlhl Ituli'tlonal only
whrn GAUr•WARN.
_%lk}l'lF +l_l+tch in ',+', M
Phge ,, : I0.{,
SMZAo03-SC012
APOLLO OPERATIONS HANDBOOK
I •
i ,
I
I
S M RC5 A
S .xt RCS B
S :,I RCS C
S .',I RCS D
SPS ROI.'GIt
t.:CO
1120 ACCL'.XI
FAIL
I' C BUS
DISCONNECT
.t'.C I
tII.YCOL
; HXlt _ I.OW
Lamp TrigRar Value
1. Tank 1 4800 psia
l. Tank I >_)S0 psia
3. Tank t,c, S00 pain
4. Tank I >950 psta
I. _ tsmp<6$*F
;'. Pkst tamp >IT5"F
3. Re8 He press < 155 pain
4. R611 He press >el 5 pS_.a
1, Pk 8 tamp <63'F
_, Pk 8 temp >|75"F
3, Rag He press<IS5 psit
4. Rag He I_ress>al5 psia
• Pk$ temp<63°l "
" Pkl temp >I 75 " [."
3. ReR He press<f55 psla
4. ReSt He press>215.psia
l. Pkg temp<63"F
2, Pkg ternp >175"F
3, Rag Ha pretis<155 psia
4, Reg He press >215 psia
l. 180G's tot. 70 m seconds
2. 360C,'s for 30 m seconds
Three O) bubbles (rain) in
,outlet W{ter hne
I. F_ad current at 75 ilmpa
for 15 rain. or at II_ imps
for 25 t6 100 seconds
_. Reverse current at 4 amps
for tO sec, or 20 stops for
I See.
1, H a fl0w< 0.018 lblhr
a. H 2 flow >0.16 Ib/hr
3• O l flow<0.14 lblhr
4. O 2 flow_l.2? lb/hr
5. At pH factor of q
6. Skin tem[5< ]60'F
7. Skin temp>5OO'F
_l. Cond exh <,IS_'F
q. Cond exh >175'F
10. Rsd out temperature-
below *30"F
I1. H 2 rag p_'est >7_ psii
12. O_ reg press >75 p_ta
IL N2 _eg _ess >70 psta
At _41*F
At -]0*F " •
SYSTEMS DATA
TLM
Code No.
SF003?P
SF0038P
SRS065T
SR5729P
SRS066T
SR5776P
SR_067T
SR5817P
SRS068T
SR5830P
None
None None
SiC ;
Other IndLcation
TANK PRESSTJR E-O_- l |/M
indicator
TANK PRESSURE-O_-_
ind tc ate r
S/M RCS TEMP-PKG _IM
indicator
S/M RCS PRESS-MANF
indicator
S/M RCS TEMP-PKG $/M
indidator
aIM RCS PRE$fi_MANF
indicator
SIM RCS TEIMP-I_KG S/M
indicator
SIM RCS PRESS-MANF
indicator
S'M RCS TE_IP.PKG ' S/M
ndicator
S/M RCS PRESS-MANF
ndicator.
Engine cuts off. $]l_t
C/M
SC2120X MR BUS A event S:.\I
SCaI21X indicator (3)
SC2122X
SCl125.X MN BUS B ecent
SC2126X indtcat6r (3)
SC2137X
SC2139R ICUEL CELL-FLOW-
H 2 indicator
SC2142R FUEL CELL-FLOW-.
02 indic&tot
SC2160X pH HI event inli
SC2084T M'O DULK TEMP*SKIN
indicator
,_tC2081T MODULE TEMP_COND
EXH indicator
8C2087T Ir/C RAD TEMP LOW
event indicator
SC2069P REG OUT PRE_ HI
"H2 event indSC2066P- REG out PRESS Ill
-O 2 event md
$C_0b0P REC OUT PRg'-$S IlI
-N 2 event tnd
C F00Z0T GLY EVAP-OUTLET
TEMP indic ator
S/M
C/M
C/M
Remarks
G-levels are peak-to-
peak,
Event indicators ptl.
HI. FlU RAD TEMI 5
LO, tq _,_rss. oaPRE_-_, and N a PRK_Sare activated at lamp
trigger values.
MtssioA
ii ! ....... r •
CAt'TIt)N AND WARNING sYSTP.M
Basic Date • _ c, Change Date ,--- pare ,t., Io-7_ _
,'.,, ,, . .m
SMZA -03-SC012
A POLLO OPERATIONS HANDBOOK I"
SYSTEMS DATA
VC2
INV 2
TEMP 111
PITClI GMBI.
DR FAil.
SPS WALL ,
TF.MP 111
TEMP Ill
Larup 1 rigger Value
1. Fuel tk lie press<lo0 psia
_. Fuel tk He press >200' psia
3. Ox tk lit, press <160 psia
4. O_, tk lie press >200 psia
I. tl2 flow<0.018 lb/hr
?. 112 flow >0. It, Ib/i'r
:_. 02 Iluv,' <O, 14 lb,'hr
4, 02 flow >1.27 Ib/hr
_. At pli facto| _ of _
¢_= Skln temp<3_0°F
7, Skth tep_p _t,00"|."
8. Cond exh <155°F
'_. Cond exh >I7_'F
10. l";,'|d otis telHpbelow - 30" F"
11, i12 reg press>7_ paia
At 240 _ F
TLM
Code No.
Sla_006P
SP0003P
8C2140R
SC_I43R
8C2161X
8C2085T
SC_082T
SC._O88T
SC2070P
8C2067P
SC_'O_ I P
CC0176T
SPl000X
SPU0_'0 T
SC2141R
sc-,t44R
SC216,_X
SC2086T
SC2083"1"
SC2089T
SC2071F •
Sc2o_SP
8c2062 P
CC0177T
SPl0OIX
None
Other Indication
PRESSURE* FUEL
indicator
PR ESSURE-OX
indicator
FU EL. CELL- FLOW.
1{2 indicator
FUEL CELL- FLOW-
02 indicator
pH HI Went Lad
MODULE TEMP*$1_N
indicator
MODULE TEMP-COND
EXH indicator
F/C RAD TEMP LOW
ev0nt indicator
REG OUT PRESS HI,
}{_ event indicator
REG OUT PRESS HI-
e 2 event indicator
RI_-G OUT PRESS tII-
N Z cvettt.indicato r
None
None
None
Ft_EI-- CELL, FLOW--
H 2 indicator
FUEL CELL-FLOW-
indicator
tH event ind
MODULE TEMP-SKIN
ihdtcat6r
MODULE TEAiP-COND
EXII indicator
FIC RAD TEMP LO%V
event indicator
RE(_3 OUT PkESS HI-
t{ 2 event indicator
REG OUT PRESS I[I-
02 event indicator
REC, OUT PRESS I[I-
N_. event indicator
None
None
UNBALANCE mdtca-
tOr (for over ._O0
lbs only|
Mi_aion Ba,_i¢ Date
CAt'TICN AND WARNING SYSTEM
II \',,, 1'it,r, ChAnge Date__
S/C
Mode
S/M
S/M
C/M
S/M
S/M
S/M
C/M
s / M
S,'M
Remarks
Event indicator pH }ll,
F/C RAD TEMP LO,
H_ PRE&S, O_ PRESS..
and N 2 PRES_ ara
activated at litrnp _
t rigi_er Valtae s,
Overcurrent condi-
tions dependent upgn.
tired and temp_
Event indicators pHHI; F/C RAD TEMP
LO, H Z PRESS, O Z
PRESS, and N:_ PRESS
are ai:tivkted at lamp
trigger values.
OverCt_r rent condttton
dependent upon time
and temp.
Light ftmcttonal only
d_rm 8 SPS ftrtnll,
Page _. 10.a,
.i
i
SM2A-03-SC012
APOLLO OPERATIONS HANDBOOK
,
SYSTEMS DATA
•qt a!tl_ l.',_ht
>.l.x, !_I'S A
!N.r'q.:l_ \ CL r
kIN I_t S 1_,
•'XDF:RVOLT
Ct'2 PP IH
AI'I',WARN
:'All=
C 2 i LOW III
.\(" BUS I
C\ }-'.I 1.CAD
AC BUS 2
C V '..'.ItI,OA D
Lamp Trigger Value
At 26.2:,±0. I vdc
At 2o.25i0.1 vdc
At 7.6 mm Itg
1. At _ vdc
2. A1 130_2 vdc
1, At 05,3 vdc
2. At 1t0,2 vdc
1. At *11,,7 vdc or *11.7 vdc
2. At +13, n vdc or -13.9 vdc
At 1.0 lb/hr
1. 30 at a.amp:0 :or 15,5 sec
2. 10 at ll-amp for ¢.+1 see
I. 30 avq amp/0 for 15±_ aec
2. t0 at I1 amp for 5-1 sec
TLM
Code No.
CG020bX"
CG0207V
C F000513
CG0200V
CG0201V
CG0202\'
CC0203 V
CC0204V
CC0205V
_ono
No.t2
_Ollt?
_ono
Other indtcatton
DC \'OLTS meter
DC VOLTS rnt.ter
PART PRESS CO 2
indtcator
AC \'OL'I'S tixeter
AC \'OLTS meter
MASTKR ALARM
lights 13_
FLOW 02 in_dicator --
AC VOLTS mcter
AC \'¢)LTS meter
SiC
Mode
C/M
C/M
C/M
CI,M
C/M
C/.M.
C, .M
C/M
C/M
Remarks
Alarm tone inopefattve.
Overload diaconnccts.
ittVcrter froin bug.
Overload disconnects
inverter frot'_x bus.
Nlts _ion
CAt" Ilc:; AND 9, AI_:;I.NG SYS I FiXt
Basic Date t':,,, I ..... , Change, Date PagP =- 5: .Io-. , . ,
SM2A-03-SC012
A I_OLLO OPERATIONS HANDBOOK
,i
Z, 10.6
SYSTEMS DATA
i
TELEMETRY MEASUREMENTS
The following is a complete list of all C&WS telemetry data that is
monitored by flight controllers and ground support personnel. The laet
column contains the name and type of S/C crew display. The display
utilizes the same pickoff or signal source as telemetry, unless a separate
measurem6nt number is in_:luded in the display column.
Measurement
Number
CS0150X
Descr[pti6n
M_st_r caution-Warning on
Sensor .Range
Off/on event
Crew Display
MASTER ALARM lights
)
• J.
Mis siott,
i
CAUTION AND WARNING SYSTEM
Basic Date 1.2 Nov 1966 Chang e Date,, Page _ 2.10-i0
{
2. LI.I
2.11.2
2.11.3
2.11.4
SM2A-03-SC012
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
SECTION 2
SUBSECTION 2. Ii
MISCELLANEOUS SYSTEMS DATA
IN TROD UC TION.
Miscellaneous systems data pertain_ to items that were not covered in
a previous system. These items consist of clockS, timers, aceelerometers
(G-meter), interior lighting, etc.
CLOCKS.
Two clocks and two clock-like event timers, all mechanical, are
provided for the crew in the command module. The 400-hour clock
(MDC-12), used in monitoring mission elapsed time, is illuminated by
floodlights. The GMT 24-hour clock and two 10-hour event timers are
located on panel 306 in the LH forward equipment bay and lighted by integral
bulbs controlled by the CLOCKS-BRT/OFF/DIM s_4tch on LEB I00. For
further.itlformation, refer to section 4.
DIGITAL EVENT TIMERS.
The digital event timers provide the Crew with a means of monitoring
and timing eventS. One event _imer is located on MDC-5 the other is
located on MDC-II. The event timers start automatically when lift-off
occurs, and the timer located on MDC-5 will be reset if an abort is auto-
matlcally or manually initiated. For further information, refer to
section 3.
ACCELEROMETER (G-METER).
The accelerom.eter or G-tneter (MDC-2), provid6s the crew with a
visual indication of spacecraft positive and negative G_loadS. This meter.
is illuminat_.d by floodlights controlled by the LH area control panel
(MDC-26). For detailed information on the accelerometer (G_meter), refer
to section 4.
COMMAND MODULE INTERIOR LIGHTING.
The interior lighting _rovides light for the main display console and
LEB panels in the command module.
Missiofl
NLISC!_LLANEOUS SYSTEMS DATA
Basic DAte. 12 Nov 1966 Chan_e Date Page 2. 11-1
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
Z. i I. 5. 1 Functional Description.
The interior lighting equipment consists of eight floodlight fixture
assemblies and three control panels. Each fixture assembly contains two
fluorescent lamps (one primary and ,:me secondary) and a Converter. The
interior lighting is powered by 28 volts de, from n_ain buses A and B for
redundancy (figure 2.11-I). This assures a power source for lights in all
areas in the event that either bus fails. The converter in each floodlight
fixture converts 28 volts dc to a-c power to operate the fluorescent lamps.
The floodlights are used to light three areas: the main display console
(left and right areas) and the LEB area. Control panel (MDC-Z6) is located
on the left and control panel (MDC-23) is located 0*% the right of the main
display consol_ (figure 2. 11-2). The third control panel is located in the
lower equipment bay area on LEB-100. The floodlight fixtures are located
around the interior of the command module. (See figure Z. ii-2.)
Each control panel has a primary and seconda_:y contro]_ for the flood-
lights in its respective area. The primary control is a rheostat that con.
trols brightness of the primary floodlight_. The _econdary control is an
ON-OFF switch for the secondary floodlights and is turned to ON when
additional brightness is desired. The floodlight circuit breakers a_e on
MDC-25. The operational use, or brightness level of the floodlights
depends on t_,o factors: the g-level and the task being performed. The
floodlights should be turned up bright during ascent and entry. The flood-
lights will be adjusted as required while in earth orbit. The FDAI (MDC-4)
is lighted by integral bulbs which are controlled by the FDA/ LTG switch on
MDC-25 and FDAI BRIGHTNESS rheostat on MDC-2. A switch is provided
on the LEg floodlight control panel to control lighting for the clocks on
LHFEB-306.
2.11.6 COMMAND MODULE UPRIGHTIMG SYSTEM.
The C/M uprighting system is manually controlled and operated after
the C/M has assumed a stabl_ inverted floating attitude. The system con-
sists of three inflatable air bags, two relays, three Solenoid control valves,
two air compressors, control switches, and air lines. The inflatable bags
ar_ located in the C/M forward compartment and the air compressors are
located in the aft compa#tment. The control switches and circuit breakers
are located in the cr6w compartment. Switche_ 1 and 2 are powered by the
postlanding bus switch 3 and the compressors are powered by battery buses
A and B. (Se_ figure 2. II-3.)
Z. ll.6.1 Functional Description.
POSTLANDING - FLOAT BAG s_itch i controls inflation of the air
bag on +Y a.,ds, switch 2 control_ inflation of the air bag on the -Y axis,
and switch3 controls inflation of the air bag on the +Z axis of the C/M.
(See figure 2. ii-3.) Each bag is 43 inches in diameter and has a capacity
of approximatel T 24 cubic feet _.her_ inflated. If the C/M becomes inverted
.<
#-
Mission . •
MISCELLANEOUS SYSTEMS DATA
Basic Date 12 Nov 1966 Change Date. Page ?.. ll-Z _ r
ISM_A-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
U
uu_
,=
0
......
L)
1
°
I..,
Mtss_on
MIS CE LLANEOUS SYSTEMS DATA
]_asir Date 12 Nov 1966 Cha,:u,, Dat,, Pa R P Z. ll-3
SM2A-03-SC012
APO LLO 0PER.ATIONS 13ANDBOOK
SYSTEMS DATA
(LEP AREA CONTROL) I
(TYPICAL LH AREA AND RH AREA CONTROLS)
s - FLOODLtGHTS,-l
OFF
Figure 2 . 1 1 - 2 . C/M lntcrior Lighting Configuration . . . . . . . . -. . . . . - .
MISCELLANEOTJS SYSTEMS DATA
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SYSTEMS DATA
i .
CONTROL VALVE NO. t+Y BAG
COMPRESSOR. _
CONTROLRELAYS [ KI !
i
PRESSFILLNORM CLOSED
CONTROL VALVE NO. 2.-_( BAG
II
I
CONTROL VALVE NO. 3+Z BAG
BATTERYBUS A
i [
BATTI_RYBUS
UPRIGHTING sYSTI_M-25A
COMP NO. 2 /"
(RHES-20S) " ]
:: s2.
1COMPRESSOR •
NO. 2
SM-2A-E82C
Figure Z. ll-3. C/M Up_ighting System Electrical Schematic
MISCELLANEOUS SYSTEMS DATA
M i_ s ion _n_ic Date II Nov 1966 Chan_.e Date . . @a_6 Z. ll-5 .
o
A P O L L ~ OPERATICNS HANDBOOK : 1 SYS'l'EILtS 6.4'1'~
. .
af tvr landing, tllc crt*\\~rnc~tnbc~ r a t s ta t io~r I i n i t l . l t ~ s f i l l i l ~ g t ~ i thc 'hrce Lays 1,). s c t t i ~ ~ g t h ~ ~~- 'OST~~. \NT)ING - FLOAT 1\ 4 G s\titclrc*s 1, 2 . a~rd I t o FILL. \!'11(.11 ti)<. C/X! i s -uprighted, tllc thrcc I.'ttC?t\T I\:\Ci s\vitc*lr6w \ \ i l l Ilc s c t to OE'F. . A 4. 25&0. 2 % pSi l'c1ic.i \..11\11* i : i luc,~tcd i n thc iu lct a i cach bag. i?clckup rc1ic.f \falvcs s e t ;it 1.3. S pdi a r c lt?c.i\tcd i n tht\ ot~tlr%t of csch
_3M2A-03-SC012APOLLOOPERATIONSHANDBOOK
CONTROI_ AND DISPLAYS|i i i
SECTION 3
CONTROLS AND DISPI,AYS
INTRODUCTION,
Thi:_ _,ction iflefltifiCseach control arid diSplAy in the command modul6
and lists panel loc_'ition, itcx_ nomcn¢lhtur6. 0ouitiofls and r_,|atcd
func'ti6ns, l_owcr _ource, tt, lOinetry i_(-aSur6n_ei_t numb6r, and associated
explana_oi'y dicta. Controls and displays are presented in a t_lbulatedlist
in nun_erical order by panel number. Panel numbers are those appearing
on the main display cohsole drawing and the lower 6quipi'nent bay drawing
in figure 3-1. (The.comn_and f'nodnle itself doe_ not incorporate fiml_b(,rs
on tke panels.) The, following is a detailed explanation of the ¢olunmai _
data pre_iented in thO tabulated list.
I.o,'atiotx Gives the location of a pat_ticular control or
display by.panel number or oth(_r descriptive
inforn_ation such as- "!,H couch armre.qt,
etc. ,.
Natne and Position Givrs tho exact nonx(.nclature of a particular
control or display and the cofltrol pt_ition.s.
as placarded on th(" pan01, ha the absi, tlco ot
a placard, a functi_lflal flatne is assigned anti
the pogitions ar6 describ6d physically ("up, l'
"dOWltl " etc_.
l;'tuxct ton Dvscrth_.,s the flmttion of ,_'a¢l_ control in ,,._lt'h
pos it ion_
(" ti_,'titt I_ re.tkt" r Gtv0is the flati_e arid location of the ¢irctttt
bri, akt. r(,,;l) controlling tl_c i.h, ctricAl p_l_,t-r to
t'ach ct_ntrol & dtsplaV.
identdtea _u_d givr# thv ratihg of the it ntnedt
ate bus or' source ,,iupplying po_;,ler to a
part tetilar ¢oft! rol or di.splay.
Teletl_etr_, ('ode No..tied
Idet_tit_
Gives the ini.a..lttrt.ittellt httlttberll t'or teh'
ttlotry itti_ttili|s whit'h art' U.'li_d to ntolltto, r tilt,
perft:rttti_nce of t't_ntporetits, xystvtn_, and
_ttlixytltetiis. tile xtattts of conltttitat_le ileitis.
and the lirotlei ' si, qiti, l't_ trig Of critical
t
IM t s ._ion Baltic Date
i
coNrRo {_ AND DLSPI..4YS
I,'. N?v I,.ll;i,..Ctt*nil l- Diitei___ iia/le---.3 1........
SM2A-03-SC012APOLLOOPERATIONSHANDBOOK
CONTROi,,_AI'4D bISPI,AYS
i i . m
operation8 during all phase,_ of the spa, e_ l aft
n_issmn. Tiffs tnfornlattoll ts nxol/ttored at
MSFN stations for apacecraft management
from the ground by ua_ of vow(' or ci_mmland
links. Measurement numbers arc entered
only for uisplayed measurcnlents. Thoat, for
undisplayed nteasurctncnts are included in thc
tei6metry lilc;lsuret'notlt8 tabU: for the
appropriate sy_tetn in ._0ctioh 2 of this
hanflbook.
The, nut_lbcr cafl_istS el' _t'vt_n cluiractt_rs:
two letters followed by to_xr nutnber._ hrM on4,
lettOr, AnexAmplc i_ a_ follows:
Modulo code letter
C .'X S.
1l.'uncttortal _v_tett't code Icttcr
Dtacretc nttttlbcr,
Me,t_ttrctttcttt classific&tion
a. Thi, t'trst letter desigtlat¢,s the modulo in _.htch the melXsuretnent
ortgltxkt_,_. Modttle todd [cttOr_ art' as follows:
A Adapter L I,aunth escape tearer
B Boo,to r S ."It, rvicc nxodul0
C Conmtand modul(,
b. Tht' tiecond letter detlt_t_,,ti tilt;
orxgifl.ltes. F_tltxcttofiAl Systt, fll code
ti'y:.ttclll lttwhtvh lilt" tllt'ii.'4ttrctllt'tltlett_,rs are .t_ foliovtS;
A 5trttcturo.'_ ,1 l,tfe sy.att, ti_s
C Hlcctrtcal po_vci" K. li'light tt, chnol_gy
D 1.aunch e_/ape P l_ropulston
I': l':arth l,uulmg R Rt, actton _ ont rol
l" l':llvlrontllelltal Colltrol N Cr0w sltt'ety
k] k_tlitlatlll'e alltI llltvig,ttioll T Tt'lt'_'t_ltltlltlnl_ .ttt,_ll,_ and
I! 8t,il'_lll;:ilitloll and c,ontrol tnstrllttlt, lltattOll
c. l:hai',tctt, t;_ three throttgh six at'i, Ittltnerltis _'otl_prl_ttlbl & Iltltll|)t'r
which 15 assigned I,, a parttcttlar tlWiistlretlletlt point. These tllllllbt'l'S _lirt,
II_tt'd _t'qlit'lltl,tllV or .Irt" grotl|lt'd for t'lltrltv withlll t'ach ._$'stt'lfl.
i
hits_te:_
¢:ONTROI.S AND DISPI.AYS
,Ba,_tc Dat_ 12 N,_ Iqt,¢, Chanlle Date _ . PaRr I 2 _ ,,
SM/A-03-SC012
APOLLO OPERATIONS HANDBOOK
3.1
CONTROLS AND DISPLAYS
d. 'Flat. sex;enth letter denotes rneasuremcnt classific_ition.
cation code letters art, as folloxvs:
Classifi -
A Acceleration N Camera
B Phase P Pressure
C Current Q QuantityD Vibration R Rat0
E Power S Strah_
i_" Frbquency T Temperatur0
G Force V Voltage
II Position W Tim6
J Biom0dical X Discrete 0vent
K Radiation ........ Y Acoustical
L. Volcotiy Z pH - acidity
M Mass
Remark s Contains additional data and explanatory rema rks.
CONTROLS/DISPLAYS LOCATER INDEX.
To aid in .finding data within this section, a locator index precedes
the tabulated list. The index is sub-divided into spacecraft systems.
Und0r each System is listed, in alphabetical order, all controls and dis-
plays associated with. fl_c particular systdm with cross reference to the
panel on which the control or display is located..Where it6ms, such as
circuit breakers, are associated with more thanone system, such items
are repeated under each applicable system. Each panel number is
preceded by an .abbreviated descriptor to aid in quickly determining the
general location of e_tch item, as follows:
MDC
[. IC 13
l,l[l.:B
I,}[FEB
RIIEB
RIIFF.I_
main digplay console Ipanels I thru 2o)
lox_er equipment bay tpanels 200 thru 107, 120, 150)
left hand equipment bay (pan,,ls _07 thru _17 and _lq)
left Iialid forward equipment bay _pan01s ._00 thru _Oo and _18)
right, hand equipment bay (pahel.., .'01 thru 20t,)
right hand for_ard cquipmont bay (panels 200 and 2071
The controls/displays locator index *s sub-divided as follows:
Mi-_sion
Guidance aad Navigation
Stabilizatmn and Control .
Service Propulsion Sy_te:uReaction Control
F.lectrlcal Poxve r
Svquential Systems (ELS, I.ES, EDS, SECS}'I'¢" I _' C O lllliltllli_.'a t ions
Env,ronmental Control
CONTROLS AND I)LSPLAYS
Basic Date 12 Nov lqtib Change Date PAge
Page
3-5
3-7
3-q
3-II
3-13
3-17
3-18
3-20
3- 3
SMZA-03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
(_ONTROLS AND DISPLAYS
Cauti6n and Warning
Miscellaneous Systems
Sc ientific E×pe ri_ents
Page
3-23
3-24
3-Z5
CONTROI,S AND DISPLAYS
Basic Date. 12.Nov..10_o Change Date
SMZA-03-SC012
APOLLO OPERATIONS HANDBOOK
GU/DANCE AND NAVIGATION SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Name
ACCEL FAIL
ACTIVITY COMP
AGC MODE
AGC PWR FAIL
ATT CONT MODE
ATTITUDE IA4PULSE
ATTITUDE IAIPULSE ENABLE
BRIGHTNESS
CDU FAIL
CDU MAN MODE
CIIECK CONDITION LAMPS
CHECK COOLANT
CHECK COOLANT
CHECK FAIl,
CHECK MODE LAMPS
CLEAR
COARS ALIGN MODE
COMP FAiL
COMPUTER.
CONDITION LAMP
COUNTER FAIL
DOOR LATCH
DSKY
ENTER
£NTRY MODE
ERROR RESET
FINE ALIGN MODE
GMBL LOCK
G_N ACGELFAIL
G& N ERROR
G&N VIEWER
IMU- CDU DIFFER ENCE
IMU
IMU DELAYIMU FAIL .
IMU HTRI_,tU TEMPIMU TEMP MODE GAIN IRIG
LMU TEMP MODE GAIN PIPAIMU TEMP MODE
LMU TEMP MODE ZERO
INNER GI/MBAL (PITCIi)KEY RLSE
KEY RLSE
MANUAL ALIGN
M A R KMASTER ALARM
Typer
Lt
LtSwLt
LtControl
SwControl
LtLtSw
Sw
Windows (2)Lt
Sw
Sw
Lt
Lt
CB (21Sv,'
Lt
C ont rol
KeysSw
Lt.Sw.Lt
Lt
LtLt
S%vIndCB (_,)
Lt .
Lt
CB (_)Lt
Sw
S%%'
Mode _w
Sw
Ind
Lt
Sv,,
Lt
Sw
Lt
Panel Locator
LEB-103
MDCI4, LEB-106LEB- 107
MDC-10, LEB- I03LEB-101LEB-105
LEB.105
MDC- 14, LEB- I06
MDC- I0, LEB- I03
LEB-101
LEB-105 ......LEB-105
LEB-105
LEB-106
LEB-105
MDC- 14. LEB- I06
LEB*I01
MDC-14MDC-ZZ
LEB-105
LEB-106
LEB-105
MDC- 14, LEB- I06
MDC- 14, LEB- I06LEB-101
MDC- 14, LEB- I06LEB-101
MDC-10, LEB-103.
MDC- 10
MDC- 10
MDC-22
LEB.101
MDC-22
LEB-103
MDC- 10, LEB-.103MDC-22
MDC- I0, LEB-103LEB.105
LEB- 105LEB- 105LEB- I05
LEB- I02
MDC- 14, LEB- I06MDC- 14, LEB- 106LEB- I01
LEB- I05
MDC- 3, LEB- I03
GUIDANCE AND NAVIGATION SYSTEM-CONTROI_IDISPLAYS LOCATOR INDEX
Mission Basic Date.l! ,_gv I?_;t, ChanBe Date ImiBe 3-5
m ,,,
SMZA-03-SC012
APOLLO OPERATIONS HANDBOOK
GUIDANCE AND NAVIGATION SYSTEM-CONTROLS/DISPLAYS i,OCATOR INDEX
Control/Display Name
MIDDLE GIMBAL (YAW)
-(minus sign switch)
NOUN
NOUN
OPTICS
OPTICS CONTROLLER MODE
oPTICS CONTROLLER SPEED
Optics hand controller {no placard)
OPTICS HOLD
OPTICS
OPTICS SLAVE TELESCOPE
OUTER GIMBAL (ROLl,)
PANEL BRIGHTNESS
PARITY FAiL
PGNS
+ (plus sign switch)
PROG ALM
PROGRAM
REGISTER 1
REGISTER 2
REGISTER 3
RUPT LOCK
Sextant (not placarded)
SCALER FAIL
SHAFT ANGLE
SIIAFT
Telescope (not placarded)
TC TRAP.
TM FAlL
TRANSFER
TRUNNION ANGLE
TRUNNION
UPTEL ACCEPT BLOCK
% ERt
V_RB
VIE-..WE R
ZERO ENCODE MODE
ZERO I_NCODER
2X TRUNNION
Type
lad
Sw
Sw
End
CB (Z)Sw
Sw
Control
Sw
Mode s_
Sw
ladContz.ol
Lt,
Lt
Sw
Lt
lad
lad
lad
lad
Lt
SXT
Lt
lad
Manual drive
SCT.
Lt
Lt.
Sv¢
ladManual drive
SV,'
lad
Sw
CB (a)Lt
Lt
Ind
Panel Locator
LEB- 10Z
MDC- 14, LEB- I06
MDC-14, LEB-106
MDC- 14, LEB- I06
MDC-22
LEB-105
LEB- I05
LEB- 105
LEB-105
LEB-105
LEB-105
LEB-10P
LEB- 105
LEB- 106
LEB,103
MDC- 14, LEB- I06
LEB- 106
hiDC- 14j LEB- I06
MDC-14,. LEB- I06
IviDC- 14, LEB- I06
MDC-14, .LEB- 106
LEB-106
LEB-104
LE B -1 06
LEB- 102, LEB- I04
LEB-104
LEB-104
LEB-106
LEB-106
LEB-101
LEB-104
LEB-104 •
MDC- 14
MDC-14, LEB-106
MDG-14, LEB-106
MDC-22
I,F.B-101
I,EB - 103
I,EB-102
GUIDANCE AND NAVIGATION SYSTEM-CONTROLS/DISPLAYS LOCAT-OR INDEX
Mission Basic Date 12 N_v I'*,,,_ Change Date ........ Page .. :,_-_ ........
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APOLLO OPERATIONS HANDBOOK
-_TABILIZATION AND CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATER INDEX
Control/Display Name
AGAP TEMP
ATT DEADBAND
ATT SET
ATTITUDE iMPULSE-ENABLE
ATTITUDE/MONITOR/ENTRY
ATTITUDE SET-ROLL, PITCH, YAW
ATTITUDE SET-ROLL, PITCH, YAW
BMAG POWER
C/W-NORMAL/BOOST/ACK
CAUT/WARN_MNA, MNB
CAUTION/WARNING- MODE
DIRECT RCS
DIRECT ULLAGE
FCSM AUTO/OVERRIDE
FCSM ON/RESET
FDAI
FDAI ALIGN
FDAI BRIGHTNESS
FDAI LTG
FDAI SELF TEST
.05G ENTRY
GLIVIBA L POSITION
G&N/SCS
G&N SYNC
LCL VERT
L!AIIT CYCLE
MASTER EVENT SEQ .CONT-A LOGIC B=
BAT A, BAT B
NORMAL/OFF/DIRECT ON
PARTIAL SCS POWER
RATE GYRO POWER
RATE GYRO-ROLL, PITCH, YAW
REACTION CONTROL SYS-TRANS
Rotational Controllers (not placarded)
ROTATION CONTROL POWER
SCS CHANNEL-A&C ROLL, BAD ROLL,
PITCH, YAW
STABILIZATION & CONTROL SYSTEM-
A&C ROLL-MNA, MNB
BAD ROLL-MNAo MNB
DIRECT CONT-MNA, MNB
GROUP I-ACI, AC2
GROUP I-MNA, MNB
GROUP 2-ACi, AC2
GROUP 2-MNA, MNBm • ......... :- ............... i ......... ."
Type
Warn It
Sw
Sw
Sw
Sw
Thumbwheel (3)
_nd (3)
Sw
Sw
CB (2)Sw
Sw.
SwSw
Sw
Ind.
Sw
Control
Sw
Sw
Sw
Lnd
Sw'
Sw
Sw
Sw
CB (2)
Sw
Sw
Sw (3).Sw
Controls (2)
CB (l 8)
Panel Locater
MDC- I0
MDC-8
MDC-6
LEB-105
MDC-8
MDC-6
MDC-6
MDC-24
MDC- 13
MDC-25
MDC-11
MDC-8
MDC- 7
MDC-2
MDC-2
MDC-4
MDC-6
MDC-2
MDC-25
MDC-2
MDC-8
MDC-6
MDC-8
MDC-25
MDC-8
MDC-8
MDC-22
MDC-7
MDC-24 .
MDC-24
MDC-8
MDC- 16
LH couch,, RH arm.-
rest, RH couch,
LH armrest
-24
MDC-8
MDC- 2 5
STABILIZATIONANI) CONTROL SYSTEM-CONTROLS/DISPLAYS LOCATER INDEX
Mis'Sion BaaiC Date 12 _ov 106(_ Change Date , Page,3-7 .- .,,
SMZA -03-SC0 IZ
APOLLO OPERATIONS HANDBOOK
STABILIZATION AND CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
ControllDisplay Name Type Panel- Locator
THRUST ON Sw MDC-7
Translational Controllers (not placarded) Control (2) LH c0uch,LH armrest
TVC i POWER Sw. MDC-24
TVC Z POWER Sw MDC-24
AV Sw MDC-8
AV REMAINING Ind MDC- 7
AV SET Sw MDC-7
YAW, PITCH ......... Thumbwheel (2) MDC-6
sTAI_II,IZATION AND CONTROl, Sy._TEM--CONTROLS/DiSPLAYS I.OCATOR INDEX
Mission ...... Basic Date II Nosy 19_,h .Change Date. .Page 3.-8
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SM2A-03_SC012
APOLLO OPERATIONS HANDBOOK
SERVICE PROPULSION SYSTEM-CONTROLS/DISPLAYS LOCATOR INDEX
Control /Display Name
ABORT SYSTEM-TWR JETT SPS MODE--A (B)
two
CAUT/WARN-MNA (MNB)
-%V
AV REMA LNING
AV SET
DIRECT ULLAGE
F CSM-G& N
FCSM-SCS
G&N/SCS
GIMBAL POSITION- PITCH
GIMBAL POSITION-PITCH -
GIMBAL POSITION-YAW
GIMBAL POSITION-, YAW
H e TANK-PRESS
H e TANK-TEMP
INSTRUMEINTS-ESS- MNA (MNB)
L/V AOA/SPS Pc
L/V AOA/SPS Pc
MASTER EVENT SEQ CONT_A LOGIC B-
BAT A (BAT B)
NORMAL�OFF�DIRECT ON (Thrust}
OXID FLOW
OXID FLOW-DECREASE
OXID FLOW-INCREASE
PITCH GMBL DR FAIL
PRESSUR E - ENG INLET-.FUEL
PRESSURE-ENG INLET_OX
PRESSURE-FUEL
PR ESSU R E -OX
QUANTITY -FUEL
QUANTITY -OXLD
SENSOR
SERVICE PROPULSION SYSTEM-.
GAUGLNG-AC 1 (AC2)
GAUGING-MNA (MNB)
GIMBAL MOTOR CONTROL -I PITCH
-BAT A (PITCH 2-BAT B)
GLMBAL MOTOR CONTROL -I YAW
-BAT A (YAW Z-BAT B)
f{e VALVE-MINA (MNB)
SPS E_GINE LNJECT VALVE -.1 (2, 3,. 4)
SPS GAUGING
SPS HELIUM (left hand and right hand}
SPS HELIUM (left hand and right hand)
SPS-INJECT PRE-VALVFS-A (B)
SPS-GLMBAL MOTORS -I PITCH (PITCH Z}| , | ,
Type
Sw
CB (Z)Sw
Sw
Sw
Sw
Sw
Sw
Sw
lud
Thumbwheel
Lad
Thurnbwheel
Lud
Lad
CB (Z)Lud
Sw
CB (2)
Sw
Sw
Ind
Lnd
Status Its
Ind
Ind
Ind
Lad
Display
Display
SW
cn (z)
cB (2)CB (2)
n_d (4)Sw
_d (z)
Sw (2)Sw (2)
Sw (z)
Panel
MDC-16
MDC -25
MDC -8
MDC - 7
MDC-7
MDC-7
MDC -2
MDC -2
MDC-8
MDC-6
MDG-6
MDC.6 -
MDC -6
MDC-20
MDC-20
MDC -22
MDC- 3
MDC-3
MDC-22
MDC-7
MDC -20
MDC -20
MDC-20o
MDC- 11
MDG-20
MDC-20
MDC-20
MDC-20
MDC-20
MDC-20
MDC-20
MDC-25
MDC-25
MDC-25
MDC-25
MDC-25
MDC-20
MDC-25
MDC-20
MDC-20
MDC- 3
MDC- 3
Locator
SERVICE PROPULSION SYSTEM-CONTROLS/DISPLAYS LOCATOR iNDEX .
Mission Basic Date 12 Nov !766 Change Date .Page 3-9
SM2A-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SERVICE PROPULSION SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Name
SPS-GIMBAL MOTORS -i YAW (YAW Z)
SPS LINE HTR
SPS PRESS
SPS PU SINSR FAIL
SPS ROUGH ECO
SPS TANK PRESS
STABILIZATION & CONTROL SYSTEM
-DIRECT CONT-MNA (MNB)
-I GROUP-AC I (GROUP 2-,AC Z)
-i GROUP-MNA (GROUP 2-MNB)
TELECOMMUNICATIONS--GROUP 5
TEST/AUTO/TEST (propellant quantity)
THRUST ON
TK PRESS-N.
UNBALANCE _
VALVE
Type
Sw (2)Sw
Status Its
Status Its
Status Its
Sw
CB (Z)CB (Z)
CB (Z)CB
Sw
Switch-light.
Ind
Ind
Sw
w
Panel Locatori i
MDC - 3
MDC -19
MDC- 11
MDC-11
MDC- 10
MDC-20
MDC-25
MDC-2_
MDC-25
MDC-2 :_
MDC-20
MDC,. 7
MDG-20
MDG" 2 0
MDG-20
SERVICE PROPULSION SYSTEM-CONTROLS/DISPLAYS LOGATOR INDEX
Mission Basic Date II Nov Icst_ Change Date Pa_e 3-10
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APOLLO OPERATIONS HANDBOOK
R EACTION CONTROL SYSTEM-- CONT ROLS / DISPLAYS LOCATOR INDEX
Control/Display Name
ABORT SYSTEM-OX DUMP
CM PROP JETT-DUMP
CM PROP JETT-LOGIC
CM PROP JETT-PGRGE
C/M RCSC/M RCS
C/M RCS
C/M RCS
C/M RCS
C/M RCS
C/M RGS
ClM RCSC/M RCS
CIM RCS
CIM RCS
A
B
HTRS
PRESS F
TEMP H ePRESS OX
PRPLNT-A
PRPLNT-A
PRPLNT-B
PRPLNT-B
C/M RCS TEMP He
C/M-S/M-SEP-A (B)
DIRECT RCS
INST RUME NTS- ESS- MNA (MNB)
MASTER EVENT- SEQ CONT"
-A ARM B-BAT A (BAT B)
-A LOGIC B-BAT A (BAT B)
PROPELLANT QUANTITY-FUEL (bottom
window)
PROPELLANT QUANTITY-OXIDIZER
(top window )PYRO A-RCS FUEL DUMP
PYRO B-RCS FUEL DUMP
RCS HEATERS-A MNB
RCS HEATERS-B MNA
RCS HEATERS-C MNB
RCS HEATEKS-D MNA
RCS INDICATORS selector
C/M section
S/M section
R.EACTION CONTROL SYS-CMD
REACTION CONTROL SYS-C/M PRESS
REACTION CONTROL SYS-TRANS
P_ACTION CONTROL SYSTEM
-C/M-S/M TRANSFER-MNA (MNB)
-GAUGING-MNA (MNB)
-PROP ISOL-MNA (MNB)
S/M RCS-A(B, C, D)-HELIUM I
S/M RCS-A (B, C, D)-HELIUM 1
S/M RCS-A (B, C, D)-HELIUM 2
S/M RCS-A(B, C, D)-HELIUM Z
S/M RCS PRESS. H e
Typem
SwSw
Sw
Sw
Sw
Status Its
Status Its
Sw
Ind
Ind
Ind
SwEvent indSw
Event ind
Ind
Sw (z)Sw
CB (Z)
cB(z)
CB (Z)
Digital ind
Digital ind
CB
CB,
CB
CB,
CB
CB
Sw-
Sw .
SwSw
Sw
CB (Z)
CB (Z)
CB (2)
Sw (4)Event ind (4)
Sw (4)EVent ind (4)
Ind
Panel Locator
MDC= 16
MDC -8
MDC -8
MDC-8
MDC-Z6
MDC- I0
MDC - 10
RHFEB-200
MDC - i 2
MDC= 12
MDC-12
MDC- 15
MDC - 15
MDC- 15
MDC - I
b_DC- IZ
MDC- 15.
MDC =8
MDC- 22
MDC-ZZ
MDC=2Z
MDC=12
MDC - IZ
LEB- 150.
LEB=IS0
MDC-21
MDC -21
MDC=21
MDC-21
MDC - 1Z
MDC- 12
MDC- 16
MDC- 16
MDC- 16
MDC-.25
MDC- 25
MDC- 25
MDC- 15
MDC- 15
MDC - 15
MDC- 15
MDC-12
....... j - ,: .... , -
REACTION CONT'ROL SYSTEM- coNTRoL_/DiSPLAYS LOCATOR INDEX.
Page 3-11Mission Basic Date. 12 Nov 1966 Change Date
SM2A-03-SC012
APOLLO. OPERATIONS HANDBOOK
REACTION CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/D_splay Name
S/M RCS PRESS MANFS/M RCS-A (B, C, D).PROPELLANT
S/M RCS-A (B, C, D)-PROPELLANT
S/M RCS TEMP PKGS/M RCS A
S/M RCS B
S/M RCS C
S/M RCS D
Mission
Type
Ind
Event ind (4)
sw (4)Ind
Status Its
Status Its
Status ltsStatus lts
Panel Locator
MDC- 12
MDC-15MDC= 15MDC- 12
MDC- 10MDC-10
MDC-10MDC- I0
REACTION CONTROL SYSTEM--CONTROI,S/DISPLAYS LOCATOR INDEX
3-12..... Basic Date lZ Nov 196b Change Date Page .
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SM2A-03-SC012
APOLLO OPEI_ATIONS HANDBOOK
ELECTR/CAL POW ER SYSTE M--CONT ROLS/DISPLAYS LOCATOR INDEX
ControU Display Name
AC BUS 1 FALL
AC BUS 2 FAIL
AC BUS 1 OVERLOAD
AC BUS 2 OVERLOAD
AC INDICATOI_
A.C INVERTER--AC BUS 1-RESET
AC INVERTER--AC BUS Z-RESET
AC INVERTER-- 1
AC INVERTER--I-AC Bus I
AC INVE_tTER--I-AC BUS 2
AC INVEI%TE R-- 2
AC INVERTER--Z-AC BUS i.
AC INVERTER--2-AC BUSZ
AC INVEI%TER-- 3
ACINVER.TER--3-AC BUS I
AC INVEI%TER--3-AC BUS 2
AC SNSR SIG- ACI
AC SNSR SIG-ACZ
AC VOLTS
BAT A PWR-ENTR.Y
BAT B PWR-ENTRY
BAT CHGR
BAT" CHGR-BAT C
BAT-C PWR-POSTLANDING ENTRY
• BAT ILLY BUS-BAT A
BAT RLY BUS-BAT B
BATTERY CHARGER
BATTERY CHARGER-AC PWR
BATTERY CHARGER-BAT A CHGE
BATTERY CHARGER-BAT B CHGE
BATTERY CHARGER- MNA
BATTERY CHARGER-MNB
LtLt
LtLt
SwSw
Sw
SwSwSwSwSwSw
CRYOGENIC SYSTEM-QTY AMPL-AC l-PC
CRYOGENIC SYSTEM-QTY AMPL-AC 2-%C .
CRYOGENIC SYSTEM-TANK HEATERS-H 2CRYOGENIC SYSTEM-TANK HEATERS-O2CRYOGENIC TANK FAN MOTORS-AC l-%A
CRYOGENIC TANK FAN MOTORS-AC l-%B.
CRYOGENIC TANK FAN MOTORS-AC l-pC
CRYOGENIC TANK FAN MOTORS-AC 2-_A
CRYOGENIC TANK FAN MOTORS-AC Z-%B
CRYOGENIC TANK FAN MOTORS-AC 2-%C
DC AMPS
DC INDICATORS
DC SNSR. SIG-MNA
DC SNSR SIG-MNB
DC VOLTS
Type Panel Locator
MDC- 1 1M DC -.11
MDC- 1 lMDC-11
MDC°18
MDC-18MDC-18
MDC- 18MDC- 18
MDC- 18........ MDC- 18
MDC- 18MDC- 18
Sw. MDC- 18
Sw. MDC- 18Sw MDC- 18
CB MDC- 25CB MDC- 25
Meter MDC- 18CB LEB-150
CB LEB- 150
Sw MDC- 22
CB LEB-150.
CB LEB- 150
CB MDC-Z2
CB MDC-22Sw MDC- 18CB MDC-Z2
"_B MDC-22
CB MDC-2ZCB MDC-22
CB MDC- 22CB . MDC-22
CB MDC-Z2
CB MDC-22
CB MDC-22 .CB MDC-22
CB MDC-Z2
CB MDC-22
CB MDC-Z2CB MDC-22
CB MDC-22
Meter MDC-18Sw MDC- 18
CB MDC.22CB MDC.22
Meter lVKDC. 18
i ........... i l "• f f
ELECTR/CAL POWER SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
3-13Mission BaSic Date 12 Nov 1966 Chanse Date Page .....
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SM2A-03-SC012
APOLLO OPERATIONS HANDBOOK
ELECTILIC-AL POWER SYSTEM--GONTROLS/I_ISPLAYS LOGATO[_ INDEX
G6ntrol/Dispihy Name
D(" VOLTS (auxiliary}
F/C-BUS DISCONNECtF/C RAD 'rEMP LOW
FIC V:\ l,V V,SFIG I
F/C "
FIGFREQU F,N(_Y
FUEL CELL-FLOW-H2
FUEL CELL-FLOW-O_
_UEL CELL INDICATOr'S
FUEL GEL, L-, I_lAIN BlJS A-RESET
FUEL CELL-MAIN BUS B-RESET
FUEL CELL-MODULE TEMP-COND EXH
FUEl, CELL-MODULE TEMP-SKIN
FUEL. CE:LL I._BUS CONT
FUEL CELL 1-CIR &.SEP MOTORS
FUEL CELL I-Hj&O2 VAt'\rE
I}'UEL C#,LL 1-PURGE
FUEL CELL- I-I_L'XIN BUS A
FUt:L GEL, L- l-MAIN BUS A
FUEL CELL-I-MAIN BUS B
FUEL GEI,L-I,-MAIN BUS B
FUEL CELL-I purge
FUEL GEt,L- I-REACTANTS
FUEL., CELL- I - REACTANTS
FUEL CELL l-BUS CONT
FUFI.
FUEL
FUEl,
FUEL
FUEL
FUEL
FUEl,
FUEL,
PUEI,FUELFUEL[.'UEI.
FUI.:L
FUI,:I,
I:'UEL
FUEL
FUEL
FUI':L
FUEl,
FUFI,
F U I': t.
CELL 2-CIR & SO:.P MoToRS
CELL 2-Hl&O2 VAI.VV
CELl, 2-PURGE
CFI,L-2- MAIN BUSA.
CELL-l-MAIN BUS A
CELL-2-I_tAIN BUS I3
CELL-2-MAIN [_US B
C ELL- -_ purge
C FI.L- 2- REACTANTS
C E LL- I- R.EAGTA NTS
GEl,l, 3-BUS CONT
CEI,I, 3-GIR &.SEI' MOTORS
CI,:LI. l-l[,&O2 VAI.VI':
CELL t-PURGE
CEI,L-_-htAIN BUS A
CELL,-)-I_LAIN l'lIJS A
CI':L,L-4-MAIN BUS B
GEI,L-_-hlAlN BUS B
GEI,L-{ purge
C El,I,- _-REACTAN'I'S.
C FI.I.._ _= RHACTANTS
Type
Meter
Lt
Iud
Sw
I,t
Lt
Lt
Me te r
Ind
Ind
SwSw
Sw
Ind.
Ind
cnCB.
CB
CB
hid
Swlnd
Sv_'
Sw
lnd
Sw
cBCB
CB
CB
Ind
S_
Ind
lnd
S'_v
GB
CB
CB
GB
lnd
Sw
Ind
S,,,.
lmI
S_
Panel Locator
RHFEB -200
MDC- 11
M DC - 18
MDC- 19MDC-I I
MDC-I 1
MDC- I1
MDC- 18
M DC- 18
MDC- 18
M DC- 18
MDG., 18
MDC-18
MDC- 18
MDC-18
MDC_22
MDC°22
M DC - 22
M DC - 22
M DC - 18
MDC* 18
MDG- 18
MDC- 18
blDG- 18
MDC- 18
MDG- 18
MDC - 22
IvlDC -21
MDC-22
MDC -2-'
MDG- 18
MDC- 18
MDC- 18
MDC- 18
M DC - 18
MDG- 18
MDG- 18
MDC -22
MI_-22
MDC-22
M DC - 22
M DG - 18
MIK]- 18
MI}G. 114
NIIIC- 18
hlllC- lE
hi IM3 - 11_
EI ,ECT RIGA I. POW I_:R SYST E M-- (;ON;I" ROI,S/DLSPLAYS LOCATOR INI)I.:X_.!4
B.t.qh" D,itd _' 12. N,,_ I 'k*'t' Chanie Date , Pallf ......
ti
SXI2A-03-SC012
APOLLO OPERATIONS HANDBOOK
E:LECTRICAL POWER SYSTEM--CONTROLS/DISPLAYS LOCATOR iNDEN, r
Control/Display Name
FUEl, CELL PUMP-I
FUEL CELL PLIMP-2
FUEL CELL PUMP-3
FUNCTION S ELEC'I"
If2 FANS- I
El, FANS- 2
I[2 IIEAT E[_- I
l[ , I[E.-VI" EiL_-2
lI , PRESS
II_'VERTER CONT if.Of.,- I
tNVl.:It'r En CON'r _OL-,-"INVERT ER CONT R.OL-3
INVFRTER I_WR-NO. I MNA
INVERTER PWR-NO. 2 MNB
INVEP, TEK PWR-NO..3 MNA
INVI£I_,TER PWR-NO. _ MNB
INV I TEMP lit.
INV 2 TI'.'.I_iP 1{I
INV 3 TEMP }{[
KUkIN A-BAT BUS A
MAIN A-BAT C
MAIN B-BAT BUS B..
MAIN B-I_.\ l" C
NL-XIN BUS TIE-f_AT A&C
MAIN BUS TIE-BAT BhC
MN BUS A UNDERVOLT
NIN BUS B UNDEI_,VOLT
NON ESS 13US
¢._, FANS- 1
O 2 FANS- 2t,, 11l.:..x't_ it.s- l
t_ 2 l ! _L,\'r FILS - 2
i,) 2 })RESS
Ill[ IllI_t)ST I.,I_I-BA_" BI.IS A
I'tXClT IAX}-BAq_ BUS B
l't.k_l" LDG-BAT C
I'OS F LDG-MAIN A
POST I.DG-MAIIN B
I(EG OU'I PkE_ HI-I[?
REG OUI t)RFSS HI=N2
itl-Xi OUr PRF2'K_ tlI-CI.i,,4NsR UNIT-AC f_IJS- ISNSlt UNII'-AC flUS--'
SNSit UNIT-I)C tttl_-A
SNSR t'NIT-DC I_US-tl
S%v
Sw
Sw
S_
Sw
Type
Sw
l,t
CB
CB
ct_CB
CB
CB
CB
Lt
Lt
l,T
cB
CB
CB
CB
S_v
Sw
IA
Lt
S%v
S_Sw
S_v
Lt
hid
CB
C.B
CII
Cn
Ind
lml
liid
Ctl
CFt
CB
CB
Panel Locator
MDC-22
MDC=22
MDG=22
R HFEB - 200
MDC- 13
MDC-13
MDC- 13
MDC- 13
MDC-10
MDc-22
MDC-22
MDC-22
ItIIIT]B- 20
RIIHB-20
It t l F: B - 203
R ILI':B-20 _
MI)C- 1.1.
MDC- 1 1
MDC- II ---
RtIF:t/-:0
RtII,:B-20 _
R III.:11-70
It IIF:II-20 t
M DC - 22
MDC.22
MI)C- I I
MDC- I 1
M DC - 2 2
MDC-I_
MDC - 13
M IIC- l
MDC- 13
MDC- I0
MDC- 18
II tlt.'lt- 20
RItI.'II-20 t
lllll.:lt- 20
RIIt.;It-20
RIlI.:It-20 t
MI)C- 18
MDC- 18
MI)C- I8
ML)C- 21
M IJC - 21
M liC - 2 !
MIIC-2I
E I.F:CT ItICA I. poW FIR S yS'l"l-:_l-- tlt_NT ItOl,S ! DISI'I ,A YS I.OCATOR INIiF:X
_il_sl,'ll ll,lltl" l),ltl" I ' "i,_ I'i',l ', C.h_lnlli," D,It,' _ p,lill _ t-I_
SM._A-03-SC01 _-
APOLLO OPERATIONS HANDBOOK
ELECT RICAL POW ER SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Name
TANK PRESSURE-H_- 1
TANK PRE2SSURE-Hz- Z
TANK PRESSURE-Oz- I
TANK PKESSURE-Oz- Z
TANK QUANTIT Y-H2- I
TANK QUANTITY-Hz- 2
TANK QUANTIT Y-O 2- I
TANK QUANTITY'O2- Z
TEST SELECT
H ! PURGE LINE HTRINV. PtIASE LOCK
Type Panel Locat0r
Ind MIX;- 13
Ind MDC- 13
Ind MDC- I 3
Ind M DC - 13
Iad M DC- 13
lnd MDC- 13
Ind MDC- 13
Ind MDC- 13
Sw RHFEB-Z00
Sw M DC - 1
Sw RHEB 208
t
,Misszov.
SM2A-03-SC012APOLLOOPERATIONSHANDBOOK
SEQUEN'rl;\L SYSTEMS-- CONTROLS/DISPLAYS LOCATOR INDEX
Cont roE,' DisphLv Namei
ABORr
ABOR T SYSTEM- MODII2
ABORT SYSTEM-L/V RATES
ABORT SYSTEM-OX DUMP
ABORT SYSTEM-2 ENG OUT
.\D.kP 1_ SEP
;\ L I"I,ME I'E R
AP!'X COVER 3ETTCANARD DI_DLOY
c/xt.g/.,,_ .qEPCOUCH UNLOCK
Digital Ex'E'iU Timer Indicatbr (no placard)I_IGIF..\L EVI_NT J,'IMER-MIN
I]IGIPAL EVENT rIMER. RESET
DIGITAL EVENT TIMER. SEC
DIGITAL EVEN 2' '['IMER- START
Digital Fv{'nt Timer It_dicator (no placard)DIGITAL EVENT PlMI:2R-MIN
DI'-]II'AL EVENT TIMER-RESET
DIGII.'A L .EVEN F PIXIE I{- SI<G
DIGII,'AL EVENT FIMF.R-STARI"
DROGUE DEPLOY
I.:I_S
l-.'.D S
}<I_S -POW ER
t:LS LOGIC
EVENF TIMF-RLHS XlOTOR FIRE
I.IF ['-OFF
LOCI< _UN LOCK
L V AOA/SPS PC •i. 7) '" "V ALA bPS PC .I._V ENGINE
L. V GUID
L \" R.\ I"F
Xl kin CtWrt¢ IxELI:.A,,I.
.MAIN IM<P LOY
,MAIN DEPI,OY oAUFO
M.\.qFFI< l::\'l_.Nr SEQ CONI'-ARM
.MASFI:R EVEN rSEO COX r- LOGIC
M.kSFHR EVFNT SEQ CON_-PYRO ARM
.MIk_C- LOGIC ARM
NO AUFO ABOR r!k]S F LI)G BEACON LIGIq rs
_,vRO A- RCS FUEL Dr'NIP
PYRO A-SFQ At'YRO B-RC_ FUEL DUMP .
|"fRO B-SI<Q ll
Ty pc Pane I. Lo c ato r
Lt .MDC -3
Sw (2) MDC- _oSw MDC° It,
Sw MDC- It)
Sw MDC- 1 o.
Sw MDC- 5
Indicator .MDC- i
Sw NIDC- 5Sw ,NIDC - 5
Sw (2) MDc- 15
Sw MDC°8\Vindow ,NIDC - 5
Sw ,NIDC-8
Sw MDC-8
Sw .M DC -8Sw MDC-8
Window MDc- i 1Sw M[7)C - 11
Sw .MDC- 11
Sw MDC- 1 1Sw MDC- 1 1
Sw. M DC - 5
5w MDC- lo
CB (3) _t13C-25SW XIDC-24
CB (.b XlDC '"Sw MDC -8
CB (2) MDC-25Sw M D C - 5
Lt MI]C-5
ControI MDC-5
Ind .- MDC-
Sw Xl D C - 3
Lt (8) ML)C- 5Lt M DC- 5
Lt M DC- 5
Sw ,NIDC- I o
Sw ,M I)C'- 5
Sw XIDC- I o
CB (2) MDC "
CB (1} MDC ' 'Sw (21 MDc-2.t
Sw (2) MDC-25Lt ,MDC-
CB LI.:B- 150
CB LI.:B - 1 _0
CB LI.'Iv- 150
GB LI:B - 150
SM2A-03-SC012
APOLLO OPERATIONS HANDBOOK
T ELECOMM U NIC._T IONS-- CONTROLS /DISP LAYS LOCATOR
Control/Display Name Type
INDEX
BIO- MED GOMM- MNA CB
BIO- MED COMM-MNB CB
C-BAND Sw
CENTRAL TIMING SYS-MNA CB
CENTRAL "rIMING SYS-MNB CB
FLIGHT QUAL RCI)R Sw
R CDR IHF Sw
INST 15W R CONTESSENTIAL I THRU 4 CB (4)
NON-ESSENTIAL 5 THblU 10 CB (6)
INST RUMENTS- ESS- MNA CB
INST RUMENTS- ESS-MNB CB
INST RU ME NTS- NONESS CB
INST RUMENTS- NONESS BUS CB
INST RU MENTS.- R CDR. NON ESS . CB
iNST RU MENTS-SCIEN CB
INTER.COM Sw.
INTERCOM BALANCE Sw.
NONESS BUS Sw.
POSTLANDING ANTENNA DEPLOY Sw
POWER.POWER-PMP Sw
POW ER-SCE Sw.
RECOVERY- HF- ON/OFF Sw
R_COV ERY-HF-SSt_/BCN/AM Sw
RECOV ERY-VHF. BCN Sw
S- hA ND Sw
S- BAND ANT Ind
S- BAND ANT ENNA S_
S- BAND- EMERC, S_.v
S- BAND-OSC S,,v
S- 13AND-PWI_ AMPL S,,v
S- BAND-VOICE- I_.NG/RNG ONLY _'
S. BA ND_ VOICF._TAPI_ S_'
S- BAND-VOICE_-TV Sv,
S. BAND_Xt'-_ONDER/XPONDER PW R AMPL Sw
TAPE RECORDER-F%'D/REV Sw
'TAPE RECORD_R- PLAY Sw
TAPE RECORDER- RI/_COR.I)/PLAY S_v
TAPE RECOR DER-SPI_I_]D Sw
T ELECOM- Ess Sw
T EL_.COM- NONESS Sw
T ELECOMMUNiCATIONS-GROUI' I AC CI%
TELECOMNtUNICATIONS.GROt_rl _ 2 AC CB
T EI.,ECOMMUNICATIONS-GROUP 3 CB
T FI_ECOMMUNICA_'IONS-GROUP 4 , CB
T ELECOMMUNICATIONS-GROUP 5 CB
Panel Locator
MDC - 25
MDC - 25
M DC- 20
MDC-2Z
MDC-ZZ
MDC- 19
MDC- 13, -23, -26
RHEB-204
MDC-ZZ
MDC-22
22
MDC.,22
MDCr22MDC-22
MDC- 13,
MDC- 13,
Mi_-22
MDC-,25
MDC- 13,
MDC-20
MDC-20
MDC-20
MDC-20
MDC-26
MDC-13,
MDC-lq
M DC- Z0
-.90
MDC-20
M [M3 - 20
M[)C-20
MDC-20
M DC - 2 oMDC.-20
MDC-20
M DC- 20
M DC - 20
MDC -20
M l)C - 22
_fl) C - 2 ZMDC - 22
MDC-22
M IX._ - 22
MDC -2Z
hl_ - 2,'.
-23. -26
-23, -26
-23. -26
-23, -26
Mission
TEI.ECOMMUNICATIONS--CONT[iOLS/DLSPLAYS LOCATOR INDf':x
.I-18f_asic [)ate 12 Nov I'),,._ Change Date Pail(" ......
SMEA-03-SC01/
APOLLO OPERATIONS HANDBOOK
TELEGOMMUNICATIONS--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Nan_e Type Panel Locator
T ELECOMMUNICATIONS-PCM TL M A C CB MDC- 22
T ELECOMMUNICATIONS-SIG COND S-BAND CB MDC-ZE
PA AC
TLM INPUTS-BIOMED
TLM INPUTS-PCM
UP DATA
UP TLM CMD
VHF-AM
VHF-AM RCVR.
VHF-AM SQU_.LCH
VHF-AM- T/R/R_..C
VHF-ANTENNA
VHF-FM
VOICE RECORD
VOLUME
VOX SENS
Sw
Sw
SW
SW
Sw
S_'v
Control
Sw
Sw
SwIndicator
Control
Control
MDC - 20
MDC-20
MDG-Z0
MDC- 19
MDC-13, -23, -26
MDC-Z0
MDC-ZOMDC- gO
MDG-20
MDc-z0
MDC- 19
MDc-13, -23, -26
MDC-13, -23, -26
,%,[ i 9 9 t _,"%
TF'I.HCOMMUNICATIONS--CONTROLS/DISPLA YS I.OCATOR INDEX.
B_ic.D,Lte i: N,,_ I_b_, Change Date Page 3-19
SMgA-03-SC012
APOLLO OPERATIONS HANDBOOK
ENVIRONMENTAL CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Namei,
BATTERY VENT
Cabin air control louver
CABIN AIR/AUTO/SUIT AIR
CABIN AIR FAN-.I & 2
CA;kIN PRESSURE RELIEF
CABIN REPRESS
CABIN TEMP
CABIN TEMP-AUTO
CABIN TEMP-AUTO/MAN
CO2-odor absorber diverter
CO z PP HI
DIRECT O z
DRINKING WATER SUPPLY.
A p SUIT COMPR
ECS-CABIN AIR FAN-I 8, 2
ECS-GLYCOLPUMPS-AC'I & AC 2
ECS-GLY.COL-PUMP I/PUMP 2
ECS-H20 ACCUM-MNA & MNB
ECS-PO-T H20 HTR-MNA & MNB
ECS- RADIATOR
ECS .RAD-OUTLET TEMP
ECS PAD OUT TEMP-I & 2
ECS-RAD VALVE-AC I & AC 2
ECS STEAM DUCT HTR-MNA &.MNB
ECS-SUIT COMPRESSORS-AC I & AC 2
ECS-TRANSDUCER-PRESS GROUPS I & Z
ECS-TIL4NSDUCER-TEMP-MNA _ MNB
ECS-TIL_NSDUCER-WASTE & POT H20-
MNA _ MNB
EMERGENCY CABIN PRESSURE
EVAP H20
F LO W O zFOOD PREPAIL_%TION WATER-COLD _ HOT
GAS ANAL
GLY ACCUM-QUANTITY
GLY EVAP WATER CONTROL BYPASS
GLYCOL ACCUMUbATOR
GLYCOL
GLYCOL
GLYCOL
GLYCOL
GLYCOI,
GLYCOl,
GLYCOL
GLYCOL
GLYCOL
GLYCOL
GLYCOL
EVAP-H20 FLOW
EVAP-STEAM PRESS-AUTO/MAN
EVAP-STEAM PRESS-INCR/DECR
EVAP-STEAM PRESS-TEMP IN
EVAPTEMPIN
PRESS RELIEF BYPASS-I _ 2
RESERVE
RESERVOIR-BYPASS
RESERVOIR-INLET
RESK RVOI R-OU T I.E T
TEMP LOW
Typei
Valve
Control
Sw
Sw (Z)
VMve (Z)
Val,¢e
Valve
Control
Sw
Valve
Light
Valve.
Valve
Ind
CB (6)
CB (6)
Sw (Z)
CB (z)CB (2)
Sw (4)Ind
Ind (2)
CB (4)CB (z)
CB (6)CB .(4)CB (2)
CB (2)
Valve.
Valv_
Ind
Valve (2)
CB
Ind
Valve
Valve
S%v
Sw
Sw
Sw
Valve
Valv_ (2)
Valve
Vah-e
Valve
Valve
Light
Panel Locator
RHEB-Z03
LHFEB-303
LEIB- 120
MDC-21
LHEB-307
LHEB-314
LHFEB 303
MDC- 13
MDC-13
LHEB-313
MDC-1 1
MDC-24
LHFEB-304
M DC- I 3-
MDC-22
MDC-2 _.
MDC-21
MDC-2/
MDC -22
MDC-_21 .
MDC- I 3
MDC- 19;
MDC-2!
RHEB -106
MDC-22
MDC-22
MDC-22
MDC-2Z
LHEB - 3 L.I
LtIEB- 311
MDC- 13
LItFEB- _05
MDC-22
M DC- 13
LHEB- 3 l 7
LIt E B- %12
M DC-,I 3
MDC- 1 3
M DC- 1 t
MDC- 13
LIIEB- _I1
I. HE B- %0q
LHEB- 311
I,tlEB- _07
LIIFB- _07
I_HEB- _07
M DC - 1 1
ENVIRONMENTAL CONTROL SYSTEM--CONTROLS/DISPLAY5 LOCATOR INDEX
M_',_,,n ._ .T;,._H Dat,, 12 Nov [oj,_. -(.'h,ln,,,, D_t,,_ . p,,_,,, .... }-2.0. ..........
i .
SM2Ao03-SC012
APOLLO OPERATIONS HANDBOOK
ENVIRONMENTAL CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Control/Display Name
GLYCOL TO RAD
GLY EVAP-OUTLET TEMP
GLY EVAP STEAM PRESS
HlO ACCUM-AUTO/MAN
FI20 ACCUM FAIL
H20 ACCUM-ON I/ON 2
H20 ACCUMULATOR-I & 2
H20 IND
INST PWR CONT-ESSENTIAL 2
MAIN REGULATOR
02 FLOW HI
O2 PRESS IND
OXYGEN-ENTRY
OXYGEN-S/M SUPPLY
OXYGEN-SURGE TANK
PART PRESS CO 2
PGA pressure
PLSS FILL
PLVC
POST LANDING-VENT FAN
POST LANDING-VENT FANIPL BUS/FLOAT
BAG. 2
POTABLE TANK INLET
POT H_O HEATER
PRESS-CABIN
PRESS GLY DISCH
PRESS-SUIT
PRESSURE RELIEF
START/OFF /PREHEAT
Suit circuit return air
SUIT COMPRESSOR-COMPR 1/COMPR 2
Suit demand pressure regulator selectorSUIT EVAP
SUIT EVAP
SUiT EVAP GLYCOL
SUIT FLOW
SUIT FLOW RELIEF
SUIT lIT EXGH
SUIT TEST
SURGE TANK PRESSURE RELIEF
TANK PRESSURE-O2- I
TEMP-CABIN
TEklP-SUIT
WASTE H20 TK REFILL
WASTE MANAGEMI_NT-OVBD DRAIN
WASTE MANAGEMENT,SELECTOR
Type
VMve
Ind
Ind
Sw
Light
Sw
Valve (2)
Sw
CB
Valve
Light
Sw
Valve
Valve
Valve
Ind
Ind (3)
Valve
Sw
SW
CB
Valve
Sw
Ind
Ind
Ind
Valve
SwValve
Sw
Valve
Sw
ValVe
Valve
Valve (3)
Valve.
Sw
Valve
Valve
Ind
Ind
Ind
Sw
Valve
Valve
Panel Locator
LHEB-307
MDC-I 3
MDC-13
MDC-13
MDC- I i
MDC- 13
LHEB - 311
MDC- 13
RHEB-204
LHEB-314
MDG-I I
MDC- 13
LHEB-307
LHEB-30?
LHEB-307
MDC-13
PGA sleeve
LHEB-314
LHEB-316
MDC-25
MDC-25
LHEB-315
MDC-21
MDC- 13
MDC-13
I%1DC- 13
LHEB-315
LI_B-I20
LHEB-319
MDC-21
LHEB-310
MDC-13
LHE B - 311.
LHEB-311
LHFEB'300, -301,
-302
LHV.B- 311
LHEB-310
LHEB-310
LHEB- _08
MDC-13
MDC- 13
MDG- 13
MDC-13
RHEB-201
RHEB-201
ENVIRONMEN.TAL CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Mission Basic D,_te 12 Nov 1966 ,Chnm:e D._te Page' 3-21
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
ENVIRONMENTAL CONTROL SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
COntrol/Display Name Type
WASTE TANK INLET Valve
WASTE TANK SERVICING Valve
WATER & GLYCOL TANKS PRESSURE-
REGULATOR-SELECTOR INLET Valve
WATER & GLYCOL TANKS PRESSURE-
RELIEF-SELECTOR OUTLET Valve
WA_fER.QUANTITY ............ Ind
Panel Locator
LHEB-315
LHEB 315
LHEB-314
LHEB-314
M.DC -13
I
• I
:ia
t
t
ENVIRONMENTAL CONTROh SYSTEM--CONTROLS/DISPLAYS LOCATOR INDEX
Missiof_ .Basic Date .i_ Nox' 19f_, Change Date .... Page,, 352.2 _
SMZA-03-SC012
APOLLO OpI;ERATIONS HANDBOOK
CAUTION AND WARNING SYSTEM--LOCATOR INDEX
Control/Display Name
AC IBUS 1 FAIL
AC BUS 2 FAIL
AC BUS 1 OVERLOAD
AC BUS Z OVERLOAD
AGAP TEMP
AGC PWR FAIL
CAUT /WARN- FAIL
CAUT/WARN-MNA & MNB
CAUT/WARN-MODE
CAUT/WARN-POWER
CDU FAIL
C/M RCS A
C/M RCS B
CO 2 PP HI ._C/W
C/W
F/C
F/C
F/C
LAMP TEST
1
2
3
F/C BUS DISCONNECT
GLYCOL TEMP LOW
GMBL LOCK
G&N ACCEL FAIL
G aN ERROR
H20 ACCUM FAIL
H1 PRESSLMU FAIL
IMU TEMP
INV 1
INV 2
INV 3
MAST E P,ALARM
MASTER ALARMMASTER ALARM
MN BUS A UNDERVOLT
MN BUS B UNDERVOLT
O 2 FLOW HI
O 2 PRESSPITCH GMBL DR FAIL
S/M RCS A
S/M RCS B
S/M RCS C
s/M RCS DSPS PRESS
SPS PU SNSR FAIL
SPS ROUGH ECO
SPS WALL TEMP HI
YAW GIvlBL DR FAIL
Mission
Type
Lt
LtLt
LtLt
LtLt
CB (2)Sw
Sw
Lt
Lt
Lt
Lt-
Sw
Sw
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt.
Lt.
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
Lt
hr._ •
CAUTION AND WARNING SYSTEM--LOCATOR
Basic Date 12 Nov 1968 Change Date ,
Panel Lbcator
MDC = 11MDC-1!
MDC- 1 1MDC - 11
MDC- 10MDC - 10
MDC- 11MDG=25
MDC- I 1
MDC- 11MDG- 10
MDC- I 0MDG- 10
MDC- 11MDC- 13
MDC _23
MDC- 11MDC- Ii
MDC- 11MDC- 11
MDC- 11
MDC- 10MDC-10
MDC-10
MDC-I IMDC-10
MDC-10MDC-10
MDC-IIMDC-II
MDC-I I
MDC -3
MDC-18
LEB-103.
MDC- 11 .
MDC - 11MDC-11
MDC -10MDC- 1 1
MDG- 10MDC - I 0
MDC- 10MDC -10
MDC- I 1MDC- 11
MDC- I 0
MDC- 11
MDC-1 1
INDEX
.... Page .....3=23 ,_....
SM2A-03-SC012
APOLLO OPERATIONS HANDBOOK
MISC ELLANEOUS SYST ElvIS --CONT ROLS/DISPLAYS LOCATOR INDEX
C6ntrOls/Display Name
COUCH ATTEN- FLOODLIGHTS
ELS-FLOAT BAG 3
FLOODLIGHTS- PRIMARY
FLOODLIGHTS -SECONDARY
FLOODLIGHTS-PRIMARY
FLOODLIGHTS -SECONDARY
LIGHTING-CLOCKS
LIGHTING- FLOODS-PRIMARY
LIGHTING-FLOODS-SEC
POST LANDING-FLOAT BAG
POST LANDING-FLOAT BAG I PL ]BUS
POST LANDING-VENT FAN-'PL BUS.FLOAT
BAG Z
UPRIGHTING SYSTEM-COMPR NO. I AND
NO. Z
Type Panel Locator
CB (Z) MDC-Z5CB MDC-Z5
Sw MDC-23
Sw MDC-Z3
Sw MDC-Z6
Sw M DC -26
Sw LEB -100
Sw LE]3- i 00
Sw LEB- 100
Sw (3) MDC.25
CB MDC-Z5
CB MDC- 25
CB RHEB -ZOS
Mission
I
MISCELLANEOUS SYST EMS-CONTROLS/DISPLAYS LOCATOR INDEX
• Basic Date 12 Nov 196b ,Chanse Date .... Page. 3,"24
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
SCLE NTIFIC EXPERIMENTS--CONTROLS/DISPLAYS LOCATOR INDEX
Controls/Display Name
sCIEN EQUIP SEB 1
SCIEN EQUIP SEB Z
INSTRUMENTS--SCIEN (not used)
SCIEN EQUIP HATCH
CB
CB
CB
CB
Type
Mission
Panel Locator
MDC-ZZ
MDC-ZZ
MDC-ZZ
MDc-zz
.. i
SCIENTIFIC EXPERIMENTS--CONTROLS/DISPLAYS LOCATOR INDEX
.... BaSic Date 12 Nov 1966 _Change Date Page 3"_25 .
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swit
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on
r T
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gle
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d 3
cir
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it
GR
OU
P 1
a
ttit
ud
c
in G
CN
po
s~
tio
n w
he
n G
8.N
AV
mo
cir
1,r
ea
kc
rs
thro
ug
h t
hc
GL
N.
mod
c.
blN
A
swit
ch
V
IS
u
t~ir
zc
d.
s..v
itc
h,
alt
~tu
dr m
orl
c sw
itc
h%
an
d
MNB
swit
ch
ON
AV
swit
ch
in
ON
po
siti
on
. A
pp
lie
s p
ow
er
to t
he
FC
SM
an
d t
he
G&
N.
SC
S A
V
ga
tes.
It
un
sta
ble
co
rn-
bu
stio
n i
s s
en
sed
. th
e F
CS
M"
au
tom
ati
ca
lly
en
erg
ize
s r
ela
ys
th
at
rem
ov
e p
ow
er
fro
m t
he
G&
N,
SC
S A
V
ga
tes,
a
uto
ma
tic
all
y
shu
ttin
g t
he
en
gin
e d
ow
n;
oth
er
rela
y c
on
tac
t p
oin
ts w
ill
illu
rn-
ma
te t
he
SP
S R
OU
GH
EC
O c
au
tio
n
an
d w
arn
ing
lig
ht
on
MD
C-1
0.
RE
SE
TlO
VE
RR
IDE
A
pp
:ics
p
ow
er
to t
he
G&N.
SC
S
Pla
ce
d t
o t
his
po
siti
on
wh
en
SC
S A
V.
AV
ga
tes,
b
yp
ass
ing
th
e F
CS
M
mo
de
is.
uti
liz
ed
. sy
ste
m.
If u
nst
ab
le c
om
bu
stio
n
is s
en
sed
. th
e S
PS
en
gin
e w
ill
no
t T
he
AV
sw
itc
h p
lac
ed
to
OF
F w
ill
shu
t d
ow
n a
nd
th
e S
PS
RO
UG
Fi
als
o R
ES
ET
th
e F
CS
M a
s a
ba
ck
up
to
E
CO
ca
uti
on
an
d w
arn
ing
. li
gh
t o
n
the
RE
SE
TIO
VE
RR
IDE
po
siti
on
. M
DC
-I0
wil
l n
ot
illu
min
ate
. W
ill
als
o b
e u
tili
ze
d t
o R
ES
ET
th
e
FCSM. sy
ste
m i
f a
n a
uto
ma
tic
sh
utd
ow
n h
as
oc
cu
rre
d.
SC
S R
ES
ET
/OV
ER
RID
E
Re
ce
~v
es
p
ow
er
fro
m t
he
SC
S
Tw
o-p
osi
tio
n t
og
gle
sw
itc
h.
swit
ch
G
RO
UP
1 -
MN
A a
nd
B c
irc
uit
b
rea
ke
rs t
hro
ug
h t
he
G&
N.m
od
e
Pla
ce
d i
n S
CS
.po
siti
on
wh
en
SC
S A
V
suit
ch
. a
ttit
ud
e m
od
e s
wit
ch
. a
nd
m
od
e i
s u
tili
ze
d.
the
AV
sw
itc
h i
n O
N p
osi
tio
n.
Ap
pli
es
po
we
r to
th
e F
CS
M a
nd
th
e S
CS
AV
g
ate
s.
If u
nst
ab
le
co
mb
ust
ion
1s
sen
sed
, th
e F
CS
M
au
tom
ati
ca
lly
cn
erg
ize
s r
ela
ys
th
at
rem
ov
e p
ow
cr
fro
m t
he
SC
S
AV
ga
tes,
a
uto
md
tic
all
y s
hu
ttin
g
the e
ng
ine
do
vrn
; o
the
r re
lay
c
on
tac
t p
ox
nts
wil
l il
lum
ina
te t
he
S
PS
RO
UG
H E
CO
ca
uti
on
an
d
wa
rnin
g.
lig
ht
on
MD
C-
10
.
[SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
L
CONTROLS AND DISPLAYS
°
./
i
I_,,__ _," ['_•_t_".l ,,. |h,
• '.C'.. [_i_'_: \y CO',_,_L! --P\'<I['.2
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ses
None
[C;a
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G
RO
UP
2
No.
1
an
d
OF
F
Tu
rns
off
FD
A1
pan
el l
igh
tin
g
AC
I
No.
2
(wh
ite l
igh
t) ~
MD
C-4
)
and
A
C
2 T
HR
US
T O
N s
wit
ch
face l
igh
tin
g
(MD
C-2
5)
(hf bC-7).
INC
R
Ad
just
s in
ten
sity
of
FD
A1
pan
el
11
~1
1t1
ng
an
d T
I1R
US
T O
N s
wit
ch
fa
ce
lig
hti
ng
: --
--
FD
A1 S
EL
F T
ES
T s
y~
tch
S
CS
- D
-C m
ain
Jn b
ack
up
SC
S r
ate
mo
de,
th
e S
CS
C
RO
UP
1
bu
ses
A a
nd
ra
te e
lec
tro
nic
s re
ce
ive
th
e :a
m
of
SE
LF
TE
ST
N
orm
al S
CS
ra
te m
od
e W
NA
B
th
e SELF T
ES
T a
nd
BMAG i
np
uts
. (U
P)
MN
B
I T
he
refo
re r
ate
defl
ecti
on
wil
l b
e 4
15
a.
R
emo
ves
. ra
te g
yro
Input
(MD
C-2
5)
full
scale
. (f
ixe
d) p
lus
defl
ecti
on
fr
om
SC
S r
ate
ele
cti
on
ics.
cau
sed
by
th
e an
alo
g o
f th
e r
ate
sig
na
l,
b.
Ap
pli
es
test
sig
na
l to
SC
S
, if
an
y.
SE
LF
TE
ST
is
use
d e
ac
h t
ime
. ?
ate
ele
ctr
on
ics,
c
au
srn
g
the F
DA
1 is
acti
vate
d.
neg
ati
ve d
efl
ec
tio
n o
f a
ll
FD
AI
rate
in
dic
ato
rs l
o 4
15
fu
ll s
ca
le.
OFF
Rem
ov
es
test
sig
na
l fr
om
ra
te
ind
~c
ato
rs an
d p
erm
its
no
rma
l o
pe
rati
on
of
FD
AI.
C
LIV
A0
A:S
PS
P
C s
wit
ch
T
wo
-po
siti
on
to
gg
le s
wit
ch
wh
ich
e
na
ble
s th
e c
rew
to
se
lec
t ap
pli
cab
le
LIV
AO
A
Co
nn
ects
, ou
tpu
t o
f Q
-ball
to
L/V
N
one
N/ A
N
one
inp
ut
to L
/V A
OA
/SP
S P
C in
dic
ato
r.
AO
A/S
PS
P
C ~
nd
ica
tor.
T
he
swit
ch
is p
laced
in
th
e L
/V A
OA
p
osi
tio
n p
rio
r to
lif
t-o
ff,
an
d i
n t
he
SP
S P
C
Co
nn
ects
ou
tpu
t of
SP
S e
ng
ine
SP
S P
C p
osi
tio
n a
t a
pp
rox
ima
tely
co
mb
ust
ion
ch
am
be
r p
ressu
re
1 m
inu
te a
nd
40
se
co
nd
s a
fte
r li
ft-o
ff.
.se
nso
r to
LIV
AC
A/S
PS
PC
in
dic
ato
r.
LIV A
OA
ISP
S PC in
dic
ato
r T
ime
-sh
are
d i
nd
~c
ato
r wit
h
Ind
icato
r ra
ng
e:
0 t
o 1
50%
. in
pu
t d
ete
rmin
ed
by
po
siti
on
of
L/V
AO
A/S
PS
PC
swit
ch
.
a.
LIV
AO
A i
np
ut:
th
e i
nd
ica
tor
D-C
vo
ltag
e
. %
all
c
ha
ng
es
in a
ir p
ressu
res a
re
d
isp
lay
s a p
erc
en
tag
e o
fAP
'
rfro
m S
-IV
B
sen
sed
th
rou
gh
fo
ur
ho
les
in t
he
Q-b
all
m
ea
sure
d b
y t
he
9-b
all
wh
ich
'I.
u.
Th
e i
nd
ica
tor
is m
on
ito
red
fro
m 4
0
is a
fu
nct
ion
of
pit
ch a
nd y
aw.
seco
nd
s to
ap
pro
xim
ate
ly o
ne m
inu
te
and 4
0 s
ec
on
ds
aft
er
lift
-off
. It
is
red
-lin
ed
at
ap
pro
xim
ate
ly I
00
pe
rce
nt
I fo
r th
e L
/V A
OA
fu
nct
ion
. A
de
cis
ion
j lo
r m
an
ual
ab
ort
wil
l be
rnad
e8
wh
en
the
jnd
icato
r p
oin
ter
rea
ch
es
the
red
lin
e a
nd
) m
ov
em
en
t is
als
o n
ote
d o
n th
e F
DA
I.
- 'T
elcn
aetr
y
'
. . .. .+IX
.C
4r.
d
Crr
cu
rt
Po
wr
r C
od
e NG.
Po
brt
lun
F
un
ct~
on
B
rea
ke
r S
wrr
cc
rnd
Id
cn
t~ty
H
rrlr
r rk
s !-s,.
dI,,.
7.
MD
C-
3 b.
S~
S
pr
the I
nd
ire
lor
LN
ST
RU
- D
-c
ro
ltd
p
SP066)P
be
ferm
ce
pre
ssu
re v
alu
e i
or
SP
S 1
%
(&.s
it)
dis
pla
ys SP5 t
ng
inc
co
mb
us-
MENTS-
fro
m s
rgn
rl
(Co
rnb
us-
in
pu
t IS
1
00
ps
ir (
no
rnid
).
kr
ma
l
lio
n c
ha
mb
er
pre
ss
ure
du
rin
g ES.
con
dit
rrin
er
t:on
thru
stln
g r
ea
do
ut IS 1
60
pe
rce
nt.
S
PS
th
rust
ing
as
pe
rce
nta
ge
M
N X
c
ha
mb
er
Sc
ale
is
gra
du
ate
d r
n %
in
cre
me
nts
. crf
refe
ren
ce
pre
ss
ure
val
ue.
M
N B
p
rtn
ssu
re
(MD
C-2
2)
se
ns
or)
.W
TE
R A
LA
RM
sw
itc
h-l
rgh
t R
ed l
rgh
t il
lum
ina
tes
to a
lert
C
AU
TI
D-C
ma
rn
CS
OIS
OX
M
AS
TE
R A
LA
RM
lig
hts
on
.MD
C-3
.
1 c
rew
ma
n i
n L
H.c
ou
ch o
f a
ma
l-
WA
RN
. b
use
s A
an
d
(Ma
ste
r -1
R,
an
d L
EB
- 1
03
are
sim
ult
an
eo
usl
y
fun
cti
on
or,
ou
t-o
f-to
lera
nc
e
MN
A
B
ca
uti
on
- ,l
ium
rnate
d
and
an
au
dro
ala
rnl
lon
e 1
5
condhti
on.
Th
is i
s i
nd
icate
d b
y
MN
B
warn
ing
on
) ae
lrt
to e
ac
h.h
ea
dse
t.
illw
nin
ati
on
'oi
ap
plr
cab
le s
yst
em
(M
DC
-25
) st
atu
s lr
gh
ts o
n M
DC
-I0
or
-11
. T
he C
/W s
wit
ch
(.M
DC
- 13
) is
se
t to
B
OO
ST
du
r~
ng
th
e a
sce
nt
ph
ase
on
ly.
pre
ven
tin
g t
his
MA
ST
ER
AL
AR
M
swit
ch
lig
ht
fro
m i
llu
min
ati
ng
in
ord
er
to a
vo
id c
on
fusi
on
, wit
h t
he
ad
jac
en
t re
d A
BO
RT
lig
ht,
. T
he
sw
itc
h-l
igh
t lo
ses
~t
s
res
et
fun
cti
on
du
rin
g t
his
ti
me
.
Th
e M
AS
TE
R ALARM s
wit
ch
-l~
gh
t I 1
co
nta
ins
an
in
teg
ral
pu
shb
utt
on
sw
itch
. P
res
sin
g t
he
su
titc
h-l
igh
t w
~ll
res
et
the m
as
ter
ala
rm c
irc
uit
, e
xti
ng
uis
h-
ing
th
e M
AS
TE
R A
LA
RM
lig
hts
an
d
shu
ttin
g o
ff l
he
au
dio
ala
rm.
AB
OR
T l
rgh
t n
lum
imte
s r
ed
to
in
dic
ate
- th
at
Em- I,
3
Ba
tte
ry
BXOObOX
Th
e l
igh
t s
erv
es
to
ale
rt t
he
cre
w o
f a
n a
bo
rt h
as
be
en
re
qu
est
ed
by
BAT A
b
use
s A
an
d
(ED
S a
bo
rt
an.e
mer
ger
.cy
si
tua
tio
n w
he
re a
n
the
ra
ng
e s
afe
ty o
ff~
ce
r Or
BA
T B
B
wh
en
th
e
req
uc
at
A)
ab
ort
is
req
uir
ed
im
me
dia
tely
. T
he
g
rou
nd
co
ntr
ol.
(M
DC
-25
) E
DS
PO
WE
R .
lig
ht
is a
ba
ck
up
to
vo
ice c
om
mu
nr-
s+tc
h
is O
N
ca
tio
ns
fro
m g
rou
nd
co
ntr
ol.
R
ed
un
-
(MD
C-2
4)
dan
t b
ulb
s a
re c
on
tro
lle
d b
y
red
un
dan
t c
om
ma
nd
s th
rou
gh
th
e U
DL
ie
al-
tim
e c
om
ma
nd
sy
ste
m.
SP
5 s
wtc
he
s
SP
S-
Ba
tte
ry
None
Th
ree
-po
siti
on
to
gg
le s
wit
ch
wit
h
GIM
BA
L
bu
ses
A a
nd
u
pp
er
(ST
AR
T)
po
siti
on
sp
rin
g-
GIM
.B9L
M0
7'3
RS
gro
up
F
ou
r o
pe
rati
on
all
y
den
tica
l M
OT
OR
B
lb
ad
ed
to
re
turn
sw
itc
h t
o c
en
ter
(ON
)
swit
ch
es.
C
ON
TR
OL
p
osi
tio
n w
hen
re
lea
sed
. P
ITC
H 1
an
d
PIT
CH
1.
P
ITC
H 2
. 1
PIT
CH
Y
AW
1
sw
itc
he
s c
on
tro
l g
~m
bn
l
YA
W I
., Y
AW
2
B
AT
A
ac
tua
tor
pri
ma
ry d
rrv
e m
oto
rs.
swit
ch
es
PIT
CH
2
PIT
CH
2 a
nd
YA
W
2 sw
itc
he
s c
on
tro
l
BA
T B
g
imb
al
ac
tua
tor
sec
on
da
ry d
rrv
e.
ST
AR
T
En
erg
~z
es
mo
tor
swlt
ch
in
app11-
1 Y
AW
m
oto
rs.
ca
ble
ov
erc
urr
en
t re
lay
wh
ich
. B
AT
A
tn t
urn
, a
pp
lre
s t.28 v
dc t
o t
he
Y
AW
2
ST
AR
T p
osi
tro
n p
rov
ide
s g
imb
al
ap
pli
ca
ble
gim
bal
ac
iua
tor
dv
lve
BA
T B
m
oto
r s
tart
~n
y: ca
pa
bil
~ty
. m
oto
r.
, (M
DC
-25
)
OF
F
. T
ele
me
try
-;.a
:,.e
.,..c
Cir
cu
lt
Po
we
r C
od
e N
o.
P..
9tt:~
r.
F ~
nc
tio
n
Bre
ak
er
S~
ur
ce
an
d l
dsn
fity
R
trn
ark
s :.....O
tLi.!
.
Ap
pli
es
t28
vd
c tc
. o
ve
r-u
nd
er-
SPS-
Ba
tte
ry
Non
e O
X
ON
po
sitl
on
pro
vid
es
lor
Grc
r o
r %
!DC
- 3
cu
rre
nr
sen
szn
g c
ircu
itry
in
G
IMB
AL
b
use
s A
an
d
un
de
rcu
rre
nt
sen
sin
g (
un
de
r 6 a
mp
s C
:.r.
ti
ap
pli
ca
ble
cv
erc
urr
en
t re
lay
. ,M
OT
OR
B
rr
r o
ve
r 4
0 a
mp
s n
om
inal
).
Du
rin
g
CO
NT
RO
L
pri
ma
ry c
han
nel
op
era
tio
n a
n o
ve
r
OF
F
En
erp
ze
s m
oto
r s
iitc
h i
n a
pp
li-
. 1 P
ITC
H,
>r
un
de
rcu
rre
nt
w~
ll a.>
tom
at~
ca
lly
ca
ble
ov
erc
urr
en
t re
lay
wh
ich
B
AT
A
ca
use
po
wer
to
be
re
mo
ve
d f
rom
th
e
rem
ov
es
42.3
- vdc
fro
m t
he
PIT
CH
2
pr.
imar
y d
riv
e m
oto
r.
clu
tch
co
rn-
cu
rre
nt
ae
nsl
ng
cir
cu
itry
an
d
BA
T B
m
an
ds
swit
ch
ed
to
th
e s
ec
on
da
ry
g~
mb
al a
ctu
ato
r d
riv
e m
tto
r.
1 YAW
ch
an
nel,
an
d a
pp
lic
ab
le G
MB
L D
R
BA
T A
F
AIL
sta
tus
ind
ica
tor
to i
llu
min
ate
YA
W 2
MD
C-1
I).
D
uri
ng
se
co
nd
ary
op
rr.-
B
AT
B
ati
on
, p
itch
- 2 m
oto
r c
irc
uit
is
pro
-
(tA
DC
-25
) k
cte
d-b
y C
B 1
an
d y
aw Z
mo
tor
ci r
cu
rt
is p
rote
cte
d b
y C
B 2
. C
B 1
an
d C
B 2
are- 7
0 a
mp
cir
cu
it b
rea
ke
rs l
oc
ate
d
ins
the
S/M
. N
o s
tatu
s in
dic
ato
rs a
re
pro
vid
ed
fo
r th
e s
ec
on
da
ry c
on
tro
l c
irc
uit
s.
2 4
>u
rin
g.a
ce
nt,
wh
en G
LU
BA
L MOTORS
9
wit
ch
es
(4)
ar
e OFF, e
ng
ine p
osi
tlo
n-
0'
:ng
is m
ain
tain
ed
by
ap
pli
catr
cn
of
a
qu
iesc
en
t c
urr
en
t (6
0 +
lo,
-5 m
a).
to
>
the
ele
ctr
om
ag
ne
ts o
f th
e e
xte
nd
an
d
Z
retr
ac
t c
lutc
he
s w
hen
TV
C i
an
d Z
u
PO
WE
R s
wit
ch
es
(MX
.24
) a
re o
n.
0
!
I w
w-
INJE
CT
P
RE
-VA
LV
ES
T
wo
oper
atio
nal
ly i
de
nti
ca
l S
PS
-He
D-C
ma
in
Tw
o-p
osi
tio
n t
og
gle
sw
iwh
wh
ich
mu
st
'U sw
itch
em.
Ea
ch
sw
itc
h c
on
tro
ls
VA
LV
E
bu
se*
A a
nd
b
e in
.ON
po
sit
~c
n (i.e
.,
sole
no
id is
r
K".U
P th
e p
neu
mati
c (
GN
Z) p
res
su
rira
- M
N A
B
a
ctu
ate
d)
be
fore
au
tom
ati
c o
r m
an
ual
4
A (B) sw
itch
ti
on
of
the
SP
S e
ng
ine
valv
e-
.m B
SP
S e
ng
ine-
va
lvc
-ac
tua
tor
co
ntr
ol
of
(n,
ac
tua
tors
wit
hin
th
eir
re
spe
cti
ve
(M
DC
-2;)
th
e m
atn
pro
pe
lla
nt
va
lve
s can
be
half
of
a s
eri
es
lpa
rall
ri p
rc-
' ~
nit
iate
d.
pell
an
t, f
ee
d l
ine
confi
gura
tion 1
0 th
e o
ng
lne c
om
bu
stio
n c
ha
mb
er.
I
Ap
pl~
es
tZR
vd
c to
SPS e
ng
ine
syst
em
A p
~lo
t pre
-va
lve
so
len
oid
.
IRem
ov
es
tZ.9
vdc
fro
m S
PS
:e
ng
ine s
yst
em
A p
llrr
t p
re-v
alv
e
sole
no
id.
...
.+ll
r.e
2T.C
C
irc
uit
P
o;r
.e r
C
od
e ii
o.
f .;
r.c:
ian
Bre
ak
er
So
urc
e
and
Id
en
tity
'
Re
ma
rks
L ,L
~I
I,,
C
P~
51
?1
0n
hl'
>C
-4
F11
,ht
orr
rclr
,r .
tti!
u.',
c D
rsp
lsy
s S
/C t
~t
al
a
ttit
dd
e,
att
i-
SC
S-
A-C
bu
s T
ota
l a
ttit
ud
e r
na
ica
tor
ca
lrb
ratr
on
.nd
lr i
tr,r
tu
dc r
rr,,
rs,
ir.4
~r
.~x
~l
ar
ra
tes.
GROUP 1
N
o.
1 o
r
AC
J
No.
2 (
via
Tc,
t~1
art
.r.i
dr
SIC
; rn
crt
ral
atf
rtu
dz
r *
&sp
lay
ed
C
RO
UP
1
SC
S d
isp
lay/
~n
.ia
ca
r>:~
- by o
rirn
ta!r
~n
of
the
3-a
xis
att
l-
AC
A
GA
A E
CA
j
rud
e b
all
, w
lttr
re
ad
ou
ts a
s
(MD
C-2
5)
foll
~w
5:
To
tal
atti
tud
e- i
nd
~c
ato
r drr
ec
tro
n o
f p
oait
ive (
t)
rota
tio
n
a.
Ro
il a
ttit
ud
e a
s re
ad
fro
m t
he
b
all
-d
riv
en
mo
va
ble
rrd
cx
A
xis
of
rota
tio
n
(ro
ll b
ug
) re
fere
nc
ed
to
th
e
(oti
.er
two
ax
es
I>ir
ectl
rjn
of
ca
lib
rate
d b
ezel
rtn
g a
rou
nd
fr
xod a
t 0 .)
Ball
Pro
tat~
on
the
ba
ll,
wit
h r
esp
ec
t to
S/C
navig
ati
on u
es
on
ly.
fro
m t
o
to b
otto
m
b. P
rtc
h a
nd
yaw
are
re
ad
d
ire
ctl
y f
rom
:he
c
'dib
rate
d
J*
.
roll
- ri
gh
t c
ou
nte
rclo
ck
w~
se
su
ifa
ce
of
the
ball, with
resp
ec
t to e
~th
er
th
e S
/C
Td
al
att
itu
dt
ind
icati
on
follows a
t11 -
bo
dy
ax
es i
nd
ex
or
the
MV
I-
tud
e d
ev
iati
on
s cn
ly i
n t
he
fo
llo
win
g
gatr
on
ue
s z
ndex
. T
wo
30.
sit
ua
tio
k:
red
cir
cu
lar
are
as
on
th
e
ba
ll s
urf
ac
e d
eno
te. a
ttlt
ud
e
a.
Wh
en
CN m
ysl
tm s
up
pli
es
inp
uts
reg
ton
s in
, wh
ich
(31s IM
U
b. W
hen
cs
s +
tran
mla
tio
n c
on
tro
l
gim
bal
lo
ck
or
ex
ce
ssiv
e. S
CS
1
, CW +
.0
5g
+ (
AT
TIT
UD
E
AC
CU
erro
r c
an
oc
cu
r.
u.l
PU
LS
E-E
NA
BL
E)
+ fS
CS
m
od
e)
+ (p
itch
dis
ab
led
i y
aw
dis
ble
d I b
oth
ro
ll
. d
isa
ble
d)r
(B
UR
in
an
y a
xis
)'.
(MT
VC
)'.
(FD
AI
ali
gn
)'.
Att
~ll
;de
err
or
5/C
at1
rt;;
oe
err
ors
a
re d
l.-
; A
ttit
ud
e e
rro
r i
nd
ica
tor
ca
lib
rati
on
xn
drc
at~
on
plh
y-r
i b
y tk
ree
fl
y-C
~J-
typ
e
(fu
ll-s
ca
le- d
efl
ec
tio
n)
ne
ed
les
mo
un
ted
on
th
e o
ez
el
rin
g a
rou
nd
th
e a
ttit
u4
e t
all
. Modes
Pa
ll
P~
tch
Yaw
w:t
h
the
to
p,
rig
ht,
an
d b
ott
om
,
-
ne
ed
les
co
rre
spo
nd
tng
to
ro
ll,
i M
on
ito
r (GLN)
t25
. *IS*
tlS
*
pat
ch.
an
d y
aw.
resp
cc
tiv
ciy
. T
he
re
ad
ou
ts d
en
ote
on
e o
f th
e
G1
N.e
ntr
y
12
5.
+5.
*So
fo
llo
win
g:
SC
! e
ntr
y
a.
Dif
fere
nc
e &
tween
p
rese
nt
'All
~th
erm
od
cm
e*
*'
5/C
att
itu
de
and t
he
S/C
refe
ren
ce
att
itu
de
sto
red
rn
ett
he
r th
e G
LN
IC
DU
s o
r t
he
S
CS
AG
CU
. T
he
re
ad
ou
ts a
re
,
alw
ay
s re
fcse
nc
ed
to S
/C
bo
dy
ax
es
. e
xc
ep
t d
url
ng
I G
?2
:-co
ntr
oll
ed
r r
Te
!em
etr
y
'-,z
:,
- ..: C
arc
urt
i+
,wrr
C
od
e N
o.
:. , I.
. .
:', ..
Y'*
,:.
E -r
.c t
ion
B
rea
ke
r S
cu
rce
a
nd
Id
en
tity
R
em
ark
s
.!)
I
.;
4-n
lry
.A
i...n
tt
.t
roll
r-r
ror
5CS-
h-C
b11
s A
ttit
ud
e e
rr
or
in
da
ca
tor
de
fle
cta
on
If ,.nt)
is r
efe
ren
ce
d t
o t
he
SIC
GROUP !
So.
I r,
r lo
r p
osi
tiv
e (
*)
rota
tio
m:
inp
ut
nsv
rqat
ir,n
a
xa
s.
Tte
pat
ch a
nd
A
C 1
:;o.
2 (v
ia
co
mm
an
ds
ya
.~ er
ro
r r
ree
dla
s w
11l
be
ze
ro
GR
OU
P 1
SCS d
rap
lay
l e
ltrr
(1.
05
q s
ivit
chrn
g i
n A
G);
::
AC
2
hG
Ak
2lC1.
Ind
ica
tor
De
fle
c-
en
try
rs.
rJdc
, a
nd
th
ere
w11
l b
e
I>.q
DC
-25)
A
xis
.01
Ro
tati
on
ti
on
fro
m Z
ero
n.,
att
itu
de
er
ro
r d
isp
lay
ed
aft
er
(~o
sit
iue
co
mm
an
d)
(ce
nte
r)
fJi
in a
n S
CS
en
try
mo
de.
b.
Drf
fere
nc
e b
etw
ee
n t
he
pre
s-
en
t S
IC r
rfe
ren
ce
att
ltu
dr
pit
ch
sto
red
an
the
WIS
AC
ClJ
an
d a
de
sire
d a
ttit
ud
e d
iale
d i
nto
th
e
att
itu
de
sc
tlg
imb
al
~s
it
io
n
dis
pla
y.
.~it
h th
e A
'JT
1TI;
DE
SET f
un
cti
on
en
ga
ge
d.
Dia
led
in
an
d s
tore
d a
ttit
ud
es
ar
e'
refe
ren
ce
d t
o S
IC n
av
~g
ati
on
a
xe
s.
.wit
h th
e d
iffe
ren
ce
an
~j
es
tn
ve
rte
d t
o b
od
y a
xe
s fo
r d
is-
pla
y b
y t
he
er
ro
r n
ee
dle
s.
An
gu
lar
ratr
S
IC a
ng
ula
r v
elo
cit
ies
ar
e d
ig-
'An
gu
lar
rate
in
dic
ato
r c
ali
bra
tio
n
mir
e a
ttr.
n p
lay
ed
r,y
thrs
r fl
y-t
o-t
yp
e
rnd
i-
(fu
ll-s
ca
le d
efl
ec
tio
n)
ca
turs
rnr
,unt
ed
ab
ov
e,
to t
he
r1
gt.t
r,
f,
arid
t,
c!o
w
the
att
itu
de
M
od
es
Ro
ll
Pit
ch
Y
aw
tali
co
rre
spo
nd
ing
to
roll
. p
atc
h,
an
d y
aw
, re
spe
ctr
ve
fy.
.Mo
nit
or
(GL
N)
*25
*I
65
.1
fS.1
'T
he
rrb
do
btn
ar
e a
lwa
ys
rrfe
r-
GL
Ne
ntr
y
sec
se
c
st
c
en
ctd
to
SIC
tcA
jd.l
ax
es
ex
ce
pt
SC
S e
ntr
y
du
rrn
g a
trr.
n.s
ph
eric
e
ntr
y (
aft
er
CJ.
05
g)
.*he
n th
r y
aw r
ate
in
di-
G
&N
.de
lta
V
tS 'I
65
.1
t5.1
c
ato
r IS
re
fere
nc
ed
to
th
e S
/C
SC
S d
elt
a V
a
sc
a
ce
8
ec
it
at,a
lrty
a
xis
. In
pu
ts t
o t
he
rn
drc
rto
rs o
re s
up
pli
ed
by
eit
he
r C
hN
-att
co
nt
the
SC
S r
ate
py
ros
fno
rrrr
al)
or
SC.5
ac
t co
n1
*
I*/
*lo
/ *
I*/
the
SC
S E
?.t
iGs
(ba
ck
up
).
SC
S l
cl
ve
rt
se
c
se
c
se
c
An
gu
lar
rate
in
dic
ato
r d
efl
ec
t~o
n f
or
po
siti
ve
(4
) ro
tati
on
al
inp
ut
co
mm
an
d.
Ind
ica
tor
De
flc
c-
hx
is o
f R
eta
tio
n
tio
n f
rom
Ze
ro
po
siti
ve
co
mm
an
d)
(ce
nte
r)
roll
le
ft
pat
ch
UP
yaw
le
ft
-
Tel
emet
ry
I S
.nir
rnc
Clr
cu
tl
Po
wer
C
od
e N
o.
.. t
s*.
,;.
P~
)LL
~IC
.T~
F
iin
crgon
B
r.e
ate
r S
cu
rce
an
d J
dc
nti
t~ ,
S
ierr
aark
s
4.
5
D.4
.t.r
) c
v.
I,!
trrr
.rr
Th
t- e
vrn
t tr
mrr
pro
vrd
rs t
he
EVENT
D-C
nra
ln
Non
e T
he
even
t tk
rr1c
.r is
a r
afrr
e-net
. c
r~
u
wit
h r
m
ea
ns of rn
on
itb
rrn
g
TlM
Eti
b
use
s A
an
d
fiy
stew
. on
ly r
od
rs 4
uto
rnat
r%u
I:y
an,!
trn
irn
y r
vrn
ts.
Indi
ratr
c.ns
MN A
R
rrsc
t to
zero w
hen
dn
ab
r,rt
1s ..u
rl.-
frl.
m O
U r
r.rn
utr
s an
d O
D s
rcb
nd
3
!AN
6
1 m
alrc
ally
ur
man
un
lly
ir.
~t~
ate
,l.
(UO
-00
) tc
. i'+
m
inu
tes
and
(M
aw
-25
) 5
') j
rcu
nd
s (5
9-i
9)
are
ob
tarn
able
I
. T
he
cv
rnt
tim
rr s
tart
s a
lit~
,in
~t~
c;r
tly
rn
Lw
ntu
p o
r co
un
tdo
wn
mod
*.
whe
n li
ft-o
ff t
brr
urs
.
In i co
un
tdp
mo
de.
w
hen
59
-59
is
: re
co
rde
d,
the
co
un
ter
wll
p
roce
ed t
o 0
0-0
0 a
n0
co
ntr
nu
e r
o
cou
nl
up.
In a
. co
un
tdo
wn
mo
de.
co
r~tr
nu
ou
s co
un
tin
g r
e a
lso
av
atla
ble
.
L'V ,
UT
E i
~~
ht
n
lur
nl~
trn
red
iu
in
drc
atr
that
E
DS
- 1.
3
Ba
tte
ry
BSO
OLO
X
'Whe
n u
sed
rn
coaj
un
ctro
n w
rlh
rh-
the
pe
rmis
sib
le *
ng
ulr
r ra
tes
rn
BA
T A
b
use
s A
an
d
(hu
nc
h
ang
le-o
f-at
tack
d
isp
lay
an
d t
he
htl
i-
any
of
prt
ch.
roll
, o
r ya
w a
xe
s B
AT
B
B w
hen
th
e v
ehic
le
tud
e e
rro
r re
adin
g o
f th
e F
DA
I,
w~
ll
ho
ve
bee
n e
xce
eded
. R
ate
s in
(M
DC
-25
) EDS POWER
rate
rn
drc
ate
the
ne
ce
ssit
y for m
;r11
ua1
,cnc
emm
of
20
de
gre
esl
sec
on
da
in
sw
itch
e
xc
ess
ive
a
bo
rt t
nit
iatt
on
. T
he
lig
ht
als
o
. . 'r
oll
and
5 d
eg
ree
sfse
co
nd
In.
(M
OC
-24
) A
) ,l
lum
inat
ecc.
wh
en a
n a
uto
ab
ort
is
pit
ch o
r y
aw i
llu
min
ate
(he
rale
'
IS
O
N.
init
iate
d b
ecau
se o
f excessiv
e ra
tes.
Ir~
ht.
L.'
Y C
UD
~a
~h
r
Rlu
nrn
ate
r. r
ed
tn
in
dic
ate
pk
t-
. BS
OO
jbX
form
fa
lure
In
th
e L
I V g
uid
ance
( L
a .mc h
. 'v
ehic
le
mys
tern
(lo
ss o
f at
titu
de
con
tro
l).
:gu
idan
ce
,fa
il A
) --
-
-
LIV E
NG
INE
S l
rgh
ts
All
en
grn
e li
gh
t8 a
re y
ello
w.
L#
ht SG. 1
D
lum
rnat
ea t
o r
nd
rcat
e. S
-IB
or
BS
0030
X
Th
e li
ghts
are
use
d t
o r
nd
icat
e st
ag
-
5-1
VB
en
grn
e Fh.
1 o
per
atin
g
( En
gin
e tn
g a
nd
th
e. n
ec
ere
ity
fo
r in
itia
lin
g a
.bel
ow 9
0 p
erce
nt
of t
ota
l th
rust
,
:NO
. 1
ou
t m
anu
al a
bo
rt w
hen
tw
o S
-IB
rn
~:n
rs
cap
abiJ
tty
. A
) a
re o
pe
ratr
ng
bel
ow
90
prr
crn
t of
b
thru
st.
Whe
n en
able
d i
n t
he
auto
L~
gh
t ?:G.
2 ~
lum
tmte
n. to
:n
d~
ca
te 5-I
B
BS
0032
X
abo
rt m
ode,
an
au
tv a
bo
rt u
.111
be
eng
tnc
NG
. 2
op
erat
tng
. b
elo
w 9
0
(En
gin
e I
init
rate
d ~
7t
h
two
en
gin
es b
eio
w 90
per
cen
t uf
tu
tal
thru
st c
a~
ab
~li
ty.
No.
2
our
per
cen
t of
th
rust
. a
Ltg
ht
Pic.
3
Illu
mrn
ates
to
~n
dic
ate
S-IB
' BS
0034
X
en
g~
ne
!So.
3 o
per
atin
g.
bel
ow
90
,(
En
gin
e
pex
cen
t of
t
~t
al
th
rust
cap
abil
ity
. i
'NO
. 3
ou
t A
)
Li~
ht tb
. 4
~Il
lum
~n
ste
s
to r
nd
icat
e S
-IJ3
B
SOO
36X
'
ien
grn
c N
o.
4 o
ptn
tin
g. b
elo
w 9
0
:(E
ng
ine
pe
rcrn
t ~
f to
ta!
thru
st c
ap
ab
il~
ty.
'No.
3
ou
t A
)
----. -
, I T
ele
rnrt
ry
~.
t .:
Cir
cu
it
P.,
urr
C
od
e N
u.
: .
.I.
b.'
.,.t
i,,:
F
~~
.c.t
ron
B
rea
ke
r S
.~u
rce
an
d I
den
trty
H
t~rn
ark
s
:.?IN
:-
-, 1.
1 :l
dr
,sq
4. .;
Ill~
rn:~
n~
t..s
tt
. r:
iei~
catc
5-1
1:
t7D
S-
I.
3 B
att
ery
BbGC3BX
!' a
. .,
I)
c.n
s~n
c XI,.
5
ep
cra
tin
g b
clo
w 7
0
BA
T A
h
usc
s A
an
d
!En
~in
e
perc
en
t o
f to
tal
thru
st c
ap
ab
~ll
ty.
BA
T B
B
wh
en t
he
N
o.
5 o
ut
A)
(~p
c-2
s)
ED
S P
OW
ER
L
~q
ht N
o.
b Il
lum
rna
tes
to ~
nd
ica
tc S-I
B
swit
ch
B
S0040X
e
ng
ine
No.
h
op
era
tin
g b
elo
w 9
0
(MD
C-2
4)
(En
gin
e
pe
rce
nt
of
tota
l th
rust
cap
ab
ilit
y.
is O
N.
No.
6
.ou
t A
l
I.lq
ht
Nu.
7
Illu
mrn
ate
s to
~n
dic
ate
S-I
B
BSO
O4L
X
. e
ng
ine
No.
7 o
prr
ati
ng
\,c
law
90
(E
ng
ine
pv
rcrn
t of
tcjt
~1
thru
st c
ap
ab
~li
ty.
No.
7 o
ut
A)
Illr
~m
rna
tes to
Lndic
ate
S-I
R
BS
0044X
en
gin
e N
o.
6 o
pe
rati
ng
bel
ow
90
(E
ng
ine
pe
rce
nt
of to
tal
thru
st c
ap
ab
ilit
y.
No.
8 o
ut
A)
,
LIF
T-O
FF
an
d N
O A
UT
O
BSO
O6O
X
Th
e L
IFT
OF
F/N
O A
UT
O A
BO
RT
B
S0061X
sw
itc
h/l
igh
t co
mb
inati
on
sh
ou
ld b
e
(Lif
t-o
ff
pre
sse
d i
f th
e L
IFT
OF
F l
igh
t d
oe
s si
gn
al
A I B
: not
illu
min
ate
at
lift
off
. (R
efe
r to
m
alf
un
cti
on
pro
ce
du
res,
.
I Th
e re
lay
co
ntr
oll
ing
th
e w
hit
e li
gh
t is
re
se
t 5
sec
on
ds
aft
er
lift
-off
by
a
tim
er
in t
he
LIV
in
stru
me
nta
tio
n u
nll
None
Th
e a
stro
na
ut
wil
l p
res
s t
he s
wit
ch
- li
gh
t w
hic
h. w
ill
ele
ctr
ica
lly
en
ab
le
I th
e L
V-E
DS
au
tom
ati
c a
bo
rt s
yst
em
. If
the
lig
ht
sti
ll d
oe
s n
ot
go o
ut,
it
in
dic
ate
s th
at
on
e o
r b
oth
of
the
du
al
I re
du
nd
an
t E
DS
sy
ste
ms i
s n
ot
en
ab
led
. In
th
is e
ve
nt,
th
e c
rew
m
ust
be
pre
pa
red
to
in
itia
te a
man
ual
a
bo
rt,
if. n
ec
ess
ary
.
CD
OkO
IX
LE
IPc
m
oto
r fi
re
init
iate
A
CD
OIO
ZX
L
E/P
c
mo
tor
fire
Th
e L
ES
nro
tor
is n
orm
all
y (
au
to-
ma
tic
all
y)
fire
d a
pp
rox
ima
tely
Oi
1
seco
nd
by
th
e M
ES
C f
oll
ow
infi
ab
ort
in
itia
tio
n.
It m
ay
be
use
d f
or
a b
ack
u
p f
or
the
je.t
tiso
n m
oto
r o
nly
aft
er
no
rmad
mea
,s-
of
TW
R j
ett
iso
n h
as
fail
ed
. T
his
is
ass
um
ing
th
at t
he
L in
itia
te B
T
WR
se
pa
rati
on
nu
ts a
re f
rac
ture
d.
I
Nar
ate
and
C
irc
uit
P
ow
er
Lo
ca
t~o
n
Po
sstl
on
F
un
cti
on
B
rea
ke
r S
ou
rce
MI
X-
5
CA
NA
RD
DE
PL
OY
sW
ltrh
B
ack
up
su
f~tc
h
to d
ep
loy
th
e
MA
ST
ER
B
att
ery
(C
r.n
t)
ca
na
rd w
hen
it
do
es
no
t d
eplo
y
EV
EN
T5
b
use
s A
an
d
au
turn
rt~
ca
lly
du
rin
ga
n a
bo
rt.
SE
O C
ON
T-
B
A A
Wd
B.
BA
T A
B
AT
B
AD
AP
SEP s
wit
ch
'a
. S
wit
ch
fo
r n
orm
al
CS
M/S
-IV
B
- E
MD
C-2
2)
sep
ara
tio
n a
fte
r th
e a
sc
en
t p
ha
ac
of
the
mis
sio
n,
(Re
fer
to a
da
pte
r se
pa
rati
on
mecha-
nis
m i
n s
ec
tio
n 2
.)
b.
Bac
ku
p s
wit
ch
fo
r C
SM
.,'S-I
VB
se
pa
rati
on
if
rt d
oe
s not
se
pa
rate
au
tom
ati
ca
lly
du
rin
g
an
SPS a
bo
rt.
(Re
fer
to S
PS
a
bo
rt p
roc
ed
ure
s. )
.
h
z 0
AP
EX
COVER JETT s
wit
ch
B
ack
up
sw
itc
h t
o j
ett
iso
n t
he
ELS A
- ti.
C/M
ap
ex
co
ve
r.
BA
T A
-
i! F
LO
AT
B
AG
3
4
ELS B
-
0" BAT B
5 (M
DC
-25
) 0
r
m
I D
RO
GU
E D
EP
LO
Y s
wit
ch
B
ack
up
sw
itch
. to
de
plo
y t
he
9 d
rog
ue
pa
rac
hu
tes.
z I
m
t- lm
hX
IN D
EP
LO
Y s
wit
ch
B
ack
up
sw
itc
h t
o d
ep
loy
!he
ma
in p
ara
ch
ute
s.
Co
de N
o.
and
Id
en
tity
R
em
ark
s
CD
OIZ
OX
P
ush
-ty
pe
sw
itch
. T
he
ca
na
rd u
sill
C
DC
121X
n
orm
all
y (
au
tom
ati
ca
lly
) d
eplo
y
I I
Ca
na
rd
sec
on
ds
aft
er
a L
FS
ab
ort
in
itia
tar;
n.
dep
loy
A
an
d B
CD
Ol Z
SX
Ad
ap
ter/
S
M s
ep
ara
te
init
iate
A
CD
Of
26X
A
da
pte
r/
SM
se
pa
rate
in
itia
te B
CD
O23
0X
Fo
rwa
sd.
he
at
shie
ld
jett
iso
n A
C
D0
23
1X
F
orw
ard
h
ea
t sh
ield
je
ttis
on
B
CE
OO
OlX
D
rog
ue
dep
loy
re
lay
c
lose
A
CE
OO
OZ
X
Dro
gu
e
dep
loy
c
lose
B re
lay
CE
00
03
X
Main
pa
ra-
ch
ute
de
plo
y
-dro
gu
e
rele
as
e
rela
y A
cJ
30
00
4x
M
ain
pa
ra-
ch
ute
dep
loy
-d
rog
ue
re
lea
se
re
lay
B
Pu
sh-t
yp
e s
~i
tc
h
to s
ep
ara
te t
he
a
da
pte
r w
hen
an
SF'
S a
bo
rt c
an
no
t b
e in
itia
ted
wit
h t
he
co
mm
an
de
rs t
ran
s-
~ lati
on
al
co
ntr
ol.
S
PS
ull
ag
e a
nd
'
firi
ng
would
b
e m
an
ual
fun
cti
on
s.
Pu
sh-t
yp
e s
wit
ch
to
je
ttis
on
th
e C
/M
ap
ex
co
ve
r if
th
e a
uto
ma
tic
sy
ste
m
fail
s d
uri
ng
an
ab
ort
or
ea
rth
lan
din
g
aft
er
a n
orm
al
mis
sio
n.
Pu
sh-t
yp
e sw
itch
. T
he
dro
gu
e p
ara
- c
hu
tes
wil
l n
orm
all
y (
au
tom
ati
ca
lly
) d
ep
loy
2 s
ec
on
ds
aft
er
the
24.
00
0
fee
t b
aro
sw
itc
h c
lose
s.
Pu
sh-t
yp
e sw
itch
. T
he
ma
in p
ara
- c
hu
tes
wil
l n
orm
all
y (
au
tom
ati
ca
lly
) d
ep
loy
wh
en t
he
10
.00
0 f
ee
t b
ar0
sw
itc
h c
lose
s d
uri
ng
de
sce
nt.
T
he
sw
itc
h i
s a
lso
use
d t
o i
nit
iate
ma
nu
al
dep
loy
men
t o
f th
e m
ain
pa
rac
hu
tes
du
rin
g a
bo
rts i
nit
iate
d p
rio
r to
61
se
co
nd
s a
fte
r li
ft-o
ff.
Te
lem
etr
y
' .,.: , .,
, ,_
Cir
cu
it
P .
v.:.r
Co
de
No.
,\
sfit
, k,,,
,fi,
>!t
k
ulri
< li
on
B
rea
ke
r 5
,) ~
ri
r.
a
nd
Id
enti
ty
Rm
sa
rks
\ld
l<:-
- 1%
,ck
,q,
.\\t
rc
1
4 .
It,
, b
4 ~,
IIIU
-SI
N/A
N
/ A
N
one
#i( ~8
1~
1)
LU
CK
L
oc
ks
the
ba
ck
up
sw
itc
he
s lo
p
rey
6 n
t ln
dd
ve
rtc
nt
op
era
tio
n.
UPJ
I.O
CK
U
nlc,
cks
.and
rn
db
les
the
ba
ck
up
.~
w~
rrl.
e?
. to b
c p
ush
ed
mn
nu
.+!l
y.
- --
ZlD
C-6
.\
?TIT
U
DE
SE
T g
ruu
p !
En
ab
les
rnan
u.31
in
sert
ion
of
.I
de
sir
ed
alt
ilu
de
rrf
e>
+.n
cc
~n
lo
the
SC
S.
erth
e-r
for
AG
CU
.a
lig
n-
rnen
t o
r l
of
a c
om
ma
nd
ed
SIC
rn
an
cu
vc
r re
fere
nc
e d
ur-
in
g S
CS
fli
gh
t m
od
es.
RO
LL
. P
ITC
H,
YA
W
En
ab
le m
an
ua
l se
lec
tio
n a
nd
S
CS
- A
-C b
us
:N
on
e
Yaw
th
um
bw
he
el
is m
ark
ed
wit
h a
thu
rnb
wh
ee
ls a
nd
d
isp
lay
of
de
sir
ed
ro
ll,
prt
ch,
GROUP 1
N
O.
1 o
r
slri
pe
, d
en
oti
ng
ya
w a
ng
les
of
75
. ~
nd
;ca
tors
a
nd
ya
w a
ttlt
~d
r se
ttin
gs
refe
r-
,AC
1
. N
O.
L a
nd
285
.. a
s a
ca
uti
on
ag
ain
st d
iali
ng
en
ce
d t
o S
/C n
av
iga
tio
n a
xe
s.
GR
OU
P 1
in
se
ttin
gs
at
wh
ich
GC
N I
MU
gim
ba
l
AC 2
loc
k o
r e
xc
es
siv
e S
CS
AG
CU
er
ro
r
fMD
C-2
5).
cd
n o
cc
ur.
indic
ato
rs p
rov
ide
dig
ita
l ty
pe
d
isp
lay
s.
FD
A1
AL
IGN
sw
itct
i n
. C
ou
plc
s m
an
ua
lly
se
lec
ted
S
a-
D
-C m
ain
M
om
en
tary
-co
nta
ct
~u
sh
bu
tto
n sw
itc
h
(dia
led
in
) a
ttit
ud
e s
ett
ing
s G
RO
UP
1
bu
s A
or
?
wh
ich
mu
st be
he
ld e
ng
ag
ed
un
til
into
th
e S
CS
fo
r al
ign
nh
ent
.MN
A
ali
gn
me
nt
is c
om
ple
ted
. c,
i th
e p
res
en
t S
IC r
efe
ren
ce
M
N B
a
ttit
ud
e s
tore
d i
n t
he
AG
CU
(M
DC
-25
) S
CS
AGCU a
lig
pm
en
t s
lew
ra
les
to
th
e d
es
ire
d r
efe
ren
ce
a
ttit
ud
e.
roll
-
LO
'lse
c
h.
Ve
co
up
les
no
rma
l S
CS
Rh
fAC
. p
itch
-
5'l
sec
in
pu
ts t
o t
he
AG
CU
a
nd
th
e
ya
w
- 5
'lse
c
BM
AG
S a
re f
ree
xy
ros
un
til
the
sw
~t
~h
is
re
lea
sed
. P
erf
orm
th
e F
DA
I/A
GC
U a
lig
n
c.
hll
gn
s t
he
FD
A1
alt
itu
de
ba
ll
fun
cti
on
. to
th
e d
iale
d-i
n a
ttit
ud
e,
I re
fere
nc
ed
to
SIC
nav
igat
ior.
1
ax
es
, in
SC
S f
lig
ht
mo
de
s I
on
ly.
i
I
OF
F
Te
lem
etr
y
Na
me
an
d
Cir
cu
it
Po
we
r C
od
e N
o.
Lo
ca
t~o
n
Po
s&ti
on
F
un
cti
on
S
ou
rce
a
nd
Id
en
tity
R
em
ark
s B
rea
ke
r
?,?P
C- h
AT
T S
ET
rw
icc
-h
SC
S-
D-C
ma
in
Nb
nc
Tll
r. a
tt~
l~~
alc
sc
t h
~n
<
tio
n \
\I,IC
1,
(Co
nt)
G
RO
UP
1
bu
s A
or R
cnab
1t.
a S
IC n
un
cil
vt.
r 11
, 3 #
Lt.
slrc
ll
On
(u
p)
.r.
Cr,
trp
lrs
thr
atlt
bu
de
dif
fer-
;d
N
A
(dia
led
in
) ~
tt
it
~~
~l
t.
is
,~
~tp
Itt
.A~I
L. f
~>
rnc
t. ;
angl
e.-s
to t
he
FD
A1
~I
II
-
MN
B
SC
S f
l5p
tlt
mo
des
or11
y.
Th
r ~
lca
:~.c
cl
tud
e e
rr
or
in
drc
alo
rs,
(MD
C-2
5)
atta
ttld
c 1s s
ch
~c
vrc
l by
Ily
inc
*,t
~t lf
it
.
rert
rrc
nrp
d t
o S
/C b
ody
ax
es,
a
ttit
ud
e e
rro
r nc
t.cl1
r.s.
11
sir1
): 1)
1c
b.
Da
co
up
les
no
rma
l S
CS
B~
AG
ro
tati
on
co
nlr
irl.
:n
pu
ts
to t
he
FD
A1
att
itu
de
e
rr
or
in
dic
ato
rs.
(BM
AG
s c
on
tin
ue
to
op
era
te n
orm
all
y
oth
erw
ise
. )
Inh
ibit
s tn
e a
ttit
ud
e s
et
fun
cti
on
.
GIM
BA
L P
OS
ITIO
N g
rou
p
Pro
vid
es
dis
pla
y a
nd
ma
nu
al
SC
S-
A-C
bu
s
co
ntr
ol
of
gim
ba
led
SPS e
ng
ine
C
RO
UP
1
No.
1 o
r
thru
st
ax
is.
ori
en
tati
on
wit
h
AC
J &
AC
Z
NO
. Z
res
pe
ct
to S
IC b
od
y a
ne
s.
GR
OU
P Z
.
. A
CI
LA
C2
E
MD
C-2
5!
i
YA
W.
PIT
CH
P
rov
ide
drs
pla
y o
f ip
gin
e g
imb
al
(via
ya
w
CH
31
35
.V
Yaw
in
dic
ato
r a
nd
th
um
bw
he
el
ar
e
ind
bc
ato
rs
posi
tion.
rea
do
uts
wit
h r
es
pe
ct
an
d p
ltc
h
(.p
itch
GPI
ca
lib
rate
d i
n 0
.5.
inc
rem
en
ts f
rom
to
S/C
ya
w a
nd
pit
ch
(b
od
y)
EC
As
1 a
mp
de
mo
d
-3.
to C
13'.
Ce
nte
r re
ad
ing
of
t4'
ax
es.
re
spe
cti
ve
ly.
ou
t )
co
rre
sp
on
ds
to
ya
w ~
imh
al p
osi
tio
n
nu
ll.
du
e t
o e
ng
ine
off
set
for
S/C
CG.
- Y
AW
, P
ITC
H
Pro
vid
e m
an
ua
l y
aw a
nd
pit
ch
(v
ia d
isp
lay
/ N
on
e P
itc
h i
nd
ica
tor
an
d t
hu
mb
wh
ee
l a
re
th
um
bw
he
els
~
np
ut c
om
ma
nd
s to
re
spe
cti
ve
A
GA
A E
CA
) c
ali
bra
ted
in
0.5
. ~
nc
rem
en
ts fr
om
en
gin
e g
imb
al
po
siti
on
. s
erv
os
-9.
to t9'.
Ce
nte
r re
ad
ing
of
0'
for
ali
gn
me
nt
of
SP
S e
ng
ine
c
orr
esp
on
ds
10 o
itc
h g
imb
al
po
sill
on
thru
st
ax
is t
hro
ug
h S
IC
CG
, n
ull
. p
rio
r to
SP
S t
hru
stin
g.
Th
um
bw
he
el
dis
pla
ce
me
nt
in a
T
rim
min
g o
f g
imb
al
po
siti
on
s b
y u
se
po
stli
ve
d~
rec
tio
n wil
l p
rov
ide
o
f th
e t
hu
mb
wh
ee
ls i
s p
oss
ible
u,h
en
a
rela
tiv
e p
osr
tiv
e g
imb
al
pe
rfo
rmin
g MTVC.
Gro
up
L c
irc
uit
p
oa
itio
n i
nd
ica
tor
dis
pla
y i
nd
i-
pro
vid
es
po
we
r to
MT
VC
c r
rcu
its.
c
att
ng
no
zz
le p
os
~tl
ori
ng
fur
a
po
siti
ve
&is
d
~s
pla
ce
me
nt w
he
n
thru
st i
s i
nit
lare
d.
. ,
. -.- - - -
Te
lem
etr
y
S.a
ri~
t-
and
C
irc
uit
P
or
er
C
od
e N
o.
Fu
nc
tio
n
Bre
ak
er
So
urc
e
and
Id
en
tity
R
em
ark
s P
osi
tio
n
%1I
>C
- 7
DII
IEC
'T
UL
I.A
CE
sw
ttrh
P
rov
rdv
s b
ack
up
ca
pa
bil
~ty
for
SC
S-
D-C
ma
tn
Non
e M
om
en
tary
-co
nta
ct
pu
shb
utt
on
lnit
irti
ng
ull
ag
e (
+X
tra
nsl
ati
on
) D
IRE
CT
b
us
A o
r B
swit
ch
wh
ich
mu
st b
e h
eld
en
gag
ed
pri
or
to S
PS
bu
rns-
C
ON
T
un
til
ull
ag
e i
s c
om
ple
ted
. M
N A
a.
~n
er
hlz
es
inje
cto
r v
alv
e
MN
B
Tra
nsl
ati
on
co
ntr
ol
pro
vid
es
no
rma
l
dir
ec
t c
oil
s of
fo
ur
+X
SM
(M
DC
-25)
c
ap
ab
ilit
y f
or
init
iati
'ng
ull
ag
e.
RC
S e
ng
ines.
b.
Dis
en
ga
ge
s a
uto
ma
tic
at!i
- tu
de.
ho
ld c
ap
ab
ilit
y i
n p
itch
a
nd
yaw
ax
es.
ItiR
US
T O
N s
wit
ch l
igh
t a.
S
wit
ch
ac
tua
tio
n a
pp
lie
s m
an
ua
l S
PS
en
gin
e t
hru
st-o
n
GR
OU
P I
log
ic c
om
ma
nd
to
SC
S
MN
A
illu
min
ati
on
.
b.
Sw
itch
fa
ce
ill
um
inati
on
. C
H43
ZL
X
Sw
itch
fa
ce
do
es
no
t in
dic
ate
ap
pli
- (S
PS
so
len
oid
c
ati
on
of
thru
st o
nlo
ff c
orn-
man
ds v
ia
ind
ica
tes
ap
pli
ca
tio
n o
f SPS
en
gin
e t
hru
st-o
n s
ign
al
fro
m
con
Lro
l v
alv
e
the N
OW
L/O
FF
/DIR
EC
T
ON
e
ne
rgiz
ed
) sw
itch
(M
DC
-7).
G
&N
sy
ste
m o
r T
HR
US
T O
N
ow
itch
to
SC
S e
lec
tro
nic
s:
Lig
ht
is e
xti
ng
uis
he
d w
hen
SPS e
ng
ine
th
rust
-off
si
gn
al
fro
mG
BN
' sy
ste
m. AV
RE
MA
ININ
G c
ou
nte
r,
or
flig
ht
co
mb
ust
ion
sta
bil
ity
m
on
ito
r is
de
tec
ted
in
SC
S
Sw
itch
. is
a t
hre
e-p
osi
tio
n i
ev
er-
loc
k
SC
S-
DIR
EC
T
tog
gle
sw
itch
. T
o s
et
the
sw
itc
h i
n
the
NO
RM
AL
po
siti
on
cr t
he
DIR
EC
T
CO
NT
NO
R M
A L
En
ab
les
cir
cu
it c
ap
ab
ilit
y f
or
ON
po
siti
on
, ~
ul
l
the
le
ve
r o
ut
pa
st
MN A
en
erg
izin
g o
f'S
PS
fu
el a
nd
ox
i-
MN B
th
e l
ev
er
loc
k [
sho
uld
er
sto
p)
and
mo
ve t
he
le
ve
r u
p a
nd
dow
n.
reo
pe
c-
diz
er
co
ntr
ol
sole
no
ids
by e
ith
er
(MD
C-2
5)
tiv
ely
. T
he
in
-Cig
ht
po
siti
on
of
the
AG
C o
r T
HR
US
T O
N s
wit
ch
sw
itc
h i
s t
he
OF
F (
ce
nte
r) p
osi
tio
n.
! st
imu
li,
pro
vid
ing
all
oth
er
log
ic i
s c
om
pli
ed
wit
h.
DIR
EC
T O
N p
osi
tio
n p
rov
ide
s c
ap
a-
i b
ilit
y o
f b
yp
ass
ing
th
rust
on
lo
gic
c
irc
uit
an
d i
nit
iati
cg
SP
S e
ng
ine
fi
rin
g d
ire
>tl
y.
. .
. .
,
. .
OF
F
Te
lern
ctr
y
Sa
~t
tr
an
d
Cir
cu
il
Po
wc
r C
od
e N
o.
: ,,.
,nth
u.
PIE
.L~
LG
>II
F
~rn
ctr
on
R
rea
ke
r S
otr
rc,.
a
nd
Id
en
tity
I<
ern
,ark
s
?.lI
)(.-
7
1)1
10
:('1
U
S
Co
r.n
rcts
t2
8 v
dc
dir
rc
t fr
om
S
CS
I
-
I N
on
e 'I
'lte
l)Il
<b:
<:'l
' O
N >
\\it
ch
ov
t!rr
i,l~
.s
1 (.
t~
.l
)
c ~
rc
ul
l
brt
:.tk
cr
I.,
51
'5
pil
ot
:)IH
CC
'I'
l,u
ses
.\.o
r F
CS
M.
':
'a
,ntr
c,l
v.t
l\..
so
len
oid
s.
CO
N1
' 13
!
pfN
x
En
crg
i,.c
a 51
'5
dr
~v
er
re1.
1yh K1
b?N
B
.an
d E
L.
wh
rch
pro
vid
e p
ow
er
(MD
C-2
5)
.jp
pl~
ca
tlo
n to
hl-
liu
m i
sol.
~ti
on
v
alv
es
an
d P
UG
S.
1 I
AS :;
&I
bu
ltrh
E
n.t
ble
s d
es
ire
d A
V
to b
c p
l~
ce
d S
CS
a1
5 v
dc
Th
e P
V s
el
swit
ch
is
a f
ive
-po
siti
on
o
n AV
RE
Sf:
\lN
INC
d
isp
lay
. C
RO
UP
I
fro
m DISP/
swit
ch
wit
h.
two
t
(AV
in
cre
;,sc
) A
C 1
A
GA
A E
CiZ
I po
siti
on
s;
two
- (AV d
ec
rc.~
se
) ps
i-
U
pp
er
h.a
rdst
op
E
n.t
ble
s ln
cre
.,se
of
JV
G
RO
UP
1
tio
ns.
d
nh
.hn O
FF
(c
en
ter)
po
siti
on
. (
up
~~
~r
r~
~o
~t
R
EIC
f.\I
IiI:
.iG
rlis
pla
y .
kt
rate
of
AC
t
po
srtl
nn
) 6
4 d
~s
it
s pe
r s
ec
. (
hlr
>~
-2
5)
Up
pr
au
itst
r,p
k;
n.ab
les
inc
rca
sc. o
f 3
V
u
ti
le
I<
Ehl
;ZIN
LP
i(i d
isp
l.~
y d
l r
z.1
~ of
p(>
blt
1o
n)
L d
igit
s p
er
sc
c.
Crn
tcr
pt~
sati
on
P
rov
ide
s i
nh
ibit
to
AV
co
un
ter
dlt
cr
TV
C F
l p
ow
er
swit
ch
is
tu
rne
d o
n u
nti
l a
xX u
lla
ge
is
in
itia
ted
, t:
xcc
pt
wh
en
op
en
.
Lo
we
r s
ofl
sto
p
En
ab
les
de
cre
as
e o
f A
V
(lo
u.e
r m
idd
le
RE
lrl;
\lN
lNG
d
isp
lay
at
rate
of
po
stti
on
) 2
dig
i1s
lprr
ae
c.
Lo
ue
r h
..rd
sto
p
En
ab
les
dr'
rre
as
e o
f A
V
(bu
tto
rrim
os
t R
Eh
lAIN
lNG
dis
pla
y a
t ra
te o
f p
osi
lio
n)
64
dig
its
lpe
r s
ec
.
AV
R
Eh
l.\l
NIN
G
inrl
icd
tor
L)i
spld
ys
bV
mrg
nit
ud
r. a
nd
/or
DIS
PIA
GA
A C
fl3
18
bV
W
hen
. th
e S
PS
en
gin
e i
s t
hru
stin
g.
JV
RE
ILI:
\IN
ING
in
fe
el
pe
r E
CA
AV r
en
min
- th
e A
V R
EM
AlN
lNG
in
dic
ato
r se
co
nd
. in
g
rec
eiv
cs
a s
ign
al
fro
m t
hr SCS
X-a
xis
ac
ce
lero
me
ler,
d
riv
ing
th
e
ind
ica
tor
low
iard
ze
ro.
Th
e A
V
RE
MA
ININ
G d
isp
lay
is
ac
liv
ale
d
wh
en
th
e T
VC
1 POWER s
wi1
ch
.i~
8
se
t to
eit
he
r A
C I
or
AC
2 p
osi
tio
n
I an
d th
e in
teg
rato
r ci
rcu
it t
hre
sh
old
. I
of 5
x g
ha
s b
ee
n a
tta
ine
d w
hil
e
S p
erf
orm
ing
a +
X (
on
ly)
tra
ns
lati
on
m
an
eu
ve
r.
Ac
ce
lers
lio
n s
en
sin
g
I w
ili
be
gin
at
ull
rgc
or
fX
HC
S
tra
ns
lati
on
in
itia
tio
n.
An
in
dic
:rli
ng
ra
ng
e f
rom
-10
00
(99
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0)
to 1
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99
fe
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ls)
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21
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r 0
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fls
. w
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e and
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cu
it
Po
we
r C
od
e N
o.
Fu
nc
tio
n
Bre
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er
So
urc
e
and
Id
enti
ty
Re
ma
rks
Lo:
atro
n P
os
~t~
on
atnc
-n
hf I
N
Se
lec
ts m
bn
imu
m d
ead
ban
d o
f SCS-
D-C
ma
in
Non
e M
inim
um
dea
db
and
1s
use
d o
nly
wh
en
[Co
nt )
.O
.L*.
G
RO
UP
1
bu
ses
A o
r
tig
ht
atti
tud
e c
on
tro
l is
re
qu
ire
d;
h4N
A
B
e,. g
.,
du
rin
g n
avig
atio
nal
sig
hti
ng
s
I M
N B
an
d p
rio
r to
an
dd
uri
ng
aV
ma
ne
uv
ers
.
(MD
C-2
5)
No
po
wer
to
th
is s
wit
ch
du
rin
g SCS
or
G&
N e
ntr
y m
od
es:
the
refo
re,
min
imu
md
ea
db
an
d c
an
no
t be
sele
cte
d d
uri
ng
en
try
.
ilA
TE
GY
RO
mw
ltch
cs
Pro
v~
de
ma
nu
al
ca
pa
bil
ity
to
T
he
se s
wit
ch
es
pla
ce a
ny
or
all
. of
pla
ce t
he
ro
ll,
pit
ch,
or
yaw
th
e B
MA
Cs
in b
ack
up
ra
te m
od
e o
f
BM
AG
in
th
e b
ack
up
ra
te m
ode.
~
pe
rati
on
~s
o
that
th
ey
ma
y b
e u
sed
of o
pe
rati
on
. in
pla
ce o
f: th
e r
ate
gy
ros
to p
rov
ide
spa
ce
cra
ft r
ate
sta
bil
iza
tio
n.
In
RO
LL
ad
dit
ion
, w
ith
an
y o
ne
of t
he
RA
TE
G
YR
O s
wit
ch
es
in t
he
BM
AG
po
siti
on
NO
R.M
AL
A
llow
s. n
orm
al
I3M
P.G
an
d r
ate
an
d, a
ny
on
e of
th
e fo
llo
win
g s
ele
cte
d.
gy
ro o
pe
rati
on
. , t
he
rem
ain
ing
tw
o B
MA
Gs
wil
l a
uto
- m
ati
ca
lly
ass
um
e t
he
bac
ku
p r
ate
P
mo
de
of o
pe
rati
on
: .0
5G
EN
TR
Y
0
HW
4G
En
ab
les
Bh
lAG
ra
te- m
od
e of
o
pe
rati
on
re
mo
vin
g r
ate
gy
ro
swit
ch t
o .
05
C E
NT
RY
po
siti
on
. s
sig
na
l fr
om
ra
te i
nd
ica
tors
, e
tc.
mo
nit
or
mo
de
sele
cte
d.
GL
N a
ttit
ud
e
9
co
ntr
ol
mo
de
se
lec
ted
, m
inim
um
z
imp
uls
e a
ttit
ud
e c
on
tro
l m
od
e u
PIT
CH
.
eng
aged
. C
&N
en
try
mo
de
sele
cte
d.
NO
RkW
L
All
ow
s n
orm
al
Bh
UG
an
d r
ate
e
ith
er
rota
tio
n c
on
tro
l o
ut
of
gy
ro o
pe
rati
on
. n
eu
tra
l p
osi
tio
n. SCS l
oc
al
ve
rtic
al.
o
r o
ne SCS c
ha
nn
el
dis
ab
led
wh
ile
in
SC
S a
ttit
ud
e c
on
tro
l m
od
e.
9
RM
AG
E
na
ble
s B
MA
C r
ate-
mode o
f 'o
pe
rati
on
, re
mo
vin
g rate g
yro
2
-sig
na
l fro
m r
ate
in
dic
ato
rs.
etc
.
YA
W N
OR
WL
A
llo
ws
no
rma
l B
MA
G a
nd
ra
te
. W
hen
in a? SCS m
od
e,
the
att
itu
de
gy
ro o
pe
rati
on
. '
refe
ren
ce
ca
pa
bil
ity
is
lo
st w
hen
an
y
on
e of
. th
e B
MA
Gs.
is
in
bac
ku
p r
ate
!
B W
4G
E
nab
les
BM
AG
ra
te m
od
e o
f m
od
e.
Att
itu
de
info
rma
tio
n i
s m
ain
-
op
era
tio
n,
rem
ov
ing
ra
te g
yro
i
tain
ed i
f o
pe
rati
ng
, in
a G
&N
mo
de.
..
,
sig
na
l fr
om
ra
te i
nd
icat
orb
. e
tc.
. 0%
E
ST
RY
sw
ltc
h
En
ab
les
the
SCS f
or
atm
osp
he
ric
.0
5C
EN
TR
Y s
wit
ch
is
eff
ec
tiv
e o
nly
fli~
t.t d
ur~
ng
en
try
an
d. a
fte
r w
hen
a G
LN
or
SC
S e
ntr
y m
od
e is
0. o
sgs
sele
cte
d.
. OiC
EN
TR
Y
A.
Re
mo
ve
s a
ttit
ud
e e
rro
r A
fte
r .0
5G
EN
TR
Y p
osi
tio
n i
s
s~
gn
als
fro
m p
~tc
h an
d y
aw
sele
cte
d,
pla
cin
g a
ny
on
e o
f th
e
f ha
nn
els
In
G&
N m
od
e an
d
BM
AG
s in
ba
ck
up
ra
te m
od
e w
ill
p18c
h.
yaw
., an
d r
oll
ch
an
ne
ls
au
tom
ati
ca
lly
pla
ce
all
BM
AG
s In
1 ~
n S
CS
mo
de
s.
bac
ku
p r
ate
mo
de
co
nfi
gu
rati
on
. T
hlq
OF
F
Te
lem
etr
y
%a
c,.
r ax
.., C
irc
uit
Powc r
Co
de
No.
c... ..!a
,r r.,
~.:
.~m
F
uc
cl~
on
B
rea
ke
r S
ou
rce
an
d l
den
tity
R
em
ark
s
Sl:>l- w
L
. In
cre
ase
s th
e ra
te d
ead
ban
d
SC
S-
'D-C
ma
in
Non
e re
sult
s rn
lo
ss o
f F
DA
1 to
tal
att
itu
de
1 .n
t)
fr
om
0.2
. p
er
se
c t
o 2
' p
er
CR
OU
P I
b
use
s A
or
dis
pla
y,,
oth
erw
ise
, to
tpl
att
itu
de
SCC.
PAN
. A'
B
dis
pla
y i
s p
rov
ided
,.
c.
En
erg
rzrs
a c
rrc
uit
wh
rch
?A
N. B
c
ou
ple
s a
co
mp
on
ent
of t
he
(M
DC
-25
) D
uri
ng
en
try
th
e S
/C i
s m
an
eu
vere
d
roll
ra
te .
rgnaI
rn
to t
he y
aw
abo
ut
the
sta
bil
ity
ro
ll a
xis
ra
the
r c
ha
nn
el.
th
an t
he
bo
dy
ro
ll a
xis
. C
on
seq
uen
tly
th
e y
aw r
ate
gy
ro g
en
era
tes
an
O
FF
A
llo
rcs
no
rma
l sy
ste
m o
pera
tro
n.
un
de
sira
ble
ra
te s
rgn
al.
B
y c
ou
pli
ng
a
co
mp
on
ent
of
the r
oll
sig
na
l in
to
the
yaw
ch
ann
el.
the
un
de
sira
ble
ai
gn
al i
s c
an
ce
lle
d.
LCL V
ER
T s
u,t
ch
E
nab
le.
5C
S f
or
loc
al
ve
rtic
al
CH
.110
3X
. Th
e l
oc
al
ve
rtic
al
mo
de
ma
inta
ins
mo
de o
pe
rati
on
. (S
CS
lo
ca
l th
e S
/C a
ttit
ud
e w
ith
re
spe
ct
to th
e
ve
rtic
al
ea
rth
s lo
ca
l v
ert
ica
l.
mo
de
LC
L V
EH
T (
up
) S
ele
cts
. SC
S l
oc
al
ve-r
tlcal
mo
de
co
ntr
ol)
W
ith
.lo
cal
ve
rtic
al
mo
de e
ng
ag
ed
, a
n
wh
en u
sed
rn
co
nju
nctr
on
mth
o
rbit
ra
te s
ign
al
eq
uiv
ale
nt
to p
itch
. C
L-N
ISC
S s
wit
ch
an
d A
TT
ITU
DE
/ ra
te o
f a
pp
rox
ima
tely
4.
1
pe
r M
ON
ITO
R/E
NT
RY
sw
itch
. m
inu
te i
s ap
pli
ed
to
th
e p
itch
BM
AC
to
rqu
e m
oto
r.
Th
is f
igu
re i
s f
or
a
Dis
eng
ages
lo
ca
l v
ert
rca
l m
od
e.
10
0 NM e
art
h o
rbit
. F
DA
1 t
ota
l a
tti-
tu
de
is r
efe
ren
ce
d t
o l
oc
al
ve
rtic
al.
A
ttit
ud
e e
rro
r v
alu
es
rep
rere
nt
de
vi-
a
tio
n f
rom
se
lec
ted
lo
ca
l v
eri
ica
l a
ttit
ud
e.
If th
e S
IC i
s m
an
eu
ve
red
aft
er
loc
al
ve
rtic
al
mo
de i
s s
ele
cte
d,
the
4.
1.
pe
r m
inu
te.
orb
rt r
ate
mig
nal
pre
- v
iou
sly
ap
pli
ed
on
ly t
o th
e p
itch
gy
ro
wil
l be
ap
pli
ed
to
all
th
ree
gy
ros.
T
his
is
ac
co
mp
lish
ed
by s
um
min
g
and
re
solv
ing
tir
e n
ew s
tep
pe
r m
oto
r p
osi
tio
n o
utp
uts
wit
h t
he o
rbit
al
rate
si
gn
al
in t
he n
av
-to
-bo
dy
tra
nsf
orm
a-
tio
n c
irc
uit
s.
AV
mw
ttch
E
na
ble
s S
CS
fo
r C
LN
or.
SC
S
CH
OlO
OX
T
his
sw
itc
h w
ork
s in
co
nju
ncti
on
wit
h
JV
mo
de
op
era
tio
n o
r M
TV
C.
(GL
NA
V
the G
&N
/SC
S sw
itc
h a
nd
th
e A
TT
I-
mo
de)
TU
DE
/MO
NIT
OR
/EN
TR
Y
swit
ch
. ,A
pp
l~e
r a.a
ign
a1
to
th
e S
CS
M
TV
C i
s a
ctu
ate
d o
nly
wh
en t
he A
V
ele
ctr
on
~c
s en
ab
lrn
g t
he
sy
ste
m
CH
lIOO
X
swit
ch
is
in
th
e A
V
po
siti
on
an
d w
hen
fo
r J
V m
od
es
of o
pe
ratr
on
an
d
(5cA
V m
od
e)
the
tra
nsl
ati
on
co
ntr
ol
is r
ota
ted
CW
. a
lso
em
ble
m m
an
ua
l th
rust
M
TV
C i
s in
dep
en
den
t of
CL
N/S
CS
v
ec
tor
co
ntr
ol
(MT
VC
), o
f th
e
CH
lIO
4X
swit
ch
. tr
an
sla
tro
n c
on
tro
l SW
sw
itch
[M
TV
C
rs c
lose
d.
mo
de
) In
th
e A
V p
osi
tio
n.
DC
po
wer
is
ap
pli
ed
to
th
e F
CS
M-G
LN
'an
d F
CS
M-
I SC
S rw
itc
he
s IM
DC
-2).
SMZA-03-Sc012
APOLLO OPERATIONS HANDBOOK
CONTROLS A N D DISPLAYS .-
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OF
F
OF
F
Te
lem
etr
y
:;.,,,.w
'.,it
* C
irc
uit
P
ow
er
Co
de
No.
! .. a
t,..
, t?
>.r
~t>
u~
i F
un
cti
on
B
rea
ke
r S
ou
rce
an
d I
den
tity
R
em
ark
s
SIM
I<
CS
'X
ll~
4 -n
S
wit
ch,
Fu
ncti
on
E
ng
ine
( 6
u~
rl)
YA
W
Yaw
ri
gh
t B
7,
D5
YA
W
Yaw
le
ft
B6.
D8
I3II
) R
OL
L
SC
S-
D-C
m
ain
N
one
CIM
RC
S
B&
D R
OL
L
bu
ses
A o
r
Sw
itch
F
un
cti
on
E
ng
ine
On (
UP
) ;\
pp
l~e
s tL
8 v
dc
to t
he
no
rrn
irl
hlN
A
B
inje
cto
r v,t
lva
sole
no
idr
and
M
N
B
BL
D R
OL
L
Ro
ll r
igh
t A
9.
B11
sole
no
id r
l rlv
er
ele
ctr
on
ics,
~
nd
B
&D
RO
LL
R
oll
le
ft
A1Z
. B
10
,11
1o
~in
g no
rma
l I<
CS
en
gln
e G
RO
UP
1
Pit
ch
up
A
l.
B3
PIT
CH
.
op
er.
~ti
on
. M
N A
an
d
Pit
ch
do
wn
A
Z.
64
P
lTC
H
MN
B
Y
AW
Y
aw ri
gh
t A
5.
B7
Rem
ov
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tZ8
vd
c Ir
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e
(MD
C-2
5)
YA
W
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le
ft
A8.
B6
OF
F
no
rnla
l in
jec
tor
valv
e s
ole
no
ids
and
th
e d
riv
er
sole
no
id a
mp
li-
AC
ro
ll s
wit
ch
is a
pp
lic
ab
le t
o S
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fie
r.
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ibit
s n
orm
al
man
ual
RC
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ng
ines
on
ly a
nd
pro
vid
es
no
rot.
atio
n c
on
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l cap
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r C
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0
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uto
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tic c
on
tzo
l of
R
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0
en
gin
e o
pe
rati
on
. z c3.
scs-
T
he
se
sw
.itc
hes
are
use
d t
o d
isa
ble
20
PIT
CH
th
e R
CS
en
gin
es'
in U
le e
ve
nt
of
a r
nal-
O
Ap
pli
es
t28
vd
c to
th
e n
orn
~a
l MN A
fu
nct
ion
or
wh
en
ev
er
it m
ay
be
op
era
-
inje
cto
r v
alv
e s
ole
no
idh
an
d
MN
B
tio
nall
y d
esi
rab
le;
e.
g.,
SIC
fre
e d
rif
sole
no
id d
riv
er
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ctr
on
ics.
an
d
for
pu
rpo
ses
of p
rop
ella
.nt
co
nse
rvati
on
: '
allo
win
g n
orm
al
RC
S e
ng
ine
GR
GU
P 1
z
op
era
tio
n.
MN
A a
nd
D
ire
ct
co
ntr
ol
of t
he
RC
S i
s a
va
ila
ble
, M
N
B
usi
ng
th
e D
IRE
CT
RC
S s
wit
ch
an
d t
he
Ite
n~
ov
es tl8
vdc
fro
m th
e (M
DC
-25
) ro
tati
on
co
ntr
ol.
n
orm
al
inje
cto
r v
alv
e s
ole
no
ids
I '13
'
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d
the d
riv
er
sole
no
id a
mp
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er.
r
Inh
iblt
s n
orr
nal
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ual
rota
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n
>
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ntr
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ilit
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nd
SC
S a
uto
- 4
U)
nr~
tic
co
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KC
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ine
op
erd
tio
n.
.- S
CS
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N
A
Ap
pli
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tZ8
vd
c to
th
e n
orm
al
MN
B
inje
cto
r v
alv
e s
olk
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d
ad
d
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ics.
G
RO
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p
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t to
in
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Co
nti
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PR
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RE
in
dic
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n M
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S W
AL
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P H
I In
dic
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all
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Yel
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In
dic
ato
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pu
t is
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em
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res
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sy
ste
~n
\ o
r B
, a
s s
ele
cte
d b
y E
SS
n
(Fu
el
sy
ste
m),
th
e R
CS
IN
DIC
AT
OR
S s
wit
ch
. M
N
A
.A-C
R0
00
5P
'
(Me
ter
ran
ge:
0 t
o 4
00
psi
a.
) M
N
R
13
-CR
00
0h
P
(MD
C-2
2)
-
. - -
- .- - . - -
- -. . . . . -
. --
OX
In
dic
ate
s re
gu
late
d h
eli
um
pre
s-
Reg
ula
ted
Ile
'
su
re t
o t
he
ox
idiz
er
tan
k o
f C
IM
pre
ss
(O
X
RC
S s
yst
em
4 o
r R, a
s g
elec
!ed
syst
em
) b
y t
he
RC
S
~N
D~
C~
TO
RS
sw
itch
. A
-CR
00
11
P
(Me
ter
ran
ge:
0 t
o 4
00
psi
a.
) - -. - - - - - -
. -
- - - -- -
- - ..-
-- - -
B-C
R0
01
2P
--
RC
S I
ND
ICA
TO
RS
sw
itc
h
Se
lec
ts i
np
uts
to
th
e p
rop
ell
an
t N
IA
N/A
N
one
Six
-po
siti
on
ro
tary
sw
itch
. C
IM
tem
pe
ratu
re,
an
d p
res
su
re
sec
tio
n o
f sw
itc
h,
po
siti
on
s .\ a
nd
R.
ind
icati
ng
de
vic
es.
C
IM s
ec
tio
ns
pe
rmit
s m
on
ito
rin
g c
om
ma
nd
mo
du
le
I A
an
d l3
fun
cti
on
s a
re
id
en
tic
al
pro
pe
lla
nt
sy
ste
ms .4
an
d R.
SIM
w
ith
in t
he
ir r
esp
ec
tiv
e s
yst
em
s.
sec
tio
n o
f sw
itch
.,
po
siti
on
s A
. B, C
. S
IM s
ec
tio
ns
t\.
R.
C,
an
d D
an
d D
pe
rmit
s m
on
ito
rin
g s
erv
ice
fu
ncti
on
s a
re
id
en
tic
al
wit
hin
m
od
ule
pro
pell
an
t sy
ste
ms o
f q
ua
ds
the
ir r
esp
ec
tiv
e s
yst
em
s:
A,
B.
C,
an
d D
.
Co
nn
ects
Clh
! R
CS
sy
ste
m A
(R)
sig
na
l o
utp
uts
fro
m t
em
pe
ratu
re
and
pre
ssu
r&tr
an
sdu
cers
toth
e a
pp
rop
ria
te i
nd
icati
ng
de
vic
es.
-
- - .
. - --
- .-. --
. -
SIM
se
cti
on
.a (R
. C
. D
) C
on
nects
S/M
R
CS
qu
ad
A (B
. C
. .i
nd D
) si
gn
al
ou
tpu
ts f
rom
te
mp
era
ture
an
d p
res
su
re t
ran
s-
du
ce
rs a
nd
th
e p
rop
ell
an
tqu
an
tity
se
nsi
ng
co
nip
ute
r to
th
e a
pp
rop
ri-
ate
in
dic
ati
ng
de
vic
es.
_o._ _
_O'd E
M
Z
3
._ t .x
=
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APOLLO OPERATIONS HANDBOOK
CONTROLS AND DISPLAYS
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AC
K
Re
ma
rks
Sw
itch
se
t to
BO
OS
T a
t p
rrl.
sun
ch
to p
rec
lud
e t
he
po
ss
~b
ilit
y of
co
nfu
s-
ion
on
MD
C-3
be
twe
en
th
e r
ed
M
AS
TE
R A
LA
RM
lig
ht
an
d t
he
a
dja
ce
nt
red
AB
OR
T l
igh
t d
uri
ng
th
e c
riti
ca
l a
sce
nt
ph
ase
.
Sw
itch
is
se
t to
AC
K t
o r
eta
in,d
ark
a
da
pta
tio
n.
Wit
h s
wit
ch
an
this
po
si-
tio
n a
nd
up
on
re
ce
ipt-
of
a m
alf
un
cti
on
si
gn
al,
on
ly t
he
MA
ST
ER
AL
AR
M l
igh
ts
wil
l. i
llu
min
ate
an
d a
na
lar
m t
on
e b
e se
nt
to e
ach
. he
ad
set.
T
o d
ete
rmin
e
the
ma
lfu
nc
tio
n e
ith
er
MA
ST
ER
A
LA
RM
sw
itc
h-l
igh
t m
ay
be
p
res
se
d t
o i
llu
min
ate
th
e a
pp
rop
ria
te
syst
em
sta
tus
lig
ht.
T
he
lig
ht
wil
l re
ma
in i
llu
min
ate
d o
nly
as.
lo
ng
as
th
e s
wit
ch
-lig
ht
is p
res
se
d.
Alt
ho
ug
h
up
on
re
lea
se
all
sy
ste
m s
tatu
s li
gh
ts
ar
e e
xti
ng
uis
he
d,
the
y m
ay
be
rec
ay
- le
d a
s l
on
g a
s t
he
ma
lfu
nc
tio
n e
xis
ts
by
ag
ain
pre
ssin
g e
ith
er
swit
ch
-lig
ht.
Th
e a
ud
io c
en
ter
wil
l n
ot
be
ac
tiv
ate
d
un
less
th
e P
OW
ER
sw
itc
h i
s i
n P
TT
o
r V
OX
po
siti
on
.
Inte
rco
m c
ap
ab
ilit
y w
he
n c
ob
ra
ca
ble
PT
T'/
CW
sw
itc
h i
s i
n CW
an
d
tra
ns
mit
cap
abil
'ity
w
ith
PT
T/C
W
swit
ch
in
PT
T.
Te
lem
etr
y
Co
de
No
. a
nd
Id
en
tity
No
ne
Po
we
r S
ou
rce
D-C
ma
in
bu
ses
A a
nd
B
Fli
gh
t a
nd
p
ost
lan
din
g
bu
s
Cir
cu
it
Bre
ak
er
CA
UT
l W
AR
N
MN
A
MN
B
(MD
C-2
5).
TI
C
GR
OU
P 5
(M
DC
-22
)
Na
me
an
d
Lo
ca
tio
n
Po
sit
~o
n
X1i
)C - 1
l BOOST
(,C
ust
)
PO
WE
R s
wit
ch
PT
T
OF
F
Fu
nc
tio
n
a.
Ap
pli
es
d-c
po
we
r to
25
C/M
s
ys
tem
sta
tus
lig
hts
, p
erm
it-
tln
g r
llu
min
ati
on
of
lig
hts
u
po
n r
ec
eip
t o
f m
a'lf
un
ctio
n
sig
na
ls.
b.
Ap
pli
es
d-c
po
we
r to
on
e
po
le o
f C
AU
T/
WA
RN
-MO
DE
sw
itc
h.
wh
ich
in
tu
rn m
ay
a
pp
ly p
ow
er
to I5
S/M
s
ys
tem
s s
tatu
s l
igh
ts.
c.
Re
mo
ve
s d
rc p
ow
er
fro
m
MA
ST
ER
AL
AR
M s
wit
ch
-lig
ht
fin
MD
C-3
, p
rev
en
tin
g i
llu
mi-
n
ati
on
of
lig
ht
up
on
re
ce
ipt
of
ma
lfu
nc
tio
n s
ign
als
du
rin
g t
he
a
sc
en
t p
ha
se.
a.
Re
mo
ve
s d
-c p
ow
er
fro
m 2
5 C
/M s
ys
tem
sta
tus
lig
hts
, p
rev
en
tin
g i
llu
min
ati
on
of
lig
hts
up
on
re
ce
ipt
of
ma
l-
fun
c ti
on
sig
na
ls.
b.
Re
mo
ve
s d
-c p
ow
er
fro
m o
ne
po
le o
f C
AU
T/ W
AR
N M
OD
E
swit
ch
, th
ere
by
re
mo
vin
g
po
we
r to
15
S/M
sy
ste
m
sta
tus
lig
hts
, '
c.
Pla
ce
s p
ush
-sw
itc
h
fun
cti
on
o
f b
oth
M,A
ST
ER
AL
AR
M
swit
ch
-lig
hts
in
to t
he
d-c
c
irc
uit
of
the
sy
ste
m s
tatu
s li
gh
ta.
Th
is p
rev
en
ts
illu
min
ati
on
of
the
sy
ste
m
sta
tus
lig
hts
up
on
re
ce
ipt
of
ma
lfu
nc
tio
n s
ign
als
un
til
eit
he
r p
ush
-sw
itc
h
is
pre
ss
ed
to
co
mp
lete
th
e
cir
cu
it.
Co
ntr
ols
po
we
r to
se
nio
r p
ilo
ts
mo
du
le i
n a
ud
io c
en
ter
eq
uip
me
nt.
Ap
pli
es
d-c
po
we
r to
au
dio
an
d
co
ntr
ol
cir
cu
its.
Re
mo
ve
s p
ow
er
fro
m s
en
ior
pil
ots
au
dio
ce
nte
r e
qu
ipm
en
t m
od
ule
an
d c
on
tro
ls.
Te
lem
etr
y
Nar
ne
and
C
irc
uit
P
ow
er
Co
de N
o.
L.u
catl
on
Po
s~
t~o
n
Fu
nc
'io
n
Bre
ak
er
So
urc
e
and
Id
en
tity
R
em
ark
s
LID
C-
13
VO
X
.a.
Ap
plr
rs d
5c
po
wer
to a
ud
io
TIC
F
lig
ht
and
N
one
VO
X o
pv
rati
on
pc
rrn
its
vo
irt.
tra
ns
- (C
:s~
nt)
.%
nd
co
ntr
ol
c~
rcu
its
. G
RO
UP
5
po
stla
nd
ing
n
liss
ion
am
d tr
ansm
itte
r h
vy
ing
of
b.
En
ab
les
VO
X
co
ntr
ol
of m
ike
(MD
C-L
L)
bu
s in
ta:r
com
i If
F R
vco
vt:
ry
tra
nsc
vtv
..~
a
rn
pl~
f~
er
by s
up
ply
~n
g
and
va
irc
re
co
rdt.
r w
.hcn
co
bra
r;a
blv
g
rou
nd
tu
VO
X c
irc
uit
ry.
I'TT
ICL
V
swit
ch
is
at
PT
T.
S-B
AN
D s
wlt
ch
N/ A
A
ud
io c
en
ter
Th
e S
-BA
ND
, H
F,
VH
F-A
M,
and
eq
uip
men
t IN
TE
RC
OM
sw
itc
he
s a
ll c
on
tro
l,
T/ R
N
o e
ffe
ct.
S
-Ban
d T
/R f
un
cti
on
g
rou
nd
re
turn
pa
ths
for
appro
pri
ate
su
pp
lied
by c
ob
ra c
ab
le P
TT
key
. d
iod
e sw
itc
hin
g a
nd
so
la a
t ion
c
irc
uit
ry i
n t
he
sen
ior
pil
ots
mo
du
le
OF
F
Pre
ve
nts
se
nlo
r p
ilo
t fr
om
tra
ns-
of
th
e au
dio
ce
nte
r eq
uip
men
t to
mlt
tln
g o
r re
ce
ivin
g v
oic
e o
ve
r al
low
tra
nsm
issi
on
an
d r
ecep
tio
n.
US
BE
. o
r re
cepti
on a
lon
e,
of
vo
ice.
sig
na
ls
ove'
r s-
lec
ted
eq
uip
men
t.
Th
e. H
F
RE
C
En
ab
les
sen
ior
pil
ot
to r
ec
eiv
e
and
VH
F-A
M s
u,i
tch
es
als
o p
rov
ide
vo
ice
fro
m U
SB
E.
gro
un
d r
etu
rn p
ath
s fo
r th
e H
F a
nd
VHF-AM t
ran
smit
ter
key
ing
cir
cu
its
wh
en i
n t
he
T/R
po
siti
on
.
RC
DR
IIIF
su
itc
h
T/R
a.
E
na
ble
s se
nlo
r p
ilo
t to
P
rov
ide
s p
ow
er
gro
un
d t
hro
ug
h a
ud
io
tra
nsm
it a
rid
re
ce
ive
vo
ice
ce
nte
r V
OX
cir
cu
it f
or
HF
tra
ns-
ov
er
MF
tra
nsc
eiv
er
wh
en
c
eiv
er
tra
nsm
it-r
ec
eiv
e
rela
y a
nd
op
era
lin
g i
ri A
M o
r S
SB
mo
de.
vo
ice
rec
ord
er
po
wer
rela
y.
b.
En
ab
les
vo
ice r
ec
ord
er
t.~
rou
gh
VO
X
circ
uiL
.
Pre
ve
nts
se
nio
r p
ilo
t fr
om
tra
ns
- m
itti
ng
or
re
ce
ivin
g v
oic
e o
ve
r 1f
F t
ran
sce
ive
r.
RE
C
En
ab
les
sen
ior
pil
ot
to r
ec
eiv
e
vo
ice f
rom
HF
tra
nsc
eiv
er
wh
en
o
pe
rati
ng
in
AM
or
SS
B m
od
e.
VH
F-A
M s
wit
ch
T/R
E
na
ble
s se
nio
r p
ilo
t to
tra
nsm
it
VH
F-A
M,
tra
nsm
its,
in
ad
d~
tio
n to
an
d r
ec
eiv
e v
oic
e o
ve
r V
HF
-AM
S
-Ban
d v
oic
e,
wh
en c
ob
ra c
ab
le
tra
nsm
itte
r-re
ce
iee
r w
hen
P
TT
key
is
clo
sed
. C
ob
ra c
ab
le
op
era
tin
g i
n TJR m
od
e.
PT
TlC
W s
wit
ch
mu
st be- 2
1 P
TT
. an
d a
ud
io c
en
ter
PO
WE
R s
wit
ch
~
re
ve
it
s
sen
ior
pil
ot
fro
m t
ran
s-
mu
st b
e a
t P
TT
.
mit
t~n
g or
rec
eiv
ing
vo
ice o
ve
r V
HF
-AM
tra
nsm
itte
r-re
ce
ive
r.
OF
F
OF
F
Te
lem
etr
y
Na
me
an
d
Cir
cu
it
Po
we
r C
od
e N
o.
Lo
crtz
on
P
os
~t~
on
F
un
cti
on
S
ou
rce
an
d I
den
tity
R
em
ark
s B
rea
ke
r
III>
C - l
3
RE
C
En
ab
les
sen
ior
pil
ot
to r
ec
elv
e
NIA
A
ud
io c
en
ter
None
(:C
unt )
v
oic
e f
rom
VH
F-A
M
eq
uip
men
t tr
, ts
mit
ter-
rec
eiv
er.
lNT
ER
CO
M s
wit
ch
T/H
E
na
ble
s se
nio
r p
ilo
t to
tra
nsm
it
Au
dio
cc
ntr
r P
OW
ER
sw
itch
mu
st b
e
an
d r
ec
eiv
e v
oic
e o
ve
r th
e i
nte
r-
at VOK t
o e
na
ble
mik
e a
mp
lifi
er
co
m s
yst
em
. w
hen
co
bra
ca
blc
PT
YIC
W
swit
ch
. is
at
PT
T.
OF
F
Pre
ve
nts
se
nio
r p
ilo
t fr
om
tra
ns-
m
itti
ng
or
rec
eiv
ing
vo
ice o
ve
r in
terc
om
sy
ste
m.
RE
C
En
ab
les
sen
ior
pil
ot
to r
ec
eiv
e
vo
ice f
rom
.in
terc
om
sy
ste
m.
VO
X S
EE
D c
on
tro
l In
cre
ase
s o
r d
ec
rea
ses
sen
si-
Th
ese
th
ree
co
ntr
ols
are
th
um
bw
hee
l-
tiv
ity
of
vo
ice
-op
era
ted
re
lay
ty
pe
po
ten
tio
me
ters
wh
ich
ma
y b
e
cir
cu
itry
in
se
nio
r p
ilo
ts a
ud
io
rota
ted
up
ward
or
do
wn
ward
, a
s
ce
nte
r m
od
ule
. re
qu
ire
d.
INT
ER
CO
M B
AL
AN
CE
In
cre
ase
s o
r d
ec
rea
ses
lev
el
of
Po
siti
on
9 m
ost
se
nsi
tiv
e.
co
ntr
ol
au
dio
sig
na
l re
ce
ive
d b
y s
en
ior
pil
ot
fro
m RF e
qu
ipm
en
t re
lati
ve
to
th
at
rec
eiv
ed
fro
m
inte
rco
m b
us.
VO
LU
ME
co
ntr
ol
Inc
rea
ses
or
de
cre
ase
s le
ve
l o
f a
ud
io s
ign
al
fro
m s
en
ior
pil
ots
e
arp
ho
ne
am
pli
fie
r to
ea
rph
on
e.
TA
NK
PR
ES
SU
RE
in
dic
ato
rs
Dis
pla
ys
for
Hz
an
d 0
2 ta
nk
s N
o.
1,
and
2 o
pe
rate
pri
or
to C
SM
se
pa
ra-
HZ
gro
up
ti
on
on
ly.
Ind
ica
tors
1
an
d L
Dis
pla
ys
Hz
tan
k N
o.
I an
d N
o.
2
ES
SE
N-
S/M
IN
ST
S
FC
03
9P
T
he
in
dic
ato
r fu
ncti
on
is
co
ntr
oll
ed
pre
ss
ure
an
d i
s u
sed
as
fo
llo
ws:
T
IAL
-3
PW
R
(Pre
ss
Hz
by
pre
ssu
re t
ran
sdu
ce
rs l
ocate
d i
n.
(RH
EB
204)
DI5
T
tan
k N
o.
I)
Hz
tan
k N
o.
I an
d N
o.
2 o
utl
et
a.
De
term
ine
ta
nk
he
ate
r an
d f
use
in
li
ne
s.
' T
he
se t
ran
sdu
ce
rs a
re a
lsc
p
erf
orm
an
ce
. S
IM-
SF
00
40
P
co
nn
ecte
d t
o C
&W
S,
op
era
tin
g t
he
b.
D
ete
ct
lea
ks.
(P
res
s Hz
H2 P
RE
SS
lig
ht
on
MD
C-1
0.
Hz
tan
k N
o.
2)
op
era
tin
g r
an
ge
is
23
0 t
o 2
60
psi
a.
Ala
rm t
rig
ge
r v
alu
es
ar
e 2
20 p
sia
i lo
w.
~.n
d 270 p
sia
hig
h.
Te
lem
etr
y
Na
n~
c
an
d
Cir
cu
it
Po
wrr
C
od
e N
o.
I..,.
a
tlo
n
Po
s~
tio
n
Fu
nc
tio
n
Bre
ak
er
So
urc
e
an
d I
de
nti
ty
Re
ma
rks
11
DC
- I
3
OL
yr
o~
~p
E
SS
EN
- S
/M I
NS
T
ICc.
nr)
'I
'IA
L-3
PWR D
IST
In
41
c.rt
or
I D
~s
pla
ys
prc
ss
urr
of
02
tan
k
(RH
t:R
20
4)
SF
00
37
P
Wit
h 02 PRESS I
ND
sw
itc
h a
t. T
AN
K
No.
I o
r E
CS
su
kg
e t
an
k a
s
an
d f
usc
in
(P
res
s 0
2
1,
the
in
dic
ato
r fu
nc
tio
n i
s c
on
- se
lec
ted
by
02
PR
ES
S I
ND
S
IM
tan
k N
o.
1 tr
oll
ed
by
a p
res
su
re t
ran
sa
uc
e.~
sw
ltc
h (
MD
C- 13) a
nd
IS
use
d a
s
loc
ate
d i
n 0
2 ta
nk
No.
1
ou
tle
t I
~n
e.
foll
ow
s:
CF
00
06
P
Tra
ns
du
ce
r a
lso
co
nn
ec
ted
to
C&
WS
. (P
res
s
op
era
tin
g 0
2 P
RE
SS
lig
ht
on
MD
C-1
0.
a.
De
term
ine
ta
nk
he
ate
r s
urg
e t
an
k)
02 op
era
tin
g r
an
ge
is
865 t
o 9
35
p
erf
orm
an
ce
. -
psi
a.
Ala
rm t
rig
ge
r v
alu
es
ar
e
b.
Dr-
tect
Ie
zk
s.
80
0 p
sia
lo
w a
nd
95
0 p
sia
hig
h.
Wit
h
c.
Ve
r~
fy
su
rge
t.m
k
pre
ss
ure
. O
L P
RE
SS
1N
.D s
wit
ch
at SURGE
TA
NK
po
siti
on
, in
dic
ato
r d
isp
lay
s si
gn
al
fro
m E
CS
su
rge
. ta
nk
p
res
su
re t
ran
sd
uc
er.
Ind
~c
ato
r 2
U~
sp
lay
s 02
tan
k N
o.
C p
res
su
re
SF
00
38
P
Th
e i
nd
ica
ror
fun
cti
on
is
co
ntr
oll
ed
:~
nd
:s u
se
d a
s f
oli
ow
s:
(P
re
ss
02
b
y a
pre
ss
ure
tra
ns
du
ce
r lo
cate
r!
in
tan
k N
o.
2)
02
tan
k N
o. 2
ou
lle
t li
ne'.
Tra
ns
- a
. D
ete
rmin
e t
an
k h
ea,t
cr
- d
uc
er
als
o c
on
ne
cte
d t
o C
&W
S.
pe
rfo
rmi~
n#
:c.
op
era
tin
p 0
2 IJ
fiE
S.5
L~
ph: u
n M
DC
- 10
. b.
3e
tr;t
1, 3,:s.
02
op
er
rt~
ng
range i
s. 8
65 t
o "
935
ps
~a
. A
iarr
n t
rig
err
va
lue
s ;I
re S
O0
p
sxa
:op,
and 9
50
psi
a h
~g!r
:
TA
NK
OL
'.-\N
TI?
'Y
~n
dic
ato
r
ii
~
~r,
>II
?
Ind
ica
ror
I D
~s
pl.
~y
s
qn
~r.
r::)
- of
132
CR
SD
- A
-C b
ur
SI'O
O30
Q
HZ
qu
an
tity
dis
pla
y r
an
ge
is
0 to
rr
.m.>
l::l
np
it:
tan
k N
o.
1.
GENIC
So.
I b
C
(Qu
anti
ty
28
Ib.
SY
ST
Eh
l-
Hz
tan
k
QT
Y
No.
I)
A
MP
L I
A
C I
-
PC
(M
DC
-LZ
) -
Dis
pla
ys
qn
an
t:ty
ef HL
CR
YO
- A
-C b
us
SF
?0
3 1
Q
rem
ain
ing
tn
ta
nk
No.
L.
GE
NIC
N
o. 2 B
C
(Qaa
nti
ty
SY
ST
EM
- 13
2 ta
nk
Q
TY
N
o. 2)
AMPL 2
A
C 2 - PC
(MD
C-Z
Z)
Ind
icat
or
2
AU
TO
OF
F
Te
lem
etr
y
Na
mr
an
d
Cir
cu
it
Po
we
r C
od
e N
o.
Lo;
atao
n P
osi
tio
n
Fu
nct
ion
B
rea
ke
r S
ou
rce
an
d I
den
tity
R
em
ark
s
x11)
C-
I %
OL
gro
up
(C
on
t )
Ind
icat
or
I D
isp
lay
s q
uan
tity
of
02
C
RY
O-
A-C
bu
s S
F0
03
2Q
0
2 q
uan
liry
dis
pla
y r
an
ge
is
0 t
o
rem
ain
ing
in
ta
nk
No.
1.
G
EN
IC
No.
I
PC
(Q
uan
tity
3,L
O I
b.
SY
ST
EM
- 0
2 ta
nk
P
TY
N
o.
1)
AM
PL
1
AC
1 -
QC
(M
DC
-22
)
Dis
pla
ys
qu
anti
ty o
f 0
2
CR
YO
- A
-C b
us
SF
00
33
0
rem
ain
ing
in
tan
k N
o.
2.
GE
NIC
N
o.
2 P
C
(Qu
anti
ty
1 !$?EM -
02
tan
k
No.
2
) A
Mf
L 2
A
C 2
- b
C
(MD
C-2
2)
HZ
HE
AT
ER
S s
wit
ch
es
Non
e R
edu
nd
ant
he
ate
r e
lem
en
ts i
n e
ach
, H
z t
ank
re
qu
ire
s 1
0 w
att
s o
f p
ow
er
Sw
itc
he
s 1
an
d 2
C
on
tro
ls d
-c p
ow
er
to H
z t
an
ks
CR
YO
- D
-C m
ain
fo
r ea
ch. e
lem
en
t.
No.
1
an
d 2
he
ate
r e
lem
en
ts,
GE
NIC
b
us
A
resp
ec
tiv
ely
. S
YS
TE
M -
4 T
AN
K
En
ab
les
+u
tom
atic
pre
ss
ure
H
EA
TE
RS
- S
wit
ch a
t A
UT
O p
osi
tio
n w
ill
ap
ply
sw
itc
he
s to
co
ntr
ol
d-c
p
ow
er
to
HZ
- 1
d-c
vo
ltag
e to
Hz
tan
ks
No.
1
an
d 2
H
z t
an
ks
Nol
1
an
d 2
he
ate
r ..M
N A
re
du
nd
ant
he
ate
r e
lem
en
ts w
hen
e
lem
en
ts.
(MD
C-2
2)
pre
ssu
re s
wit
ch
es
in b
oth
ta
nk
s a
re
in a
lo
w-p
ress
ure
po
siti
on
at
230
CR
YO
- D
-C m
ain
p
sia
or
low
er.
an
d r
em
ov
e d
-c v
olt
- G
EN
IC
bu
s B
a
ge
wh
en e
ith
er
prr
ss
ure
sw
itc
h i
s
SY
ST
EM
- in
a h
igh
-pre
ssu
re p
osi
tio
n a
t T
AN
K
26
C p
sta
or
hig
he
r.
HE
AT
ER
S -
Dis
co
nn
ec
ts d
-c p
ow
er f
rom
HL
H
z -
2
tan
ks
No.
I
an
d 2 h
ea
ter
WN
5
e?
em
en
ts.
(MIX
;-2
2)
- C
on
tro
ls d
-c p
ow
er
dir
ec
tly
to
S
wit
ch a
t O
N (
ma
nu
al)
po
siti
on
by
- H
Z ta
nk
s N
o.
1 a
nd
2 h
ea
ter
pa
sse
s th
e p
res
su
re s
wit
ch
es
app
ly-
ele
me
nts
. in
g d
-c v
alt
ag
e d
ire
ctl
y t
o t
he
sa
me
re
du
nd
ant
he
ate
r e
lem
en
ts
emp!
oyed
fo
r a
uto
ma
tic
op
era
tio
n.
OFF
ON
Tel
emet
ry
Cir
cu
it
Po
wer
C
od
e N
o.
Fu
nct
ion
S
ou
rce
and
Id
enti
ty
Re
ma
rks
Red
un
dan
t h
eare
r e
lem
en
ts i
n e
ach
02 ta
nk
re
qu
ire
s 77.5 w
att
s of
Sw
ltch
rs I
an
d 2
C
on
tro
ls d
-c p
ow
er t
o 0
2 ta
nk
s C
RY
OG
EN
IC D
-C m
ain
p
ow
er f
or
ea
ch
cle
men
t.
No
. 1
and
L h
ea
ter
ele
me
nts
. S
YS
TE
M -
bu
s A
. resp
ec
t~v
ely
.
AUTO
En
able
s au
tom
atic
pre
ssu
re
Sw
itch
at
AU
TO
po
siti
on
wil
l ap
ply
d
-c
vo
ltag
e to
02
tan
ks
No.
1.
and
L
02
tan
ks
No.
1 a
n% 2 h
ea
ter
red
un
dan
t h
ea
ter
ele
me
nts
wh
en
ele
me
nts
. p
ress
ure
sw
itc
he
s in
bo
th t
an
ks
are
in
a l
ow
-pre
ssu
re p
osi
tio
n a
t 865
psi
a o
r lo
we
r an
d w
ill.
re
mo
ve
d-c
v
ola
age
wh
en e
ith
er
pre
ssu
re s
wit
ch
io i
n a
hig
h-p
ress
ure
. p
osi
lio
n a
t 935 v
ia o
r h
igh
er.
Dis
con
nec
ts d
-c p
ow
er f
rom
O2
tan
ks No.
1 a
nd
2 h
ea
ter
ele
me
nts
.
Co
ntr
ols
d-c
po
wer
dir
ec
tly
to
S
wit
ch a
t O
N (
ma
nu
al)
po
siti
on
.
02 ta
nk
s No.
I a
nd
2 h
ea
ter
by
pa
sse
s th
e p
ress
ure
sw
itch
es.
ele
me
nts
. ap
ply
ing
d-c
vo
ltag
e d
ire
ctl
y t
o th
e
>
sam
e r
edu
nd
ant
he
ate
r e
lem
en
ts
02
PRESS I
ND
sw
itch
TANK PRESSURZ-:-02 i
nd
icat
or
is
sha
red
~y
two
pre
ssu
re s
ign
als.
(MD
C-2
.2).
.
(RH
EB
20
4)
.i
1
.I
..
I
.-
._
.I
.
.-
..
/
-. .
.
..
~
AU
TO
OF
F
O2
FA
NS
su
rtc
he
s
Sw
itch
es
I an
d 2
AU
TO
OF
F
GL
Y E
UA
P S
T W
M PR
ES
S
ind
ica
tur
Hz
tan
ks
No.
1
an
d L c
irc
ula
tin
g
fan
mo
tors
.
Co
ntr
ols
30
a-c
po
wer
dir
ec
tly
to
cir
cu
lati
ng
fan
mo
tors
in
2IL
ta
nk
s N
o.
1 a
nd
2
Ap
pli
es
a-c
po
wer
to c
on
tac
ts o
n
mo
tor
swit
ch
wh
ich
co
ntr
ols
30
a
-c p
ow
er
to c
irc
ula
tin
g f
an
m
oto
rs i
n 0
2 ta
nk
s N
o.
1 a
nd
2.
Dis
co
nn
ec
ts 3
fl a
-c p
ow
er
iro
m
02
tan
ks
No.
1
an
d 2
c~
rcu
lati
orr
fa
n m
oto
rs.
Co
ntr
ols
3D
a-c
po
wer
dir
ec
tly
to
cir
cu
l~ti
ng
fan
mo
tors
in
02
ta
nk
s N
o.
1 a
nd
2.
Pro
vid
es p
res
su
re i
nd
icati
on
of
ste
am
dis
ch
arg
ed
6ro
m w
ate.
r-
gly
co
l e
va
po
rato
r.
TA
NK
FA
N
MO
TO
RS
- 2
- A
C 2
PA
b
B
PC
(M
DC
-22
)
CR
YO
GE
NIC
T
AN
K F
AN
M
OT
OR
S -
1-
AC
1
PA
Q
B
PC
h
f-D
C-2
2)
CR
YO
GE
NIC
T
AN
K F
AN
M
OT
OR
S -
2-
AC
2
PA
.
bB
P
C
tMD
C-2
2)
EC
S -
TR
AN
S-
DU
CE
R
PR
ES
S
GR
OU
PS
2
MN
A
MN
B
MDC-22)
- N
o.
2
wh
en e
ith
er
pre
ssu
re s
wit
ch. 1s
in. a
h
igh
-pre
ssu
re
po
siti
on
at
26
0 p
sia
o
r h
igh
er.
Sw
itch
at
ON
(m
an
ua
l) p
osi
tio
n
by
pa
sse
s th
e p
res
su
re s
wit
ch
es.
ap
ply
ing
a-c
po
wer
dir
ec
tly
to
th
e
sa
me
red
un
dan
t H
z t
ank
fa
n m
oto
rs
em
plo
yed
fo
r a
uto
ma
tic
op
era
tio
n..
Red
un
dan
t fan m
oto
rs i
n each O
2
tan
k r
eq
uir
es 1
48V
A t
ota
l.
.
A-C
bu
s N
o.
1
Sw
itch
at
AU
TO
po
siti
on
wil
l ap
ply
a
-c p
ow
er
to 0
2 ta
nk
No.
1
an
d 2
re
du
nd
an
t fa
lvm
oto
rs w
hen
pre
ss
ure
sw
itc
he
s in
bo
th t
an
ks
are
in
a l
ow
p
res
su
re p
os
it~
on
at
865. p
sia
or
low
er
and
wil
l re
mo
ve
a-F
vo
ltag
e
when
eit
he
r p
res
su
re s
wit
ch
is-
in a
A
-C b
us
hig
h p
res
su
re p
os.
itio
n a
t 9
35
psl
a o
r N
o.
2 h
igh
er.
Sw
itch
at
ON
(m
an
ua
l) p
osi
tio
n
by
pa
sse
s th
e p
ress
ure
. sw
itc
he
s,
app
lyin
g a
-c p
ow
er
dir
ec
tly
to
th
e
sa
me
red
un
dan
t 0
2 ta
nk
fan
mo
tors
em
plo
yed
fo
r a
uto
ma
tic
op
era
tio
n.
D-C
ma
in
CF
00
34
P
No
rma
l st
ea
m d
nct
pre
ss
ure
op
era
- b
use
s A
an
d
(Pre
ss
ti
ng
ra
ng
e i
s 0
.97
to
. 0.1
45
p
sia.
B
gly
col
ev
ap
o
ut
sle
am
)
I
C] 0
z r3 s ;
2 u 2. r
P
r:
rn
Re
mr
rks
No
rma
l *
.ate
?-g
lyco
l p
urn
p o
pe
r-
ati
ng
ran
ge in
drc
ati
cn
s a
re
as
ioil
ow
s:
Pre
lau
nc
h {GSE an
d o
nb
oa
rd p
iun
ps)
: 1
4 t
o 1
8 p
sra
Pre
lah
ch
(o
nb
oa
rd p
um
ps)
: 4
5 t
o
55 p
sia
N
orm
al
f!ig
ht:
37 t
o 4
5 p
sia
E
me
rge
nc
y f
lig
ht:
3
7 t
o 4
5 p
sia
indic
ato
r w
tll
not
sho
w 0
2 fl
ow
u
pst
rea
m o
f tr
an
sd
uc
er,
su
ch
as
th
rou
gh
PLSS F
ILL
val
ve1
LH
EB
- 314
1,
ma
in r
eg
ula
tor
or
su
rge
tan
k r
eli
ef
valv
e a
ctr
on
, o
r li
ce
le
ak
ag
e.
02
FL
OW
HI
ryst
em
. sta
tus l
igh
t (r
ed
) is
lo
ca
ted
on
MDC- I I
an
d
illu
min
ate
s a
% a f
low
ra
te o
f 1
.0
lblh
r.
No
rma
l 0
2 f
low
op
era
tin
g r
an
ge
in
drc
atr
on
s a
re f
rom
0.2
0 ta
0.. 4
5
Ib/h
r d
urr
ng
pre
lau
nc
h a
nd
in
fli
gh
t.
Su
it c
om
pre
sso
r A
P o
pe
rati
ng
ran
ge
ind
ica
t~o
ns are
as
fo
llo
ws<
0'.
7 t
o 0
.9
psi
du
rln
g p
rela
un
ch
0
.3 t
o 0
.4 p
si d
art
ng
-..
-~rm
al s
pa
ce
fl
igh
t 0
.2 t
o a
. 3 p
ni
du
rrn
g.e
me
rge
nc
y
ap
ac
e f
lig
ht.
. C
ap
ac
ity
of
ac
cu
mu
lato
r is
1.3
6 Ib.
No
rma
l a
cc
um
ula
ar
op
era
trn
g r
an
ge
in
dic
ati
on
s a
re
as
fo
llo
ws:
P
rela
un
ch
(GSE) an
d.o
nb
oard
pum
p):
0
%
No
rma
l fl
igh
t: 4
0 t
o 6
0%
E
me
rge
nc
y f
lrg
ht:
4
0 t
o 6
0%
Ca
pa
cit
lea
of
the
wa
ter
tan
ks-
are
. 36
lb o
f p
ota
ble
wa
ter
and
56
Ib
of
wa
ste
wa
ter.
W
ate
r q
uan
trty
in
dl-
c
ati
on
6 a
re d
ep
en
den
t upon a
se
lec
ted
mis
sio
n p
rofi
le a
nd
sp
ec
~fi
c
tim
es d
uri
ng
th
e m
rssi
on
.
I
Te!
emet
ry
Co
de
No
. an
d i
denti
ty
CF
OO
ltrP
(P
recis
g.
lyco
l p
um
p o
utl
et)
CF0035R
(Flo
w r
ate
E
CS
02
)
CF
OO
I 5P
(P
res
s s
uit
c
osn
pre
sso
r dtf
f
CF
00
19
Q
(Qu
an
trty
g
lyc
ol
ac
cu
m)
CF
00
03
0
(Ou
on
tity
w
&te
w
hre
r ta
nk
)
CF
OO
lOO
(O
ua
~ti
ty
po
tab
le
Hz0 tank)
PI.*
L r
Ss
irc
e
3-C
md
.n
bu
ses
A a
nd
9
C~
rcu
ir
3re
ak
er
Ec
S-
'I HANS-
?UC
ER
- P
RE
SS
S
RO
UP
S 1
!.IN
A
.M N
B
MD
C-2
2)
ECS
55
;nct~
an
Pr<
.,.,
i.i.
.s stat:'
pre
ss
ure
IP
.I.L
~.-
tit,
r. o
f .r
..tn
r-g
lyi:
<,l
pu
tnp
il
~s
ch
xrq
r
Pro
v~
drs
tota
l ra
te-c
f-fl
ow
in
dr-
1 1
::-!.
r
a*;:
i :
a*, : !
I ''
! :
1 i ,-.I
,
JP S
UIT
CO
N.D
R
.nri
tco
tor
-LY A
CC
L'!
.f-O
UA
ST
ITY
L
drc
ato
r
ca
tto
n o
fox
yg
er.
su
pp
lier
? r.
1 th
e
PG-:.
,r.
PR
F-7
. G
1.Y
;I
LSC
k!
,r:?
.c.~
trr
FL
OW
0:
ind
iia
tr~
r
Pro
vid
es
pre
ss
urt
d1
1fe
rrn
f:a
l in
d~
ca
t~o
n
betw
eer.
sci
f co
rr.p
reb
- s
or
.nle
t an
d u
utl
rt r
nan
r1o;d
r to
d
rte
rrn
rne
dep
.ree
r,f c
crn
prr
ssb
r eff
.cle
ncy
.
I
TR
AN
S-
Pro
vrd
rs q
inr.
tity
1nd:c
at:o
n
of
wa
ter-
gly
csl
in
ac
cu
mu
lato
r.
'A A
TE
R-b
UA
:;T
!?Y
J
I'
~~
EC
S d
ou
nst
rr.a
rn
of
the f
lf..
r.
UC
ER
- tr
an
sd
u~
rr.
R FS
5R
OU
PS
L
.M N
A
MN
B
MD
C-2
2)
MT:
B
[?
.ID
C-2
2)
Pr
ov
,dr
~ qu
an
tlty
in
drc
at:
on
of
wa
ste
W4
tcr
t~
rh
~
r pc.
t~t,le
w
ate
r ta
r& a
s s
ele
cte
d b
y H
LO
I?
JD
h I%
!DC
- 13
).
I
CA
BIN
Te
lem
etr
y
-.A,: . n
.. i
Cir
cu
it
Pr~
we
r C
od
e N
o.
- ,, a
~i
b:
P
,=.,t
i,,r.
f ,~
nr
tio
n
Bre
ak
er
5,~
drc
r
and
Id
enti
ty
Re
ma
rks
?.!
3C
- I i
F.C
J IM
L>
-CJU
TI.
~.T
?b.:.
IP
IJro
vir
trs
ten
.prr
atu
rr ~
nd
tca
tiu
n
EC
S
D-C
marn
C
FOO
LO
T
GL
YC
OL
TE
MP
1.C
F s
yste
m ~
ta
t.1
~
[C. nr)
.tx
d~
, ar..
r o
f ,~
ate
r-
gly
c~
l rr
tur'
ned
IG C
/M
TM
NS
- b
use
s A
an
d
(Te
mp
li
gh
t (y
ell
ow
) IS
lo
crt
ed
on
MD
C-
I I.
fro
m S
/.U
sp
ac
e r
ad
ra
t~rs
ler
DU
CE
R
B
spa
ce
ra
di-
an
d r
llu
mrn
ate
s at
-3
O.F
.
fr
~m
G
SE
dvr.
n.:
p
rela
un
ch
).
TE
MP
ac
or
ou
tle
t)
MN
-A
No
rrn
al
EC
S r
ad
iato
r o
utl
et
tern
pc
ra-
MN
9
ture
op
era
tin
g r
an
ge
, IS
30
. to
102 *
F.
(?.l
DC
-CI)
I C
LY
EV
AP
-OU
TL
ET
TE
hlP
P
rov
ide
s te
mpera
ture
in
dic
ati
on
C
F0
01
bT
h
'orm
al
wa
ter
-gly
co
l o
pe
rati
ng
.n
d~
~a
to
r
of
wa
ter
-~
lyc
~l
at
ou
tle
t of
wa
ter-
(T
em
p
ran
ge l
nd
icatt
on
s a
re 4
0.
to 5
0.F
.
gly
col
e-r
ap
ora
tor.
g
lyco
l e
va
p
du
rin
g p
rela
un
ch
an
d 4
0'
to 50.5.F
ou
tlet
liq
uid
) in
fli
gh
t.
TE
MP
ar.
aica
tors
SUIT
Pro
vid
es
tem
pe
ratu
re ~
nd
ica
tbo
n
CFO
OO
BT
T
em
pe
ratu
re s
en
so
r lo
ca
ted
in
su
it
of
suit
cir
cu
:t a
tmo
sph
ere
. (T
em
p s
uit
h
eat
ex
ch
an
ge
r o
utl
et
du
ct.
su
pp
ly m
an
i)
ho
rma
l su
it c
rrc
ult
op
era
tin
g r
an
ge
rnd
icati
on
s a
re 4
5..
to 55.F
du
rin
g.
pre
lau
nc
h a
nd
in
fli
gh
t.
Pro
vid
es
av
era
ge
te
mp
era
ture
C
FO
OC
ZT
S
en
sor
loc
ate
d n
ea
r in
let
to c
ab
in
.nd
i a
t.o
n o
f ca
bx
n a
tmo
sph
ere
. (T
em
p
alr
fa
ns.
c
ab
in)
No
rma
l c
ab
in o
pe
rati
ng
ra
ng
e i
nd
l-
ca
tio
ns
are
. 50
. to
70.
F
du
rin
g.p
rr-
lau
nch
an
d 7
0'
lo 8
O.F
in
ifll
gh
t..
PRESS i
nd
ica
turs
I S
UIT
P
ro-.
*id
es p
ress
ure
in
dic
ati
on
of
EC
S-
CF
OO
IZP
P
res
su
re t
ran
sdu
ce
r lo
ca
ted
at
I su
it c
irc
urt
atm
osp
he
re.
TRANS-
(Pre
ss
su
it
dem
an
d r
eg
ula
tcr
sen
sin
g p
ort
. D
UC
ER
d
em
an
d r
eg
P
RE
SS
se
nse
) N
orm
al
suit
cir
cu
it c
rper
atin
g r
an
ge
GR
OW
S 1
rn
drc
atio
ns
ar.e
as
fo
llo
ws:
1
4.7
M
N A
p
sla
du
rtn
p p
rela
un
ch
, 4
.7 t
o 5
.3
MN B
p
sta
du
r~
ng
no
rma
l fl
igh
t m
tde
, an
d
(MD
C-2
2)
3.7
5s0
.25
p
sra d
~ri
ng
~e
me
rge
nc
y
flig
ht
mo
de.
CONTROLS A N D DISPLAYS
c .i - 3 '- - ; % ; a m c ~ ; x z z ; = g z 2 2 $ 2
"3 - 5.2; Y 9 u i l z fa - EL:^ & k g - - m a u o a 2 g -1.":
. = W E = o
.E -8 2 g ,; Z E : '2 7 s$;:g '- u U 3 . m " I n U . 5 2
.-I r,.
, 0 ̂ 0"
Y z ; 1 . ; a u - E u u o w - u o - g: : 2 :7j
z s ; $ & $ w 5 " p 9 * g : z 9)
+) 0
. v 5 2 ;; * . <
C .- c u
.- 5 a
- . i n d 16 .e
" " ;:$ f , E 4 E v ,
C1; Y ; Y ; - ~ 4 m
Y - L
', u ' V ) -4 1s t i c C . 4 a y . i n a . t ~ % t , L8 a u w o Z z U ;$ W ~ , ~ ~ Z Z Q :,-ole H
" 7
4 e ? 0 c . " b i
" 2 . ., n 5 T. I:'
-a . _ L Ln
c. ;
m u
0 c . 2 - - . 9 .C $ 2 0 7 : . d' u - -1 & .; L U
5 ; 0 0 < W
"7 I-'+ .; r , . 'i 2 2 2 Y 3
a U U
b 4 a < 1.
9, r
. -. = E ., - . .. ., -
G r
-1 - ' m N d a R U N
- Z W ~ D ~ J
$ $ Y z S r $ w b a a u a
.- f
E t: 6 9
5 .; : " u - k '2 -' 5 '0
% o n r . au m I 0 3 5
2 . c > J v, 2 2 3 E R $ Z
L
+
U
Cl n 0 n Ul
08 G 0 8 - .1
2 2 < 2 ' J E 4 e -4
* ~ Z U . 2 : z ~ b ; i g 2 . 0 W < Z U U " ~ u < Z
C - - - 0 . A=
E . U 2 ; E: :o,,;: : t z g ; s ,
U. ; Z$ ' t 5 , -- ? 3 u 2 $ 8 , . e - " O , u - . 9 ) - * L - s , A u g ; - f o " E z : z ; Y : g q r t z g d 2 ; iyg r e ? u 2 U 2 " a' z c U " g- Z " 2 ; 3 a y 5 5 a t 2 4 2 " z E i L ur^:$ L! J ( : O ~ z : a - J % u :$q, ; z = y ,,, &, 2; .; 5 ;" b < ~ ; , : s ; E T $ - E "j= - E E ~ , ~ ~ z . Z ! . V : $ & ; !%~ ! ; ; t e $ - t ~ S $ ! : G . ~
6 d m' d
. C % u
OF
F
-
r
Te
lem
etr
y
Sa
rrh
e and
Cir
cu
it
Po
we
r C
od
e N
o.
Lur
rtr
arr
P
osr
tio
n
Fu
nc
tio
r B
rea
ke
r S
ou
rce
a
nd
Id
enti
ty
Re
nia
rks
IlD
C-
!j
A
UT
O 2
a.
Re
mo
ve
s d
-c p
ow
er
fro
m
EC
S -
HZ
O
D-C
ma
in
No
ne
IC<
.nf)
H
20
AC
CU
M-O
N
1 /O
N 2
A
CC
UM
- b
us
B
swit
ch.
. M
N E
b.
A
pp
l~e
s d-c
po
we
r to
No.
2
(M
DC
-22
) c
yc
lic
ac
cu
mu
lato
r c
on
tro
l u
nlt
to
au
tom
ati
ca
lly
tim
e
an
d a
ctu
ate
No.
2
cy
cli
c
ac
cu
mu
lato
r v
als
e f
or
10
se
co
nd
s e
ve
ry 1
0 m
rnu
tea
.
ON l
lON
2 s
wit
ch
ON
I
Bac
k u
p s
wit
ch
po
siti
on
to
ap
ply
E
CS
- H
20
D
-C m
ain
S
wit
ch p
osi
tio
n i
s m
om
en
tary
to
d
-c p
ow
er
to s
ole
no
id v
alv
e o
f A
CC
UM
- b
us
A
pre
clu
de
po
ssib
ilit
y o
f e
xp
en
din
g
No.
I
cy
cli
c a
cc
um
ula
tor,
M
N A
o
xy
gen
ne
ed
less
ly.
Sw
itc
h m
ay
be
m
an
ua
lly
co
ntr
oll
ing
ox
yg
en
(M
DC
-22
) o
pe
rate
d w
he
n c
on
ve
nie
nt
or
wh
en
fl
ow
to
ac
cu
mu
lato
r.
aurt
crr
cu
rt h
um
idit
y l
ev
el
be
co
me
s u
nc
om
fort
ab
le.
Off
(c
en
ter)
R
em
dv
es
po
we
r fr
om
bo
th
sole
no
rd v
alv
es,
sh
utt
ing
off
c,
xyqe
n fl
ow
to
rrt
he
r a
cc
um
,~l&
tor.
OX .!
Bac
k U
D sw
rtc
h p
osi
tro
n t
u :
~p
ply
ECS -
H 0
D-C
nia
ln
Th
rs s
wrt
ch
po
srtr
on
is
mo
me
nta
ry
I d
-c p
ow
-r
to s
olv
no
id G
alv
c bL
AC
CU
M!
bu
s R
to p
rec
lud
e p
oss
rbil
rty
. o
f e
xp
en
d~
ng
N
o.
2 c
yc
irc
ac
cu
mu
lato
r.
MN
B
ox
yg
en n
ee
dle
ssly
. S
wit
ch.
ma
y b
e
ma
nu
all
y c
on
tro
llrn
g o
xy
ge
n f
low
(M
DC
-22
) o
pe
rate
d w
hen
co
nv
en
ien
t o
r w
he
n
to a
cc
um
ula
tor.
su
it c
irc
uit
hu
mid
rty
le
ve
l b
rco
me
s
un
co
mfo
rta
ble
.
NW
TE
HL
O T
F k
EF
lLL
P
OT
H2
0
Sw
itch
po
srtr
on
s a
re
not
m
om
en
tary
; sw
itc
h
HT
R
the
rcfo
rr.
wa
ter
qu
an
trty
~n
dic
ato
rs
,MN B
mu
st b
e m
on
ito
red
to
pre
ve
nt
(MD
C-L
Z)
overf
illi
ng,
Ap
pli
es d
-c p
ow
er
to s
ole
ne
rd
Po
tab
le t
ank
wal
l fi
ll f
rrst
, u
nle
ss
va
lve
of
S/P
A w
ate
r ta
nk
No.
I.
P
OT
AB
LE
T
AN
K INLET v
alv
e i
s
pe
rmit
tin
g w
ate
r fl
ow
to
re
fill
c
lose
d.
C/M
wa
fer
tan
ks.
F
low
is
at
the
ra
te o
f 2.
92
Ib p
er
min
ute
. R
em
bv
es
po
we
r fr
om
bo
th
sole
no
rd v
alv
es.
Ap
pl~
es
d-c
po
we
r to
so
len
oid
v
alv
e o
f S
/M. w
ate
r ta
nk
No.
2
, p
rrm
rtti
np
wa
ter
flo
w t
o r
efr
ll
C/.
M
wa
ter
tan
ks.
>.
_°_f
SMZA-03-SC01Z
APOLLO OPERATIONS HANDBOOK
CONTROLS AND DISPLAYS
N . U
o'_" _,_'_ :" za__ i_ <'_
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MAIN DiZPI,A¥ CONSOLF,--@^NEU l]
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SM2A-03-SC01Z
APOLLO OPERATIONS HANDBOOK
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o.
Lo
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un
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urc
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rks
MD
C-
I4
RE
GIS
TE
R 2
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drc
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s co
nte
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G&
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ma
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TE
R
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ses
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eco
nd
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mp
on
ent
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xte
nd
ed-
MN
A
B
len
gth
da
ta w
ord
, if
ap
pli
ca
ble
. M
N B
[M
DC
-22
) R
EG
IST
ER
3 i
nd
ica
tor
Dis
pla
ys
co
nte
nts
of
sele
cte
d
Dis
pla
ys
ma
y b
e s
ele
cte
d m
an
ua
lly
re
gis
ter
or
mem
ol1
y lo
cati
on
. or
by A
CC
pro
gra
m;
Th
ird
co
mp
on
ent
of e
xte
nd
ed-
len
gth
da
ta w
ord
, if
ap
pli
cab
le.
BR
IGH
TN
ES
S c
on
tro
l V
ari
es
bri
gh
tne
ss o
f e
lec
tro
- lu
min
esc
en
t d
ata
dis
pla
ys:
R
EG
IST
ER
1,
RE
GIS
TE
R 2
, an
d
RE
GIS
TE
R 3
.
KE
Y RLSE p
ush
bu
tto
n
En
ab
les
pro
gra
m c
on
tro
l o
f D
SK
Ys.
R
ele
ase
s o
ptr
ato
r c
on
tro
l of
D
SKY
cir
cu
its.
ER
RO
R R
ES
ET
~u
sh
bu
tto
n
Re
sets
ala
rm l
igh
t re
lay
s.
AG
C
Ve
rfie
t a
larm
s.
Ala
rms
trig
ge
red
rec
yc
les
to s
tart
of
cu
rre
nt
by
tra
nsi
en
ts s
ho
uld
no
t re
pe
at.
op
era
tio
n.
Ke
yb
oa
rd s
wit
ch
es
Pro
vid
e f
or
en
te~
ing
d
ata
in
to o
r
Pu
shb
utt
on
-ty
pe
swit
ch
es
(qe
lec
tors
).
co
mm
an
din
g o
per
at,i
on
of
the
E
ach
ke
y g
en
era
tes
a sp
ec
ific
5-b
it
AG
C.
ke
y c
od
e d
eno
tin
g t
he
in
stru
cti
on
o
r n
um
be
r b
ein
g s
ele
cte
d.
I
CL
EA
R
Pla
ce
all
ze
ros
(lo
gic
0s)
in
re
gis
ter
bei
ng
lo
aded
. 1
VE
RB
S
ets
co
mp
ute
r to
ac
ce
pt
nex
t tw
o
di-
git
s as
ve
rb c
od
e.
NOUN
Se
ts c
om
pu
ter
to a
cc
ep
t n
ext
two
d
igit
s a
s n
ou
n c
od
e.
I
EN
TE
R
Tra
nsf
ers
co
nte
nts
of
inp
ut
reg
iste
r to
ce
ntr
al
pro
ce
sso
r a
nd
in
itia
tes
ex
ec
uti
on
of
insl
ruc
tio
nn
.
ll
+ D
eno
tes &ta
to f
oll
ow
ha
s positive d
ec
ima
l v
alu
e.
Den
ote
s d
ata
to
fo
llo
w h
as
neg
ativ
e d
ec
ima
l v
alu
e.
0 t
o 9
E
nte
rs t
he
bin
ary
eq
uiv
alen
t of
th
e k
ey
pre
sse
d.
!' LO.
Tel
emet
ry
Nar
ne
and
Cir
cu
it
Po
wer
C
ode
NO
.
Po
siti
on
F
un
ctio
n
Bre
ak
er
So
urc
e
and I
den
tity
R
em
ark
s L
oca
tion
MD
C-I
5
H2
PU
RG
E
LIN
E
HT
R
swit
ch
FU
EL
CE
LL
n
-C m
ain
N
one
Tw
o-p
osi
tio
n d
ou
ble
-po
le t
og
gle
1
- P
UR
GE
b
use
s A
and
swit
ch p
rov
ides
he
ate
r p
ow
er d
uri
ng
Ap
pli
es t
28
vdc
pow
er t
o t
wo
and
FU
EL
B
O
N
Hz
pu
rge
of f
uel
, cell
s.
Po
siti
on
ed t
o
2;w
atf
he
ate
ls i
n f
uel
ce
ll HZ
CE
LL
2 -
ON
30
min
bef
ore
k2
purs
e.
ven
t li
ne.
P
UR
GE
(M
DC
-22)
OF
F
Rem
ov
e t2
8 v
dc
pow
er f
rom
P
osi
tio
ned
to
OF
F a
fte
r co
mp
leti
ng
hea
ter*
. H
Z p
urg
e-
--
HE
LIU
M 1
sw
itch
es
Fo
ur
fun
ctio
nal
ly i
den
tica
l RCS-PROP
Each
sw
itch
is
a t
hre
e-p
osi
tio
n t
og
gle
swit
ches
. E
ac
h s
wit
ch c
on
tro
ls
ISO
L
swit
ch.
spri
ng
-lo
aded
. ca
usi
ng
it
to
I o
ne
hel
ium
'iso
lafi
on. v
alv
e ip
the
MN
A
retu
rn t
o t
he
cen
ter
po
siti
on
aft
er
x H
EL
IUM
1
hal
f of
a p
ara
llel
MN
B
sett
ing
it
to t
he
ON
or OFF p
osi
tio
n.
2 h
eliu
m p
ress
uri
za
tio
n s
yst
em
. (M
DC
-2 5
) E
ach
val
ve
con
tain
s a
po
siti
on
mic
ro-
Z
Eac
h o
f'th
e fo
ur
RC
S p
ack
ages
sw
itch
whic
h c
om
ple
tes
the
cir
cu
it
con
tain
s id
en
tical
syst
em
s.
for
op
erat
ing
th
e v
alv
e p
osi
tio
n e
ven
t
g in
dic
ato
r m
ech
anis
m.
Each
valv
e
v
r
A (B. C
. D
) a
lso
co
nta
ins
an
op
en a
nd
clo
se
>
mec
han
icah
lat
chin
g f
eatu
re.
4
ON
0
En
erg
ize
s h
eliu
m i
sola
tio
n v
alv
e
2 so
len
oid
th
at
dri
ve
s th
e v
alv
e to
th
e o
pen
po
siti
on
. 6
Ce:
.ter
R
emo
ves
so
len
oid
ex
cita
tio
n;
I- m I
valv
e r
em
ain
s in
la
st c
om
man
ded
'0
p
osi
tio
n.
t z
OF
F
i E
ne
rgiz
es
hel
ium
iso
lati
on
val
ve
m
l- *
! so
len
oid
th
at
d-r
iver
the
val
ve
to
u.
I th
e c
lose
d p
osi
tio
n.
I I
t i' I i.
J
L
Tele
metr
y
Na
me
~n
d
Cir
cu
it
Pow
er
Code
NO
. B
reak
er
Sourc
e an
d l
den
tity
R
em
ark
s L
oca
tron
Posl
tion
Funct
ion
XS
-PR
OP
D
-C m
ain
None
Eac
h i
ndic
ator
is a
tw
o-p
osi
tion
MD
C-1
5
HE
LlU
M 1
even
t IS
OL
b
use
s A
and
dev
ice
with s
trip
ed
-lin
e d
ispla
y c
on-
(Co
nt)
in
dic
ato
rs
MN
A
B
tro
lled
by
sole
noid
. act
ion a
nd g
ray
Str
iped
-lin
e d
ispla
y i
nd
icate
s M
N
B
dis
pla
y b
y p
erm
an
en
t m
agnet
act
ion.
A (
B.
C.. D
) clo
sed
condit
ion o
f v
alv
e c
on
tro
l-
(MD
C-2
5)
led b
y sw
itch
locp
ted d
irectl
y
above
even
t in
dic
ato
r.
Gra
y d
is-
pla
y i
nd
icate
s open
condit
ion.
Fo
ur
funct
ional
ly i
den
tical
Each
sw
itch
is
a t
hre
e-p
osi
tio
n
HE
LIU
M 2
sw
itch
es
swit
ches
. E
ach s
wit
ch c
on
tro
ls
toggle
sw
itch
. sp
rin
g l
oad
ed,
cau
sin
g
one
hel
ium
iso
lati
on
val
ve
in t
he
it t
o r
etu
rn t
o t
he
cen
ter
posi
tion
HELIUM 2
hal
f of
a p
ara
llel
aft
er
pla
cing i
t to th
e O
N o
r O
FF
hel
ium
pre
ssu
rizati
on
sy
stem
- posi
tions.
E
ach v
alve
conta
ins
a
Eac
h o
f th
e fo
ur
RC
S p
ackag
es
posi
tion m
icro
swit
ch
whic
h c
om
-
conta
in i
den
tical
syst
em
s.
ple
tes
the
cir
cu
it f
or
op
era
tin
g t
he
val
ve
posi
tion e
ven
t in
dic
ato
r m
ech
an
ism
- E
ach
val
ve
is m
echan
i-
A (
B.
C.
Dl
rall
y h
tch
ed
open
and s
pri
ng
-lo
ad
ed
00
En
erg
izes
hel
ium
iao
lati
on
val
ve
clo
sed
. ON
sole
noid
th
at
dri
ves
the v
alve
to
the o
pen
posi
tion.
Cen
ter
Rem
oves
sole
noid
exci
tati
on:
valv
e r
em
ain
s in
la
st
com
man
ded
posi
tion.
>
z E
nerg
izes
hel
ium
iso
lati
on
val
ve
u
OF
F
sole
noid
th
at
dri
ves
the v
alve
to
the c
lose
d p
osi
tion.
. .
Each
in
dic
ato
r is
a t
wo-p
osi
tion
%I
HE-
Z ev
ent
dev
ice w
ith s
trip
ed
-lin
e d
isp
lay
con-
ind
icato
rs
tro
lled
by
sole
no
id a
cti
on
and g
ray
*
dis
pla
y b
y p
erm
an
en
t m
asm
t ac
tion.
$
A (B. C
. D
l
Str
iped
-lin
e d
isp
lay
in
dic
ate
s clo
sed
condit
ion o
f val
ve
con-
tro
lled
by s
wit
ch
lo
cate
d d
irectl
y
'ab
ov
e e
ven
t in
dic
ato
r.
Gra
y d
is-
play in
dic
ate
s open
co
nd
itio
h
Eac
h @
wit
ch is a
th
ree-p
osi
tio
n
PR
OP
EL
LA
NT
sw
itch
es
Four h
rnc
tio
~ll
y iden
tical
@w
itches.
E
ach
sw
itch
com
t ro
ls
tog
sle s
wit
ch
, sp
ring-1
-ded
. C
PU
S~
"~
two i
sola
tio
n v
alv
es
(one
fuel
. it
to r
etu
rn to
the
cen
ter
posi
tion
one
ox
idiz
er)
wit
hii
eac
h o
f th
e
aft
er
pla
cing i
t to
th
e O
N o
r O
FF
fou
r S
/M RCS p
ackag
es.
posi
tions.
E
ach
val
ve
co
nta
ins
.
posi
tion m
icro
swit
ch
whic
h c
om
ple
te*
th
e c
ircu
it f
or
op
era
tin
g t
he v
alve
posi
tion e
ven
t in
dic
ato
r.
33
ch
val
ve
1s m
ag
neti
call
y l
atc
hed
open
and
, sp
rin
g-l
oad
ed
clo
sed.
I
. . , .
S M ~ A - O ~ - S C O ~ 2
APOLLO OPERATIONS HANDBOOK
CONTROLS AND DISPLAYS
MAIN DISPLAY CONSOLE-PANEL 15
,Basic Date 12 Nav 1966 Change Date
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