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41#
发表于 2008-12-25 20:05:33 |只看该作者
ELPRS Enhanced Position Location Reporting System.: C* t4 Y: ^4 R ELS Earth Limb Sensor.; I1 \, [5 K' c5 i$ c6 s ELSEC Electronics Security.' p8 b( E: u I% c: F1 B ELSI Enhanced Longwave Spectrometer Imager. 8 D. S3 y4 {8 w; ZELV Expendable Launch Vehicle.- ?2 P; Z' K; X, j& _/ {0 [ Emanations" l" Z0 L- E F; g" s Security/ r4 b1 L! F5 R/ f i1 c& m (EMSEC) 5 u! c' W( G5 S* Z6 B; OThe protection that results from all measures designed to deny unauthorized8 e* `. ?! n! l ~3 e3 e/ \3 y persons information of value that might be derived from intercept and analysis of; G5 G8 y, p9 }$ ]# A5 z3 g compromising emanations.1 w3 a1 C# }+ A" _4 j EMC (1) Electromagnetic Compatibility. (2) Early Midcourse.* _: t! a" u) R$ i( `; l( y; p EMCON Emission Control % g& j: G, R4 \: ?7 V hEMD Engineering and Manufacturing Development (previously referred to as FSD). 4 v4 K: v. d3 ^, Q2 _7 W7 rEMDCT Expanded Memory DCT.* V* F3 d# j2 W I+ V2 W EME Electromagnetic Environment.- |# A8 S, M$ f: c% i+ D7 e9 j MDA GLOSSARY, VER. 4.0 E) n0 F; |' h: u7 p9 ^) O/ Z. [' e 93 + W' b8 N, K' PEmergency; ^7 C: f$ v v) X Capability / a' H9 L0 d+ S% a [; g) ?(replaces# U; f- w2 _; e7 l- c Contingency 7 G0 W% `$ Y: a8 ?! _( t5 GCapability) ; R! E: P' h. l4 NBMDS elements or components that are still in development or testing that / N3 G( W/ ]" S. S9 p" mprovide limited ballistic missile defense capabilities. MDA, working with the ; y }6 T& o( \; U, e% r+ F# NServices, will develop plans, which cover the potential use of prototypes and test8 _( v7 x- m( x; ] K assets for contingency deployment should the SECDEF determine that an 5 u9 Y) W; S0 F. c: femerging BMD threat requires emergency fielding of a BMDS capability. 2 W6 {' v _8 i3 xEMF Electromagnetic Field.& H% O$ s- s: Y5 x. e7 d8 o EMG Electromagnetic Gun.( U2 } H- q4 X5 m. T# ] EMI Electromagnetic Interference.% [- }/ o) G- k, k EMIP See Exoatmospheric Midcourse Interceptor Program. 6 {$ [, r1 p/ G" o& Z4 \/ n4 U! bEmission Control / w6 r. g& \- J* Y# p8 c(EMCON)6 w7 ~, a! l. a( e$ S The selective and controlled use of electromagnetic, acoustic, or other emitters% P- s/ i5 N) _6 J# T( c& h to optimize command and control capabilities while minimizing: a) detection by " P3 u( r* G( g! j% lenemy sensors, and b) mutual interference among friendly systems. EMCON / {1 H [5 c" O9 Z2 K# @can also be involved in military deception plans. Also called EMCON. 2 J: ?3 _, i( w7 oEML Electromagnetic Launcher. A device used to launch hypervelocity particles. 9 w3 N( z4 T8 A' S& ~9 W' }EMP Electromagnetic Pulse. 4 A' I5 ~+ ]" y& M( `0 oEMPSKD Employment Scheduling (USN term). & E, C8 D9 E1 FEMR Electromagnetic Radiation. a. `. M2 {/ A! e- oEMRLD Excimer Moderate Power Raman-Shifted Laser Device.1 g: I* `- }8 F/ [4 T8 y EMSEC Emanations Security. ( H) q8 R$ H" Y8 cEMSP Enhanced Modular Signal Processor.9 U0 H5 H- d h" z EMT Engineering Management Team.# I- M/ W! Z2 m3 t8 }, K- z$ \. Z EMV Electromagnetic Vulnerability.1 c$ X6 _9 z9 U# u" u6 O ENA Engineering: Architecture and Analysis.4 @5 k- N/ b0 x! E% ], V3 ~ ENCATT Engineer CATT (US Army term). 5 h+ Y5 y" b* X4 F9 R$ _Enclave Isolated resource – an SDS asset that has lost connectivity with other SDS1 ^; l8 J0 f2 r- ^ assets with which it normally has connectivity, but is still capable of coordinating) F: o) G& t" `% w% o with SDS assets to conduct ballistic missile defense. Various combinations of 5 n8 G2 \4 h% h- \, uconnectivity losses are possible; for example, (1) an operations center has lost h- \; j) w( H% Cconnectivity with Higher Authority, yet can still provide sufficient C2 and can still 7 n& M7 e8 f" B: O2 Iconnect with sufficient weapons and sensors to conduct an engagement and (2) 9 I; Q* Q' F$ C) p1 ean operations center has loss of connectivity with another operations center with 0 u' E9 t3 h' [' _9 Z: M0 z$ rwhich it normally shares data, but can still conduct an engagement.* P, R0 h2 h$ Y* v8 ^, p Endgame FOV The field of view of the interceptor’s sensor during its final maneuvers after target - T9 R: @* ^4 N- d6 aacquisition to intercept the target. May be less than the acquisition FOV. , s0 d0 h, f, X7 Z- k/ y @ ~ eEnd Item The final production product when assembled, or completed, and ready for ( o( S. ^& s6 _; L# l# }% U/ P0 `+ iissue/deployment.* ^4 F5 p! r8 P% b c+ o MDA GLOSSARY, VER. 4.0 E- u. [+ O. l6 t# K& a 948 G1 Q7 a3 E- P4 s Endoatmospheric Within the earth’s atmosphere; generally considered to be altitudes below 100 ) X# q( F# ]8 ?7 d* b# skm. An endoatmospheric interceptor reaches its target within the atmosphere.+ o* o' L1 B' ^ Endo-+ \) K! C2 g; z4 }+ z Exoatmospheric , Z }' e: I) j, i& v- DInterceptor (E2 I), b& y9 b( {" l A ground-based interceptor capable of engaging RVs either endoatmospheric or2 p/ G* {& q" Q! e exoatmospheric. (Successor to High Endoatmospheric Defense Interceptor8 {# s7 o' ]1 D2 x& v6 u# y, D (HEDI).)% i h8 V$ D) m/ O6 o( q0 i+ w ENDOSIM Endoatmospheric Simulation.9 x4 W7 `/ W( K+ P2 `9 P* L6 Z Endurance The time an aircraft can continue flying, or a ground vehicle or ship can continue 5 A- b' T4 }, { W. @( z( woperating, under specified conditions, e.g. without refueling. + F, R* t- {0 j' cENG Engineering. ) R- `! x0 J {- y' H, {) r7 K8 lENGAG’T Engagement.5 y$ {1 S, E9 u# s# S- }) ?) O Engage (1) In air defense, a fire control order used to direct or authorize units and/or% m3 w' ~1 ]: H* K! s# q0 v weapon systems to fire on a designated target.7 ]0 B$ }7 s) E9 Q7 f) j7 N (2) In air intercept, a code meaning, “Attack designated contact.” 1 k. `; s$ I! v# Y6 }; K7 IEngagement (1) A period of hostilities beginning when the first ballistic missile target7 P. U( m4 h3 }1 S8 m5 B undergoes fire from the first defensive weapon. / n7 L# o6 f ?) a(2) A period beginning whenever any hostile object is identified (designated)- S# b8 w$ I# U: s) \) p as hostile and ending after the last hostile object has been attacked.( @, C6 W8 E- U' C; ?; l3 y7 O$ E (3) In air defense, an attack with guns or air-to-air missiles by an interceptor; |" C7 k7 W' P aircraft, or the launch of an air defense missile by air defense artillery and+ K# b1 {0 o P# I9 } the missile’s subsequent travel to intercept. ' }1 Q9 n$ A/ tEngagement7 y) K/ t: z3 `7 C# V, x( C Authorization " Z: \8 A: E& m" N$ \: aThe authorization given to USSPACECOM to use weapon and sensor systems6 @6 e/ o- A6 B2 n( O+ I& z under previously coordinated and authorized rules, procedures, and conditions. & |& K. @$ O. Q+ h: F# jEngagement j4 U6 F9 W: a3 _! i7 S Control3 h' E; O& V/ g: Q& T (1) That set of coordination, assessment, decision, and direction functions) {1 @' H7 J: R( P normally implemented automatically to execute the selected battle plan,* G1 \7 J( W& X7 \ |. T military strategy and tactics within partitioned battle spaces (i.e., a 3 I1 R7 ]" r* t; Y; Rspatial/functional subdivision of battle management). Includes the% ^4 P" F; \8 t5 D" _1 q; j determination of: what specific objects to intercept in order to implement9 y+ B% k, p# `8 i the selected military strategy, and which specific interceptors to assign to 9 ~0 J2 B' [! y9 ]each attacker to implement the selected tactics within the rules of - z0 R- j. Q. H7 A! I7 J. |1 T" I' ?engagement. & {% I: G& L" b1 U(2) In air defense, that degree of control exercised over the operational 6 M) ^8 i1 n0 Z7 gfunctions of an air defense unit that are related to detection,6 k% l- a" k0 W& |+ c identification, engagement, and destruction of hostile targets.

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发表于 2008-12-25 20:05:49 |只看该作者
Engagement ' k% _: O# ^; C: n0 nPlanning) \9 Z( J( `) M$ X A set of rules and parameters to be used in developing weapon-target 1 ~; F$ k; l: j# V: {5 e1 Zassignments and for sensor resource management. (USSPACECOM); Z! J! G# Z$ T) L Engagement C% D) Z; D2 n7 O. S6 j9 @6 mSurveillance+ ^# h% \( x* d, [0 d- } The surveillance required to support RV negation in the midcourse tier." Z, r3 a5 Z9 b3 ] Engagement- D! Y/ c; `( B6 p9 N1 Y Time . X, r& |6 V# L( ~The time that a weapon takes while engaging a given target. This includes not 8 n8 }4 J6 r% t/ L6 Aonly firing at the target but all other necessary weapon functions involved that8 U! W$ v& Z3 S( Q are unique to that particular target. 6 C5 I. b2 U- z# k4 A& b3 VMDA GLOSSARY, VER. 4.0 E/ Q7 G4 Z% G8 B% @5 P/ e 95 , r$ l$ ?! l2 c8 {0 `. pEngineering and6 b) Q6 ?8 h+ Y+ O& ?, |- F+ X! H: c Manufacturing 3 I2 F5 U1 U7 J5 ODevelopment+ d: Q( X; n3 r7 v8 X (EMD)! T1 V9 v9 o' q$ o1 s The third phase in the acquisition process, following Milestone II. The system % g- X/ s& {1 c+ Z% Band its supporting items are fully developed, engineered, designed, fabricated, 1 J# F# O$ q; N* a! gtested, and evaluated. The intended output is a pre-production system that 1 Z, G7 b& |+ s" U Pclosely approximates the final product; the documentation necessary to enter the4 B g( c3 R2 m! M2 j# `* K production phase, and the test results demonstrating that the production product % |' Z# j. H! c9 p( w& i" t6 @will meet stated requirements. + A0 V3 }! `: Q* KEngineering 4 i! ~; ]" {! n5 wChange Proposal) I! j' T# H( x6 t (ECP) j. e, `9 ^; n2 d' P3 rA proposal to the responsible authority recommending that a change to an5 O+ S; ?1 r' ?2 b% Z% o% Z9 v original item of equipment be considered, and the design or engineering change' v+ J, o/ O) \2 f4 ~& l be incorporated into the article to modify, add to, delete, or supersede original' \- L3 a7 w1 w1 z" ^6 V. T parts. 9 T. q0 a$ I; L8 z' C1 NEngineering 9 W& s4 c) z! B% tDevelopment ' L; Y" o1 L# A$ {) ~6 f! `A funding category including those development programs being engineered for/ w0 H1 t: T! f5 M service use but which have not yet been approved for procurement or operation.; [8 |& z7 |* N g. g. J/ r Money under budget activity 6.4. ) v6 l. P3 z0 o% t6 ?$ H& YEngineering - Y3 z6 @# F- LDevelopment 0 ?* |$ d& p0 ^2 D; s8 h, B( zModel# |2 ]. Q) a/ N4 F2 V: g Enhanced Target, f1 y" u5 @0 u5 j4 L# E Delivery System. f2 X0 e; _ q3 W7 B (ETDS); [; b; ? H% T An advanced prototype used during the Engineering and Manufacturing 1 F |! Q6 w' r) b+ D8 mDevelopment phase (EMD) to resolve design deficiencies, demonstrate maturing 6 C3 \0 ~6 W+ c: A z/ yperformance, and develop proposed production specifications and drawings. K5 `) C# T. p3 K' o5 A) T/ }5 O Target delivery system being developed for future GMD testing that will j0 J! c1 n- z! F3 V$ hcomplement existing systems, provide flexible, modular configurations, and will 1 s" x; R. C9 \ V$ K' ^& Gbe launchable from land, air, or sea modes 9 J7 n0 \1 g- d4 L# qENNK Endoatmospheric Non-Nuclear Kill. ; u. U9 \. m- e9 sENSCD Enemy Situation and Correlation Division (JFACC term).( d7 W2 ~3 n8 H+ }/ E( [ Environmental7 q3 v; L7 g4 _1 y% ?; [ Assessment (EA)& A( `( m! p6 i, W; r A concise public document whose primary purpose is to provide sufficient 6 E0 [9 K' `$ Banalysis of environmental effects of an action to determine whether to prepare9 j5 Q+ I( @ |2 M- V& d5 l3 s: u) Y an environmental impact statement or a finding of no significant impact. . g. x" N# S( v. {4 FEnvironmental $ A' u C& e) t! \* I' h; J9 tImpact Statement8 W- t* }9 X& e1 s- z* e4 A (EIS) 7 b/ Y/ b3 G( x! d+ xA detailed written statement analyzing the environmental effects of a major" S# S6 j: v; y3 Z Federal action. " ]2 n; w- \2 DEnvironmental % g5 @$ e. m9 Y! W d2 PSecurity ' K$ h X/ v3 \% L; e# a7 rA specialized form of physical security that prevents technical penetration, e.g., 1 P X, [5 [% j, k# |% h' Lpenetration by waves of electron beams.4 ?" F; t7 @7 Q! `' R2 Q Environments The media, conditions, and/or physical objects in which a BMD asset is immersed 7 W( Y$ a3 Y* I `or surrounded. For BMD systems and elements, the comprehensive . C0 v, {% M5 D. Nenvironments definition consists of natural, hostile, induced, and storage,% T3 A5 {. h+ M1 `. L1 d; O transportation and handling categories.5 M2 I, f Z+ A( O% N+ N% h2 X EO (1) Electro-Optical.7 K6 E2 Y7 P2 d& ]# k (2) Engagement Operations.( _" w+ ^& h1 Y- Z (3) End Office.: z- F) \- j/ F& u/ n: c: s (4) Eyes Only.* D; ~2 g/ B; N9 ~ EOA Early Operational Assessment. ' C( n6 G4 Y l/ ^% @+ OEOB (1) Enemy Order of Battle. 7 Z/ N. K5 k; ~! q! p5 g(2) Electronic Order of Battle.: ^4 V6 Q! _8 [& u1 @! K EOC (1) See Element Operations Center. 3 k9 D M' j+ @9 G(2) Emergency Operations Center 6 G" ^" R- d" F7 O9 a% @MDA GLOSSARY, VER. 4.0 E5 I9 k! s$ W2 e0 c4 K9 E 96 : f+ ?. d. u3 U: | Z) w4 e/ E7 P! KEOCM Electro-Optic Countermeasure. - }3 H7 f7 W8 @5 x1 R5 WEOCT Element Operations Center Test Bed.4 ~( ` @( r% d. Q EOD Explosive Ordnance Detail' p# d, ^# B' Q/ r: ?$ A EO/IR See Electro-Optics Infrared.9 C/ [- I9 A* R! K6 q. Y& @1 H EOM End of Message. $ r; w3 [9 ^6 R, _5 ?' { W. ]EOP Executive Office of the President* V: f- x2 `# `$ c EORSAT ELINT Ocean Reconnaissance Satellite (US).8 h! I. S8 r& h; x EOS Earth Orbiting System (NASA term).% x& i/ j8 c- t3 } EOSH Environmental Operational Safety and Health. % B/ Z3 h* x2 d* H" X C' o0 IEP (1) Engagement Planning. (2) Evaluation Plan% J% h3 J1 p4 @! o$ H% V- |1 \ EP Cycle Engagement Planner Cycle (NMD BMC2 term). 6 T2 A; ^7 l" [7 o6 ~$ _2 X, f% k2 p: HEPA Environmental Protection Agency.' E1 b& u+ N6 r! ] EPD Engineering Product and Development ) o8 e9 i1 {5 iEphemeris/ ) k3 T V% f' sEphemerides4 O- J8 P1 V8 M u (1) A table showing the positions of an object in space at regular intervals of3 f* L; {0 X; T5 v time. 4 q8 ~- h% o8 _5 G$ K3 y(2) A publication giving the computed places of the celestial bodies for each 3 b0 D. m5 n5 r8 l6 U( f# Z0 Kday of the year or for other regular intervals.: P, W5 U; E8 x! s& T% k; c EPITS Essential Program Information Technology and Systems. - e2 u# @% c/ BEPL Emitter Parameter Listing (USN term). ( R ]- B5 ^3 x0 R" REPLRS Enhanced Position Locator Reporting System. p- J+ P5 ^5 W: v$ ^ ?( mEPO (1) OBSOLETE - ERINT Project Office (US Army term). (2) Element Program. Z8 K& u8 W+ d$ U/ e Office. % Y$ V/ F& @$ D+ [1 TEPP Electric Power Plant (PATRIOT). # f2 M8 ~: ^ ~0 f) [, w6 D- B3 V/ _! p% }5 yEPROM Electrically Programmable Read-Only Memory.8 Y1 Q2 W3 {: u7 t EQEC EurQuantum Electronics Conference (See CLEO).' b& @& l5 |" m; Z Equipment & T4 [+ c+ g" H$ C9 V8 g& J4 ~Operationally % P' ?4 d/ I+ h, oReady" N; ]0 W" F& G+ J The status of an item of equipment in the possession of an operating unit that: ^) z( e( v+ H4 n indicates it is capable of fulfilling its intended mission and in a system4 k* U7 n/ z. s( c$ B* T1 P configuration that offers a high assurance of an effective, reliable, and safe% e6 u' \+ f- p/ ~! `5 ] performance. 9 B& S% Q5 V# x* _( QER (1) Enhanced Radiation (“neutron bomb”). (2) Extended Range. ! }* {$ z \' n' y9 uERA Explosive Reactive Armor # O" o, e% b4 S5 tERADCOM OBSOLETE. Army Electronics Research and Development Command. (Now7 h7 z6 ^2 i! K, O5 ` Laboratory Command (LABCOM), Adelphi, MD.) S, I! K% P6 l" ^7 P1 Y1 T6 p MDA GLOSSARY, VER. 4.0 E * T7 ^( U a/ s, o: n' I. S973 X$ U3 L1 J4 ]" o# R L ERCS Emergency Rocket Communications System (US). 7 ^/ v" I5 Y2 S7 V) OERD Element Requirements Document./ Q8 C4 _. S6 e2 \ ERG Executive Review Group. l5 s2 q4 S! A& WERINT OBSOLETE. Extended Range Interceptor. Now referred to as PAC-3.4 D. z- v y0 W ERIS OBSOLETE. Exoatmospheric Reentry Vehicle Interceptor Subsystem. 0 b4 }' ^$ O- U Z(Predecessor to Ground-Based Interceptor (GBI).) . F/ ^1 `6 r/ ` l9 p- EERIS(F) OBSOLETE. ERIS Farm.' I* [9 b+ P4 i: ^ } ERP Emitted Radiative Power. 8 b; t) j5 v3 R( p) x- vERR (1) Element Requirements Review. (2) Engineering Release Record. - j( i0 a; Q0 F5 g9 \- n# MERS (1) Early Release of Submunitions. (2) Emergency Response System. + S% R4 n( C4 X7 n' u! d7 o# b8 _ESA Electronically Scanned Array.; d4 _* c8 L6 r; e. M+ ] ESAD Electronic Safe and Arm Device. # @% ^7 \2 q: F' ?ESAR Extended Subsequent Application Review.# _0 {+ n5 E/ Y/ P4 |( q- _& N( v ESC Electronic System Center (AFMC), Hanscom AFB, MA." T2 \1 }0 B+ H) q' ~ ESCN Existing Systems and Center Notebook.5 f/ i6 Z+ v8 o9 Z ESD OBSOLETE. Electronic Systems Division. (Now Electronic Systems Center, * I" |" G4 k. x1 }8 J* X* R0 a' `Hanscom AFB, MA.) * O7 m# I A1 AESH Environmental, Safety and Health $ ] ~" f! Q# [, ^( [* X- ?. e9 Y% E. wESI External Systems Integration. 9 t* N7 l: A! t, a% i5 @! T% {" {0 mESI ICD External Systems Integration Interface Control Document.) t f) {; t4 o8 S a ESM (1) Electronic Warfare Support Measures. (2) Electronic Support Measures. 9 _- l, }7 _! c8 R; P% ]! f: r' gESMC Eastern Space and Missile Center, Patrick AFB, FL.8 Q; K& ?+ y5 M" r6 } ESNet Energy Sciences Network.2 |+ C* Z6 E0 d ESPRIT European Strategic Program of Research in Information Technology. & W! Z" M3 k# T. b! h" \$ TESQD Explosive Safety Quantity Distance.: ] F6 K t6 ]. K: c ESSM Evolved (Enhanced) Sea Sparrow Missile.8 ~. s) }5 d. K! Z5 R7 g# r% l ET&C Extended Tracking and Control.7 M+ O1 p9 i S3 V2 q8 X8 s ETA Estimated Time of Arrival., h* ~5 b) o2 M4 U0 ]6 F ETC (1) Electro-Thermal Chemical. (2) Estimated Time-to-Completion. 4 u/ P, b# ]3 G$ U: V JETD (1) Estimated Time of Departure. (2) Electronic Transfer Device. ; X p0 i' _+ Z5 w$ R- E/ |, `* _MDA GLOSSARY, VER. 4.0 E g6 `1 X$ L) F- c 98* B+ g- k3 E2 ^, n ETERTS End-to-End Real Time Simulator. 8 u3 y3 _6 h3 v" TETESD End-to-End Sensor Demonstration. . V: N$ F0 m% Z, d! U$ x( fETI Estimated Time of Intercept.3 L, d" U; H7 ?+ K. E ETIC Estimated Time for Completion.3 b: l0 i: Y* K! P- Z m6 ]: _ ETM Engineering Test Model 8 w$ r# F9 n# O7 Q. }ETR (1) Extended Test Range (Pacific Test Bed) (2) See Eastern Test Range. (3) 1 V" }- L4 k5 R* e" s6 YEnvironmental Test Round. (4) Estimated Time to Repair.% ~+ M5 U+ i7 z% m ETS (1) Experimental Test System. (2) Experimental Test Site. 8 h- v, v. w% w8 \) `' LEU European Union [formerly European Community (ECI)] 3 D1 M1 Z- E' I/ l: eEUCOM European Command. See USEUCOM. ; l+ N9 S7 n. G9 wEURATOM European Atomic Energy Agency. & M, o& ?* u0 F+ v# g+ IEUREKA European Research and Coordinating Agency.0 E% e2 Y$ l1 u, F+ B EUT Early User Test. 4 o( h7 `2 w8 oEV Experimental Version 3 M* T5 c$ u* H" v d MEVA Extravehicular Activity. ' q. J' f7 s: I3 J( u9 |Evasive MRV A reentry vehicle, which maneuvers for the purpose of evading defensive7 W' J. _. [( ^ e2 g weapons. 1 Y! r7 `7 \' ^- N: f7 PEvent Based( X; Y" F: e: u8 ]) P: P2 u Contracting + O+ f4 ]+ y1 q% l& h% p kSupport “event driven acquisition strategy” by linking specific contractual events3 q9 @& s! P, m4 I# R to the “exit criteria” for the acquisition phase, or to intermediate development! d0 @2 D m9 j events established for the acquisition strategy. 6 B; H" @: n3 B m, WEvent Driven . ?0 c6 f$ Q9 ? NAcquisition + E4 U) ]2 ~$ T* W; ZStrategy ; q1 e+ P7 N5 g3 m, OAn acquisition strategy that links program decisions to demonstrated 7 }1 q5 w( h$ X4 i0 _) M+ m7 L7 taccomplishments in development, testing, and production. - _, j( f7 H4 ]# ]; w- CEvent Validation A sensor element internal process that results in a determination by the operator ! g, z( u3 [& Xthat the sensor is healthy and the event reported is real.

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发表于 2008-12-25 20:06:02 |只看该作者
Event 8 l4 u9 x# `8 A' JVerification 2 _" M% F8 q+ _* x, `* Z8 gThe process by which it is decided, from SDS external data, that the event2 ]$ Z! h- S$ Z7 z1 Y reported is real.# a: z% V2 ?* i5 [ MDA GLOSSARY, VER. 4.0 E/ _2 n7 g& R& [! h7 J# v 99! u; R6 d8 c9 s0 N, C7 F0 ?) l* b Evolutionary& {% o- Y4 H3 S. l Acquisition P0 j7 s/ [& w# p7 r* h. H4 i (1) An approach in which a core capability is fielded, and the system design has . U( c; F% U+ @% ~# R& Ya modular structure and provisions for future upgrades and changes as& O+ `% Y* @8 H! A; Z$ j requirements are refined. An evolutionary acquisition strategy is well suited to8 C2 Q- M8 }2 P, u& ? L high technology and software intensive programs where requirements beyond a6 H2 T; C, k i9 \# R core capability can be generally, but not specifically, be defined.' H: n1 U5 ~! O8 m* R" {+ j( f (2) An acquisition strategy that defines, develops, produces or acquires, and $ @+ s; p5 |8 W8 m5 G7 m; v; I6 Lfields an initial hardware or software increment (or block) of operational capability. # ~5 P6 @5 \7 I F3 l6 `It is based on technologies demonstrated in relevant environments, time-phased6 }7 v* q, Y) Z: B; U( n, M( N requirements, and demonstrated manufacturing or software deployment$ S4 D; N+ l$ x5 L2 f capabilities. These capabilities can be provided in a shorter period of time, Y! _4 Q2 j3 n followed by subsequent increments of capability over time that accommodate; M! i: Y/ t: F; \& i1 T6 @4 b improved technology and allowing for full and adaptable systems over time. Each / C; T8 W4 M5 _. Vincrement will meet a militarily useful capability specified by the user (i.e., at least, H0 f: ]. z5 \+ ~+ O. H" V) L& A6 ^ the thresholds set by the user for that increment); however, the first increment: U* p' n* L6 ^# P, } may represent only 60% to 80% of the desired final capability. (MDA Lexicon) * K$ w V9 ^- F& }6 ^Evolutionary " H8 d6 v- ~2 Q9 a5 C! qRequirements 6 p! g2 Z9 d) u' f- C2 HDefinition2 }. P: f' _+ I. V. ~8 M Mission needs are first expressed in broad operational capability terms, and then + \4 `5 e+ w) o+ I& Lprogressively evolved to system specific performance requirements.. o% e7 ]# e: B EVPA Experimental Version Performance Assessment.0 G( C. I4 `9 [# }2 w9 F l/ X EVPA/TEVS Experimental Version Performance Assessment Test Environment System.# p {) O% G, O4 |0 E& O5 b EVS Enhanced Verdin System. 8 _3 m# t9 x; d1 j5 DEW (1) Electronic Warfare. (2) Early Warning. & ]2 [( q2 T/ B1 r6 T1 DEW/AA Early Warning and Attack Assessment. 5 m+ K. v+ C! W- o" sEWCC Expanded Weapons Control Computer (PATRIOT).8 u/ ^* D V$ s+ F1 B& Z EWDA Energy and Water Development Appropriations (US). 5 v1 V0 S3 P3 U* F6 M' s* JEWG Event Working Group.+ U+ |7 X5 U& `" G EWN Early Warning Net.0 o9 Z9 W7 x& ^' c+ v EWO Electronic Warfare Officer.: Q$ s* R# e% i EWPE Electronic Warfare Pre-Processing Element.4 c+ p5 S4 l* ^9 r d EWR Early Warning Radar.6 V4 O: E. e! ?9 K# }% ^ EWS Early Warning System.$ K, K9 W$ e( l EXCEDE Electron Accelerator Experiment. & S! {. V8 f0 i. e9 |: G" a% A; t zExcimer A contraction for “excited dimer”; a type of lasant. A dimer is a molecule5 i; X' k; D! p& p9 U9 [ Z: O consisting of two atoms. Some dimers (e.g., xenon chloride and krypton fluoride) $ ?9 m& Q3 r4 vare molecules, which cannot exist under ordinary conditions of approximate: @; K% E& @: { thermal equilibrium but must be created in an “excited” (e.g., energized) condition , W! k% u; Q# Eby special “pumping” processes in a laser. r1 i9 r, o" m* X" r( ?0 { Excimer Laser ' z: B! u2 v* E6 J1 ^( Q(EXL)" C' r9 V4 [/ e& z( n A laser in which emission is stimulated when a gas is shocked with electrical$ P. a! U6 y0 R! P energy and the excited medium emits light when returning to a ground state.0 t+ m% g5 S4 u# L% @ MDA GLOSSARY, VER. 4.0 E 3 j, v# k0 h$ V" A, x2 _" a100 ; w1 j2 X# I5 ]4 O8 k' ^EXCOM Executive Committee.+ x' k0 Y9 v2 ?2 ?% o Executable ! R7 @" Q& l3 |% t% G) VProgram - R) ?& {, e, y& x v+ h( {5 DA program is executable if the PM has adequate near-term approved funding. - ~% w6 V% |' g& lExecuting Agent The individual within the executing element assigned responsibility for managing v* j* y! k+ E2 S6 H MDA funded programs." N, ^+ f/ |& L+ Q$ x- T( e# E7 W$ { Executing, P8 P2 R! Q7 C# ~# r3 r1 q Elements ( o1 G/ q P P% N9 w# _0 kAgencies or organizations (DoD or non-DoD) that are managing BMD-related 5 N: j4 S1 E- C a' Hprograms.3 z0 O& o. \5 \& |3 ]' t- T: V Executing & F' R/ f8 v( P" vResponsibility 9 t/ C; a2 `4 B# ~8 |Program Manager responsibility. 5 B' l6 d% T3 ?, TExercise A military maneuver or simulated wartime operation involving planning,2 o6 O- Q4 O$ o# y" x/ N/ s preparation, and execution. It is carried out for the purpose of training and$ n9 a0 e8 ^8 P1 A; {* w evaluation. It may be a combined, joint, or single-Service exercise, depending / z5 n8 d3 u- |+ [" k8 W& a% Z' }/ Gon participating organizations. See also Command Post Exercise.3 \# I2 B0 g7 h$ D( r5 G7 s Exit Criteria Program specific accomplishments that must be satisfactorily demonstrated W. Q9 W# j+ i- X3 D' h/ N before an effort or program can progress further in the current acquisition phase / D0 t& H' Q7 G9 n+ n9 c! D9 {or transition to the next acquisition phase. Exit criteria may include such factors+ ]- [& p Y; B, p# ^7 m/ g$ X. c as critical test issues, the attainment of projected growth curves and baseline' J, r6 P: s0 [" B# Z/ H+ k parameters, and the results of risk reduction efforts deemed critical to the" D: u* L+ _9 H5 h; L* |& r% R) ~ decision to proceed further. Exit criteria supplement minimum required# T0 V1 b9 z9 z L/ P2 P; D/ \ accomplishments and are specific to each acquisition phase. 9 @: G' O+ a0 w' l- P. }8 KEXL Excimer Laser. * }8 h ^# ^" EExoatmospheric Outside the Earth’s atmosphere; generally considered to be altitudes above 100! p; g( e: d% z b! ` km.6 s' _5 t9 U% Z7 m/ g1 z5 S Exoatmospheric# j N+ l5 b6 A1 d( u$ r- ^ Reentry Vehicle 6 Q- @) o! V# K$ n) [Interceptor& a$ t5 U2 `4 U Subsystem) l9 E# L8 Q- C. ?! L k (ERIS)6 m9 s$ y, a, d- _$ U/ W OBSOLETE. Interceptor designed to provide functional test validation of GBI.7 X6 B: M8 a6 ]7 D- v: f Exoatmospheric* r0 Z5 r8 j7 @! y7 K Test Bed (XTB)4 f& M0 v5 K& d Flight qualified and range integrated vehicle to support other programs such as 9 v% J5 R% e$ c8 q- \GBI-X.: r, w" p% l$ Q$ P. E1 h. G Exo Decoy A decoy that matches RV signature exoatmospherically. Exo decoys can use: z& Q. |5 \* C- @- t% Z radar and/or optical means to deceive sensors. 3 m- `2 }. j* R- [' ` mExpert Systems Software programs, which use artificial intelligence techniques to capture and& P1 ?2 f! t7 Q7 O+ B apply the non-algorithmic knowledge and procedures of human experts. ( V7 ~0 e+ }: s$ `3 q2 y: YExpired ], {, V$ o5 m6 _* g Appropriation ) D# o H) o; T; [# u2 Z L7 TAn appropriation that is no longer available for new obligation but is still available " G5 x) A. W" J! ^( f5 L- ], Rfor disbursement to liquidate existing obligations. Under current legislation no ) l# T) h1 M+ ]. d5 Bdisbursement may be recorded or paid after a five-year expiration period.* L' D( V6 j; ?0 ^7 v' M* M Maintains all original accounting identity, e.g. FY, appropriation, PE, etc. 4 ]! v* N. d- a8 O5 [4 YEXPLAN Exercise Plan.1 J8 u* r) @/ `3 W: r4 Z Explicit8 c4 V; b& o7 ~; T Coordination% {$ G1 T# s" y. |8 A/ d% I& m A battle management technique which communicates results, decisions or 7 O- j5 l$ k& K5 ucommand from one battle manager to another, usually from a higher command6 Z! @/ Q0 D5 `, a0 n h to a lower command. ) U( Z; W/ Q2 d) w# Q5 zMDA GLOSSARY, VER. 4.0 E 4 R" K% s. W8 `# K: j101$ s$ \1 {0 A# l+ U. w# W( g Extended# t- q9 h" a3 S7 Y# u Planning Annex % P8 e2 U: v, n# K' A1 y1 rA document providing program guidance for an additional 10 years beyond the 1 y: s( y: q7 f3 |: l, PPOM. 7 W! C: R- z! O( R" L0 oMDA GLOSSARY, VER. 4.0 F % b% u5 S& p1 E1033 @- k2 J w* Q F (1) Fluoride. (2) Fahrenheit.: k5 p! [: \& c F/O (1) Fiber Optic. (2) Follow-On. 6 W% D7 A) E9 N- b8 v# l% @, dFA (1) Field Artillery. (2) Feasibility Assessment. 9 q% i; F/ V' A& q7 g; R, PFA/RD Functional Analysis/Requirements Definition.6 G* q$ J8 ^$ |# J/ {! H* f3 V! j% ^/ O FAA Federal Aviation Administration. 4 c L" {- `2 D, yFAAD Forward Area Air Defense (US Army). P) J" D: {1 \; I% S L" ?FAAD C2I Forward Area Air Defense Command, Control and Intelligence.7 J. I6 R2 I5 T( u6 [( x$ k7 y4 D4 K FAADS Forward Area Air Defense System (JCS term). 3 o+ k' Y0 y4 O; n% j6 R. G0 w! SFAAWC Fleet/Force Anti-Air Warfare Commander. 9 U/ b( p$ w# i7 AFAB Fly Along Probe. ) U" f/ c. E$ F+ [+ M; [Fac Facility (MILCON term).9 u$ z4 B3 {: i& C FACP Forward Area Control Post (JFACC term). 2 Z w; m- q9 U- x6 lFACSPMF Federal Agency Computer Security Program Manager’s Forum." @& [3 ?$ W. R3 h: m2 I: Z FAD (1) Force Activity Designator. (2) Feasible Test Date.( @; _/ Y( O" |% }# f0 k; r FADEC Full-Authority Electronic Controls.# a) n1 g( u; ]0 U FAFB Falcon AFB, CO. 7 Y4 p# m" L7 L: E. bFAFBR Falcon AFB Regulation. L% W6 i) i# b } Fairing Structure to protect the payload during ascent phase.* X7 D, ?3 ^5 R FAIT Fabrication Assembly, Inspection/Integration, and Test.6 y% b3 [5 Z" V& z FALCON Fission-Activated Light Concept. 6 o* F" {9 T# L5 aFAM Functional Area Management. ! ~' V/ Z r7 E* R, @, U. tFAMIS Financial Accounting Management Information System. ' H v1 b" F* X1 ZFAMP Facilities Acquisition Management Plan.7 l# z! |5 _( H& E) s FAMSIM Family of Simulations (USA term).! C, N" I m+ B: }7 G G" z Z FAR See Federal Acquisition Regulation.; z( U' I5 e: N% c# j+ | Far Field The region far from an antenna compared to the dimensions of the antenna and8 l. O4 c& R7 `' r' _/ F% ? the wavelength of the radiation." [4 J9 l: H8 q FAS (1) Fly Away Sensor (TCMP).4 ?% p; |3 n7 d1 U (2) Federation of American Scientists.& }" L6 Y9 Z, h) V FAST Facility Allocation Study Team.% H* j% V o5 ^9 @ MDA GLOSSARY, VER. 4.0 F3 i. {# c- S8 H4 z 104 6 V+ T: z* m+ dFast-Burn : [0 J4 Q+ M( ~- K) L7 j) a7 QBooster (FBB)" K' j& U' s0 }: p) A- N) a A ballistic missile that burns out much more quickly than current versions, 2 M2 q8 W9 E: {, {- [) epossibly before exiting the atmosphere entirely. Such rapid burnout complicates ( I9 `" n+ {- b( ~9 p6 A, I3 h0 Ba boost-phase defense. ! p6 r2 A) n" ~3 d- t) H2 IFAT (1) First Article Testing. (2) Factory Acceptance Test.8 h( u' o9 R' B5 L u: b Fault Tolerance The ability of a processor to maintain mission effectiveness after some & I7 w6 c3 n. f/ ]1 r% ysubsystems failed. $ a" B. Y4 ]! J+ R$ W& ]; fFax Facsimile. 9 [1 z! Y$ |2 i3 z1 v% ]FBB Fast-Burn Booster. . X% ?6 O+ @4 a# q! v5 v/ G$ Y0 vFBIS Foreign Broadcast Information Service (US). 8 g9 n8 c5 H: b ^FBM Fleet Ballistic Missile. ) G3 B* r: M2 iFBMS Fleet Ballistic Missile System (USN term).7 x- N9 |/ N* G% @ FBP Forward Based Probe. $ V# [; w; z4 Z$ {FBR Forward-Based Radar (US Army term).- J; K- G: q X FBS Forward-Based System. $ ]9 p, z* R- v; }& h0 A" @FBXR Forward-Based X-band Radar.& [ d- B4 r# o1 M9 r FC (1) Fire Control [of weapons]. : {$ \8 f8 c) a; q- M: D(2) Fund Code.9 B f8 d4 u/ z. l FCA Functional Configuration Audit.( Q( y4 K( q1 C& f# v FCC Federal Communications Commission.6 @7 R: t$ l% B6 Z/ H3 C FCCM Facilities Capital Cost of Money.- k: z5 X9 ^+ n2 b) S FCN Fully Connected Network.! c0 a3 A. Z6 g3 ^3 j! D3 K1 ] FCO Field Change Order.5 ~3 i A* t' i2 h( e. A5 X FCRC OBSOLETE. Federal Contract Research Center.7 |4 q0 _3 r: ?& @ FCS Fire Control Section.

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FCT Foreign comparative testing. 9 x# Z' j5 O5 T6 [! |% Z* dFD First Deployment.8 j8 o$ H$ U& x0 O s q+ v FDA Food and Drug Administration.) f# Y. q4 Y4 J! R) X6 ? FDC Fire [of weapons] Direction Center.% X7 c8 d8 ]8 O& P FDG Foreign Disclosure Guide.; y1 G( _. S, i6 B$ G FDM Function Description Manual.9 c' P) M9 L- e- _2 N, y FDO Fee Determining Official." C; j' A( e+ x) K; N) p* Q& U MDA GLOSSARY, VER. 4.0 F3 r* K- s9 b% E- i+ H! a 105; C; X- c* R( F FDP Flight Demonstration Program.$ v7 o& Z. a8 K7 G5 M5 | FDR Final/Formal Design Review. , I0 G, g/ T, s; j: XFDRU Final Design Review Update (MDA PAC term).6 s4 g' A0 ]% @ FDS (1) Flight Demonstration System. (2) Fault Detection System.$ B$ t+ ?4 }. Z" p: ~# k0 { FDSV Flight Demonstration Space Vehicle. 4 t, T: k2 r4 i8 UFDT&E See Force Development Test and Experimentation (US Army). 7 f5 \ \( a, A. \6 sFDX Full Duplex (Telecomm/Computer term).$ Q0 R2 F0 y; A5 P. E4 Y( s. l FEA Functional Economic Analysis. L, s. o! o3 h) j( {& P9 p8 dFeasibility Study A study of the applicability or desirability of any management or procedural + i1 c, l; ^, h/ gsystem from the standpoint of advantages versus disadvantages in any given 1 W9 B: U4 m7 L. Tcase.# Q5 _; a1 F! Q* i FEBA Forward Edge of the Battle Area.; ?, ^5 Q& \- b* t FECA Front-End Cost Analysis # q" h% ]+ v% k- x; @) S: @/ uFED Federal./ M% o8 h; ?8 o" o+ b FEDAC Federal Computer Acquisition Center. . A8 @. N5 C; j. l9 MFederal }2 t! r( v3 z t1 ^* ~, M Acquisition4 g; X1 u7 ~% S: f U9 H' {" C Regulation+ J" A% d) j" k The primary regulation for use by federal executive agencies for acquisition of* S/ E: ]+ E' L/ n% r0 _$ ] supplies and services with appropriated funds. It directs the defense program . H; Z6 k7 s8 H) L( n- L) r. mmanager in many ways, including contract award procedures, acquisition 6 M. x2 ~/ v* f% J3 Eplanning, warranties, and establishing guidelines for competition. The Military* T+ b3 F$ t- X1 ^2 @ Departments and DoD issue supplements to the FAR. The DoD supplement is% v0 r" N, a# o called DFARS (Defense FAR Supplement). ' ~2 w% }' e- X% |2 BFEDSIM Federal System Integration and Management. ! M6 y9 d/ k" B; QFEL Free Electron Laser.1 i* ~' U3 T8 S' n+ ] B FEMA Federal Emergency Management Agency.' _6 k. N- X- X) _+ u2 Z Fenced Funding An identified aggregation of resources reviewed, approved, and managed as a% c$ s9 w7 h2 _7 W% u4 b% m! n distinct entity. The proposed program must be implemented within specified: h0 ]# f1 I1 f$ b7 |7 g$ l resources. Examples of fences areas are: Intelligence and Security, Support to 5 P" ^1 @6 e" s- sOther Nations.8 m& T1 u1 L/ r, \0 @8 ~ FER Financial Execution Review. 3 y- W3 X7 e6 EFES Facility Engineering Surveillance Plan. 3 F# F1 A( e- }( o9 U4 ]FET Field Effect Transistor.9 ?7 B% Q) s3 i4 e V- p; g FEU Flight Evaluation Unit. + O' c3 W( P$ l( @% C' gFEWS Follow-on Early Warning System.$ I6 V7 K3 [& r( ]) A FF Fire Finder Radar (US Army. 4 G1 |9 K, S, C& d- b9 jMDA GLOSSARY, VER. 4.0 F $ e! r2 v$ ?$ n( o8 A106 ?* o8 Q5 i$ I- w; c$ }FFBD Functional Flow Block Diagram.' f5 U5 o, N8 x# M FFCD Full, Final and Complete Disclosure (Treaty negotiation term).' r: R0 ]+ e, e$ `8 G FFD Fraction Failure Detected. 7 {! y' q, `* Q; C) Q' \2 l: xFFH Fast Frequency Hopping. 8 }+ E: T: D8 k m- Y( I' Z; QFFP Firm Fixed Price.2 R' T* S: x y9 i$ d; i FFRDC Federally Funded Research and Development Center. / T" l5 ]% ?! Q* nFGC Functional Group Code (Navy ILS term). 5 n! E' {! f; P" v3 s+ M6 b) WFGEP Fixed Ground Entry Point.$ U* C; w1 V2 ?5 S FH Flight Hours. 0 Z/ H. i; ^- e) N: |* j3 o7 nFI Fault Isolation. 5 @( \& Z* K9 `: d, w7 {' P9 ^FI&A Fault Isolation and Analysis.0 ?5 |9 i$ K- m" Z1 r) d8 V FIDO Fighter Duty Officer (JFACC term). 2 f$ B% Q1 O; D: p% g0 ~" TField of View. x- [% Q. ]& @! n6 c( ~ U0 d (FOV)3 K" F* w& P8 h" w, E5 Y4 g! r1 T The angular measure of the volume of space within which the system can . G, p2 C/ H5 t: X9 z( C* wrespond to the presence of a target. 2 }# ^4 M! S/ I$ D4 |( S6 `Fighting Mirror7 w2 `! T# w o* ~% H0 j9 B3 q6 l (FMIR)1 Z9 U+ h- {4 Y2 ^4 p# i: L, ?! A Part of the GBL System. The low orbit mirror, which receives laser energy and# _- H# T+ E6 s. `- d reflects it to the target. 8 {$ K; |* Y+ P* wFigure of Merit0 ~( E0 e4 C* O6 C4 V6 | (FOM)( u8 ?, ]" J. n9 |* Q The numerical value assigned to a measure of effectiveness, parameters, or 0 n9 f8 h4 `, ?- B+ F; Gother figure, as a result of an analysis, synthesis, or estimating technique. 0 o0 L4 j$ j6 F5 F, W* NFIP Federal Information Processing.4 ^# o: L! `; `/ J FIPS Federal Information Processing Standard. 6 h) W# A- k9 g% k K( A' lFire Control The control of all operations in connection with the application of fire on a target. 7 M7 V* k6 w" M3 r/ JFire Control ' |2 @# J# W% {1 F6 U0 FSystem 8 u; x7 T3 |* P. x4 t% JA group of interrelated fire control equipment and/or instruments designed for 5 E( ~# W( c8 h* Juse with a weapon or group of weapons. ) B T9 {' M* rFire Support2 i; r5 \. v1 K Coordinating & _& R/ l# F- uMeasure & K$ f0 N2 j: E; ~A measure employed by land or amphibious commanders to facilitate the rapid* C" l) }! S% m! o engagement of targets and simultaneously safeguard friendly forces.5 X' C5 y3 u+ {- m! Q f0 \ Fire Support ! ^: M. t, g% G2 F7 Y/ X0 jCoordinating Line 9 p1 c# K( t4 A% c& M$ n(FSCL): o2 L8 j( |7 b& R5 M" s4 V A line established by the appropriate ground commander to ensure the 2 h. [! u. t) }5 _$ q' E! e9 o7 j- ?coordination of fire not under the commander’s control but may affect current 2 x0 i; d6 j" H+ R; ]1 ?& d5 Ttactical operations. The fire support coordination line is used to coordinate fires / y: v) t' [$ ~$ k) P8 c- oof air, ground, or sea weapons systems using any type of ammunition against! k+ T' b" z8 t# o+ c surface targets. The fire support coordination line should follow well-defined o' R8 ]# K B8 A terrain features. The establishment of the FSCL must be coordinated with the 8 f( X0 B% L6 k$ ]! \appropriate tactical air commander and other supporting elements of the FSCL- b& C& ^8 j- d/ t! o9 N without prior coordination with the ground force commander provided the attack ' C0 ~ ]" [* @: u* Uwill not product adverse effects on or to the rear of the line. Attacks against. D# l# R- _: j/ m9 ], g5 N; p/ G surface targets behind this line must be coordinated with the appropriate ground 2 Y. J1 u- \6 W+ V: oforce commander. / ?% t( _( X8 l( b+ VMDA GLOSSARY, VER. 4.0 F 9 p9 H- ]; T @ {& Q2 v4 z7 ?107% D! [8 M0 l/ Q) _" ?+ s Firing Doctrine The ratio and manner of assigning numbers of interceptors against given1 \% B8 ^& Z* s8 t, O attackers. One-on-one, salvo, shoot-look-shoot, shoot-fail-shoot, etc. are9 F% c$ W" D" {& F1 y& c3 s examples of different firing doctrine. The priority of targets being defended and/ k- @8 Q# N4 j) ^ the number of interceptors available relative to the number of attackers drive+ T$ x, ]2 f5 w doctrine., {2 n7 \' p" H% m Firing Rate The number of missiles fired per site per minute.: w) V( U9 ^* v4 u! C& U* ^* ^ FIRMR Federal Information Resources Management Regulation.. I! P3 m+ s9 L9 r$ [ FIRST Forum of Incident Response and Security Teams. ) Y. t# r8 p; F/ y8 M7 Z$ iFirst Article First article includes pre-production models, initial production samples, test% ] Q0 Z6 t9 x1 p9 F# M samples, first lots, pilot models, and pilot lots. Approval involves testing and " |0 y2 m1 h' Kevaluating the first article for conformance with specified contract requirements3 h* n: f" a2 i1 Z( {+ m2 Z! o before or in the initial stage of production under a contract.3 c$ ?* d' S9 Q3 q7 a+ j2 c) B First Strike The first offensive action of a war (generally associated with nuclear operations). , b6 F- n) t) Q. u3 t. L4 ]First Unit - K8 G; b, n. B- L3 T4 PEquipped Date 8 Q x$ g, {: e. ~7 d, [The scheduled date an end item and its support elements are issued to the * o {& T; B9 _initial operational capability unit and training in the new equipment training plan / L* H, d6 ]' j* ohas been accomplished., u& [0 ]0 s$ x* c3 I( \ FIS Facility Installation Standard.3 R' g0 Z+ L/ d6 y Fiscal Guidance The annual guidance issued by the SECDEF in the Defense Guidance which9 a0 a* W, s. v/ N provides the fiscal constraints that must be observed by the DoD Components in5 K. n1 g1 J% R z0 a4 I the formulation of force structures and the FYDP, and by the OSD in reviewing, Q9 n* T C t7 v# Y proposed programs.) c/ I0 M V; F0 D0 g+ F FISSP Federal Information System Support Program.! L! | i# N5 @4 o: X1 S. ~6 o9 u FIWC Fleet Information Warfare Center (USN term)./ x- i& ]; k) y9 Q4 \" t FIX Site Firing-in-Extension (Target Launch site in White Sands Missile Range Northern ' Y }/ S( q% e+ M) j9 W7 w! p kExtension).) G6 o7 L- |% s0 g; W Fixed Costs Costs that do not vary with the volume of business, such as property taxes,: I3 |1 A1 ^3 M5 U" I insurance, depreciation, security, and minimum water and utility fees. ' L: E% K1 [/ W2 D2 EFixed Ground, E- z8 P) B" o' x* t* O Entry Point " M& [# Z7 j, R! s5 a0 t1 Y(FGEP) 1 {2 b' E9 c9 g& |$ [$ `- lThe subset of GEPs, which are not transportable. GEPs provide the3 `$ g! z6 C- w `) j# a communications interfaces between the SDS space orbital/sub-orbital elements/ O0 y! e5 \+ [/ A and the C2E. M/ p3 q7 ?. i: m- S# e Fixed Ground, B8 F1 _: Z6 f5 ?9 n Station: e: e# _# r0 T; l8 ?/ l" g All hardware, software, and facilities located at a fixed ground site necessary to 6 g! G7 I0 V& z6 I. Lreceive, process, support, and analyze mission status and data, and disseminate # ^1 [, ?6 d1 V- y1 foperational messages. & i0 G# J' {' T$ H7 T# gFLAGE OBSOLETE. Flexible Lightweight Agile Guided Experiment. (Predecessor * M) [+ Q9 f+ a# b0 G4 B! ?program to Extended Range Interceptor (ERINT).)- d- l, n0 t" { o* V$ T* s; L: L FLC Federal Laboratory Consortium.9 A, Z! x0 O9 f4 w$ W6 o) p! l MDA GLOSSARY, VER. 4.0 F 7 I. B5 M# {2 A) ~; R: e5 x1088 K0 }- L' s/ |4 @2 f. @( F! L Fleet Satellite" I& O" F6 A$ z" z Communications; M5 [4 a2 i7 c( w System4 \/ F$ l+ D M4 c (FLTSATCOM) , R0 @ T g, [- S" H' _/ a% UOperating at ultra high frequency (UHF), FLTSATCOM allows relatively low-cost% Z; E; X- f( s( O. R terminals with simple antennas for use on highly mobile platforms. It has a + I4 ~6 r5 L* Krelatively small capacity because of its much lower operating frequency. It 8 v# \1 _# B# V3 H; f; s' Qprovides a satellite communication system for high-priority communication 7 }3 x @5 q$ Q8 Z$ {% j( ?requirements for the Navy and Air Force that encompasses almost the entire ^1 P2 V" z* Eworld. It supports other DoD needs as well. It consists of satellites in geosynchronous equatorial orbit, each with 23 communication channels in the UHF 2 {6 o# l& A9 i! _4 _5 @) x) jand SHF bands. The Navy has exclusive use of 10 channels for communication ) `3 q9 Q* h7 w+ Xwith its land, sea, and air forces. The Air Force uses 12 others as part of its " o' Y T; g+ b! B( HAFSATCOM system for command and control of nuclear capable forces. The& M+ w1 {, O' c! n$ C: e* V system has one 500 KHz channel allotted to the national command authorities. g" s3 \4 X1 r- w1 k! B! L* O9 j Flexible ( V1 n2 R2 m3 vResponse 3 o$ X0 X3 Y8 f( K0 a8 gThe capability of military forces for effective reaction to any enemy threat or, ]" e' L" |# N/ ^1 q" | attack with actions appropriate and adaptable to the circumstances existing. f" z/ @1 z: U+ Q; m8 Z' e FLHER Funds and Labor Hours Expenditure Report. # r( e+ R# K, Y S0 Y1 L0 @Flight ; g$ |2 J2 K s# cDemonstration* p( _7 `# ^" ~+ v1 m2 q" u System (FDS) 4 ?4 V" l# K6 u/ U* C1 m7 s$ IPart of the SBIRS Low Program Definition and Risk Reduction (PDRR) program & Q2 q, M" d5 H5 i2 c, y+ `phase. The FDS will consist of two satellites and a ground system being built by/ \; T5 _$ y, x3 N5 K# f TRW/Hughes. The FDS satellites are to be launched in FY99 for a two-year test " ~/ H" V3 w% l! E: a6 A( Hprogram to demonstrate operations and performance of a SBIRS Low concept,- D% ?8 o7 ^' @" Z collect target and phenomenology data to support the objective system design,3 @ Z3 k& U/ j4 S! N: i$ N7 X and validate cost estimating models.+ K' l9 }! L# n, f; X& N Flight Path The line connecting the successive positions occupied, or to be occupied, by an0 x; }8 z& X$ I aircraft, missile, or space vehicle as it moves through air or space. (It is more p% n! o5 L+ o7 D& A4 m9 gcommonly referred to as trajectory for space vehicles, especially ICBMs.)$ v) W- B, G; ]4 k+ P/ l) T+ G, } Flight Readiness/ u' d; u8 u2 w \: r! n Firing ! c4 e" s" `& k. ]6 M9 HA missile system test of short duration conducted with the propulsion system 4 l: k- T3 R9 C) F' C9 Eoperating while the missile is secured to the launcher. Such a test is performed, s4 b& W5 _& T& n to determine the readiness of the missile system and launch facilities prior to : E. T- _. w, ^: b8 B$ ^flight test.0 a2 H) I3 j4 k9 W2 E+ { Flight Test Test of an aircraft, rocket, missile, or other vehicle by actual flight or launching. 9 x' V1 }" Z4 S, Y% T2 V4 gFlight tests are planned to achieve specific test objectives and gain operational. S, i* r: m4 ^ information.7 {0 I" n. `5 q# W9 E+ f) e& L Flight Test 9 Z1 [8 a8 i; k+ LVehicle (FTV) * }/ x/ E: v+ B& u& h" V0 XPrototype of airborne or spaceborne hardware used to validate a technology" t! O6 l7 X( F$ g) j# K7 H concept.

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FLIR Forward Looking Infrared Radar. # x) C) F1 {6 R6 j# RFLOT Forward Line of Own Troops. ! x8 J1 b/ B( [. o* P/ m" ~ |) UFLT Flight. / J4 K& @$ T( ~( I- m a3 i$ CFLTSATCOM Fleet Satellite Communications System. 4 V! Q9 p( u1 ~" B4 x- M EFluence (or [/ f7 Y5 Z, i3 Y3 S- T9 z' v/ UIntegrated Flux) 2 v: C$ i" N$ _2 b, W/ n/ K2 y7 |The product (or integral) of particle (neutron or photon) flux and time, expressed/ G' a2 F8 k2 o5 I: J9 G: C, ~ in units of particles per square centimeter. The absorbed dose of radiation (in 3 t! f/ {) B. p/ ]' nrads) is related to the fluence. (It should be specified whether this is incident or $ e1 K3 N( O3 W K" vabsorbed fluence).9 `, L3 k9 Y9 s3 { MDA GLOSSARY, VER. 4.0 F : e# o4 w& e! B6 o6 `3 f% O" ~4 L109 ) n# u- F# S2 m/ x7 bFlyaway Cost The total cost related to the production of a usable end item of military hardware.# R) ` C' ?' Z" d O% n: c( d2 M5 I Flyaway cost includes the cost of procuring the basic unit (airframe, hull, chassis, : _5 U; {( S+ t; Wetc.), a percentage of basic unit cost for changes allowance, propulsion9 p1 {) b' M. ?8 f3 U equipment, electronics, armament, and other installed government-furnished( b1 k+ q3 m# d5 K9 e; \ equipment, and nonrecurring production costs. Flyaway cost equates to/ }) O# j) L5 I* T: s Rollaway and Sailaway cost.. k2 {* Q: k7 f4 Z( O. _( }) p+ q FM (1) Flare Multiunit. ( w: u7 a/ ]* f& t. w2 E" ]* Y(2) Frequency Modulation. ; b2 N- b1 G6 l2 s8 P(3) Functional Manger. $ l/ k/ R a E7 p ^(4) Force Module(s).9 v3 `3 J( w3 a+ H6 r& y( | (5) Field Manual.5 N/ |% y, m" L4 e' M& D' c FMA Foreign Military Acquisition. * n5 }2 g+ R$ H, A4 BFMB Financial Management Board.7 e( [) D% |1 D+ C FMC Flexible Manufacturing Cell.& y: z" H( J+ M! D FMEA Failure Modes Effects Analysis (ILS term). 2 }5 C6 k3 x! B0 b8 E `FMECA Failure Modes Effects and Criticality Analysis (ILS term).& O0 ]* f/ u4 F3 A6 [2 ^ FMIR Fighting Mirror.( z& K! }: K4 O FMP Foreign Materiel Program.0 B/ m+ a ^ _3 m9 z5 W FMS (1) Flight Mission Simulator (PATRIOT), Huntsville AL.7 Z% A# o$ H; ~: U( d& U. M (2) Foreign Military Sales., v9 V+ Z& P# S6 W- ?6 N2 }. f7 D5 Z FMTV Family of Medium Tactical Vehicles (USA term). 4 q* M- J+ K% ?8 X$ R% J9 CFNC Federal Network Council 9 K# f8 M7 J+ i/ s& _FO Force Operations (PATRIOT). 4 f. A9 P# X {6 w0 Z& S2 rFO Link Fiber Optic Link. ( `' M! {5 b ~7 H0 f# i+ ?3 t& [FOA Future Offensive Aircraft (UK RAF term). . `0 }- T" c; o/ p2 G. `0 iFOB Forward Operations Base. & n: A5 z Q& B9 T _* tFOBS Fractional-Orbital Bombardment System.) a+ ^% d7 D0 H7 M, @ FOC Full Operational Capability. 9 u3 ]( _: t6 T% n" \Focal Plane The plane, perpendicular to the optical axis of the lens, in which images of points8 x4 |, c& v1 a( |& R! a9 ^ in the object field of the lens are focused. 3 C# F9 I+ H* y0 M" l1 w) n' XFocal Plane 8 @: W& @# N/ U) O7 |( \) U1 i' YArray (FPA) 2 O& @1 | n1 _% D0 OAn FPA is a matrix of photon sensitive detectors which, when combined with low) U# z) Q! J; c& W. l, d* O noise preamplifiers, provides image data for the signal frequencies of interest.: B5 o( `" Z7 ]" n& K. _# S$ B FOFA Follow-On Force Attack.' b ~2 I2 s, `# Q FOG Fiber-Optic Gyroscope.+ z# ^) U$ f! X' L FOIA Freedom of Information Act (US).$ @8 z1 Y- F: e; { MDA GLOSSARY, VER. 4.0 F1 L8 V# b' N; p( K8 W 110& b6 y% H7 Y6 a FOL Forward Operating Location." [( n- ]! }; N: D# S FOLAN Fiber Optic Local Area Network.! o; x) |- N' D4 ]( E Folded Optics Any optical system containing reflecting components for the purpose of reducing " m! \9 G, R* l: ~; q9 W8 Zthe physical length of the system or for the purpose of changing the path of the; X" T) u- E) W* \0 a9 L optical axis.+ G. o" s+ `0 H1 J6 y+ U Follow-On 1 w) ?5 a; J7 {3 N) @' O, [Operational Test # h& a: |& w; U1 x6 x4 x& kand Evaluation S6 l0 T [* _(FOT&E)* Y# h9 J4 c# ^" _. s0 \; n$ s2 M0 V That test and evaluation that is necessary during and after the production period8 j$ |1 l/ ?- M* L, T; k2 s: Z to refine the estimates made during operational test and evaluation, to evaluate+ ^+ Z' `' p# F, m1 k changes, and to reevaluate the system to ensure that it continues to meet % }0 T9 B* C' w. v$ }8 ooperational needs and retains its effectiveness in a new environment or against. x$ S% K2 e+ g3 _0 K1 P. ~ a new threat.; a: o1 |( X% i) ?/ Z FOM Figure of Merit.5 T* b5 D& c3 W0 C: V# X& m3 I* l# H FON Fiber Optic Network. 0 m ?0 W8 ?3 d* g/ CFootprint (1) An estimated area of possible reentry or the solid angle of a detector or, y/ i! u% G" U" r+ h: ^ linear area of a detector at a certain location. . C5 P# f, n8 ]0 F$ y(2) Geographic area in which a focused satellite downlink can be received. ' P1 D }& j( L9 |! U; _FOR Field of Regard.( ^$ g, d) }; w9 C% E& d8 g, O Force Closure The point in time when a supported commander determines that sufficient- o+ U8 S9 p1 b personnel and equipment are in the assigned area of operations to carry out7 ]* b1 f( l0 u3 j assigned tasks. + f* B4 A9 d9 a L2 { \% DForce Development Test and / _/ k; A6 _. @5 ^Experimentation9 R' p+ X1 Y. z( e8 r+ I Tests employing representative users to examine definition of materiel0 N% N# Y/ O m4 b; S$ U( l+ Z requirements or support/assess development of doctrine, training, organization, $ @8 T7 c# b! Q1 n3 U) K: @and logistics for system acquisition. (U.S. Army). " G6 V: T% M: B1 EForce Direction The operational management of the forces. : b- x% x7 H# C- C0 U4 k/ Z8 }Force Integration6 _4 }6 P0 ]1 M0 r( F ^7 ` Staff Officer1 }( ^( d) S; F! c Army individual assigned to ODCSOPS to serve as HQDA user representative for % |, h }8 }1 L4 [7 k( }% @" xa specific system. Provides continuous coordination necessary for integration of0 y1 t# _% N& P* X+ c) E; { a new system into the Army force structure.+ A4 @3 b- S* |+ y. s8 T Force 3 A+ W# n/ d0 L; ~, a; I8 ?Management' A0 x' m, [' ~6 F% U1 A The assessment of the effectiveness of the defense forces throughout an % e5 W: c6 k) q% Dengagement and adjustment of tactics and the system configuration as + ?2 _2 E/ ?, _& N- P- {5 wnecessary to effectively allocate resources to satisfy mission objectives. 2 J. I' T/ x* X( T( w; ^2 n8 a2 |Force Reliability The percentage of the missile force that will successfully detonate within 3.51 N; G1 m% T9 H* A5 G$ z _" H CEPs of the target. - D, g9 b2 w1 N' P, Y: K& EFORDTIS Foreign Disclosure Technical Information System. ( u" o( F; o1 B6 l2 ~# |% FForeign 6 U: W' x* t9 G9 bGovernment 8 r+ p- d; E; Z- wInformation+ }4 x6 n: z5 o y5 S7 I Information that is (1) provided to the United States by a foreign government or w, M% `! V5 D- w; {7 U governments, an internal organization of governments, or any element thereof9 ^) A5 v* { R# L/ o with the expectation, expressed or implied, that the information, the source of1 b( x. }1 D! y/ L the information, or both, are to be held in confidence; (2) produced by the United2 t. s2 u/ b$ e9 k" {4 t States pursuant to or as a result of a joint arrangement with a foreign : y' K$ F. q; \$ kgovernment or governments or international organization of governments) g/ z9 g# }4 A) u# G1 l5 C requiring that the information, the arrangement, or both, are to be held in 5 `0 K" o4 T! v+ `- U0 T7 H2 Rconfidence. ! b/ ]# D; \) L% q- N1 m/ W- lMDA GLOSSARY, VER. 4.0 F5 M2 N& \" Q- ]4 ~& p9 v3 ? 111- m5 O9 m0 V0 \' z$ c Foreign Military; f9 u" g- d6 x2 P Sales (FMS) & n% B4 D' }9 J& g5 qThat portion of U.S. security assistance authorized by the Foreign Assistance Act) K7 s7 S" X. ^ of 1961, as amended, and the Arms Export Control Act, as amended. The 1 |0 O, z3 W. G& Yrecipient provides reimbursement for defense articles and services transferred7 Q6 T8 J1 q$ z) G/ v from the U.S. Includes case sales from stocks (inventories, services, training) by ) Y/ d$ n5 k$ q! `! ^7 pthe DoD defense services.2 _1 F) d% m$ @7 | Foreign Security * L4 i8 b9 r0 OPolicy Model) n7 m, i4 b' P9 v A mathematically precise statement of a security policy. To be adequately6 ?) }: d) k% d- @$ O% ^7 ^ precise, such a model must represent the initial state of a system, the way in + F9 k4 o6 E. W2 ?which the system progresses from one state to another, and a definition of a. y0 D9 r2 T: ^- E “secure” state of the system. : Q9 ~5 b+ v" yForm, Fit, and6 P) l, w, `7 _1 Y2 c8 e3 Z \4 Q Function Data' i1 n/ _ R) ]4 V* m& y6 i- t2 D Technical data pertaining to items, components or processes for the purpose of 9 S1 T, S) J) N2 P: W# b5 P3 Cidentifying source, size, configuration, mating and attachment characteristics,4 x( d% D4 r$ p$ d# `8 J; @2 ^ functional characteristics and performance requirements./ x/ S0 e+ n: `+ _ Formal ! n& A! T) D* SQualification, |& H7 B% j4 S2 @) w% `2 k# t Review. D/ K1 ^: k2 x8 p A systems level configuration audit conducted after system testing is completed 7 u$ T# Y7 A& C ] t% I$ Gto ensure that performance requirements have been met. & Q) p) O" f4 e4 O% @- U; ^Formerly* g* N* f3 r% n6 x* s Restricted Data/ k+ N, b4 q/ y: q/ x Information removed from the RESTRICTED DATA category upon joint5 R4 F) h# V; E determination by DoE (or antecedent agencies) and DoD that such information 3 g5 E$ x; l6 |% F1 arelates primarily to the military utilization of atomic weapons and that such0 @' X w, R8 Y F! J information can be adequately safeguarded as classified defense information.6 L; P/ c7 f! U9 u$ N! | FORSCOM U.S. Army Forces Command, Ft. McPherson, GA. & Q# t0 }7 d) ]. v) FFORTRAN Formula Translation Language.

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发表于 2008-12-25 20:06:48 |只看该作者
Forward Edge of# N @' v* s7 i the Battle Area # H, M H3 C2 b$ S(FEBA) 1 a% ^0 `* a [! k, IThe foremost limits of a series of areas in which ground combat units are+ g8 }- }0 T3 j5 J deployed, excluding the areas in which the covering or screening forces are ( d% D( W4 f- {operating, designated to coordinate fire support, the positioning of forces, or the) Q; F) z$ Z9 S; R% ~$ _6 `- I maneuver of units. $ K9 W) U$ {; R( u) ~; NForward Funding Carry-over of RDT&E funding into second year of appropriations availability. ' g/ s' [2 {* d- TRequires permission from high authority.! u) @; y: k' V# x7 E! l FOS Family of Systems (TMD).: C1 s% Y/ M. P FOSS Fiber-Optic Sensor System.* o- N$ U* L5 e; X# O4 c9 P. I FOT Follow-On Technologies. : ?; s' @- [: ~3 dFOT&E Follow-On Test & Evaluation. . V- B9 f P+ A9 _& Y3 yFOTC Force Over-the-horizon Track Coordinator (USN term). 4 i9 r4 G+ W- Y2 G2 xFOUO For Official Use Only. 3 z; h. D4 ~* {7 ^' EFourth" U7 w8 ]; p6 j4 n2 P* G Generation 6 M0 @, o% c8 U7 B9 p' J8 BLanguage8 C; S' w% T9 k: F8 B9 @: r A programming environment that produces both screen and report utilities for+ }: {4 ?* g/ G8 I, n Y use by lower-level programming environments.8 Q2 X4 f" h+ r, }& f( o7 U FOV Field of View. ! ^8 s/ S9 ~8 C( I y: @* u" t dFOV Radar [Full] Field of View Radar ; S5 y- c8 D2 o1 [1 l2 V) s2 nFP Focal Plane.% K( x3 C3 C" S( @ MDA GLOSSARY, VER. 4.0 F1 e) t% L% P6 |8 G$ Y 1129 i8 G- t7 ]; j1 i( q0 C8 G FPA Focal Plane Array.2 b6 n9 w5 S, R& @% s* O FPC Facilities Protection Committee. 1 z2 l. A: u" v; ]# LFPI Fixed Price Incentive. " ~( F/ ^3 `9 CFPS Fixed Radar.$ e: {, v: j' X, [/ \6 N FPTOC Force Projection Tactical Operations Center (USA term). ! r9 I* I3 M: {5 uFQR Formal Qualification Review. + Q3 \4 @& l2 q6 _$ g pFQT Formal Qualification Testing." Z6 h3 N4 c5 Q+ J/ X% Z! N4 C5 Q FR (1) Federal Register. (2) France. 8 j/ t7 C& m$ \$ W2 l. ]6 f" m* gFRACAS Forward Reaction Altitude Control System.$ I# L7 g6 E+ u" e4 U- f, V FRACS Forward Reaction Altitude Control System. # l) S3 F' R2 _, qFragmentation& ?0 D0 n( u( h# K0 q, w Warhead5 g# |3 M- N, m. @- `2 [* F' { A warhead, which releases small solid objects to damage or destroy its targets. % d/ O2 n; }, A9 e1 M/ d2 XFRAS Free Rocket Anti-Submarine. , A# @' s: y1 g9 [) m1 b: M% M9 wFRC Fire Control Radar7 z+ ~# |- `% h FRD Facilities Requirements Document. ) w/ ^2 }! V' m. b* c R" gFree Electron % V$ g( E( R* `; s4 {0 QLaser (FEL) * M. B5 _6 o9 h& K- r! a" JA type of laser, which generates radiation by the interaction of an electron beam K0 g- ^- ^, G' F with a static magnetic or electric field. Loosely speaking, free-electron laser b$ c- Q1 c8 c/ O4 s. c8 @technology resembles and evolved from that used by particle accelerators (“atom 9 z( l2 V4 t1 \smashers”). Lasers, which are not free electron lasers, are bound electron- b ]* g6 s$ c9 c# K8 j/ s lasers. 0 L- [% y" y" x. j G" S0 KFree Rocket A rocket not subject to guidance or control in flight. % K* I4 Q5 J' D2 W( c% q4 H8 yFrequency ' w/ ?6 C( K' {, KManagement 6 w: c9 h) B. k# g+ k! J: C+ eThe act of allocating frequencies, or bandwidths to a telecommunications% i( X# ^$ r4 a0 t, V system, necessary to minimize the potential interference between 8 v' r" w6 O0 T: Utransmitting/receiving devices. Governing agencies and international agreement* h/ q" g2 v# }7 { controls authorized use of a particular frequency, frequencies, or bands.& B1 k. F Z% X$ C4 A* j FRG Federal Republic of Germany.- q+ I7 W1 L) g8 g2 A, \' S FRN Force Requirement Number.# `) B% e9 r9 k3 W# Z FROD Functionally Related Observable Differences. 9 u( _# A$ C9 o- a5 f* XFROG Free Rocket Over Ground.' E! \! e- |2 b. L4 w FRN Force Requirement Number.0 [$ Z( c( z2 f$ z6 E/ V FRP Full-Rate Production. 7 I7 ?% X# n& N2 f9 j! P9 gFRS Federal Reserve System.. @- Z1 _( e/ k FS&E Facility Siting and Environment (MILCON term). . `. z8 N' R" ]5 c9 iMDA GLOSSARY, VER. 4.0 F : l% u f& q! X; I; J113 + r, a2 c, s- r8 _FS3 Future Strategic Strategy Study. , U6 R& I! R! O( F6 H, c7 QFSAF Future Surface-to-Air [Missile] Family. 1 q* v9 y! v+ i! l) PFSC (1) Fire Solution Computer. (2) Fire Support Coordination.7 l- Z3 _9 l5 |/ | FSCATT Fire Support CATT [for Weapons] (US Army term). / ~5 y5 `8 y9 I) p+ K7 `5 lFSCL Fire Support Coordination Line." v% r7 H0 K: e ~# Y% a, c FSD OBSOLETE. Full Scale Development Phase. See EMD.8 K2 T2 n5 a- b/ V8 P7 V( O7 L FSE Fire Support Element.* M: b6 B, e) g+ O0 l: r3 V FSM Firmware Support Manual. - w% m5 |; l0 Q2 g, ^FSP Facility Security Plan.4 I9 F$ X4 @ ?6 Z0 I P FSS Fixed Satellite Service.) S. j# |! u4 w, }5 D! p FSST Forward Space Support in-Theater. 4 p' \/ T# A$ z/ t' G; o1 WFST Flight System Testbed., b, Q/ F. C+ a/ }! b& A- \ FSU Former Soviet Union. / N5 [8 U. w! W9 I C& U& Z2 `FSU Republics Former Soviet Union Republics.1 F D( Z5 ?* k: ?4 W FT Flight Test. 3 d9 { K& h1 q8 ~5 C* BFt Foot $ }: I5 G# V# HFTC Federal Trade Commission.$ W8 F- h* M2 o; ^ FTD OBSOLETE. Foreign Technology Division (USAF), Wright-Patterson AFB, OH. $ H, {0 F- [' ]: U% o8 V$ e) }See NAIC.- s7 ` [+ z/ `& l4 C {# U. I: ? FTI Fixed Target Indicator9 R( Y( l- _* x FTLS Formal Top-Level Specification. , D9 }8 v9 H* k {FTP File Transfer Protocol (ADP/Internet term).2 R$ A4 X& ]/ R6 K5 z, Y! ]* l3 K FTR Flight Test Round.& Z; s- @; e* \" t# o FTS (1) Flight Test Summary (2) Federal Telephone Service * y0 U% W$ {: lFTS 2000 Federal Telecommunications System 2000. & [/ w+ l/ \5 y( U3 u* t; e1 pFTV (1) Functional Technology Validation. (2) Flight Test Vehicle.: u9 d3 d) Z! Y7 G FTX Field Training Exercise.! t6 L5 ]8 K e* y; X3 [7 r3 | FU Fire Unit (PATRIOT). 6 X# v$ Y! H, O$ ]* B5 ]9 W( jFUE First Unit Equipped.2 S' p# \* J, J6 m5 b MDA GLOSSARY, VER. 4.0 F$ O2 U O/ | @# d3 T1 O$ s$ d 114 9 c2 S* ?$ v5 T1 W6 }( t4 \8 c% sFull Mission 6 F- n8 g6 {$ d8 k5 @% hCapable1 _" W) x6 J, K* \ Material condition of an aircraft or training device indicting that it can perform all: w2 ^- U1 S, S' Y5 X+ h% k of its missions. Also called FMC.6 p8 M4 K) V$ h9 _ p6 o Full Operational ) f! [0 ~) z+ I+ J3 ICapability (FOC) 2 H8 S( h. g% @" U# L* Z8 B! RThe full attainment of the capability to employ effectively a weapon, item of; ^1 t8 J4 _% }1 x! b+ c. t equipment, or system of approved specific characteristics, which is manned and ; q; H; p/ W" Y8 H5 K6 {' [, L" woperated by a trained, equipped, and supported military unit or force. 0 \, U8 {) H4 {1 ?6 ^6 ]Full Rate * Y. R p( f& T1 vProduction 8 X7 Y9 ?$ m6 b: X, W$ W* ~Production of economic quantities following stabilization of the system design0 d; |: Y7 c3 \, M7 B2 \ and prove-out of the production process. 3 e. C2 E' G6 c2 x v- Y4 |Fully Configured8 B/ @2 |9 d: Z6 g; m- r End Item6 T" R0 U7 v n: a The final combination of end products, component parts, and/or materials, which, s* k/ v) `, q6 y6 n$ f* h* w is fully ready for its intended operational use. Normally all production units are % @0 b. Q4 i0 G0 Ofully configured. Research and development units may be considered fully " S, e$ z) K7 m; u F, p7 s/ J6 Fconfigured if they are or are planned to become operationally equivalent to the / U: s+ }" h: iproduction units.

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发表于 2008-12-25 20:07:01 |只看该作者
Fully Connected% h$ r, l" b H! d& y& B Network (FCN)9 l) b4 j; ]! Y A network in which each node is directly connected with every other node.) j* Q* `- B; x$ O Functional 6 N+ N! @* p2 e% y% q1 _Analysis 3 E( a0 g) `# _' w; I2 y/ g+ IAn approach to the solution of a problem, in which the problem is broken down 5 z, o* g" d& k! _4 |+ |into its component function, such as intelligence, firepower, or mobility. Each: Z7 ?* t$ D' e7 l5 E# }0 | relevant function is then further analyzed and broken down into smaller ' q6 g2 L: i6 Ffunctional components until a level of molecularity suitable for solution of the6 R; W$ z! h5 } R6 z g; c+ i* d3 r problem is attained. ' j" b: F2 ]- y4 z, ~* L: eFunctional , S) k/ E7 f) b/ o1 p8 |/ o: cBaseline C, Z9 M7 D$ x% c- l* ^ (1) Established after the system requirements analysis/design activity has$ B: J! D/ Y- a+ \; n/ @1 i completed the definition of the system functions and associated data, ! y9 z: ?' C! _9 kinterface characteristics, functional characteristics for key configuration7 H4 V+ g2 O% h" Y3 c items, and tests required to demonstrate achievement of each specified7 d1 d q, q8 {/ ?' l characteristic. This Government normally controls the baseline.5 e& A2 K! g8 L ]- x! y2 Y5 n# H (2) In configuration management, the initial approved technical ; E" M4 A2 H. o( F! ?& @documentation for a configuration item. " w1 \, b& ]9 w* T* ]" s9 a/ R(3) Documentation describing a system’s functional characteristics and the5 V4 H0 l' u$ e% R3 N! R verification required to demonstrate the achievement of requirements.' E' M9 z ]4 H* l Functional) {0 D/ [3 ~: Y4 t; p Configuration4 @/ V! y1 \8 w' ?7 {( o( w Audit (FCA) 9 B, E/ \3 J; z! N0 j4 RThe formal examination of functional characteristics test data for configuration 3 F: f" G0 c5 I+ `* f- Iitem, prior to acceptance, to verify that the item has achieved the performance3 K4 ?/ u+ \& C2 f0 }1 o specified in its functional or allocated configuration identification.: I' H% G# A" C, s: n Functional 0 |+ R: r( s: k, pEconomic" V! @/ _5 U' [/ U+ ] Analysis (FEA), O, @& c. G# G; d A structured proposal that serves as the principal part of a decision package for7 {7 a, U) ?6 ~ enterprise leadership. It includes an analysis of functional process needs or * e& h8 I+ v: bproblems; proposed solutions, assumptions, and constraints; alternatives; lifecycle costs; benefits and/or cost analysis; and investment risk analysis. It is ( n1 W: O" V; v2 W' u% f1 f* mconsistent with, and amplifies, existing DoD economic analysis policy in DoD + M% h; N/ [" g* T! k/ x H) V# pInstruction 7041.3. / D4 R4 m4 [4 FFunctional Kill The destruction of a target by disabling vital components in a way not * U, r, h/ Q0 B }2 }# A9 Oimmediately detectable, but which nevertheless prevents the target from* } S) T' d2 x" V functioning properly. An example is the destruction of electronics in a guidance + e3 ^3 B; r* U* s5 m( R1 e. Dsystem by a neutral particle beam. Also referred to as “soft kill.”& ]0 O3 H0 ~) B: L Functional 9 b7 J, k2 ?" g. ~5 H4 C# ]$ NSupport 5 T9 s5 _9 j- ~5 r6 gSystematized methodologies and procedures, or a common set of standards,1 i" @, C+ @# `6 Z( |! ?* a5 z2 y applied to materiel acquisition programs.8 K( W- {) t3 g& {& o Functional N& w; H: P% m1 D' p Technology 3 r' J6 X: I U. R! QValidation (FTV) ) ?( |# y- a- l1 c" P" l# `Program with the intent of proving or disproving a technology is useful for a given 7 l; x/ _" q( J2 R9 q' ]; {application. 1 K5 u; R6 U; ]8 c7 [9 bMDA GLOSSARY, VER. 4.0 F' |1 G' @, N/ Z2 ^ h4 M+ J 115" n7 A) {2 A D Functional : o5 m! Q8 O3 |6 a2 ~$ @Testing 3 v' o6 X! e! Q3 j( lThe portion of testing in which the advertised features of a system are tested for ' ~# k. j3 K& ^) Tcorrect operation.- u" R* @* I( _# S& } Funding Profile Program funding, usually displayed in columnar spreadsheet format by years,: ~) f# I8 n" i' `; d' V* T starting with previous year through current year and out-years. / U9 D& a/ F& o% @Future Years2 c# m; x) U# {* Z. X) A Defense Program# H: z. w: ^( h' V (FYDP) 7 A/ A" ?4 N* T/ C# c2 hThe official DoD document that summarizes forces and resources associated with! x; k# O. g% J programs approved by the Secretary of Defense. Its three parts are the 1 s9 v; [! f$ }1 Forganizations affected, appropriations accounts and the 11 major force programs 1 b y* h2 C4 B" k1 F) W(strategic forces, airlift, R&D, etc.). Under the biennial PPBS cycle, the FYDP is2 s! Y, `! b# l. d0 F updated in even years in April (POM); October (budget); and then in January " S" F' K: F8 w- W5 H4 c2 u(President’s budget) of odd years. The primary data element in the FYDP is the/ T8 N) o2 r" f7 ?2 a Program Element (P.E.). Formerly known as the Five Years Defense Program.1 ?8 R3 \/ v- m FWCA Fixed Wing Combat Aircraft.; q$ q! O6 d* Y I- I& E h Fwd Forward.6 ^9 [! h8 c/ W FXBR Forward-based X-Band Radar. 8 S6 U! c0 g) w0 m: u; b. Z' uFY Fiscal Year. 3 R' P+ \' y7 M! ^: p7 ^, T' zFYDP Future Years Defense Program.$ Z( r7 r4 }0 J# N/ Q) V+ F MDA GLOSSARY, VER. 4.0 G # w9 ?" g- |- m8 Q0 T& a116 8 e6 ?5 N4 ~( ~7 x5 ` @G Giga (one thousand million). i9 B9 k( p0 p! [# Dg Gram. " E0 f$ [2 E8 M* I) ?G&A General and Administrative costs." _* h9 F1 D3 i* \7 Y G&C Guidance and Control.6 F8 v9 g$ H1 n1 h+ a G&O Goals and Objectives.9 I3 F3 S8 ?1 n2 r9 ] G/A Ground-to-Air ! P0 G) x$ H% A3 f6 F9 LG/G Ground-to-Ground.) s, Q P* _& @4 Z GaAs Gallium Arsenide.5 f$ `2 @- O. o Galosh The Soviet Anti-Ballistic Missile system built to defend Moscow from missile * @7 l/ s8 Q Oattack.$ p% M6 k! }9 N: @2 N5 @3 F' i Gamma-Ray Electromagnetic radiation resulting from nuclear transitions. Although incorrect, 0 W& k3 ]+ Y0 t# L* l8 L. Bhigh-energy radiation, particularly “bremsstrahlung,” is sometimes referred to as 4 t! Z# ^: X" M, A2 F/ Kgamma radiation. N: U0 I6 L- i/ X! MGamma-Ray 7 c. t1 N! `# }' ~6 E0 lLaser : M9 k0 I2 L" y# AA laser which generates a beam of gamma rays; also called a “graser.” A " \2 t3 x2 a9 Z+ s. Y% k3 Zgamma-ray laser, if developed, would be a type of x-ray laser; although it would- m' A% O* G$ _ o# ` H: i8 J# P employ nuclear reactions, it need not (but might) employ nuclear fission or fusion+ G1 r0 b& _) [; x4 ?7 ^ reactions or explosions. 3 e4 M: g0 T6 Z9 p# `- V/ TGAMS GPS (Global Positioning System)-Aided Munitions. ! P4 }% b5 I5 q, I, A- k( q8 Q2 M- ?GaNMPA Gallium Nitride Microwave Power Amplifiers. (A demonstration program to develop: x( G/ K- t# b- v! N8 T4 \7 X GaN based transistors and integrated circuits for power amplifiers in systems" y& ]- }3 z' i- ?) P' s such as Ground Based Radar. Goal is to reduce total weight and size by a ) I8 u! d& g0 i5 @' X5 }( q4 rfactor of 10). 2 K3 c# x) O: i" QGAO General Accounting Office.. D+ l) X) R' L GARDIAN General Area Defense Integrated Anti-missile Laser System. # i5 D9 H9 b4 ]GAT Government Acceptance Testing.2 B0 s8 i8 R1 ~2 W+ ` GAT CALL Guidance, Apportionment, and Targeting Call (JFACC term). / r7 }( c! T; u# U( g u* ^+ NGATE Graphic Analysis Tool Environment. 5 S$ ~' L0 z3 Y! j k7 lGateway An element that contained a node on the SDS backbone network as well as on0 R4 v1 x2 T, D some other network(s) and would have performed protocol and format, Z; W$ u. W) V- Z5 ` conversions necessary to accept messages from one network and retransmit ( n5 Q4 c; c+ |- R) athem on the other. % Z X6 |' b/ \+ |! T0 K' IGATS GPS (Global Positioning System)-Aided Targeting System.% p' @# }0 m& D# v5 e/ S/ [& q GB (1) Ground-Based. (2) Gigabyte.2 e. W8 @5 A7 ]4 ]# F( B GBD Global Burst Detector. ! y2 X( ?7 h8 j, H6 U+ ]: uGBDL Ground-Based Data Link." @# P7 p* e; F& R& ] S7 X! G MDA GLOSSARY, VER. 4.0 G ) z* Y' |& d& x5 B117 . y6 |- B# w6 B3 ^, mGBEV Ground Based Experimental Version. 4 c4 v* ?, @) ^2 n! eGBFEL Ground-Based Free Electron Laser., I' G1 Y& Q) Z4 [8 K GBHE Ground-Based Hypervelocity Gun Experiment. * [3 M/ d- Q9 _" D. ]GBHRG Ground-Based Hypervelocity Rail Gun. 2 _+ X8 o' @3 ?% Q. t3 z- C; uGBI OBSOLETE. See Ground-Based Interceptor.. U$ X, Z6 G+ X GBI-P Ground-Based Interceptor – Prototype.$ ]; Z- D$ D$ z Z$ K9 X9 i0 I7 A GBI-X Ground-Based Interceptor Experiment.' O, \3 n! |0 `0 B- Q$ G' i GBKV Ground-Based Kinetic Kill Vehicle. $ n5 K2 i3 X% l6 m3 c1 H, S% c1 D# `7 pGBL Ground-Based Laser. t% a! Q2 C6 E/ uGBLD Ground-Based Launcher Demonstration. 2 B! Q" }0 B1 u2 T9 V& p) N6 vGBLRS Ground-Based Laser Repeater Station. * q" k/ J% l& v+ ~& K2 EGBM Global Battle Managers.; |/ D. x1 i& V5 C7 @: V GBMD Global Ballistic Missile Defense. 4 C) Q, a1 Z& {GBMI Ground-Based Midcourse Interceptor.0 c+ \9 k. }5 Q [ GBOS Ground-Based Optical System." b G8 O4 f4 v2 r4 R3 I7 k' [ GBPST Ground-Based Passive Signal Tracking. . X: f) `9 j: g1 q3 N+ z2 v5 `GBR See Ground-Based Radar. % w4 F: ~5 Y2 o; NGBR-M Ground-Based Radar-Midcourse. $ ?. C3 c9 V. ]GBR-O Ground-Based Radar-Objective. / z( H, C# W& @8 d7 @% _! cGBR-P Ground-Based Radar-Prototype.; Q, [/ N# u+ P6 i' w( K6 X& I GBRT Ground-Based Radar Terminal. 3 x$ ]8 Z" T* B; z, t: RGBR-X The experimental version of the GBR.1 }! p- T( m0 F# g, X$ C2 G GBRF Ground-Based Radio Frequency.

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GBRI Ground-Based Rocket Interceptor. \: q1 C8 e7 z( F" N$ Z5 e: BGBRT Ground-Based Radar Terminal. 6 W% O) n. s) LGBS Ground-Based Sensor.( n$ Z9 C8 T6 j( r8 | GCA (1) Guidance, Control, and Avionics. (2) Guidance, Control, and Airframe.+ E4 y/ Y( v5 ]% a GCC Ground Component Commander (JFACC term).+ b' O# e# {8 R- W' V3 v- w# C1 d GCCS Global Command and Control System. 9 }' J# q) ~. w$ [3 JMDA GLOSSARY, VER. 4.0 G( N$ H u7 ` k- B1 h( o' k& W 118 2 X! O" W& F6 ]GCI Ground Control Intercept. 9 K2 x9 e% C$ J/ t; {- n; sGCN Ground Communications Network.+ W( w; o% ?& Y8 f& e( x GCS Ground Control Station. 0 z( g0 @. P9 Y ?% AGD General Dynamics. 6 e: Q2 J& O% tGDL Gas Dynamic Laser. 9 j) v0 Z* s: }; M/ [5 ~3 HGEDI Ground-Based Electromagnetically-Launched Defensive Impactors. # o; [6 @0 W+ t4 ~GEM Guidance Enhancement Missile (PATRIOT)." a w! g* @& ]6 C2 Y7 n R General Manager & e/ D h6 n) s* J C/ IProgram& b6 }/ J) x* X# y1 p4 f- r Management . f( R: v+ c; j' I3 tDirective (GPMD) 9 ^6 R& D; W, LOBSOLETE. The primary document used by the GM to direct the Service BMD " D9 S+ x- J, _8 i8 mPEO on the specific actions necessary to fulfill BMD program requirements. ) Z2 x/ M5 r qGeneral3 d4 ]- R; [! u: z Specifications 9 e! G5 V+ o( ]# u. b' u, lA general specification covers requirements common to two or more types, ' E- j: c1 M& g' \+ sclasses, grades, or styles of products, services or materials; this avoids the 1 H& H8 w- H. U1 {; X7 ~repetition of common requirements in detail specifications. It also permits; _2 H1 F5 B' U9 |# | changes to common requirements to be readily affected. General specifications 6 b. P5 G; h; n" d, f6 Q, p+ Hmay also be used to cover common requirements for weapons systems and # y" j3 |& a9 G$ u3 y. i( Lsubsystems. 4 ~6 Z& I. N( `5 a- ^8 `2 V( CGeneric Rest of+ D5 L+ h- b, F. _" R" Z World Target - M; m- f; ~ h( ]5 u6 X1 Y. r4 x3 l(GROW) 1 N+ ~# S% ~4 B- H' Y/ @Strategic target being developed for GMD program./ U' `: Z$ a3 E _: U8 ?8 j5 t GEO Geo-synchronous Earth Orbit.9 u2 ` ^: K% ?" s5 A" H& ?, s GEODSS Ground-based Electro-Optical Deep Space Surveillance System.) u9 _2 k/ o* k' A5 B: W Geo-stationary 8 O2 Y* ~/ E4 u/ ^$ Y) O \Orbit (GSO)+ ?/ A6 }; ^8 l* V; J9 }7 G8 o An orbit 35,784 km above the equator. A satellite placed in such an orbit, `4 t& L x$ h7 O( L1 e$ c revolves around the earth once per day, maintaining the same position relative 9 H7 I$ R& `4 ?0 y* e5 ato the surface of the earth. It appears to be stationary, and is useful as a- q% |; x' S7 {7 g9 a9 a$ q communications relay or as a surveillance post. : @: M; a: h+ |: K5 g5 A; xGEP OBSOLETE. Ground Entry Point. IFICS. . h; V% S* n/ s2 iGES Ground Engineering System. " K! a% O- m' {% @% B% Z" x DGFE Government Furnished Equipment. See Government Furnished Property. 3 z0 a( A/ ]( i: tGFI Government Furnished Information. $ f5 w& {/ ^) D+ } `4 t; ~0 `GFM Government Furnished Material. ' M0 x' J8 }& Z" {GFM/P Government Furnished Material and Property. See Government Furnished6 L" ~' ~; q7 L8 q Property.0 Z$ |+ I/ Y# l2 N) Y GFP Government Furnished Property.8 r3 _8 |3 w: \: n GFS Government Furnished Software. See Government Furnished Property. + n% r4 m5 o8 ^* {- Q" `/ Z% vMDA GLOSSARY, VER. 4.0 G+ f. n1 ^ s. ^5 }8 c 119 # P& S6 P5 X- Y1 LGhosting This condition occurs when two or more targets reside close to the same plane * L1 ^9 ]7 z/ V3 P) [2 O: `, jalso containing two sensors viewing the targets so they are within experimental" i$ u& C% X: E* | determination of having the same hinge angle F. Thus, ghosting depends on" Y+ o/ |" ?; `! [3 c( q4 g LOS error and positions. 9 @7 \ w0 u( @4 B, gGHz Giga Hertz (1 x 10(9) Hz). + b3 S6 {4 b5 J3 D0 @- r/ f2 PGIDEP Government/Industry Data Exchange Program.6 A n; X. D) K J+ h7 [ GIF Generic Interface." `1 B' r( g. c4 D6 Q2 i GII Global Information Infrastructure. * B/ ~' u, y: }' wGIP Ground Impact Point.- e$ h# p1 Y6 w+ y GIS Geographic Information System. 9 z% w" I! H( x8 XGITIS Government Integrated Technical Information System. , v$ @, C- a* Z* v, UGLCM Ground-Launched Cruise Missile. $ \. n: ?6 H! k! o5 hGLP Ground Launched Probe. See Brilliant Eyes Probe. " o/ C/ L" F9 D1 p/ GGlobal- X9 T1 l8 p9 G9 J0 L, p! h Environment# n/ p1 X1 l' W6 v The ISTC Global Environment is responsible for the creation, propagation, and& O+ e; I# f) d/ l0 K* \# M maintenance of test scenario common knowledge, how subsets of this/ m a; p! d+ d+ y information will be determined, and how common knowledge will be disseminated 9 z, M# Y* }" m4 a# _/ s0 lto the various element representations (nodes). The Global Environment 1 ]2 U$ ^ x2 C$ c0 bperforms functions which are common to the scenario such as timing, health, 3 F [" _" L5 e$ _status, state vectors of objects, and effects models. $ Z8 l8 r- I! Q5 Y7 k% Q" z3 p& J. ?( GGlobal6 e8 Y+ Y7 c! V/ O) ^- Q Positioning . I+ V# ~$ ]5 D/ _" E# P3 C) LSystem (GPS)+ d* U1 b; S6 k/ S+ C$ Z The NAVSTAR Global Positioning System is a space-based radio navigation % f1 n" j* b4 G( z6 B; Q- |: n& Onetwork providing precise positioning and navigation needs of all the military % Q1 Z/ _; `5 P' @8 [3 [. v& s; u% Qservices. In the fully operational configuration, there will be 18 satellites in six / r# D; g. M8 [$ Forbital planes with an orbit period of 12 hours at 10,900 nautical miles altitude.+ X7 x. U' u1 ]' _# o5 o* D; m Each satellite transmits three L-band, pseudo-random noise-coded signals, one) _4 X: ?$ u3 N/ C! a8 o! m S-band, and one ultra high frequency for spacecraft-to-spacecraft data relay. & F/ Z' ]* k. U6 E. \5 [5 IGlobal Protection 4 d7 _ C7 l# a6 A7 W6 i/ [' ?Against Limited ) a8 Q" @4 H _, S0 pStrikes (GPALS), `; K5 p; T0 X8 H) @' j4 _ OBSOLETE. GPALS was an architecture denoting an anti-missile system) d7 i" n( w" R6 k' p1 n designed to provide protection against limited ballistic missile strikes, be they& @: A! U* ^* L1 [) X deliberate, accidental or unauthorized—whatever their source. GPALS was7 u: V4 G& r1 F' e4 |# M X composed of three interrelated segments: (1) theater ballistic missile defenses, 3 q: d4 k3 \) Q/ U" e% sand associated space-based sensors, to protect U.S. forces deployed abroad, 6 P: Q G, H5 Fand our friends and allies; (2) ground-based defenses, with space sensors, to ) [- M$ s/ c- g0 N" jprotect the entire United States against long-range ballistic missiles; and (3) " s) x* d9 V6 ~- [$ \interceptors based in space – Brilliant Pebbles – capable of providing # S) K2 V" u) J# g* ?9 [8 V0 i# D C) x% Acontinuous, global coverage by intercepting enemy ballistic missiles with ranges 5 z5 l& F- C. \$ ], N8 Q, o% [5 b* h/ Zgreater than several hundred miles.5 |6 I0 y, L+ D) w- [1 j Global Protection' {4 b, g9 u" H! b Against Limited% Z4 w" I" T1 y1 W% }+ @ Strikes (GPALS) 1 N& o! `5 B+ kProgram' G# \' A( I0 R. {( N OBSOLETE. The GPALS Program consisted of six Major Defense Acquisition ; d K" _. {$ M' F u" C# GPrograms: GPALS System/BMC 3" b) M$ {+ w% T0 q V , National Missile Defense (NMD), Global Missile # [3 C4 _& E' U4 [' c6 {0 CDefense (GMD), Upper Tier Theater Missile Defense (UTTMD), Corps SAM, and [4 \4 L- d- u9 L' Y0 ^. D _PATRIOT. Army PEO GPALS was re-designated PEO Missile Defenses in 1992.3 ^6 ~: ^8 T; d) \" H/ Z GLOBIXS Global Information Exchange System. 2 Q6 q' n! v4 L: AGLONASS Global Navigational Satellite System.5 |! ?- U# i9 l# ~& z# w$ W! X2 Y MDA GLOSSARY, VER. 4.0 G G1 Z. K, f6 C: {! J120) n! l+ _1 Z: S. L$ q8 W GLOW Gross Lift-Off Weight." Y$ A: F: h3 o# G# Q9 h GLP Ground Launched Probe. See Brilliant Eyes Probe. ' ^0 b) l, v: {; ^4 K4 IGLS Ground-Launched Sensor. ! J# G. t. x- | dGM (1) Guided missile. (2) General Manager.. a( w0 `% T+ J `$ V0 a GMACC Ground Mobile Alternate Command Center. # S( ~8 Y0 `+ W, p) l. L3 [GMAOC Ground Mobile Alternate Operations Center. , m* I" N8 p2 l$ V8 S7 i: m3 FGMCC Ground Mobile Command Center.5 W8 n, b, G' n7 o GMCP Ground Mobile Command Post. - o8 F( B- S) n* R% N$ uGMD (1) Ground-based Midcourse Defense (formally National Missile Defense) (2)& d5 I4 t: K. \0 j( R$ h Global Missile Defense (OBSOLETE).% F( v9 w/ ^! M4 A GMT Greenwich Mean Time. ( D' z- l. H% }2 TGMTT&C Ground Mobile Tracking, Telemetry, and Control.& z) h8 V! D; I- L3 t0 h4 {: j" P GN&C Guidance, Navigation, and Control. % ~, p4 u( s% C& [1 w7 [GNC&P Guidance, Navigation, Control and Propulsion.& P* |3 c! ]6 k! S GND Ground. h* I5 w7 e( @% e# a- w GOCO Government Owned, Contractor Operated./ p8 N% u2 r2 \0 G GOES Geo-stationary Operational Environmental Satellite. 7 n( C- u y% h$ Y" J1 FGOI Government of Israel., v: ]- {! D- n GOJ Government of Japan.

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GOSG General Officer Steering Group. ) N% s5 w1 G$ ~( l$ b) aGOSIP Government Open Systems Interconnect Profile (CALS term).3 F" |- D% Z- G! m" { GOSP Government Open System Protocol (CALS term). 1 {" z" Z: B% H1 w: SGOTS Government Off-the-Shelf.5 [: a8 l' W, c- f Gov’t Government. $ ^# m. L7 Q7 Z4 K" x7 BGovernment- d8 n: G& \3 G7 g' z4 U Furnished ' j. G6 u( Y$ z1 t; y" b7 sProperty 3 P1 Z: K) F/ Y: P( Z; QProperty in the possession of, or directly acquired by, the Government and & l; Z" ?' w% U: x, Ssubsequently made available to the contractor. (See FAR 45.101.) 4 F( q1 F" L6 b1 U' w; z" ]+ iGovernment $ [ _! O; j1 w, yVerification # A" O" `5 v7 F0 w. JManagement" l! H% l: B1 u% \8 ~' Q Plan (GVMP)- R2 V+ j) r! ] A management document that provides the overall framework for BMDS! P. p9 z, }- n/ ]' _. B verification. It includes processes for implementation, organizational 7 f _8 v: X4 j7 {2 t# crelationships, and stakeholder responsibilities. It covers the full scope of BMDS $ u& M9 x9 _+ S+ r N# cverification and identifies how all BMDS verification activities will come together to 8 H/ @+ [# y, l7 uconfirm BMDS capability. 2 d9 O* V: Q" {% _4 J3 kMDA GLOSSARY, VER. 4.0 G! B. M" m% G3 U9 \/ g# Y 121 1 P! J4 y: D# \9 G( k) m, LGP Group. 1 {: k1 [5 ~3 tGPALS Global Protection Against Limited Strikes.+ L J4 w7 G# Y$ S GPC Global Protection Center. 4 p/ w% @# a [* UGPMD General Manager Program Management Directive. : N6 G, l" X/ G, h6 H1 [GPO Government Printing Office (US).* F' a2 {# j3 E# m GPP General Purpose Processor.; R4 y& U* ]0 N9 g3 P8 R$ \ GPS (1) Global Positioning System. (2), Global Protection System. + n+ k+ z# }# `GPSIU GPS Interface Unit. " ~/ C3 G8 o. Y) Y' s q. C4 N1 PGPU Guidance Processor Unit (US Army term).5 ?, z; z: e" x Graceful: j7 k; S3 K' _; b" ~2 e Degradation 5 V" D' G5 W$ ]3 f' r, {A condition in which a system continues to operate, providing service in a( Z; ?% v8 f# J# O1 Q; ~0 `1 e degraded mode rather than failing completely or catastrophically. 5 T+ h% x' h/ R$ N3 W& ~* DGRASER Gamma-Ray Amplification by Stimulated Emission of Radiation. (See Gamma- # e$ ~' b/ c t) Y; aRay Laser.)% ~" J. O0 D2 @# |2 N4 G GRC General Research Corporation.- b, t5 j' l3 G6 ?# ~ Green Code Interface Software. ( c( e0 f( `# j3 c) {1 iGround-Based ! N9 k* y$ J: ?7 O5 n) w: ^3 A: MDefense( \9 b# V: F% ? The ground-based sensor and weapon systems of BMD. 8 O2 c3 ]5 E4 c$ @6 DGround-Based 7 V$ [* g# Z' O6 FInterceptor (GBI) $ v" }5 e( L8 Z& j& T \A kinetic energy exoatmospheric interceptor with long flyout range to provide,1 f0 `; |( r9 H5 B+ ^ where possible, a multiple engagement capability for defense of the U.S. with a ; _. x } h- e( f% H& `6 Irelatively small number of missile launch locations. It is designed to engage& J. v0 a2 q% I post-boost vehicles and/or RVs in the midcourse phase of flight.3 P5 D% H& y: L0 { (USSPACECOM) (Successor to Exoatmospheric Reentry Vehicle Interceptor 6 `9 ^ A0 G$ o/ y9 T7 B8 \Subsystem (ERIS).) See EKV. ! p( t) d1 ]/ y( N; d, }2 ZGround-Based m2 D6 z5 e0 U" fInterceptor5 S& G4 Q0 h h Experiment , c- f) f: g: K* v* Y; j* p(GBI-X) J z( y4 D# g Designed to infuse advanced technology and promote competitive environment 1 i( N, c' \" a, ^% Z# J2 [for GBI. + ^3 |5 O4 \% k: a6 {4 _* SGround-Based. @: f+ e; h! l0 E$ o, P Radar (GBR)0 T6 ~6 v# Z$ ?, @) C1 O p" c, o9 Z A task-able, modular, multi-function, phased-array radar that provides: i6 } b# O( B0 S# d* d$ A surveillance, tracking and engagement planning data in post-boost, midcourse,8 p! i% ~, V' m- a7 S; r& [ and terminal flight phases within its capabilities. It also provides target0 y$ u# c' R2 X; K7 s/ Z" q4 d discrimination, in-flight target updates (IFTUs), and target object maps (TOMs) to $ R* ^3 k7 N: i H+ C. y; yinterceptor vehicles. See THAAD. (USSPACECOM) 2 O' F* F0 G2 t% U$ VGround-Based $ Q6 t6 _/ F, Y: WRadar Terminal : B3 B5 L# g) p! `! h) u5 l0 \(GBRT) # k6 a7 S# }6 y) T4 aThe sensor for the NMD system. An X-band, ground-based, phased array radar6 c8 \) C1 r7 h& K1 z/ ` capable of detecting, tracking, and providing discrimination information to a0 h7 j, k5 y0 J# q, r% G ground-based interceptor.- K9 K0 z' t( v Ground-based4 U7 w H( r3 Q1 i4 ~- O Surveillance and. [9 `$ U+ W" \6 q% L" E Tracking System2 M ` f Q4 E$ H+ Q. f/ N (GSTS) - w! T1 T. e' S8 e1 G1 t( uA fast-response rocket-launched sensor, which can support the SDS midcourse% \1 O" N% e& t. E sensor suite by employing multiple Long Wavelength Infrared (LWIR) wavebands% |; x% L6 p$ i5 m! k6 e and a visible waveband sensor to provide tracking and discrimination of; S" L: q8 K4 Y/ h+ q; i& ? potentially lethal targets. ( d7 a' K6 y9 b. l$ E* p" s0 L* t& F" pMDA GLOSSARY, VER. 4.0 G ' R/ @: \! Q/ e+ r4 v122+ B; E3 l2 F* |- Y: M Ground Entry, ]0 d8 N1 o( \! _ Point (GEP)' K; d+ J9 k G/ |9 r$ I OBSOLETE. GEPs provide the communications interfaces between the SDS2 b4 |; F5 K0 }* [. f space orbital/sub-orbital elements and the C2 E. See IFICS. + ?9 Y2 U9 e+ e# d2 OGround Mobile2 I8 Q) w% O7 C3 v& X& D! q Regional9 Y% E( v1 e1 r5 i% f$ Q+ } Operations 6 c+ g" ? @/ r$ W0 cCenter 4 U- d" L z( H2 k y(GMROC)) O! A" i7 Q0 F# C7 w/ Y; j Transportable ground segment of the Regional Operations Center.7 w) u7 _' h/ K0 M1 j Ground Zero The point on the surface of the earth at, or vertically below or above, the center3 ~; F1 p. ?. ~% n3 e of a planned or actual nuclear detonation.2 e. I. D6 c" `: T GS Garrison Support (US Army term). ' W) i! k( Z9 c, xGSA General Services Administration (US)./ f6 J0 V" S4 Q6 H+ c GSDC Ground Station Demonstration Lab. T4 m8 E. ^+ | GSE (1) Ground Support Equipment. (2) Government Support Equipment. % \( A5 y+ u" @" e. F! pGSFC Goddard Space Flight Center, Greenbelt, MD.3 s6 X' s* r0 U0 Y: V7 c GSII Government Services Information Infrastructure. 3 h0 b! a3 w- s3 r, o: J6 `GSM Ground Station Module.- U7 `/ }9 O; z/ l7 W1 R GSO Geo-stationary Orbit. , |4 c( G0 o& w6 GGSR Ground Station Radar.: ~3 U$ {- |. R3 B8 a8 v GSTS OBSOLETE. A fast-response, rocket-launched, Long Wavelength Infrared * L2 o& h/ }& y; E Z(LWIR) and visible waveband sensor, which would have enhanced the 7 D) e' ]0 Y: n- e+ Dinformation available from the SDS’ midcourse sensor suite by providing tracking* J7 K8 d# K+ F and discrimination data on potentially lethal targets.* x6 W; t& V/ Y GSTS (F) GSTS Farm.1 r. M L& M) v2 Q( Z2 U/ |2 N GTA Ground Test Accelerator. 3 q( z* _8 ~4 s+ k3 W/ k% QGTACS Ground Theater Air Control System.$ J1 I; z$ k" P: U3 t# i GTE GTE Corporation. : M; @) j/ X2 V: `0 x5 nGTF Guided Test Flights.9 W* ]" q, g" a2 L; R GTM Global Track Manager.8 M# H/ @) k( _# P GTN General Technical Note. 6 b9 q! ?* d+ Y6 \GTR Gulf Test Range, Eglin AFB, FL.1 R2 `! F) x; u# h GTSF Guidance Test and Simulation Facility (PATRIOT), Huntsville, AL.7 V' p/ y2 B4 W8 q% a4 ]/ f7 j GTV Guided Test Vehicle. / W* }* E! k8 W: k6 Q5 u$ W1 PGUI Graphic User Interface.) E: y" ]: f+ O& m MDA GLOSSARY, VER. 4.0 G6 _* f7 d5 f" P# j 123& Q+ T p e* J+ Y1 ^6 U7 S Guidance (1) Direction, altitude control, and navigation (where appropriate) of sensors 8 Z6 g8 V1 p& ]% M4 eor interceptor vehicles.* p5 p" B1 w* t (2) The entire process by which target intelligence information received by a $ Q$ L1 e- ]% K: ^, ]' \guided missile is used to effect proper flight control to cause timely r9 \* p* w* z direction changes for effective target interception. 5 { h7 V6 `! g( G' B0 _Guidance- d& H) D: O' J# r, g9 U, N Enhanced ' S/ u4 I4 b+ @0 U( L9 U* K2 hMissile (GEM)0 w# j6 G0 j" f7 v% g7 @ A companion program to PATRIOT PAC-2, which includes enhancements to the 9 @ y" j; b& o0 Z6 q% [- M- cradar to increase intercept range and performance.8 r. b. \2 V5 W: R9 h( u& u8 B Guidance) U3 }* m [" E" ^2 q, T3 b System (Missile). M& N ^) {. q' L7 B4 `; y A system, which evaluates flight information, correlates it with target data, w9 U9 G7 r! j" X5 O5 xdetermines the desired flight path of the missile, and communicates the + B- U) m K5 _# `necessary commands to the missile flight control system. ! [' E1 e5 L& @" k" KGuided Missile An unmanned vehicle moving above the surface of the earth, whose trajectory or ( \2 l% A/ \ m, B% yflight path is capable of being altered by an external or internal mechanism. ( l3 ?# a6 b, b/ Y4 Y' Z4 oGVSC Generic VHSIC (Very High Speed Integrated Circuit) Spaceborne Computer. 9 g7 s5 C& D8 m6 H2 P/ }% uGWAPS Gulf War Air Power Survey, 1994 [a DoD-sponsored survey]. ; Z$ ]; b& ?8 Y5 [Gwd Giga watt-days./ `2 _/ n$ ?7 z0 e3 d GWEN Ground Wave Emergency Network. " r4 `4 m. }2 K6 z+ wGZ Ground Zero. 8 e% ^- o) f" fMDA GLOSSARY, VER. 4.0 H $ L& G! o8 }% \5 I1 M* o( O* O124 a5 _3 ?+ j6 ^! m& { c H Hour.$ o1 f! q; G) \' I* A H&S Health and Status./ r3 U" k% h7 d' `5 } H/W Hardware. 3 V, I8 q% H" U; o7 \HA Higher Authority.2 N" P: ~8 A9 t6 B HABE High Altitude Balloon Experiment.8 o) b5 U; |; l7 X. { HAC House Appropriations Committee (US). ' ~: X x, g5 ^2 Y% W" F; pHADS High Altitude Defense System.& I$ X, C6 b" x5 T" K U5 p HALE High Altitude Long-Endurance. # B6 W& u6 c+ YHALE UAV High Altitude Long Endurance Unmanned Aerial Vehicle.( l: C' G: {& d/ t9 C5 D% k/ x Half-Value6 n0 Q ?2 a$ j* @% ^2 {' u Thickness (HVT); j$ U7 Y, J$ O. K The thickness of a given material, which will absorb half the gamma radiation% r. K/ [5 _; \1 [9 R# V2 ?: W incident upon it. This thickness is inversely proportional to its density and also , \. I \, m5 H$ Mdepends on the energy of the gamma rays.3 a' h ~0 x5 p7 K$ ^% @5 j, i6 r HALO II High Altitude Observatory II ) k% l! W) U9 ?+ bHAMS Hardness Assurance, Maintenance and Surveillance. # I- N ]$ H- dHandoff This occurs when information on positions, velocities and tracks are given by one ) a9 b$ M6 Y, ^1 Lsensor or system to another and the first sensor or system continues to track the ) Z1 `3 E" [ G1 p& O, ?8 G2 A' c% Eobjects. e- y0 l( b" Y/ q8 f Handover This occurs when information is passed on to another sensor or system in which4 s' |( J \) D- B" F- i the first does not continue to track. 6 ^6 G- e: C, K7 PHAOI High Altitude Optical Imaging.

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HAOIS High Altitude Optical Imaging System. 6 `- e+ j( C) ~ zHAP High Altitude Probe.+ R3 P2 r" \! t) m) C Hard Kill (HK) Destruction of a target in such a way as to produce unambiguous visible2 ~! `0 i: t- i2 W' ^/ b- N evidence of its neutralization. $ _4 V' X. _0 B2 k1 n$ o2 e0 GHardening Design and manufacturing process and other measures, which may be employed ' N0 r# W: M+ M$ h7 Qto render military assets less vulnerable.7 Z# f: J' `& [1 g, E2 B. ~. F- s; M HARDMAN Hardware/Military Manpower Integration (Navy ILS term). 5 F3 O& d6 h8 S/ ^9 Z' k" CHardness A property of a target; measured by the power needed per unit area to destroy: \ y0 T' U: g) n/ W! u- D the target. A hard target is more difficult to kill than a soft target. {' {/ H, i/ ]2 E2 k. n. O Hardware-in-the-' c3 }% \2 |5 D, D, c6 p Loop (HWIL) 7 Q$ r: F- |/ |2 R$ ZTests in which BM/C3 computer and communication test systems will be in 7 }: H$ j: g9 gcommunication with some of the hardware test facilities developed for other BMD / i" b. l/ }& ?technology programs. ( }1 b1 [8 b1 E! }- O' l# l/ o9 iHardware 3 {# s' i; j9 SSecurity7 ~) e1 H3 J7 G Computer equipment features or devices used in an ADP system to preclude u5 _' |! S9 v2 g+ ]/ [unauthorized access to data or system resources.. H5 `/ J2 @* e9 f6 P& C HARM High Speed Anti-Radiation Missile. 7 Y! N3 ^6 W0 v4 qMDA GLOSSARY, VER. 4.0 H & V! g! h1 I" v125 8 A7 z+ p5 W% c8 g5 @ |HASC House Armed Services Committee (US). , j) l6 Q% i0 w: k0 e8 OHASP Hardened Ada Signal Processor. , J# {- m! R* _6 _8 d1 @HATELM High-speed Anti-TEL Missile.( y2 o# b, J2 O& C& q! Z5 Y HATMD High-Altitude Theater Missile Defense. (U.S. Army); N! S( \6 k, ]: d* v HAVE STARE Name assigned a proven sensor capability.) J M7 e L$ Y9 y' Q5 B3 e+ | HAWK Homing All-the-Way Killer. 6 ^% q% d- V- w5 AHBCU/MI Historically Black Colleges and Universities/Minority Institutions. & _3 Y; U: V% D5 N' F# [HBHO Hard-body Hand-over [algorithms].$ H5 i- Q" E' [7 `4 {1 p& d2 Q5 v HCO High Consequence Option (Safety Engineering term).2 h4 K3 m( `. z HCT Mercury Cadmium Telluride. 9 i n* `2 y( {( l) }- NHDA Hybrid Detector Assembly.1 g: V$ ^/ M7 X: J& W HDBK Handbook. + I5 v5 K/ l" DHDR High Data Rate. ! a! p" | C4 R" E# \# kHDX Half Duplex (TelComm/Computer term). $ g7 x+ R& y4 K$ ^! IHE (1) High Explosive. (2) High Energy. 4 q2 }# {6 G0 B, b3 RHealth and Status : A+ F' r8 s( p. a! H! d(H&S)$ k$ i% Y1 K) j5 Y: F Health and Status pertains to a unit’s ability to assess the conditions of its0 ^- b! e( D4 |- R% `* x3 E; X$ n subsystem functions. The term H&S is used for units in remote locations, such * a. T8 p$ h$ G1 J$ C& Gas satellites, where ground controls must interface with BITE to determine3 J2 F. y P7 B( C% l2 z$ m$ n operational status of the satellite and its equipment. " R# a8 K' P; S9 g) E# ^Heavy Replicas+ |, @4 X) c4 z4 } (HREPS) 2 {, o- O, h( g3 c4 pDecoys, which by virtue of shape, size, and mass, closely approximate an RV’s4 k+ P$ B5 P# b7 F; J signature. HREPS have significant off- load penalty. 2 O, T9 D7 d" |HEDI OBSOLETE. See High Endoatmospheric Defense Interceptor. * B: a! P, `0 U, r; ZHEDR High Endoatmospheric Defense Radar.' U# H7 O+ t T: v; r+ q$ B HEDS High Endoatmospheric Defense System. $ x' R( M9 E) g) @0 h7 iHEI High Endoatmospheric Interceptor. 0 W" c, I6 p: C! r/ H9 r1 ~HEL High Energy Laser.$ n$ j5 p4 i3 h- E0 z4 b- ~ HELKS High Energy Laser Kill System.4 g' M3 ~" \" O6 h2 d HELLO High Energy Laser Light Opportunity. 1 t: f6 W( e# c4 G! ]HELSTF High Energy Laser Systems Test Facility. ; G0 u; Z2 d, V4 A# _- `8 C( o( `HELWS High Energy Laser Weapon System. 0 [# K# f+ P( G7 z5 kHEMP High Altitude Electromagnetic Pulse.0 v E2 e5 k6 T, w$ A: {7 C& ? MDA GLOSSARY, VER. 4.0 H8 W4 z+ t5 |& F7 G! k; x 126 3 E9 e. A, t) ]4 W% @3 g) x, QHEMTT Heavy Expanded Mobility Tactical Truck (US Army prime mover).. F. C' e6 B2 Q6 d" E! [8 x Hen House Soviet area defense radar used as a component of the Moscow ABM system6 r3 }% o5 m8 k$ ]9 h' q that provides VHF coverage of space to monitor orbiting satellites and early " I; z/ n1 W4 gwarning of ICBMs launched from the U.S. 1 g$ ~+ F+ j1 r' T) T1 ~HEO See High Earth Orbit. 9 Q4 b& o% t: t. V9 L& CHERA (1) An improved surrogate TBM test target.6 h! }- X# z' m9 {* X (2) Two-stage, ground launched solid propellant theater target vehicle. (MDA % T- L9 {9 S) G# Y1 BLexicon)( n. c1 M6 h [& e5 V3 [ HERO Hazards of Electromagnetic Radiation to Ordnance (SM-2 Bk IVA).; z7 U4 p2 D6 s# j HESP High Efficiency Solar Panel., s, }7 b3 X1 Q* h HEU Highly Enriched Uranium./ _& F9 T/ _; G9 x5 q HF (1) High Frequency. (2) Hydrogen fluoride. , ^ d# |2 W9 DHF/DF (1) High Frequency/Direction Finding.: o$ S; p( S# N+ }- K7 T; z (2) Hydrogen Fluoride/Deuterium Fluoride. (Chemicals used in IR chemical 7 ~, [6 I) v6 Z* P8 }9 k, x# plasers). ) q/ }# T$ Q @; i2 Y6 AHFCNR High Frequency Combat Net Radio.% ]' k, j$ @2 ^ HFE Human Factors Engineering.0 @5 y9 |: W/ w% N( o HgCdTe Mercury Cadmium Telluride. + f( p9 Q" n+ P5 m: O+ V4 CHHB Headquarters and Headquarters Battery. 4 Y% g: a; b' E- {( w6 |! sHIBEX High-Acceleration Boost Experiment.6 J( y8 ^4 F# Y+ O2 k HIBREL High Brightness Relay. 9 c" U: R7 k' ? h+ { oHIC Human-in-Control. : F# H {6 l* q6 ^4 d; e' N- lHICOM High Command (Navy term).+ q" x3 j9 N' @: d+ \# a HICTB Human-in-Control Test Bed.( c% g, W0 X, d( ] HIDACZ High Density Aerospace Control Zone. $ O; y2 ?' q6 H2 ?8 B$ D, HHIDAR High Data Rate. : f% r: R. q+ ^0 f( k# |2 eHigh Earth Orbit; @9 o( P3 P) i: P+ t; v# j (HEO)# d& G6 x% `; w! l B; g0 w) W* l An orbit about the earth at an altitude greater than 3,000 nautical miles (about% o# _* r* H: x! d4 ^6 C 5,600 kilometers). % n" B, W' f0 A3 |High7 c9 l n& s! K. B3 s- M, N! f* ?! x Endoatmosphere , K! G+ |* Q4 c& {1 UThat portion of the earth’s atmosphere, generally above 40 km altitude. % s5 j* j$ Z! w( ]5 YHigh * Z' z2 k$ s" |0 Y H DEndoatmospheric , O) a2 q* H+ W, gDefense + S5 {& s/ y: w. EInterceptor (HEDI) ) M4 E: A2 Y+ Z& n* NOBSOLETE. Interceptor concept designed to engage RVs within the (upper or . p, P6 n. y Q. Y1 s% v$ Vhigh endo) atmosphere. (Predecessor to Endo-Exoatmospheric Interceptor 9 j6 w: Z8 |( X4 F2 J(E2I).) 1 X' L" c1 V4 H( {. mMDA GLOSSARY, VER. 4.0 H, |$ D& A. [4 o( d1 P1 c8 U 127 ) h N; z! M0 P: WHigh Density 7 p, k6 Z7 ~: I( {# V8 O# A- q+ y& oAerospace: J1 ~/ k7 c5 @% ~+ p Control Zone" c/ B( W" v) X+ ]% x (HIDACZ) ) W0 ?% O! S w9 b l0 xAirspace designated in an airspace control plan or airspace control order, in5 W& `& w6 u& r4 |+ F which there is a concentrated employment of various weapons and users. A' T/ B* Z4 R4 \ HIDACZ has defined dimensions, that usually coincide with geographical& c' Q3 ~0 h: I features or navigational aides. Access to a HIDACZ is normally controlled by the " [- F0 V) v6 E3 s0 mmaneuver commander. The maneuver commander can also direct a more: v& ^: L- W- \. l' Z' H restrictive weapons status within the HIDACZ. V' Z& H$ V$ J5 o7 v7 {3 e/ XHigher Authority% X7 }# B7 ? a$ Z Interface ( h5 c0 g) w8 A9 U" vPolicy, strategy, doctrine, readiness conditions, and rules of engagement from2 A* _# y$ C8 l j0 p' F higher authorities for use by the defense system in conducting system8 w+ n6 {" z q6 i+ F. B' C operations including specific orders specifying actions such as testing, defense 3 K. H) _' q* x; {, _& L+ venabling, pre-delegation of authority, etc. Also the reporting of situation - H! p+ }' [: E) K6 j' Aassessment and system readiness to higher authority.6 M; k+ n: x% Q2 T5 M! O4 m High Order / _% P2 `& {! i9 v: h- b8 V( ^Language (HOL) # K' i9 E9 t/ @' y& DA programming language that requires little knowledge of the computer on which! ^& O! T( L2 L9 Z* W) d4 q* I a program will run, can be translated into several different machine languages, ; w9 C, M: M+ Ballows symbolic naming of operations and addresses, provides features 2 C; ~2 A) _; f0 b: edesigned to facilitate expression of data structures and program logic, and " P7 n/ u0 T Y7 q4 }usually results in several machine instructions for each program statement.+ }' d6 `1 f* I! c$ Q/ k HIL Human In-the-Loop. ) t5 o9 W# u1 y- k% c3 ~$ GHIMAD High to Medium Altitude Air Defense.- k& S( C+ v8 x9 i2 w HIMEZ High Altitude Missile Engagement Zone.) p8 }: b- H7 A: c+ E# O+ K HIP Hot Isostatic Processing. + }: V# w2 n }6 D5 t4 ?. oHIRAM High Resolution Infrared Auroral Measurements.% t- M, F4 G! \1 i) j3 N HISEM High Speed Environmental Multi-burst Model. ( S: {% C9 [ N2 G- S' pHIT (1) Heterojuncture Internal Photomissive. (2) Homing Interceptor Technology. ; W# ~% r% `5 [3 n7 mHK Hard Kill. * g" z9 M5 v" M" {HKV Hit to Kill Vehicle., G) F8 h. p2 v" O4 w HLD Hardware Description Language. & O" C u& R4 Q1 w3 q6 BHLLV Heavy Lift Launch Vehicle.3 a5 S. B, \: j/ c* t# f% s HMC&M Hazardous Material Control and Management.1 L1 a( d& P3 E; h HMI Human Machine Interface. p* F4 l* B+ Z$ |: z1 X HMMWV High Mobility Mutli-purpose Whealed Vehicle (USA term) (pronounced Hum Vee).- C( }0 _+ h3 e" o+ u HMPC Hazardous Maintenance Procedure Code.' ]- Z& l6 L7 ~. I' z* o8 q* G HMSC Hughes Missile System Corporation. & k5 Y. J" P" e5 G! q L3 O- ~HOB Height of Burst. & {- V2 D9 l9 J9 j. c. mHOE OBSOLETE. Homing Overlay Experiment. (Predecessor program to 3 w+ {) J7 ]1 _, ?, NExoatmospheric Reentry Vehicle Interceptor Subsystem (ERIS).)& J! Y" {- S' V+ l l: w& g' R HOL High Order Language. : x- U8 }! K) f) ^MDA GLOSSARY, VER. 4.0 H % ^' b" e2 x3 d0 C128) g- m+ C9 ~% D Homing All-the-: @, U7 \2 j& w0 L9 k0 ?4 l Way Killer$ y4 [& \! |! m$ r# {; |1 l (HAWK)5 K) B4 }5 z6 b7 t7 ~ (1) Upgrades to the HAWK interceptor and radar system to provide the/ i+ D: R9 _4 X3 _5 v' J( g Marine Corps with a mobile point theater ballistic missile defense2 F A1 x% B0 k K: X9 i- h. q% r4 {+ n capability. " s* J* P/ h D% z: F$ M+ K" d& @/ {(2) A mobile air defense artillery, surface-to-air missile system that provides / n% Z' l' M1 G: D2 |$ J9 Wnon-nuclear, low to medium altitude air defense coverage for ground s, L; d1 b. e8 \, z" q/ h forces. Designated as MIM-23. 3 y, m# p- c: x9 l8 uHoming Device A device, mounted on a missile, to aid its guidance to a target. The homing * l- Y; u# ^: T% h, B, Pdevice uses sensors to detect the position of, or to help predict the future * {" _$ G$ b' ^, y9 uposition of a target, and then directs the missile to intercept it. The homing - P5 d4 ^0 l; W: h: H$ _device usually provides frequent target position updates during the flight of the ' X' y0 A7 _5 I3 n rmissile.7 z, `- l W3 U1 Y Homing 5 h& R" f3 V8 F( a( I# b4 }Guidance& U- G/ |0 |/ w& q2 C A system by which a missile steers itself towards a target by means of a selfcontained mechanism which is activated by some distinguishing characteristics of % k ]9 s) l9 [0 Z! Bthe target, such as an infrared signature. + K2 g) h1 Q+ }( K8 wHOMS Homing Overlay Mission Simulation.1 @5 q1 Y& e/ t! S& ~. j. \ HOST Hardened Optical Sensor Testbed. 6 e5 B6 Y, h# g* I3 b2 wHost Installation A designated DoD facility that provides non peculiar SDS support of SDS! u) e: O! x( ^7 ?( e3 A elements. 5 v, }4 x8 w( }; j! XHostile 5 f& O( r2 p! o& JEnvironment # Q' a: S+ W9 m4 }: q7 f+ mThose environments that result from a BMD system engagement of an enemy ) a8 N+ l+ `- Uthreat or collateral conditions resulting from deliberate hostilities. Hostile9 @: a" }7 D3 k: ?2 @/ Q environment categories currently applicable to National Missile Defense are2 S5 Q' }& p- B7 r Nuclear, Battle Debris, and Electronic Warfare.! r/ j% r2 e5 ], A- ]" Y% A Hostile Track The classification assigned to a track that, based upon established criteria, is6 f c2 V' p: f$ S$ k5 S determined to be an enemy threat. , k/ t+ m- d) d3 c/ iHost Interface The interface between a communications processor and a host computer. 2 W: m' ?9 G- j& r4 R9 u. aHost Nation! i- }# k3 E* k Support 7 v- A* Q7 F) I) BCivil and/or military assistance rendered by a nation to foreign forces within its 3 P4 H6 ?! y9 {! _" t jterritory during peacetime, crisis or emergencies, or war based on agreements: R8 ? K k! a5 V" U concluded between nations./ `$ W+ l( |" s3 S4 W hp Horsepower.3 a3 k+ M+ b8 F HPA High Power Amplifier. & n) @" @9 {( d, ~. Q# sHPC High Performance Computing. ( i# k8 k! {3 P" { ?2 E2 }" b: _HPCC High Performance Computing and Communications. 4 V2 L$ J$ P( G5 AHPG Homopolar Generator.$ b; t5 T; J9 P) h$ M5 I8 w' ~$ e HPI High Power Illuminator (Hawk). . J" S/ n2 u6 ~ pHPIR High Power Illuminator Radar. ( j( U6 y4 P' u% V' s) |' jHPL High Power Laser. 2 H, [) K1 }$ P3 p% O* n$ ^HPM High Power Microwave.) w' z2 J6 T* n h' z HQ Headquarters. " j; j# {; v6 e4 r/ d1 i; j% BMDA GLOSSARY, VER. 4.0 H. I# r* @2 I. r; m' i 129 ' f; K) M) |$ B# y2 e# l) s3 i( u1 dHQMC Headquarters, Marine Corps.3 @: N& F# G* l- H1 q* C. V6 { HRDS High Resolution Display System.6 D1 G4 V5 P8 g3 d' `9 I6 V HREPS Heavy Replicas.1 f/ i2 Q# n+ Q+ t HRR High Range Resolution.! v0 }8 t# w9 b# \7 x- ] HRSA HICTB Requirements, Support and Analysis.# U0 M( @: n0 g$ _ HSDB High Speed Data Bus (TelComm/Computer term).# D# [: i/ j9 N2 c# ^9 N HSFB High Speed Fleet Broadcast (Navy term). 2 P" P2 A7 }) ~1 x; s& ~7 B \HSI Human Systems Integration.( ?6 f" ]$ e3 d' A* Q HSV Huntsville, Alabama. ! ?6 S, t) H5 a+ G/ f$ U8 ]HTICIA High Technology Crime Investigation Association. ) n3 X0 D$ r) R/ L+ r( bHTI Horizontal Technology Initiative.( r) u3 `, p2 G4 c% S# i. @ HTK Hit-to-Kill. 5 _9 t# K% V# E: cHTMIAC High Temperature Materials Information Analysis Center. 7 A) V/ ^4 K$ p4 F+ \4 q! ^: N# YHTML Hypertext Markup Language./ h, Z# e# E9 L HTPB Hydroxy-Terminated Poly Butadiene. ' C# [9 }7 g( S: Y! y( R Q2 BHTS (1) High Temperature Super-conducting. (2) Hawaii Tracking Station.; }0 h# M4 u; o# `" f HTSA Host Tenant Support Agreement. ! s5 G& h4 o* b1 H0 c9 h. E7 nHTSS Hardened- sub-miniature Telemetry and Sensor System. ! D5 H( m7 F2 N1 e8 ~# eHTTP Hypertext Transfer Protocol., a# Q8 E, l4 U3 ~% C HUD Heads Up Display. + O' k( m( ]1 m+ @' h7 f7 [1 FHuman Factors A body of scientific facts about human characteristics. The term covers all : _: a l" F* F+ ~/ Q% x6 H qbiomedical and psychosocial considerations; it includes, but is not limited to, / S* a5 C: f) g7 V: t1 zprinciples and applications in the areas of human engineering, personnel $ z% R* _7 S! }2 H1 g! [selection, training, life support, job performance aids, and human performance; J4 e% Q( Z" [+ D6 T evaluation. , v) _1 I. }1 d) l; k7 @; }Human Factors 7 H: _+ c5 n' M) @Engineering; d% O9 v- {. v7 y# k. i1 k The design of man-made devices, systems, and environments to enhance their1 X3 J: z7 A1 p0 J% T% H/ g2 A use by people. Also called human engineering, human factors, and ergonomics.

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