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PilotController Glossary [复制链接]

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发表于 2008-12-28 14:13:05 |只看该作者
COMPOSITE SEPARATION- A method of separat‐9 r! ]! |+ @2 w' K5 A9 s! u8 } ing aircraft in a composite route system where, by ( v" {# d; c2 u( E5 J2 Amanagement of route and altitude assignments, a$ Y- G a! C. V( p combination of half the lateral minimum specified for$ }2 b% k& L& A the area concerned and half the vertical minimum is7 G- y# z/ e6 c# U J! [/ w applied.* ?8 _+ [, R2 C U COMPULSORY REPORTING POINTS- Reporting; D. w0 ]2 G" `; h* j$ y. i points which must be reported to ATC. They are 1 ~5 |: l/ o) L' P9 ]designated on aeronautical charts by solid triangles or$ N% r; d7 \3 v% o e filed in a flight plan as fixes selected to define direct ! }, y# P9 _% S0 lroutes. These points are geographical locations ; S. d/ c5 e9 s2 B; M0 s, i9 Swhich are defined by navigation aids/fixes. Pilots ' y; B, L1 h ]should discontinue position reporting over compul‐ 0 D. e+ \' B3 K @. p; {sory reporting points when informed by ATC that 0 d) V& X" ]$ a. A+ D, ]' L8 q$ itheir aircraft is in “radar contact.”9 K) C' p* x4 y CONFLICT ALERT- A function of certain air traffic z9 G7 L7 G, K8 q8 Q. Y* I! Q control automated systems designed to alert radar: ]6 P0 G1 p- K+ D- V, K$ j controllers to existing or pending situations between$ k5 N# H( F& @( ^) o- Q7 Q; E3 d tracked targets (known IFR or VFR aircraft) that f% Y$ v; ~4 k0 g$ T# R require his/her immediate attention/action. + Y( R0 F4 q$ Z3 s7 s+ L5 X% X(See MODE C INTRUDER ALERT.) + Z$ _- J% V- F+ I2 yCONFLICT RESOLUTION- The resolution of% c" _" S+ V: s! g% d1 T potential conflictions between aircraft that are radar ( |0 s/ O1 V7 W+ R3 M7 yidentified and in communication with ATC by% q& u/ v+ _. B6 V; y% ~. c ensuring that radar targets do not touch. Pertinent 6 c# Y, @: P \0 z' w6 ytraffic advisories shall be issued when this procedure 0 Q) \; R e k$ L6 c2 nis applied. m. u/ ^" X6 }1 c3 I Note:This procedure shall not be provided utilizing % F1 }3 Y1 E3 }! @6 _! r2 pmosaic radar systems. ! }2 N6 f0 v [/ gCONFORMANCE- The condition established when7 O. n1 H$ r& N3 { an aircraft's actual position is within the conformance 1 W9 w" l5 }' k- Z. Rregion constructed around that aircraft at its position, & h. O8 y; |, eaccording to the trajectory associated with the3 B# I) m, q9 B1 ?- `. N2 [0 q aircraft's Current Plan.: G: d) [6 w9 ~5 H0 R1 C+ x CONFORMANCE REGION- A volume, bounded 7 z! d& A! G- j8 t7 j' ulaterally, vertically, and longitudinally, within which # t" |/ d* Z( D1 K8 Wan aircraft must be at a given time in order to be in 6 R3 K; O) v( H; q0 Mconformance with the Current Plan Trajectory for that5 y+ a; i1 @4 N" [% z* R" G aircraft. At a given time, the conformance region is 8 h j8 J5 \8 |0 \5 Wdetermined by the simultaneous application of the4 r: L) ?& y3 o% p% i I" e lateral, vertical, and longitudinal conformance 4 Q; l) s: F6 S% E, q4 l9 W# N- mbounds for the aircraft at the position defined by time $ u( Y8 q; U- _8 C7 c6 j( N+ B' l& {and aircraft's trajectory.6 Z- g) L! t+ {; K CONSOLAN- A low frequency, long‐distance ' [; v" }' g: @9 k8 y7 Z' E& sNAVAID used principally for transoceanic naviga‐ " _6 l% ~6 `+ U* z$ [/ htions. 3 T7 P# M! n0 _7 j, e' ICONTACTa. Establish communication with (followed by the M9 n( q' H; P* x! M! `: o1 N name of the facility and, if appropriate, the frequency ( r; V/ l6 p1 v7 r6 F# v" `to be used). . P6 O% ], y6 Bb. A flight condition wherein the pilot ascertains : ?" Y, P" q* J1 A$ p$ u0 Vthe attitude of his/her aircraft and navigates by visual8 [$ a* k( M4 S& g+ M reference to the surface. 6 n. w* h m8 M. Q(See CONTACT APPROACH.)/ T4 Y7 e! Z% { W (See RADAR CONTACT.)! ^; B" |5 t W CONTACT APPROACH- An approach wherein an# r: z) E& m& ^! d3 h1 P aircraft on an IFR flight plan, having an air traffic . J; B% i: H- Xcontrol authorization, operating clear of clouds with/ P& A6 _) X X2 Z at least 1 mile flight visibility and a reasonable! R2 N# c2 A/ Y# r1 a6 S$ } expectation of continuing to the destination airport in 5 V( b' {+ j" ~4 E" O0 U* P. sthose conditions, may deviate from the instrument# U3 s% p0 f# {4 l5 V. E approach procedure and proceed to the destination& p. I4 F1 I& G5 g airport by visual reference to the surface. This % r: F- M, ^. d. A5 E4 L% Oapproach will only be authorized when requested by! `/ ?9 c- X) _) b$ s* ^ the pilot and the reported ground visibility at the3 ~# J8 M8 `' F destination airport is at least 1 statute mile.& T, e. {# q8 Z (Refer to AIM.) 0 J- V/ U* [( ]) w* CCONTAMINATED RUNWAY- A runway is: Y8 \4 F: P- E+ n& N$ M9 H; w considered contaminated whenever standing water, 5 ?5 G9 v( S# U+ w# v4 Gice, snow, slush, frost in any form, heavy rubber, or 2 a7 \; \3 Z$ ~7 f3 Y' _% ^other substances are present. A runway is contami‐ * v! K1 i" V4 u7 b. `nated with respect to rubber deposits or other , I s) `6 E% P8 O: pfriction‐degrading substances when the average ) B: H. C# p, z0 n8 bfriction value for any 500‐foot segment of the runway0 J- Z4 b0 i4 f# z within the ALD fails below the recommended \% m8 Y6 c9 o$ O0 J# dminimum friction level and the average friction value - F; i/ f9 c4 R1 d, _* g$ W* Xin the adjacent 500‐foot segments falls below the : q% `/ p; D. _maintenance planning friction level. 8 d0 d8 U/ M0 h) l1 DCONTERMINOUS U.S.- The 48 adjoining States 8 r) Y; L' |5 G. iand the District of Columbia. & [9 T- K& x8 e# NPilot/Controller Glossary 2/14/08 Q/ d u1 E- m, n+ b/ a2 uPCG C-6& s$ ^2 G& r8 ? q CONTINENTAL UNITED STATES- The 49 States0 g! y" @# t& R6 g located on the continent of North America and the e. Z. r4 y% O3 b$ q* @District of Columbia.$ J% Y2 ]5 o1 l: i CONTINUE- When used as a control instruction7 o7 O5 f! y8 y z1 h# z should be followed by another word or words # i3 S, K. b5 [0 }9 fclarifying what is expected of the pilot. Example:+ ^& G2 P6 T/ C “continue taxi,” “continue descent,” “continue - h& H' b ^/ ]inbound,” etc. $ T' ?8 N/ x2 K# i9 PCONTROL AREA [ICAO]- A controlled airspace * _% O) J ~4 }! r; z) s* g( g) ]extending upwards from a specified limit above the ; e4 d% Z0 K* |* z2 y- z% o5 hearth.# a* ?' E1 o0 M/ S! A7 G CONTROL SECTOR- An airspace area of defined' |- I* H( J9 L" h' b! K S horizontal and vertical dimensions for which a & f5 l7 b% ~5 @- V9 b m! tcontroller or group of controllers has air traffic # |; ^( _' d0 _% x; A+ E1 Jcontrol responsibility, normally within an air route2 ]- U3 D3 s$ P0 w- s8 L9 x traffic control center or an approach control facility. , C4 z4 A( i" FSectors are established based on predominant traffic$ Z" u5 {$ y! g" [- g. C' q flows, altitude strata, and controller workload.8 l1 U) p) m, m4 c' f Pilot‐communications during operations within a + a- ?" k; O; Psector are normally maintained on discrete frequen‐ 2 W0 A: W+ {3 o6 T, U" X) Zcies assigned to the sector.6 A; j1 M6 l1 D9 H+ a4 D& x (See DISCRETE FREQUENCY.) $ }7 h: r3 X# z$ |+ _$ BCONTROL SLASH- A radar beacon slash repre‐$ o: y0 Q4 V; |! ?: R senting the actual position of the associated aircraft.% o f" g3 K, V% I2 K Normally, the control slash is the one closest to the7 z+ k/ i" L4 W2 E+ g& j2 G7 { interrogating radar beacon site. When ARTCC radar / [: J: o1 _4 K1 Z6 l9 I( s4 Qis operating in narrowband (digitized) mode, the : E3 j( L @2 B! h2 X. e6 Rcontrol slash is converted to a target symbol.$ f, o, s/ o6 b' M" A- Z3 @8 F# _ CONTROLLED AIR SPACE- An airspace of # m* M6 x) L; v j* Y8 Zdefined dimensions within which air traffic control+ L( Q6 t+ _! o4 b. D1 p service is provided to IFR flights and to VFR flights ' a. P9 V2 F# xin accordance with the airspace classification.1 ]9 C* A4 H0 q6 T; F a. Controlled airspace is a generic term that covers 6 o+ z- x% L; _. `Class A, Class B, Class C, Class D, and Class E! w9 |, _# [! g0 n- S airspace.# i: Y+ A5 W4 g1 h" k b. Controlled airspace is also that airspace within2 C6 w/ X% C. i0 N( H6 B8 m which all aircraft operators are subject to certain pilot9 j- p! x: f4 @7 T6 j qualifications, operating rules, and equipment- D7 E; T, `+ l: v requirem ents in 14 CFR Part 91 (for specific 1 I6 V) |- d6 D" w. h- X. x* d/ foperating requirements, please refer to 14 CFR; G/ H& ]& J1 m5 Z, N Part 91). For IFR operations in any class of controlled& ]0 |7 B" \8 j1 u8 }# t. G airspace, a pilot must file an IFR flight plan and5 j" ]3 B4 {, X9 s& M" a receive an appropriate ATC clearance. Each Class B, 9 T" E6 v' v" l* T: `1 b& b4 `Class C, and Class D airspace area designated for an* T/ X" ]5 p3 V/ R airport contains at least one primary airport around/ a$ A+ H2 h: |. H( \ which the airspace is designated (for specific - n$ M" `, x8 w. |8 n# ~: c5 }9 pdesignations and descriptions of the airspace classes,; d/ {' b; n# L, t4 y. |3 U: i please refer to 14 CFR Part 71)., g- ?# N" I5 y. m7 H c. Controlled airspace in the United States is- I4 n- T9 f$ R designated as follows:: r# I2 @" d' P/ o5 l 1. CLASS A- Generally, that airspace from' V8 `9 V( ]" E# { 18,000 feet MSL up to and including FL 600, ; I- D2 u5 X0 g/ M( n. v; G- }including the airspace overlying the waters within 12 6 D/ I+ R+ A1 I$ b, }, Y {: |nautical miles of the coast of the 48 contiguous States ! \+ P) W- V8 q' q1 ?and Alaska. Unless otherwise authorized, all persons ) {7 r% q* W( k4 k0 q9 `1 b. qmust operate their aircraft under IFR. 8 q9 t/ C* Q. P9 P) U( a0 O2. CLASS B- Generally, that airspace from the* w; Y3 D' {" a) X( c1 `6 [' @ surface to 10,000 feet MSL surrounding the nation's9 \$ d3 L/ [; S6 u" U8 o busiest airports in terms of airport operations or+ O* k/ o! u+ I+ G0 x) A passenger enplanements. The configuration of each2 l" K* l$ S4 |4 T. \ Class B airspace area is individually tailored and0 O- I& J c: m3 s/ M consists of a surface area and two or more layers1 D7 [1 y/ M( c$ F8 F6 r7 `7 f- ? (some Class B airspaces areas resemble upside‐down2 |- ^& D9 {/ y0 h wedding cakes), and is designed to contain all . l* s, j" a" }5 K) |published instrument procedures once an aircraft 8 w# z3 e) V. D4 u7 s; E2 T% }enters the airspace. An ATC clearance is required for 9 @6 l; m* {, `: Rall aircraft to operate in the area, and all aircraft that f B$ U, k+ I2 N. _are so cleared receive separation services within the) W0 J% B, }. h) h airspace. The cloud clearance requirement for VFR* f: E! S2 G- {- {; R operations is “clear of clouds.” : x6 r" p9 l9 \% G3. CLASS C- Generally, that airspace from the0 k0 L& s* \- n2 q- T+ |4 j V surface to 4,000 feet above the airport elevation1 r x6 j* ?5 P0 C* w, a (charted in MSL) surrounding those airports that3 A. |! z# u5 d% p1 ? have an operational control tower, are serviced by a ) V( S/ g* n4 R7 u" D$ J8 `radar approach control, and that have a certain9 s, D. r5 }1 Q number of IFR operations or passenger enplane‐ 5 D9 p/ K" t0 W! ~+ T( I" h7 iments. Although the configuration of each Class C( E& b: Z( E& J area is individually tailored, the airspace usually5 |1 q- y) a! \7 J0 s consists of a surface area with a 5 nautical mile (NM) % x7 o! |- l! Dradius, a circle with a 10NM radius that extends no 1 Y& o4 R5 |$ x0 V* L+ N3 llower than 1,200 feet up to 4,000 feet above the7 G. @; p% ?/ U5 W( ~5 d& ^3 I airport elevation and an outer area that is not charted.7 M* W U; ?6 A; n Each person must establish two‐way radio commu‐ & \2 D& h" @! ?9 o6 G! [nications with the ATC facility providing air traffic8 d+ ~ n* g! P8 L) x1 z# B services prior to entering the airspace and thereafter1 A) R( X- P" E' G maintain those communications while within the % f4 X& ?9 w. k. eairspace. VFR aircraft are only separated from IFR # e2 `# e& B$ X% Paircraft within the airspace.1 z) s6 R' b/ |5 n3 R (See OUTER AREA.) 4 m* P8 O* }, H1 V& p4. CLASS D- Generally, that airspace from the4 K; a/ t8 ?# w4 x6 {5 x9 u% H surface to 2,500 feet above the airport elevation/ ?9 L! t' a# r, \. j% }) S; p (charted in MSL) surrounding those airports that: N( L3 ^7 V# h: x4 G$ Y have an operational control tower. The configuration0 x3 F1 x" v! o' U of each Class D airspace area is individually tailored' _) Y) z% f4 {$ v and when instrument procedures are published, the % a+ C' X+ D: H1 wairspace will normally be designed to contain the 8 c5 z9 g8 M$ a x7 }* dprocedures. Arrival extensions for instrument8 b# f B1 E) N( C0 W approach procedures may be Class D or Class E# @, A2 N+ b R# w( f Pilot/Controller Glossary 2/14/08 # s) |, ?+ N$ @3 Z4 F9 _; ^PCG C-7 " Y& [$ @( S- D( D& d: J lairspace. Unless otherwise authorized, each person , y' E" L4 L' c# C zmust establish two‐way radio communications with , ^$ B2 N6 q+ s" d) {: j1 J: Zthe ATC facility providing air traffic services prior to : a) |3 @5 \/ \$ g; ventering the airspace and thereafter maintain those" i+ `6 A, w- {6 G: \& e* Q communications while in the airspace. No separation , a+ Z" G8 N! Oservices are provided to VFR aircraft. : e3 Y1 r' b; o. ^/ [+ V/ L% Z5. CLASS E- Generally, if the airspace is not 7 s1 o2 A8 L8 s8 AClass A, Class B, Class C, or Class D, and it is : H, n6 W- ~2 F# B( |7 g9 Mcontrolled airspace, it is Class E airspace. Class E 8 K8 ^2 W5 b! O _7 aairspace extends upward from either the surface or a A4 p* U- L" A designated altitude to the overlying or adjacent9 s! T6 {2 J) A: y controlled airspace. When designated as a surface1 |8 C2 @. O4 o- Y1 }2 y! R area, the airspace will be configured to contain all0 p# L7 y' p3 [5 V1 c instrument procedures. Also in this class are Federal* k- @! y( _ r. q- i airways, airspace beginning at either 700 or 1,200 3 s8 {6 Q) g; e! g( `1 n ]feet AGL used to transition to/from the terminal or en& i- ?5 o$ ^( a6 f* B% z4 S route environment, en route domestic, and offshore 9 M9 z, v% `* s9 b2 N! Rairspace areas designated below 18,000 feet MSL.- S5 u+ }) P, b Unless designated at a lower altitude, Class E 4 Q& t0 P* m0 Qairspace begins at 14,500 MSL over the United 0 c+ l/ s. M4 K! J* nStates, including that airspace overlying the waters, x+ |1 e' m1 ^+ v within 12 nautical miles of the coast of the 48 9 y4 \9 m* m: r- v0 `/ Rcontiguous States and Alaska, up to, but not : t2 _$ C3 k9 S5 s) yincluding 18,000 feet MSL, and the airspace above ' o" R. U* o% t( AFL 600. ( B( O0 f/ m+ |" b/ l. LCONTROLLED AIRSPACE [ICAO]- An airspace! y0 v( `% R: I6 n; ~, ~ of defined dimensions within which air traffic control # i5 J) F) c7 z1 e' Cservice is provided to IFR flights and to VFR flights( c h# G7 y% H8 z y( D5 Z5 k4 o in accordance with the airspace classification.9 E+ }+ d* d" O4 d5 ?* d1 K Note:Controlled airspace is a generic term which- u2 }7 t' w, K9 v1 k4 t covers ATS airspace Classes A, B, C, D, and E. ( Q1 J' G0 b0 O7 JCONTROLLED TIME OF ARRIVAL- Arrival time6 o2 K6 ?5 M; }8 Y4 w, n1 G assigned during a Traffic Management Program. This : t8 O5 n9 j3 E4 Otime may be modified due to adjustments or user , Y1 t6 F7 X5 Q, o; G6 W" n5 moptions.- m5 ?, z! G2 D- R8 W- @ CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.)- a1 f0 L. l% |: u- O9 R CONTROLLER [ICAO]- A person authorized to ; X2 H3 g& T$ R- R f4 @provide air traffic control services.7 Y4 M3 [ t, ~- ]$ J( s/ _+ \ CONTROLLER PILOT DATA LINK COMMU‐ 3 n; P# J$ s r' UNICATIONS (CPDLC)- A two-way digital very ) Z0 q* l0 u" P0 G5 f! O1 M0 Bhigh frequency (VHF) air/ground communications 5 D# p' C" U% k6 W- S# Xsystem that conveys textual air traffic control $ E' B2 ?+ ^2 L+ E: a" A zmessages between controllers and pilots.1 l; O" @+ ^" R' p7 S6 c3 k0 |2 q5 K CONVECTIVE SIGMET- A weather advisory/ Q( v3 R1 }8 N. R( e5 M' r" f concerning convective weather significant to the 0 p. e& U+ c( K1 Dsafety of all aircraft. Convective SIGMETs are issued 5 A9 \% \4 j* }" Jfor tornadoes, lines of thunderstorms, embedded: g9 c' R D7 V0 r thunderstorms of any intensity level, areas of% i8 S7 f) i3 }- E+ s thunderstorms greater than or equal to VIP level 4 + F2 z. J+ b2 Z% k6 @with an area coverage of 4 ?( f% c2 W# ?9 l: I( _% I$ w/10 (40%) or more, and hail r& o+ ~- i2 t/ e7 Y5 X5 {3+ S6 H- X" @( r /4 inch or greater. 0 k8 ?$ U% r0 H$ f9 w) e0 _' X9 S(See AIRMET.) }/ m9 u! [" e9 D(See AWW.): V7 A# l3 k$ B4 A& @& z (See CWA.) . ^ a* u5 ~& \. |& Y) @(See SIGMET.)- }( m9 l3 A& V9 |. ?) A: N (Refer to AIM.) % w" o$ I' Y! d2 J% e, ACONVECTIVE SIGNIFICANT METEOROLOG‐8 K3 Z7 E1 P' O ICAL INFORMATION(See CONVECTIVE SIGMET.) & [8 G: q; x# e/ }, m: ^0 }COORDINATES- The intersection of lines of" t5 P$ V/ H: ~5 C2 @, w reference, usually expressed in degrees/minutes/ 6 W2 W# u5 x2 s+ J, \ a; N9 Q$ Aseconds of latitude and longitude, used to determine b& Q, W6 C, b$ P; e! Nposition or location. Q) }' F2 ?9 O) Q/ YCOORDINATION FIX- The fix in relation to which 9 v' E5 z& y$ d1 `0 S7 Jfacilities will handoff, transfer control of an aircraft, 2 P' q2 j9 J# m0 Cor coordinate flight progress data. For terminal # N$ t. h: D! rfacilities, it may also serve as a clearance for arriving3 H& S& L7 w, @3 v: ^# p aircraft.1 s" V, x: R: K# z COPTER(See HELICOPTER.)# G! z4 f2 K) e% P2 N8 c CORRECTION- An error has been made in the 2 O' C" w5 d0 C7 P: _- C1 \3 Ftransmission and the correct version follows.6 X" [7 |& v+ H( J7 b COUPLED APPROACH- A coupled approach is an! |* ~0 j/ {1 w instrument approach performed by the aircraft7 Z- X7 l6 O2 w$ F1 A; C, s( t8 D autopilot which is receiving position information / T( l8 e9 {( ?& K5 } u" E) u4 yand/or steering commands from onboard navigation" a# x$ T5 d9 \2 r. v" ^$ l8 ` equipment. In general, coupled nonprecision ap‐ # O& x! |0 ~! e7 Sproaches must be discontinued and flown manually$ q9 I9 M4 D& `, K0 v! H( Y at altitudes lower than 50 feet below the minimum3 c5 j* z3 F8 G7 C descent altitude, and coupled precision approaches , i9 Y( `- U+ n. ]) R; pmust be flown manually below 50 feet AGL. ) J- |$ J" g9 p" \& C/ n" }$ VNote:Coupled and autoland approaches are flown1 D- r) e! I" b in VFR and IFR. It is common for carriers to require / T8 h/ C: s) ^their crews to fly coupled approaches and autoland 7 I- @ g1 M* L" {9 F2 Capproaches (if certified) when the weather 4 H; O" [. B. l- b% B- O% r" ~conditions are less than approximately 4,000 RVR.4 q. k9 u9 t$ v5 p+ h (See AUTOLAND APPROACH.) ?" t8 z( z9 J' J" ~1 c% o- ZCOURSEa. The intended direction of flight in the horizontal8 b. I% y$ [2 g% A) x+ w plane measured in degrees from north./ v8 l z( o v b. The ILS localizer signal pattern usually 3 ~0 |- Q) q) C6 dspecified as the front course or the back course. 8 _) x/ X5 f$ O. c. ]Pilot/Controller Glossary 2/14/083 N" @: n% k5 \7 E PCG C-8 3 n5 {- L; N6 L& E" h# _c. The intended track along a straight, curved, or: m) K2 @$ n' Q! ~9 D5 C; v segmented MLS path. 6 _- l" p7 W8 H9 b2 ]2 _) s(See BEARING.) 7 F( ~; z: C5 H! L(See INSTRUMENT LANDING SYSTEM.) + Q+ ~0 r. T; t. X3 J8 h% j(See MICROWAVE LANDING SYSTEM.)4 u$ \) }5 b5 F3 Q& g) y. F (See RADIAL.); e7 }. F0 ~0 r, p0 V CPDLC(See CONTROLLER PILOT DATA LINK 7 n( ^3 {$ Y" I9 ]0 ACOMMUNICATIONS.)- j1 X; b' X% C9 l! O CPL [ICAO]- 5 S" F& d l2 a' r. z1 z% \(See ICAO term CURRENT FLIGHT PLAN.)0 X8 a K# e" E9 @/ b CRITICAL ENGINE- The engine which, upon 4 q6 \5 P+ D% Q, U, w4 b8 R* I6 H! E: Sfailure, would most adversely affect the performance $ a# Z4 k7 f: _4 qor handling qualities of an aircraft. " d C' l1 R8 d0 uCROSS (FIX) AT (ALTITUDE)- Used by ATC b6 g) H2 D V& y6 H3 Ewhen a specific altitude restriction at a specified fix 9 r7 _" g" r! f0 J5 [, X% h; `. c& ]is required.; P2 R4 Z* u! L& f" O CROSS (FIX) AT OR ABOVE (ALTITUDE)- Used) j/ F6 U, P1 y$ p$ ^ by ATC when an altitude restriction at a specified fix - J$ j' x2 r) r% O3 u$ iis required. It does not prohibit the aircraft from / D1 d' K. O3 y7 S' c) T- G9 lcrossing the fix at a higher altitude than specified;/ M/ q2 b) o8 A( J- K however, the higher altitude may not be one that will4 \9 }! L7 z/ L7 n4 \ t; Y violate a succeeding altitude restriction or altitude g; Z$ T a$ g( Massignment. }; r. n( `/ P0 } (See ALTITUDE RESTRICTION.)" G$ A1 [* k; p A2 ~ (Refer to AIM.) / @, d7 E6 F4 s2 ACROSS (FIX) AT OR BELOW (ALTITUDE)- 0 D3 ~: {+ _- S, t' t- ~0 tUsed by ATC when a maximum crossing altitude at $ Y1 w$ `$ s' J* S) R2 z aa specific fix is required. It does not prohibit the 4 m9 l0 U" O- x0 \! o0 ]2 Saircraft from crossing the fix at a lower altitude; ; C; J$ Q% g& hhowever, it must be at or above the minimum IFR3 L: j2 R1 i- }" o* r! D+ ]3 F8 h altitude. ' d6 F$ G1 `) ^; d(See ALTITUDE RESTRICTION.)* K( p# C* l, k4 R$ i (See MINIMUM IFR ALTITUDES.) , J. U9 f$ N% d) S- B(Refer to 14 CFR Part 91.) , x* r! c4 K( x* ZCROSSWINDa. When used concerning the traffic pattern, the! \# ]2 Z7 C2 w, X( W& t word means “crosswind leg.” ' z' D$ {8 y) D2 @(See TRAFFIC PATTERN.) 1 X' c. b z; p& D* ]b. When used concerning wind conditions, the# z0 `$ {% R' D1 ~8 a word means a wind not parallel to the runway or the ; |. J+ Q$ g* }+ l6 b1 Zpath of an aircraft." a2 h. z' Q8 j: C9 W (See CROSSWIND COMPONENT.) 6 O- r- Z" d" r6 SCROSSWIND COMPONENT- The wind compo‐- t. n* W4 k5 w) S. k nent measured in knots at 90 degrees to the # A5 Q' i7 v; _7 B/ ylongitudinal axis of the runway. + C; ?4 H4 f- Q V9 k ZCRUISE- Used in an ATC clearance to authorize a( X6 V$ Z; \$ W* L pilot to conduct flight at any altitude from the ! c0 I5 o" {( f6 e8 j& q! cminimum IFR altitude up to and including the4 w" D: z; W7 J8 G" } altitude specified in the clearance. The pilot may ; [, h8 _4 _3 ?8 l; rlevel off at any intermediate altitude within this block- q; x7 ?" W' p. f' t; o- _# N of airspace. Climb/descent within the block is to be ! u4 C/ I/ z) B$ i$ L8 smade at the discretion of the pilot. However, once the 3 ~7 A$ g, i5 n- I" ]2 {+ rpilot starts descent and verbally reports leaving an) V5 ]. G# |) m+ P% L altitude in the block, he/she may not return to that . E# o; _7 c+ }0 E. B) d# W& Valtitude without additional ATC clearance. Further, it( t: T% _* y" c; g is approval for the pilot to proceed to and make an 5 q! a6 T3 {( J' L: \$ c$ Rapproach at destination airport and can be used in. D2 L$ `/ }$ L4 s L- M7 y3 X conjunction with:1 o( y2 f* j1 M3 b; R; H. Z a. An airport clearance limit at locations with a( z; u) N7 \1 H+ M K: }# b standard/special instrument approach procedure. The 7 @( Z+ ?, Z- i3 A+ jCFRs require that if an instrument letdown to an 9 T0 M5 t4 v: z% T1 }/ Zairport is necessary, the pilot shall make the letdown * {3 w) T! @, bin accordance with a standard/special instrument % o& H% G6 P5 h- {3 dapproach procedure for that airport, or ' U+ w1 a$ ^8 a5 Z- G) ]7 E1 Ib. An airport clearance limit at locations that are8 n/ J5 U$ G1 b/ W9 W, ?6 ? within/below/outside controlled airspace and with‐ 6 X8 ^9 R' R! g* B' z U- [) Gout a standard/special instrument approach3 D" a- s7 U* T+ u: S procedure. Such a clearance is NOT AUTHORIZA‐9 V( ]. x- J: h" P7 R0 @! U: V TION for the pilot to descend under IFR conditions ' C$ U6 @4 K: G2 H* p' H4 cbelow the applicable minimum IFR altitude nor does 4 ?: R+ x, x. v$ n5 g5 i1 O) B3 Nit imply that ATC is exercising control over aircraft; ?/ ^& u3 P4 ` o K in Class G airspace; however, it provides a means for2 a& D4 H% K3 H( c' @7 P) { the aircraft to proceed to destination airport, descend,7 X" A8 x9 W1 g( Z u1 ~" h# X and land in accordance with applicable CFRs9 n3 m' E% h d& E5 O5 \- E4 g% S governing VFR flight operations. Also, this provides 4 ]3 r- U. `7 f' u$ Ssearch and rescue protection until such time as the ! g5 Q3 E% G& x* p( j9 ]1 @IFR flight plan is closed. ' x- ~. T& [1 x* [/ b(See INSTRUMENT APPROACH ]$ H' a& K0 wPROCEDURE.) ' h7 j! \ p2 K/ b% KCRUISE CLIMB- A climb technique employed by h0 M z4 p- x5 b1 X2 e9 h2 _( G7 J7 n# eaircraft, usually at a constant power setting, resulting; v) y- q% c) h/ K3 v& R$ @ in an increase of altitude as the aircraft weight' ]! n( N) ~/ a. J" U+ p, w decreases. 2 w3 J- F8 y0 W2 d* ]* DCRUISING ALTITUDE- An altitude or flight level & m. Y8 M* w' ]5 hmaintained during en route level flight. This is a, S. u$ a; j- \. T- b! O constant altitude and should not be confused with a4 m3 u$ {1 w7 o cruise clearance.! s! d- U6 g7 y9 d1 ^ (See ALTITUDE.) . N5 d2 J3 p( E3 U' V, P: W2 O(See ICAO term CRUISING LEVEL.) + [: L. R2 n& e UCRUISING LEVEL(See CRUISING ALTITUDE.) 4 P6 [8 d4 V2 S2 q- E/ u* y' GCRUISING LEVEL [ICAO]- A level maintained2 L, R4 M- m9 `* k1 L, q$ d during a significant portion of a flight.7 o# G0 q% \7 b) D Pilot/Controller Glossary 2/14/08 * O$ `0 e9 t& X7 ]" \0 g) `PCG C-9 8 O3 _5 E% m8 i+ `) I/ HCT MESSAGE- An EDCT time generated by the* E1 T" \( y2 t4 f ATCSCC to regulate traffic at arrival airports. 2 F2 i" c) M, b. pNormally, a CT message is automatically transferred% y g: i7 x3 S! U from the Traffic Management System computer to the! M5 P( Q% Z7 S* h/ `1 {7 x NAS en route computer and appears as an EDCT. In 9 [0 H- ]- c7 o% k4 r; mthe event of a communication failure between the, R, g1 p2 r0 _. G, K4 Q7 U' I TMS and the NAS, the CT message can be manually 1 }/ ]5 V6 j' ]" I9 lentered by the TMC at the en route facility.; E/ H$ O3 }3 j: g1 }# f$ }4 D CTA(See CONTROLLED TIME OF ARRIVAL.)* P C/ o% B6 w7 Z8 H( V w (See ICAO term CONTROL AREA.) % V) T1 ]! X) R" n6 h: BCTAF(See COMMON TRAFFIC ADVISORY 7 `% i$ V- s) a3 S MFREQUENCY.) `' [4 p( a% V- f CTAS(See CENTER TRACON AUTOMATION: j: T* E/ s$ V9 G: K- \ SYSTEM.). c T' r1 d2 e; ^) N7 a CTRD(See CERTIFIED TOWER RADAR DISPLAY.) 1 t( z. H1 }" _& ?CURRENT FLIGHT PLAN [ICAO]- The flight - }6 J8 k2 O! U% u5 dplan, including changes, if any, brought about by& [1 w6 e$ K( ~ subsequent clearances.2 V+ C6 j4 O" r8 J CURRENT PLAN- The ATC clearance the aircraft , W1 B( }( ~& L# z. w5 W% z+ Fhas received and is expected to fly. 5 [: B6 p7 Z, G$ zCVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE : M- s6 f' ~; SAPPROACH.) 3 |: o% Y& F" TCWA(See CENTER WEATHER ADVISORY and 3 `9 Q/ d/ g# e4 t9 I, E BWEATHER ADVISORY.) : s/ q' o2 \8 sPilot/Controller Glossary 2/14/08 3 z4 W4 d/ n |( I1 t6 Z6 w" UPCG D-1 u2 @; }$ d$ U0 MD + W, q( J& s0 h& Y# e% C" f, BD‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL ]# C, E* ^0 y8 Y/ L INFORMATION SERVICE.) , x4 C$ N8 x+ w0 M' ?DA [ICAO]- " Y' G6 ]6 H) z6 q. e(See ICAO Term DECISION 0 s, j9 B5 u, f7 c/ c* J. xALTITUDE/DECISION HEIGHT.)( |4 w0 D) X: p7 ~# d$ P, c DAIR(See DIRECT ALTITUDE AND IDENTITY s w( H! p3 t+ G. @READOUT.)4 o- A3 T! R7 B) p DANGER AREA [ICAO]- An airspace of defined% [ V3 ^ Q- r+ d4 Q& G. h dimensions within which activities dangerous to the- a9 Q: s# L: P: }+ ?. q1 z* p f flight of aircraft may exist at specified times.4 d/ x, n# j) B" c- L8 L2 C Note:The term “Danger Area” is not used in 3 f) v, z' P# ~5 preference to areas within the United States or any : m( _: a9 F! l$ V8 t- Tof its possessions or territories. 2 E$ o' C, W" T7 T- pDAS(See DELAY ASSIGNMENT.) ( ^' h2 Y3 }4 D9 ^/ WDATA BLOCK(See ALPHANUMERIC DISPLAY.)! w- `0 `, z C! Y Z7 [% v DEAD RECKONING- Dead reckoning, as applied , _0 a9 g- X4 U* y. X2 \4 Q2 kto flying, is the navigation of an airplane solely by/ }, H( N# g3 B" z4 t means of computations based on airspeed, course, 5 }3 u- P. u U" M1 n4 T- nheading, wind direction, and speed, groundspeed,. ?2 g' g& o u8 j$ L; D* X/ C and elapsed time.) T# a( I7 m4 r8 t3 n& y3 K; m DECIS ION ALTITUDE/DECIS ION HEIGHT6 t, r. X& y5 M* N [ICAO]- A specified altitude or height (A/H) in the! } T# i9 t7 P. B2 h# ` precision approach at which a missed approach must1 ^; G C A# n7 q, h0 |( g be initiated if the required visual reference to & M# ~8 o. W( |- r0 T( e! E+ x3 ~! `continue the approach has not been established.! z$ i! G/ u, Z( S Note 1:Decision altitude [DA] is referenced to6 u$ ~# g" L% @5 k3 n mean sea level [MSL] and decision height [DH] is+ n% Q ^, z" a+ ?" U referenced to the threshold elevation. ) O0 ?7 J) L7 d5 Z8 C2 Z2 F( jNote 2:The required visual reference means that & S& u1 z6 s) D/ v- Gsection of the visual aids or of the approach area' d6 }2 u. v( \3 u d& I which should have been in view for sufficient time% l# G9 x# L! t$ K I5 ~/ L1 J for the pilot to have made an assessment of the) l7 X# c) K8 D0 I1 x aircraft position and rate of change of position, in# F9 j( i7 l6 D+ f relation to the desired flight path." q) ~4 y" _8 U) k DECISION HEIGHT- With respect to the operation 2 W5 T, l# @5 ?4 |% I0 Fof aircraft, means the height at which a decision must ) s) w7 i U9 z. \7 V' H3 Rbe made during an ILS, MLS, or PAR instrument% X0 D, s# e" r3 b2 N5 B approach to either continue the approach or to execute " d# T1 }2 j8 n- @7 E5 ]6 S4 q3 i7 Za missed approach.; h3 ~5 b0 U( @: O& ?' t" l5 _ (See ICAO term DECISION8 ~7 g% t+ S# |- h+ _$ S ALTITUDE/DECISION HEIGHT.); y5 w9 X8 f) O# t7 ~* B: E DECODER- The device used to decipher signals" K% l' b/ G8 H; q- L. W$ V4 e: \ received from ATCRBS transponders to effect their5 h! q0 h) i4 W" z2 O display as select codes. * e- Z- b" s1 S. N2 L(See CODES.)$ t, G& W: i- E8 |& S) V* r (See RADAR.)* \. r$ x1 }# C/ s8 q4 n DEFENSE VIS UAL FLIGHT RULES- Rules 8 X4 p9 J o% C9 b! ~! Zapplicable to flights within an ADIZ conducted under2 }- X# D; D: X/ j the visual flight rules in 14 CFR Part 91. * u0 @* o4 |7 `# r# X(See AIR DEFENSE IDENTIFICATION ZONE.) 8 [3 I8 V; e: @% ~( U(Refer to 14 CFR Part 91.)" _" B& i, r) c7 t. Q; O8 r/ b (Refer to 14 CFR Part 99.)* _5 n$ x( y$ I4 a$ O DELAY ASSIGNMENT (DAS)- Delays are distrib‐ , H" l* g0 W8 ?& ]uted to aircraft based on the traffic management* n& _0 z- X( p program parameters. The delay assignment is; z( @" U, _; p, T) J0 q calculated in 15-minute increments and appears as a! \+ l, X- @$ |" b$ P/ V, n table in Enhanced Traffic Management System ) q- S6 G1 r- z' J/ T) }(ETMS).% v$ G3 t0 a; c* T+ N3 s DELAY INDEFINITE (REASON IF KNOWN): G Z! K9 b0 ~% N1 t: G EXPECT FURTHER CLEARANCE (TIME)- Used* o3 _) `) s! c by ATC to inform a pilot when an accurate estimate1 F+ e4 Q" X& h) c- h of the delay time and the reason for the delay cannot % h4 P& u' b4 Y# x! d9 aimmediately be determined; e.g., a disabled aircraft1 B* ?* D; q) x3 d on the runway, terminal or center area saturation,* N7 x6 A/ {) G$ Q4 E weather below landing minimums, etc./ S. Y5 M& K1 e; A$ ] (See EXPECT FURTHER CLEARANCE (TIME).) 0 d& e( y, S5 \0 i3 M5 MDELAY TIME- The amount of time that the arrival: l) D# r# }; ]- k1 \ must lose to cross the meter fix at the assigned meter 5 E; v$ E( S* Efix time. This is the difference between ACLT and : ^- Y4 D5 P- O' q: S$ ^# DVTA. m$ A' B5 H* z! S) aDEPARTURE CENTER- The ARTCC having: t9 _+ ?7 ?! y! s% V' ?( ] jurisdiction for the airspace that generates a flight to 5 v. v/ }1 T7 w* q; Gthe impacted airport. : R/ x/ B/ w! S/ s' HDEPARTURE CONTROL- A function of an- [3 B% v+ P) [$ s4 g5 a9 b approach control facility providing air traffic control 8 }. r/ i4 B$ y) {- M8 F% W' ~service for departing IFR and, under certain / a: \# B4 m. X# f6 f% pconditions, VFR aircraft.* v7 E: J& K# x P6 |. F (See APPROACH CONTROL FACILITY.)* W! M. c+ }8 S% F& p/ l4 m (Refer to AIM.)6 D% C' e7 Q+ ^- L, d/ ]! w8 M* r- z DEPARTURE SEQUENCING PROGRAM- A5 [1 U1 r9 q$ m3 T program designed to assist in achieving a specified/ `) r9 H; O) X5 T4 m8 ` interval over a common point for departures. { B$ \$ }& H8 G# o* {Pilot/Controller Glossary 2/14/08 5 R: {9 f; C" A6 Q4 c7 `PCG D-2 : t z8 Y$ y5 N( wDEPARTURE TIME- The time an aircraft becomes . ]* T' F1 X' r1 Vairborne. ) b G8 @9 ?5 j! S3 v5 Y: s/ r& r5 F. vDESCENT SPEED ADJUSTMENTS- Speed decel‐ 2 Y4 V% `" Z& T8 R- w- s9 deration calculations made to determine an accurate + y) G, [/ q6 mVTA. These calculations start at the transition point % r& @3 W: _$ x6 K8 `and use arrival speed segments to the vertex. : V) Z; E ?' sDESIRED COURSEa. True- A predetermined desired course direction , \0 k6 E2 |. e0 g$ L9 Kto be followed (measured in degrees from true north).) X, \9 t! c5 c; K6 H% ?) b% e b. Magnetic- A predetermined desired course * U/ s% }1 Q" P) Wdirection to be followed (measured in degrees from ( ^: [! q N& ~4 G4 u3 Plocal magnetic north). 6 y8 U, y5 O1 U- @, NDESIRED TRACK- The planned or intended track5 a2 B- M5 g8 e9 w between two waypoints. It is measured in degrees 1 X% }0 C/ d3 D( xfrom either magnetic or true north. The instantaneous' v% w, Y1 d7 f1 |+ ` angle may change from point to point along the great5 q `9 D4 Z" _0 U/ H circle track between waypoints.3 S# W5 `: B/ D' b0 U DETRESFA (DISTRESS PHASE) [ICAO]- The - t- O- n2 r' x4 Q1 Wcode word used to designate an emergency phase I8 P: s+ g" e& S* }2 A. b0 `0 R* L wherein there is reasonable certainty that an aircraft( |7 a# v% e7 F* t and its occupants are threatened by grave and & H: r5 A2 s) A# p+ T2 Nimminent danger or require immediate assistance.0 O3 n$ u1 B. _$ } DEVIATIONSa. A departure from a current clearance, such as an9 s& S. z1 `5 F. Q5 c3 \ off course maneuver to avoid weather or turbulence.4 e: F- y$ ^1 b" U# ~- f } b. Where specifically authorized in the CFRs and / Q# [ T# s9 B: D5 Grequested by the pilot, ATC may permit pilots to! ?/ `& p9 S$ ^( Y- Y) Z deviate from certain regulations. 6 W) F2 c0 M5 l7 u8 m+ {, j(Refer to AIM.) 4 P7 u5 w8 `4 {9 W, u( Y, h& }DF(See DIRECTION FINDER.) 3 T+ ]1 R7 Y, u5 V0 sDF APPROACH PROCEDURE- Used under$ ~: m! y1 g/ b) r/ }7 p6 i emergency conditions where another instrument/ L, F9 C8 o1 p( P4 G approach procedure cannot be executed. DF guidance ) f8 B5 h9 k) u2 Hfor an instrument approach is given by ATC facilities, J+ g/ v4 E. k% O% e8 P with DF capability. + S9 l+ V) A% Z) m Y(See DF GUIDANCE.) 9 e* p# S( C6 b5 Z(See DIRECTION FINDER.) 2 l) L7 }# M7 [: Y% K! o4 d(Refer to AIM.) 7 b6 w. ?' }8 R! a' _DF FIX- The geographical location of an aircraft 0 m% e: g; k! W6 Z" Pobtained by one or more direction finders.$ F9 R8 e/ E# m8 _2 ~ (See DIRECTION FINDER.) $ ?" w. _& n* y7 y7 F! K, ]8 tDF GUIDANCE- Headings provided to aircraft by ) z0 p" @! z) Q' T. gfacilities equipped with direction finding equipment. 5 ]! ]: T P3 I! y/ d: z3 n9 G& cThese headings, if followed, will lead the aircraft to4 y( H; u. c# a. w a predetermined point such as the DF station or an * h7 W ^6 ~7 g5 t! K zairport. DF guidance is given to aircraft in distress or# x& u( N2 C# @" e7 Z- h, Q to other aircraft which request the service. Practice % d' }% X9 ]4 z r1 P& HDF guidance is provided when workload permits. h% \9 e. t8 |: ] (See DIRECTION FINDER.) * c: P) P* i2 U& S2 B" W(See DF FIX.)0 o' F$ D( k0 u3 w5 B1 s (Refer to AIM.) " S P) [# X0 u3 Q! vDF STEER(See DF GUIDANCE.) 2 C# L: X5 {# v+ j8 IDH(See DECISION HEIGHT.) # T' p) s- R! M3 i) l SDH [ICAO]-, k* D, z' w- l6 i& n% P) S (See ICAO Term DECISION ALTITUDE/ J* @* T: K5 A, {5 D/ b1 U/ i# Z3 P DECISION HEIGHT.)9 l! s8 v+ v3 y DIGITAL‐AUTOMATIC TERMINAL INFORMA‐ # g1 C9 W! _ Y' g8 d. A# T UTION SERVICE (D‐ATIS)- The service provides ' V% d, M H, Ptext messages to aircraft, airlines, and other users / W# J* ?# ~) poutside the standard reception range of conventional & f/ V( T% w. m) \4 c! T: [ATIS via landline and data link communications to; Q, V( c) R( ] the cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to % [7 y8 d, X; wall aircraft within range of existing transmitters. The 0 \& O& o+ |& d' n) o" H2 CTerm inal Data Link System (TDLS) D‐ATIS 2 I, f( i$ C: ^3 `% Xapplication uses weather inputs from local automated0 Q8 ]7 v6 U4 Z1 H5 Q weather sources or manually entered meteorological 4 c* y. U/ L: G; O. f) mdata together with preprogrammed menus to provide # T8 F7 Q9 B, V6 r# istandard information to users. Airports with D‐ATIS 4 g: V8 F+ s( ]8 Bcapability are listed in the Airport/Facility Directory./ L8 g% W4 H2 P# m* Y DIGITAL TARGET- A computer-generated symbol ' j8 M+ Z& U) t- w* j' W# Brepresenting an aircraft's position, based on a primary0 X3 u3 P( K3 c8 q4 P: Z; D2 g5 b/ f6 C return or radar beacon reply, shown on a digital" h' v$ v4 D% d7 n+ ?$ e display.# ^- i) k8 R7 i DIGITAL TERMINAL AUTOMATION SYSTEM , Z u5 v' ?/ `- m4 a, c& G(DTAS)- A system where digital radar and beacon# \0 r7 z$ t* x9 J data is presented on digital displays and the 5 y1 G6 ]: [7 e |5 I6 W+ {operational program monitors the system perfor‐( q" I* M1 Q5 P( a/ o mance on a real-time basis.5 Z5 b+ o6 P0 P7 X4 ^; u DIGITIZED TARGET- A computer-generated 8 g* w" A; ~) [9 v3 H: nindication shown on an analog radar display resulting : J0 o3 R2 t x0 P& ^! v2 E' jfrom a primary radar return or a radar beacon reply.8 C' T' d# ~0 U8 D DIRECT- Straight line flight between two naviga‐ 8 j5 e$ Q5 U4 |tional aids, fixes, points, or any combination thereof.- {/ h& x2 q. {; T( ? When used by pilots in describing off‐airway routes,; X8 Q. ?6 I O$ ?) s8 g points defining direct route segments become 4 x4 F/ y3 d/ ]. O8 G5 U9 Vcompulsory reporting points unless the aircraft is. G0 K9 s% H5 L* r under radar contact. ( k" O, _) H6 I, q- h* b2 U MDIRECT ALTITUDE AND IDENTITY READ‐8 G- v" ~( t( r) u, }7 m1 |; ?: u OUT- The DAIR System is a modification to the0 s0 u) Q! M4 c. B2 C& R Pilot/Controller Glossary 2/14/08 & C E$ N$ Z3 PPCG D-3+ D* @+ o5 k; K! S# t0 ^) g0 A AN/TPX‐42 Interrogator System. The Navy has two; h- K O5 B" [ n8 Q& S$ B adaptations of the DAIR System‐Carrier Air Traffic ( y5 g& ]/ k! A5 V# cControl Direct Altitude and Identification Readout3 v/ @/ ]. G7 F, p System for Aircraft Carriers and Radar Air Traffic $ V& C5 Q. i+ d2 ~! qControl Facility Direct Altitude and Identity Readout* A0 s9 z! l" }3 M System for land‐based terminal operations. The% X- ]0 v0 ?$ ~" ]4 K4 u5 @1 y y DAIR detects, tracks, and predicts secondary radar& `2 e, `; @1 @/ Y7 z! w3 g aircraft targets. Targets are displayed by means of 6 G! ]4 N, w. j E1 T- Tcomputer‐generated symbols and alphanumeric8 m2 N+ x/ g& C$ I) b. D/ e% h2 ` characters depicting flight identification, altitude, # w6 O$ s* P6 a: E: `9 ]9 Y, r7 c! Xground speed, and flight plan data. The DAIR System- D; j. ?- `7 [0 [8 { is capable of interfacing with ARTCCs.- ]$ { S. l( X$ a: G# u DIRECTION FINDER- A radio receiver equipped9 e/ ^# f1 J, \2 J6 v0 ^" K1 f: a with a directional sensing antenna used to take . S& |1 [! L. B* t! v; k- T" ?bearings on a radio transmitter. Specialized radio 3 A3 M9 V5 b$ m* I5 F3 h$ ?direction finders are used in aircraft as air navigation % v- S5 i, l4 |: ^( g; paids. Others are ground‐based, primarily to obtain a* }" {( T. f3 F, z* ^6 s “fix” on a pilot requesting orientation assistance or to 8 H9 ]+ n$ C/ h: plocate downed aircraft. A location “fix” is established 0 f. ]/ N( |9 {+ K3 B, sby the intersection of two or more bearing lines$ _( }( p, h3 @) Q plotted on a navigational chart using either two ) F# B! V1 `) F# G1 r8 @( Hseparately located Direction Finders to obtain a fix on/ Q5 m$ K3 M# H" J1 Y" s4 l an aircraft or by a pilot plotting the bearing - R" o/ P; J4 W" P/ Gindications of his/her DF on two separately located% Z6 \0 C7 |9 a9 C ground‐based transmitters, both of which can be % g: U1 d. E& V0 }7 x. W( {identified on his/her chart. UDFs receive signals in ( Q" o, M0 T6 Q$ [, Hthe ultra high frequency radio broadcast band; VDFs" H. o3 u: c4 k( d: y in the very high frequency band; and UVDFs in both. `6 }) ~) {9 k" y# o9 O1 y bands. ATC provides DF service at those air traffic6 i/ }) I# k G$ F+ l" q# k control towers and flight service stations listed in the4 S, e! G: U+ x: J( ?) b7 ] Airport/Facility Directory and the DOD FLIP IFR En. u9 G! K+ n( w b( A; z6 E' I Route Supplement.$ I: O3 Z$ D o# j (See DF FIX.) % H7 _$ c! h& Z(See DF GUIDANCE.). e J: t. S/ a' F4 T! S: p! w; B8 w* K DIRECTLY BEHIND- An aircraft is considered to 4 f+ p' Y+ b$ g& v) d- Z4 l2 wbe operating directly behind when it is following the / ^2 a( \6 h& R% r, _3 C! i: M! xactual flight path of the lead aircraft over the surface 4 w) v8 |. L3 e6 X5 f0 Tof the earth except when applying wake turbulence) E+ P% {8 Z' k8 |" g* M8 `# k separation criteria." a- ]5 b, L: d1 U DISCRETE BEACON CODE(See DISCRETE CODE.) 3 T& ^8 G# e, p {2 BDISCRETE CODE- As used in the Air Traffic 9 m; t: y! ^$ a6 \3 T& }+ Y* GControl Radar Beacon System (ATCRBS), any one 2 }4 V& F3 z: b1 C* J! Qof the 4096 selectable Mode 3/A aircraft transponder 9 q! W+ O- C) p9 s9 @codes except those ending in zero zero; e.g., discrete1 D L+ W. [, G \0 s7 l1 S codes: 0010, 1201, 2317, 7777; nondiscrete codes: 9 `1 F! H8 d! G. C) ^. ~0100, 1200, 7700. Nondiscrete codes are normally- R: K, Y" d ~3 n) Q7 B1 k reserved for radar facilities that are not equipped with & U# O; L) v- wdiscrete decoding capability and for other purposes ! O5 R' W4 J* Y& t5 w- ^ @+ Msuch as emergencies (7700), VFR aircraft (1200), etc.# l6 m, _; C7 `) z: ?* O6 ?2 n (See RADAR.) - O, A5 F- S4 j4 r$ [/ C$ m(Refer to AIM.)0 [+ D$ S$ J* _# V" `$ Y DIS CRETE FREQUENCY- A separate radio( L7 ^' ]" J( [6 w, m6 s frequency for use in direct pilot‐controller commu‐( n, @2 q! Q! A, } nications in air traffic control which reduces : \' O$ N1 c! S! `3 H; @, }" Ofrequency congestion by controlling the number of# X5 n0 z3 n8 \. n' W# Y aircraft operating on a particular frequency at one / Z$ J' B5 ^0 `# Xtime. Discrete frequencies are normally designated) h; O9 B+ {. D& u9 r& a" K2 H for each control sector in en route/terminal ATC - R ^9 j$ e' d' \; p& ~! Jfacilities. Discrete frequencies are listed in the& n1 Y3 e: U) a8 `. v0 J Airport/Facility Directory and the DOD FLIP IFR En! z$ ~- Z9 v1 B4 b Route Supplement. ( Q7 j- o# l1 E( E- ^5 ?: D6 g(See CONTROL SECTOR.) 6 F8 V$ q8 A3 ~0 ~, d7 `DISPLACED THRESHOLD- A threshold that is! B( {( z$ f1 w7 l ~ located at a point on the runway other than the 5 k4 W7 t' A' u6 C) _designated beginning of the runway.' D0 g4 j7 j+ u& Q8 I' x- F7 U (See THRESHOLD.)1 q) o" Z9 s0 Q( _ (Refer to AIM.) 5 g8 E1 q) D7 f2 a3 VDISTANCE MEASURING EQUIPMENT- Equip‐ / C$ G N* Z& Dment (airborne and ground) used to measure, in; G* x$ e$ M, n2 K6 ] nautical miles, the slant range distance of an aircraft/ J: ~5 y0 D! h5 P/ y( B& U from the DME navigational aid. % o' k* k9 G3 X- I, U(See MICROWAVE LANDING SYSTEM.); S7 u7 _1 y" s (See TACAN.) / C* Y! K6 |+ c(See VORTAC.)2 J9 Q6 T# ~' h$ a DISTRESS- A condition of being threatened by# b! L: q, i8 ^1 k) i0 `; ] serious and/or imminent danger and of requiring3 j/ }' G. w& ]1 R: N4 o! x immediate assistance.! ~: p3 w/ G" f1 x) C Y% a0 n. r0 e DIVE BRAKES(See SPEED BRAKES.) / X4 g: U6 [4 K7 D+ UDIVERSE VECTOR AREA- In a radar environ‐1 [. B( |0 y( {- v0 }( L/ Q( s ment, that area in which a prescribed departure route: w' `, a; h3 n is not required as the only suitable route to avoid ' O f9 V$ c; Q7 M9 V+ j; g9 dobstacles. The area in which random radar vectors / p9 x( R8 U) T9 Ibelow the MVA/MIA, established in accordance with" E W: `% i1 @0 r the TERPS criteria for diverse departures, obstacles 4 z5 Z2 U% l/ C" Oand terrain avoidance, may be issued to departing/ b8 [8 V9 ^+ i5 T* c2 F aircraft.5 O. z8 e \, _; M. ]. m: E DIVERSION (DVRSN)- Flights that are required to % `, V" X. f5 Y6 r8 U2 c. yland at other than their original destination for+ c6 Q' h2 i5 p: {+ M: ]0 Z6 v reasons beyond the control of the pilot/company, e.g." k/ |, k9 Z9 ~ periods of significant weather. 5 m6 T- z5 _/ H _DME(See DISTANCE MEASURING EQUIPMENT.) % |' V% R/ C+ g) HPilot/Controller Glossary 2/14/08# k5 Z9 y8 s" q. F PCG D-4. k5 m5 I. G, S1 z DME FIX- A geographical position determined by 4 a; x+ R; g- _: ~+ N/ o: X+ greference to a navigational aid which provides( x3 K1 }' A" s4 k distance and azimuth information. It is defined by a - a9 ^; v `9 |" d) b) J6 {specific distance in nautical miles and a radial, & g* v9 U9 S6 L1 p0 `6 kazimuth, or course (i.e., localizer) in degrees4 z3 p& i7 d1 @, E) W: k) x magnetic from that aid. + f6 a' g( p5 B4 ~(See DISTANCE MEASURING EQUIPMENT.) + l9 a& R5 O9 p1 G: x(See FIX.)$ h; M3 q* I o& G (See MICROWAVE LANDING SYSTEM.)3 W0 d" q' q+ N7 F+ j' N4 C DME SEPARATION- Spacing of aircraft in terms of 2 O% H* w- s- B5 N8 q+ fdistances (nautical miles) determined by reference to! t6 }# O) n) x7 J4 r' z( A/ \, j5 {$ B distance measuring equipment (DME).) E/ w# w( M# J (See DISTANCE MEASURING EQUIPMENT.)$ v! @! Z5 Y# k$ c' R2 l2 `3 A DOD FLIP- Department of Defense Flight Informa‐ " u: ]3 R: X2 Q8 D5 i4 @. I' ztion Publications used for flight planning, en route,! Y1 x- L; ]0 J W& u and terminal operations. FLIP is produced by the) e: D2 \, A7 `6 r' R+ {2 i& g( ^ National Imagery and Mapping Agency (NIMA) for' m, ?" O2 S, k world‐wide use. United States Government Flight% d* b" d; }# q1 ^. Y8 J5 y Information Publications (en route charts and! l/ @5 K* x; p9 | instrument approach procedure charts) are incorpo‐ / H) }! a6 I. b: S. `6 Zrated in DOD FLIP for use in the National Airspace9 W) |& E! Y& J7 z System (NAS).3 |/ F* F4 k% s" U/ ~ a DOMESTIC AIRSPACE- Airspace which overlies" r9 h9 Y: a! J1 q# a the continental land mass of the United States plus8 x* p8 w0 o2 Z, n4 F* x Hawaii and U.S. possessions. Domestic airspace - ~# D% \) e- K' ~7 S, Q3 Eextends to 12 miles offshore.& m- A* N: u: D" x$ \! Z" Z DOWNBURST- A strong downdraft which induces 0 n* w k" T1 {% C2 y8 k Han outburst of damaging winds on or near the ground. 1 M6 D2 i7 s# x& g8 l) U; @' O% UDamaging winds, either straight or curved, are highly, f: L: L" g1 a# x6 \1 X divergent. The sizes of downbursts vary from 1/2 " g- ~$ z. Q0 \8 q% i3 |' tmile or less to more than 10 miles. An intense 6 g) N9 h( Q* @! X! Rdownburst often causes widespread damage. Damag‐: a& ~: o: x8 z$ G. c& h5 d) \# J ing winds, lasting 5 to 30 minutes, could reach speeds ) @: ~, n! X3 k& g+ t/ Vas high as 120 knots., r. ~( r% d4 M7 e" O DOWNWIND LEG(See TRAFFIC PATTERN.) $ n" N% m. ?" A6 [4 }5 r; ]DP(See INSTRUMENT DEPARTURE PROCEDURE.) , y6 x6 C2 B/ E' cDRAG CHUTE- A parachute device installed on2 s0 g& Z# ]0 v' Z) _0 [9 A; r/ k certain aircraft which is deployed on landing roll to 8 @# R% h* A* J5 Z7 w6 V2 a9 |assist in deceleration of the aircraft. + h/ i. c0 p- U% J! B' T( |3 b! o( jDSP(See DEPARTURE SEQUENCING PROGRAM.) " D! Y& l3 e$ S- l+ d' F& WDT(See DELAY TIME.)/ d6 H+ a" B* J# Z& X% ^9 L DTAS(See DIGITAL TERMINAL AUTOMATION* l ]; ?6 x% j; z SYSTEM.)+ b+ @ n" f% w/ O# i% J! X! r& I DUE REGARD- A phase of flight wherein an8 h: l) z/ C3 a aircraft commander of a State‐operated aircraft & [$ ^$ z# `- X/ l/ W5 fassumes responsibility to separate his/her aircraft 6 Q8 T% {! e# P5 C' Ffrom all other aircraft. . K6 A5 K% ~* \. T0 h% k(See also FAAO JO 7110.65, Para 1-2-1, WORD 2 p/ {4 e# D% _" m. b. rMEANINGS.) 2 P. o1 L1 ~% S/ o7 _DUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY / U% G6 s5 n# K; o; W0 mRUNWAY.)0 ?8 d% e: |4 K8 `/ G. K' L DVA(See DIVERSE VECTOR AREA.)+ r3 {# n7 L8 S. R5 t y/ m DVFR(See DEFENSE VISUAL FLIGHT RULES.) ) N }- O/ W3 m4 v" s! X2 P0 N+ J6 EDVFR FLIGHT PLAN- A flight plan filed for a VFR% f6 ~3 k; d, o; Z5 ]. T aircraft which intends to operate in airspace within; I$ I6 k- h! C3 p7 ? which the ready identification, location, and control- O2 W$ \/ x# P of aircraft are required in the interest of national ' a: }4 A( A( s. Jsecurity. 2 l' O/ s1 n6 ]" O# j1 f* nDVRSN(See DIVERSION.) + `! a+ p( d0 ^DYNAMIC- Continuous review, evaluation, and! Z$ }; c# M+ K1 v change to meet demands. " v1 ^+ D" _$ i7 j$ ?DYNAMIC RESTRICTIONS- Those restrictions) }& Y+ V9 x" b j# |1 { imposed by the local facility on an “as needed” basis ; G6 E, e8 _/ Cto manage unpredictable fluctuations in traffic9 `& Z9 a% P4 M* d8 _0 T demands. & r, S/ E! G3 s f0 \3 I+ ^Pilot/Controller Glossary 2/14/08/ D$ t+ D& o) O& p PCG E-16 `2 B- Y* l0 @" x& G9 M$ i E % T. r6 w7 Q$ j# f2 HEAS(See EN ROUTE AUTOMATION SYSTEM.)" m: L4 r/ Y. y& _; G5 V% v EDCT(See EXPECT DEPARTURE CLEARANCE1 K6 Y9 M z0 z7 R3 ^ z TIME.) ' I; ^* w4 Z( T- y3 E& DEFC(See EXPECT FURTHER CLEARANCE (TIME).): m7 A; ], R6 h ELT(See EMERGENCY LOCATOR TRANSMITTER.) , f3 z0 C' e$ c2 R( ^$ n) kEMERGENCY- A distress or an urgency condition. . Y# S p- b7 R1 _: s: `$ `EMERGENCY LOCATOR TRANSMITTER- A 6 ~' p1 n$ M) o' W: m, U: p* rradio transmitter attached to the aircraft structure5 n- p; V$ N _8 \+ }8 C; l u which operates from its own power source on$ E, P1 y! \$ y8 ~( b 121.5 MHz and 243.0 MHz. It aids in locating 2 t( j: x0 V3 p$ g8 X rdowned aircraft by radiating a downward sweeping7 J1 a% X; R3 R b3 E audio tone, 2‐4 times per second. It is designed to4 c; \( B2 z; l2 P6 i; K2 p' U# P function without human action after an accident.* H( a9 j5 V6 n3 P |1 b (Refer to 14 CFR Part 91.)* J v- ]$ I2 [ S) d (Refer to AIM.) $ I* z+ b! ?) M4 gE‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE5 ^" h/ |# _4 M8 U" s: U! M WARNING.) + W" ]) |& Q* w; ]9 `0 {EN ROUTE AIR TRAFFIC CONTROL SER‐; E* T& b5 o9 h- o- y1 f2 E( e8 C VICES- Air traffic control service provided aircraft- J- `2 l. Z3 j; \4 y on IFR flight plans, generally by centers, when these ( W$ l! k5 h5 [3 p* P& Taircraft are operating between departure and. P/ s$ s9 S3 O* a; c9 Y |8 E5 v$ c destination terminal areas. When equipment, capa‐* z8 O0 B, F2 W, i( _& z bilities, and controller workload permit, certain, K9 [$ r7 R* H. `3 l advisory/assistance services may be provided to VFR1 u _ G$ |& u. R$ h aircraft. 3 y3 {$ G1 [6 b(See AIR ROUTE TRAFFIC CONTROL b" ?7 ?* E9 B2 w7 ]+ aCENTER.) ( i) L) p9 _% x6 k/ A(Refer to AIM.) 6 a; b! G7 `6 bEN ROUTE AUTOMATION SYSTEM (EAS)- The4 |: J9 a1 ?% H% i% ?; U complex integrated environment consisting of- C; o3 y7 U* e+ ?0 R& y# R situation display systems, surveillance systems and 6 T e2 b- S' B |flight data processing, remote devices, decision$ |7 Q* d& R" c" o support tools, and the related communications1 h* a4 T7 q; t' }6 h equipment that form the heart of the automated IFR( ~& y% k3 b( R' ^! q air traffic control system. It interfaces with automated4 ^7 _) b/ C$ e( z9 n ~ terminal systems and is used in the control of en route) A5 W8 y; p+ P/ G IFR aircraft.0 ^+ q- F6 `! ~0 k: p (Refer to AIM.)3 t; g7 a/ P5 z! D EN ROUTE CHARTS(See AERONAUTICAL CHART.)2 N# ?5 `/ H1 u EN ROUTE DESCENT- Descent from the en route ! H8 P5 {/ ]' X8 D0 O9 hcruising altitude which takes place along the route of7 O1 Y6 i0 j- m2 @) }2 H7 | flight.# u/ c4 H% @& x% t4 i: b; R EN ROUTE FLIGHT ADVISORY SERVICE- A7 n; N9 R0 a$ o( {9 K. ? service specifically designed to provide, upon pilot' `$ u" K1 e; `% E V9 d request, timely weather information pertinent to 6 g3 y: G O8 l$ d; y2 _% e% K1 Nhis/her type of flight, intended route of flight, and! M9 t0 O x' f0 k altitude. The FSSs providing this service are listed in* Z4 l# w3 }- P4 M+ u' [4 D the Airport/Facility Directory.& C4 D, I" ]4 _% d2 K+ ] (See FLIGHT WATCH.) 8 N9 f# G6 M3 y! s(Refer to AIM.) ! f, w) O' P7 F" S4 I ~0 yEN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.)3 g0 p/ f* Q7 A6 w) _5 i; h/ p EN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.)( Q5 e* d y4 i: R' s9 A% r EN ROUTE MINIMUM SAFE ALTITUDE WARN‐* L. e6 E- B8 }6 j J* }9 t ING- A function of the EAS that aids the controller 3 M7 B( R) L1 I$ k$ Hby providing an alert when a tracked aircraft is below ) @! l. w1 q/ `7 D3 p$ v7 gor predicted by the computer to go below a4 M- d2 p& I0 f' d! m predetermined minimum IFR altitude (MIA).+ @/ @- G; x h. X" R EN ROUTE SPACING PROGRAM (ESP)- A3 [! f% p2 s* G. ?+ l program designed to assist the exit sector in% |2 l ~' P2 C' P& E4 ?/ A achieving the required in‐trail spacing. n6 V& [2 \- z# p+ HEN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a & a3 k7 E h8 m- O' d" BSID/STAR that connects to one or more en route1 Z- r- p, o0 T/ o1 n( v$ S4 u3 D airway/jet route. " E$ U( m! p" m$ l7 s5 Ab. RNAV STARs/SIDs. The portion of a STAR 1 V5 E* O: z. f S) y$ j7 t2 \ {preceding the common route or point, or for a SID the & Y/ ~0 w8 B3 }1 {4 s. H# Y: [# Mportion following, that is coded for a specific en route9 N3 `2 ]; j- H2 d, l) x4 i5 b V- y fix, airway or jet route./ C* A6 R, R4 |: \5 d7 P ESP(See EN ROUTE SPACING PROGRAM.) ' p6 Z! f8 D) p- H! ^2 B; F# pESTABLISHED-To be stable or fixed on a route,9 T u! `/ e2 R3 y8 O route segment, altitude, heading, etc. - O. I& {) G1 Y! d, I+ fESTIMATED ELAPSED TIME [IC AO]- The( L8 B0 v$ g% T4 N' V estimated time required to proceed from one . a g& r% G, N2 `significant point to another. k# ?% x( z* w; ] (See ICAO Term TOTAL ESTIMATED ELAPSED" v f( b) O6 n* n6 ], a+ ^: i0 z TIME.)9 q. s4 j% f4 { Pilot/Controller Glossary 2/14/08 % |$ s; b9 r! j- x9 vPCG E-25 x2 v- S5 D4 e& o, Z8 q1 B" z8 L ESTIMATED OFF‐BLOCK TIME [ICAO]- The 8 |6 u2 c' E. `, b1 h1 p, N% M7 xestimated time at which the aircraft will commence % G+ ?' o* y v% B+ ?# R" p$ p9 vmovement associated with departure. ( R) G- O0 Q9 l. H6 @ESTIMATED POSITION ERROR (EPE)-7 ?2 S) m& A p; M( v% [6 u (See Required Navigation Performance)3 V/ I, n: ~) P ESTIMATED TIME OF ARRIVAL- The time the 9 E; a) J9 i5 ^2 p* W( xflight is estimated to arrive at the gate (scheduled6 B0 k1 M1 G3 d% b' R! r operators) or the actual runway on times for9 x7 l! |& H1 e1 F nonscheduled operators.+ }! S% C* M4 \3 c& N ESTIMATED TIME EN ROUTE- The estimated- v' B- e" D1 P9 s& n flying time from departure point to destination # U C x& {& A2 [; t(lift‐off to touchdown).# o7 }8 r+ ?1 ?7 w5 G: K ETA(See ESTIMATED TIME OF ARRIVAL.)4 S% y. I. b* Q% Q: B& |+ T ETE(See ESTIMATED TIME EN ROUTE.) 3 s# s0 W$ D; IEXECUTE MISSED APPROACH- Instructions ! I2 R \7 }4 m" b% K6 C9 `4 ?issued to a pilot making an instrument approach8 H+ e- S# Q L which means continue inbound to the missed: |7 |/ l3 V, J/ _# B approach point and execute the missed approach) R( q2 D4 S! i* ] procedure as described on the Instrument Approach / ~, F! W8 O' ?- YProcedure Chart or as previously assigned by ATC. , ]3 O5 @) D5 B* T' u8 iThe pilot may climb immediately to the altitude 9 d+ j5 ?3 ]% v) _6 O+ Zspecified in the missed approach procedure upon; j+ `1 `2 _: V$ X' j making a missed approach. No turns should be 4 s) q( I! q. k/ ^initiated prior to reaching the missed approach point. $ V3 ]& @ ]( f" I$ }2 R# DWhen conducting an ASR or PAR approach, execute2 Y5 x% I* H3 W0 I! ~. C1 v the assigned missed approach procedure immediately / _. n: \; c1 T, _. T, {upon receiving instructions to “execute missed " d) j' z% ~6 V* _: y7 Capproach.” ' x# Z$ U: F0 y5 D* @: o+ ~& Y(Refer to AIM.) 8 }7 ]. ?# d: z! N' g" f% AEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used! S6 l# I& g# R under certain conditions to provide a pilot with an* |. A, w1 [' l8 w altitude to be used in the event of two‐way 4 H% m# |& H4 _: Rcommunications failure. It also provides altitude # R% z# C: k" u$ \# ?' C+ X; F2 Jinformation to assist the pilot in planning.( a2 u, I. s: G1 C/ h7 t (Refer to AIM.)/ t+ g, g d! X/ I+ e) v EXPECT DEPARTURE CLEARANCE TIME " Q6 N& l9 G% A2 Q) g8 s3 i(EDCT)- The runway release time assigned to an7 b4 \- F9 p% w% Z2 g& s$ Y( S) u aircraft in a traffic management program and shown - ~, q) N5 T( j/ U- [on the flight progress strip as an EDCT., d8 ?$ U7 n& k2 N, N# J& r* [ (See GROUND DELAY PROGRAM.) 5 V* S3 [5 v$ l) C% m5 PEXPECT FURTHER CLEARANCE (TIME)- The 3 W( b5 _5 O( J5 o7 f/ Ctime a pilot can expect to receive clearance beyond a . K/ I3 y2 m& N1 Iclearance limit.- ]; K6 x* {0 E+ P0 g3 u EXPECT FURTHER CLEARANCE VIA (AIR‐& i2 z- Q' _3 d WAYS, ROUTES OR FIXES)- Used to inform a # R) E$ G4 n8 P' e1 Vpilot of the routing he/she can expect if any part of the0 b$ |5 O% m7 t route beyond a short range clearance limit differs " ?0 h% N# {% ~# q0 R) nfrom that filed.' o5 j2 S* P n' u EXPEDITE- Used by ATC when prompt com‐. S/ J$ k8 M d pliance is required to avoid the development of an" Z9 a9 f/ H0 I* F Y* c imminent situation. Expedite climb/descent normal‐ / u' M4 D! a1 A) F. o5 Z! qly indicates to a pilot that the approximate best rate5 v2 f- @7 ]6 ?3 x8 @ of climb/descent should be used without requiring an& ~* V- z' V* J# p9 u exceptional change in aircraft handling characteris‐ + g" ], b0 C5 L- C0 Y) f' a4 c' Ptics. - {. k8 I# L& w& M: Y w+ aPilot/Controller Glossary 2/14/08 ; p! t7 X6 @0 D$ M! ^2 Y% {PCG F-1+ N- _ p/ H1 } F + m+ V* U7 S$ n3 O3 P1 z& I- `FAF(See FINAL APPROACH FIX.) 4 m# K! V) _5 j" ~9 v8 @; `4 ?FAST FILE- A system whereby a pilot files a flight 9 X+ w1 r6 |8 u: u6 ~plan via telephone that is tape recorded and then* f$ c* L% B' t- ]$ n' S9 t transcribed for transmission to the appropriate air % L0 I7 N' S9 o1 c: a/ |$ ^. O0 dtraffic facility. Locations having a fast file capability& G& A2 `7 n+ P3 k5 K are contained in the Airport/Facility Directory.# B, E0 J+ Z) I. o# g (Refer to AIM.) 1 V' N5 y5 j& Y- P3 ?7 ~4 B: R- zFAWP- Final Approach Waypoint , Z( D4 i0 }6 H T2 |FCLT(See FREEZE CALCULATED LANDING TIME.) 6 I2 D! s3 W1 Z) ?1 qFEATHERED PROPELLER- A propeller whose3 Z0 U0 T8 j- W& ^% F( ` blades have been rotated so that the leading and2 h0 B6 f8 L( g' W- |1 a trailing edges are nearly parallel with the aircraft ) ?0 m$ P* J: {$ Kflight path to stop or minimize drag and engine% C9 C$ G' t v* ?9 h# R, Y rotation. Normally used to indicate shutdown of a # i' e* J& V. @7 x$ y9 Q% greciprocating or turboprop engine due to malfunc‐1 ?3 B$ @. f' b3 G: L tion.5 }; g& J& e6 z; k1 `+ a FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.) 3 {! T! c0 z, g8 F/ W' H; [. U$ KFEEDER FIX- The fix depicted on Instrument$ M( d V( x( _ Approach Procedure Charts which establishes the* ?0 H2 M: |* T9 u starting point of the feeder route. % c! K; \, j4 F9 G |& |2 R- @FEEDER ROUTE- A route depicted on instrument$ I7 _1 r1 s% c; ~2 F approach procedure charts to designate routes for 5 ~: U, n6 ^4 S0 U" U( d# Taircraft to proceed from the en route structure to the - Q' ~; h' \7 ainitial approach fix (IAF). # p3 z+ j9 _& f% Y- l7 K$ Q) o(See INSTRUMENT APPROACH 3 _8 h+ z: S& F5 y) R. CPROCEDURE.) - K2 f6 ?9 y# H/ iFERRY FLIGHT- A flight for the purpose of:( M" [ l% O1 D7 Q. C a. Returning an aircraft to base. ( n+ k. ]. G' ?3 Pb. Delivering an aircraft from one location to , }, G" U" c6 x3 Y- o+ I) qanother.% ~* S) ]+ A7 s4 q3 c/ @! @" [ c. Moving an aircraft to and from a maintenance + p5 T+ W, s) ?2 pbase.- Ferry flights, under certain conditions, may be ( v9 e' A: T% t8 U* h/ Pconducted under terms of a special flight permit. 1 I1 M9 z: @. xFIELD ELEVATION(See AIRPORT ELEVATION.) d( k7 Q8 p) f) D FILED- Normally used in conjunction with flight z7 s0 g2 c/ Y3 h$ a& s7 o# H$ Nplans, meaning a flight plan has been submitted to9 E5 N/ r) O, b ATC.% s& |6 i1 o: F6 ~( b5 D9 G; Q/ Y FILED EN ROUTE DELAY- Any of the following ; ^6 K- ~5 X1 I) U! Vpreplanned delays at points/areas along the route of0 B+ g7 R/ V% _! t2 e flight which require special flight plan filing and3 y. T0 x' u4 ~' y+ h& V0 T handling techniques. + \4 r/ a' H' i; Wa. Terminal Area Delay. A delay within a terminal 7 h- f/ ?" o9 darea for touch‐and‐go, low approach, or other : i `" Y4 c. y! u& h: o! Jterminal area activity. , D, J5 z7 {. S4 }b. Special Use Airspace Delay. A delay within a . l3 |3 ~+ Q9 c' H0 k; |! l" VMilitary Operations Area, Restricted Area, Warning# n2 L0 k# M1 s Area, or ATC Assigned Airspace. 4 s0 L( g! [5 s7 _, Z' w& M P( Dc. Aerial Refueling Delay. A delay within an ; |6 ?5 {$ `9 [" sAerial Refueling Track or Anchor. 4 G2 P- _) X1 T+ w3 X: GFILED FLIGHT PLAN- The flight plan as filed with $ p7 Y M% K$ r) tan ATS unit by the pilot or his/her designated2 z+ q! b- f( U3 K V% p representative without any subsequent changes or: k' Q$ K* [: [1 i0 p clearances.) y# p5 r0 b3 c/ Y" @ FINAL- Commonly used to mean that an aircraft is$ _. I+ ?$ l) w on the final approach course or is aligned with a& t" _& e& o+ w+ `7 V landing area. 9 U7 R1 ]& J! ]& L) v(See FINAL APPROACH COURSE.) ( ?2 ^) h$ r% p/ \( ]4 j, i(See FINAL APPROACH‐IFR.) ! g7 V7 _: I( B& I/ g( u7 I(See SEGMENTS OF AN INSTRUMENT$ R+ ?+ r6 w8 Z' w" n* v APPROACH PROCEDURE.)8 e$ F' \0 i8 s% R FINAL APPROACH [ICAO]- That part of an; B) l H$ `1 i& A instrument approach procedure which commences at4 _, z2 r7 Q* u( D' r the specified final approach fix or point, or where/ o' j8 k0 ?, X; i such a fix or point is not specified.' x" g9 k, y# x- H5 V5 S. |' @% g a. At the end of the last procedure turn, base turn . ~- Y) M! {, ^5 xor inbound turn of a racetrack procedure, if specified;% X6 l/ c2 C2 u9 o. R or; q# S* @# n4 e- b9 c7 W b. At the point of interception of the last track, D) C& q: ^( }" h specified in the approach procedure; and ends at a" _$ l1 q* x" |. } point in the vicinity of an aerodrome from which:! N6 A* t- U/ R! F# s. |+ j 1. A landing can be made; or 9 w5 M4 S0 X; E6 j+ d0 y Q2. A missed approach procedure is initiated. / f+ Z) @& A& c4 TFINAL APPROACH COURSE- A bearing/radial/7 D' G1 b, v3 t( j track of an instrument approach leading to a runway i G3 }) m! ~8 Q or an extended runway centerline all without regard4 Y c. E' n+ s, v- K to distance.# g1 N/ V. z5 `4 `* d* c# z FINAL APPROACH FIX- The fix from which the* ~8 k/ Y- e8 G$ m& ^- M final approach (IFR) to an airport is executed and# e( b' m; g2 }# Y/ P which identifies the beginning of the final approach1 l) K( `- f; x7 J n! v; y) Y- Z; x segment. It is designated on Government charts by 8 f9 q7 ]. |- f) Nthe Maltese Cross symbol for nonprecision 8 Y* ~, T* T! rPilot/Controller Glossary 2/14/08 - }1 P" A6 y& ~( p$ G2 y2 U5 J+ ^" FPCG F-2 2 p1 `! u! h# a. }) q/ B4 G9 A1 Dapproaches and the lightning bolt symbol for% d9 b# p0 h0 q precision approaches; or when ATC directs a- ^7 W) E! d. @# |3 p lower‐than‐published glideslope/path intercept alti‐( ^- Z1 h. R* W: [: Y! H3 M% P+ { tude, it is the resultant actual point of the 6 e. m, `! N5 Z* V# j: P) ]glideslope/path intercept.! {6 _3 x' I) m4 v8 f (See FINAL APPROACH POINT.)0 c" g* d0 K4 K! N+ H (See GLIDESLOPE INTERCEPT ALTITUDE.) ) P* h! }$ u0 }* p- m% g! P(See SEGMENTS OF AN INSTRUMENT8 ~* |) r3 P+ v* Q. c; E APPROACH PROCEDURE.)2 H/ }- O$ R. m% s$ { FINAL APPROACH‐IFR- The flight path of an+ Z- ~4 d- f" u aircraft which is inbound to an airport on a final z) E- r7 Z: G+ |2 A9 X4 O% B instrument approach course, beginning at the final8 ^, c% F; [7 {; n( V7 d approach fix or point and extending to the airport or. D& r5 q, Q3 x- s6 E the point where a circle‐to‐land maneuver or a missed 6 J7 V1 T: V, U7 o( Q% @2 N `approach is executed. ) n J' ^9 O$ _4 s4 {(See FINAL APPROACH COURSE.) - X4 B6 d2 m% k4 F/ n& A8 y5 x(See FINAL APPROACH FIX.)5 N% X: t# i0 W% S" P! D; D (See FINAL APPROACH POINT.)+ r3 C' h1 h* M! _0 y" Q (See SEGMENTS OF AN INSTRUMENT/ z9 p1 A5 F% s; T APPROACH PROCEDURE.) 1 x3 K- ^, h) ~4 S9 [(See ICAO term FINAL APPROACH.) ) _* I& ^, j2 [$ b. e fFINAL APPROACH POINT- The point, applicable% e; Q7 I% u" I8 a% S only to a nonprecision approach with no depicted. k7 C% t3 j5 s+ d1 l: r/ o FAF (such as an on airport VOR), where the aircraft t$ k; n& |7 K' ~8 K- r7 F- f is established inbound on the final approach course 8 o3 w& |) E1 J$ c- s: ^from the procedure turn and where the final approach) p3 o% X, q6 u5 D descent may be commenced. The FAP serves as the( G, f. U& _) |" u5 u FAF and identifies the beginning of the final: f9 W* Q& i0 ^- @$ T& M. S approach segment. 4 H/ i) v1 H W( b9 ](See FINAL APPROACH FIX.)8 R+ D; w2 Q4 J. V. T% u2 V9 x (See SEGMENTS OF AN INSTRUMENT& L) Y, d5 a Z% R) F$ O e, d2 I APPROACH PROCEDURE.) , ~8 t% x: u7 n( G9 zFINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT, l- U. o8 U$ E# l4 a, B APPROACH PROCEDURE.) 0 \8 o# c t' B/ z6 a" j; s; uFINAL APPROACH SEGMENT [ICAO]- That- t- ^- ^3 g; g4 Q- M2 `" d segment of an instrument approach procedure in$ E3 M. o7 E, X5 W9 A/ H! d which alignment and descent for landing are" ?/ e2 S9 d* a; h9 j$ a! y accomplished. k' E) g7 e5 X% T: S8 WFINAL CONTROLLER- The controller providing 2 _/ x: y; {" b. C0 F8 H7 y: t1 G# @information and final approach guidance during PAR * X) u: E2 A. B4 ~! U. @and ASR approaches utilizing radar equipment." v' n$ i v" ]! D+ { (See RADAR APPROACH.) - s1 e: G9 E( x* f; w1 O5 Y5 SFINAL GUARD SERVICE- A value added service ( O- k+ J1 O/ T0 c- ]" Z, p& _provided in conjunction with LAA/RAA only during1 @2 h V6 P- m2 ]5 ^$ i periods of significant and fast changing weather 1 ^5 I4 h- X; ~0 c3 Kconditions that may affect landing and takeoff% `$ _4 |+ {4 C0 X6 y8 @6 O operations. & [7 t7 g! H1 i0 O3 LFINAL MONITOR AID- A high resolution color: b6 i* U) {) ?0 }, w display that is equipped with the controller alert ) G3 ~0 q5 _' H/ ?: Msystem hardware/software which is used in the S8 L y# F; D precision runway monitor (PRM) system. The# {* t! s* n4 ~; q display includes alert algorithms providing the target: |5 _) n6 f- G) W) y) l( [, | predictors, a color change alert when a target ( B, U" {& ]+ B1 bpenetrates or is predicted to penetrate the no * A( h; s7 v3 _' dtransgression zone (NTZ), a color change alert if the" b6 P( d- Q1 V; f0 h. X2 Y aircraft transponder becomes inoperative, synthe‐ d! p1 @9 i8 ~& |8 W sized voice alerts, digital mapping, and like features% U6 t) N3 q; Y7 e contained in the PRM system.+ k% c9 e6 D) x" l3 ^ B0 Y6 Z D (See RADAR APPROACH.)+ V0 y- L- k. M& | FINAL MONITOR CONTROLLER- Air Traffic, }3 }9 v( u1 r9 f- X Control Specialist assigned to radar monitor the* @' K/ R! O4 c# \( P$ i3 P flight path of aircraft during simultaneous parallel 3 q! T' G5 z# C3 O, u w/ pand simultaneous close parallel ILS approach8 X4 I1 V. [1 Z' P f4 m operations. Each runway is assigned a final monitor 4 J4 {" ?. N9 s% b; }* c+ N o+ G6 icontroller during simultaneous parallel and simulta‐" R1 ^% R5 f/ c" R1 [$ L4 Z neous close parallel ILS approaches. Final monitor % a* C; S3 h( P% ucontrollers shall utilize the Precision Runway9 L* `. a0 T: j2 { Monitor (PRM) system during simultaneous close$ R; V9 u1 J$ ^ parallel ILS approaches.. w/ k/ G9 ^6 L3 ~$ y FIR(See FLIGHT INFORMATION REGION.)/ c9 y5 u5 ]; X; m. J3 E- L FIRST TIER CENTER- The ARTCC immediately % w6 W7 q/ ]9 L( J( Z& L9 Dadjacent to the impacted center.9 R- T E$ Z% h, c9 o4 l FIX- A geographical position determined by visual , b9 T. P N) t# C8 jreference to the surface, by reference to one or more' D. M" T* k) Z radio NAVAIDs, by celestial plotting, or by another3 d( a- r* R( l( ~ navigational device. 0 y! W" `4 N! y* a6 Y" q2 XFIX BALANCING- A process whereby aircraft are% }/ z" {, G9 z7 C7 a: W7 w evenly distributed over several available arrival fixes 6 K P4 O$ J/ i; u" v! l) Q6 `* xreducing delays and controller workload. 7 Z0 I! e) o- OFLAG- A warning device incorporated in certain4 R9 i) o# V6 D% C# w& a7 \1 ? airborne navigation and flight instruments indicating 2 J' @: {" G! I5 _/ y( H% K2 @that: * \3 n% y3 D9 s( B, Oa. Instruments are inoperative or otherwise not$ U! W, f- @) ^' V1 A$ G operating satisfactorily, or8 b, o# O& A8 B y) V+ y. F. }3 K b. Signal strength or quality of the received signal1 |* e5 ^; O0 J7 T% D! H6 n. ~ falls below acceptable values.& p7 n E6 W0 p4 E0 ]( H) e FLAG ALARM(See FLAG.) ; D, D5 c1 k" l0 w8 H# S8 eFLAMEOUT- An emergency condition caused by a5 X! a7 J2 {1 F1 h( t/ [# _+ d; V loss of engine power.) d! |5 Y$ H; w( |. i FLAMEOUT PATTERN- An approach normally' g8 Z$ |1 E0 t) P conducted by a single‐engine military aircraft ; L5 t. `& A# y) Z* @3 G6 @8 u! fexperiencing loss or anticipating loss of engine. E" L9 E# m8 ~! \( z: r$ r' O Pilot/Controller Glossary 2/14/08 2 s6 M. C( j7 x P/ XPCG F-3, `% L. \( k/ s9 c' n, ~. i) s2 c power or control. The standard overhead approach F7 c( r$ t& ]# F1 @; Bstarts at a relatively high altitude over a runway 7 J7 K( C" ` \' G(“high key”) followed by a continuous 180 degree5 u; w/ E4 ]$ ?1 a! w& R$ b, V turn to a high, wide position (“low key”) followed by9 g, F9 i# P7 G0 U a continuous 180 degree turn final. The standard : q$ ?( E* |. E9 d6 g) Mstraight‐in pattern starts at a point that results in a. I/ _4 |0 D& @: X) X6 e straight‐in approach with a high rate of descent to the* m: K( F3 K' r {8 }9 j runway. Flameout approaches terminate in the type. g: Z9 b) F) A8 B% n approach requested by the pilot (normally fullstop). " c7 f/ @6 E1 q) _* oFLIGHT CHECK- A call‐sign prefix used by FAA : {$ s, w( n. l9 eaircraft engaged in flight inspection/certification of' h6 ?# j0 U' y navigational aids and flight procedures. The word 4 d9 j& q$ c/ l" [“recorded” may be added as a suffix; e.g., “Flight8 U1 [& M# X) u) t9 N Check 320 recorded” to indicate that an automated 3 c2 e3 z! v, ^! zflight inspection is in progress in terminal areas. 6 K6 g5 e: W' W! p: i0 Y l: {' l(See FLIGHT INSPECTION.) " V6 y8 v9 c8 E(Refer to AIM.) + O- \8 O) B" @) U+ ?7 IFLIGHT FOLLOWING(See TRAFFIC ADVISORIES.) 1 ~2 [% c$ `: ]! g# M$ J, \FLIGHT INFORMATION REGION- An airspace of9 D0 w' @; |/ o$ j3 h" V. y% a defined dimensions within which Flight Information * ^. Q9 d" K. G# }Service and Alerting Service are provided.; m; D. s5 T2 v5 O% \% j2 j a. Flight Information Service. A service provided . s. b* `7 ^1 A: u7 Efor the purpose of giving advice and information , ]( z# p4 D* C# a/ duseful for the safe and efficient conduct of flights. " Q' `1 H6 b2 x: K, pb. Alerting Service. A service provided to notify - u: m- d; ]3 G' e9 tappropriate organizations regarding aircraft in need$ I" G) C& C. ?6 J4 Q of search and rescue aid and to assist such+ B" G7 U$ t& t' g; k- E organizations as required.* q& S& {; ?7 _/ H FLIGHT INFORMATION SERVICE- A service . \- y' q! I6 g9 N* Oprovided for the purpose of giving advice and) X+ |; x" b6 h information useful for the safe and efficient conduct+ t; V% p- S: v/ ?" L2 Q( T of flights. - E& U7 i, X4 g6 p. R% ~FLIGHT INSPECTION- Inflight investigation and9 N' s1 z5 w6 x, y2 M evaluation of a navigational aid to determine whether ) M Z) {- w& O' c5 p1 F% Ait meets established tolerances. + g2 o y- O6 S+ P; J6 ?' v3 |(See FLIGHT CHECK.)1 g& @% W- z0 R* e Y- Y) Z (See NAVIGATIONAL AID.)" }; r( r- O! A i3 u$ I8 X FLIGHT LEVEL- A level of constant atmospheric# Y8 L0 J+ e6 X' J+ k% ^ pressure related to a reference datum of 29.92 inches5 A% j1 X7 \- \" @4 T$ p of mercury. Each is stated in three digits that represent : Q; W( u# w0 f) B% ]hundreds of feet. For example, flight level (FL) 250; T9 p$ P- Z' a- m represents a barometric altimeter indication of) {+ a$ n$ |3 |! D! k/ g9 { 25,000 feet; FL 255, an indication of 25,500 feet. , S- S+ A' S' F5 q( V; d(See ICAO term FLIGHT LEVEL.)3 e+ a8 Q" ]. C% \, ~ X FLIGHT LEVEL [ICAO]- A surface of constant$ I' h; n, C1 z3 q3 f& d8 c5 J0 T atmospheric pressure which is related to a specific7 d9 E* ]) x( {7 S pressure datum, 1013.2 hPa (1013.2 mb), and is ) ^4 l) i" T- ]; vseparated from other such surfaces by specific3 k) j( r5 p" `/ d9 T: r" |4 d pressure intervals. ! d) T) {. ^7 `Note 1:A pressure type altimeter calibrated in1 U3 {8 I3 G5 J7 c3 l0 Z- S accordance with the standard atmosphere:" D5 L1 A1 _) S h. y+ _/ q3 S a. When set to a QNH altimeter setting, will# {4 N4 g# R8 w: } indicate altitude; % q/ _1 f9 @" F1 ]b. When set to a QFE altimeter setting, will9 X' S4 i# M8 h/ D indicate height above the QFE reference datum; b" a% f1 D5 X$ Xand0 B! l* h) q/ w7 c+ f% k ?+ v* _ c. When set to a pressure of 1013.2 hPa ; n3 l3 ?4 w! H9 b(1013.2 mb), may be used to indicate flight levels.1 q" m8 k w# Q$ ? Note 2:The terms `height' and `altitude,' used in 1 Q9 U5 W6 Y4 G( [! PNote 1 above, indicate altimetric rather than $ f s+ g1 R+ f7 o6 H- Cgeometric heights and altitudes. ( y# d( \$ _0 o* q! q& d) ^3 l" MFLIGHT LINE- A term used to describe the precise 2 r' |- G/ f3 f$ Z7 }& |* B& mmovement of a civil photogrammetric aircraft along( Y' O" X- `0 |* d* z0 |5 \1 O a predetermined course(s) at a predetermined altitude : V, h0 Q/ J5 ]. ^ Cduring the actual photographic run. $ ]5 U: m; X2 s9 X6 SFLIGHT MANAGEMENT SYSTEMS- A comput‐7 {6 w7 Q* T3 q' l) V er system that uses a large data base to allow routes ( G& y+ d! S( D) i: x/ C; z: g+ Eto be preprogrammed and fed into the system by 6 t) ^4 J/ @ \4 b" Vmeans of a data loader. The system is constantly# s6 T+ X, L! V5 t8 ^ updated with respect to position accuracy by , k" S- \7 ^/ P) C' }( Areference to conventional navigation aids. The 0 L1 Y/ y4 A! F. m4 }1 w6 ~sophisticated program and its associated data base3 e, k& {3 @# p6 E insures that the most appropriate aids are automati‐ . l- s8 `) |6 e. Rcally selected during the information update cycle.+ K$ E$ i( w2 I B( t4 G; J FLIGHT MANAGEMENT SYSTEM PROCE‐ 2 y/ _7 s8 T' }" `DURE- An arrival, departure, or approach procedure9 e n4 X. c/ j developed for use by aircraft with a slant (/) E or slant A1 l" I7 R; q* a8 S(/) F equipment suffix. y$ U/ o2 U3 [6 A% i8 G FLIGHT PATH- A line, course, or track along which " m+ F* V4 m/ man aircraft is flying or intended to be flown. 9 _8 t/ k* u' B2 x; ~(See COURSE.)1 g* h0 o! C! t+ c8 q: z (See TRACK.) e0 {6 {! L8 ^9 ?' F% e) D FLIGHT PLAN- Specified information relating to " V7 j3 L; T1 X! C8 g: Othe intended flight of an aircraft that is filed orally or 2 d3 ^2 j. q% ?9 Yin writing with an FSS or an ATC facility.6 W9 [ q& M4 C8 Q: e (See FAST FILE.)5 q* T$ M2 V } (See FILED.) & [/ i; I. A9 V6 h7 F7 o/ p% y" _(Refer to AIM.)0 a$ g' X. D, x* T' t/ _9 o; E ~ FLIGHT PLAN AREA- The geographical area 3 }- O0 K2 @& e m' Q/ Q9 M" Jassigned by regional air traffic divisions to a flight 1 l5 [; j) K. u; V# ^service station for the purpose of search and rescue/ U- N) J+ p) U3 Y0 T for VFR aircraft, issuance of NOTAMs, pilot: r' V/ S; u7 H) C6 t& j! A; ] briefing, in‐flight services, broadcast, emergency% ~( M8 T1 k7 o# [% i- N" F services, flight data processing, international opera‐9 b, q4 \( C. Y$ w6 U tions, and aviation weather services. Three letter 9 h1 e* r* w2 x% FPilot/Controller Glossary 2/14/08 9 ^9 `; T, {; ]: S* \PCG F-44 y2 j& A% c2 H6 d# g1 G identifiers are assigned to every flight service station/ p: ?, C# u4 U. @ and are annotated in AFDs and FAAO JO 7350.8,# d& B# Y$ a( ?% m. D5 H$ d LOCATION IDENTIFIERS, as tie‐in facilities. $ K/ P6 ^2 r) {' |9 O/ b9 h(See FAST FILE.)8 g. X9 C! j9 R/ |, _; b6 l4 | (See FILED.) ( Q8 d8 J& L2 f(Refer to AIM.) " w1 t; l Y# d: TFLIGHT RECORDER- A general term applied to" {7 {6 P- L# T& O, Z9 G any instrument or device that records information2 f6 E& h! a. {7 }% T about the performance of an aircraft in flight or about 7 P" `) K6 O! C: g4 econditions encountered in flight. Flight recorders 2 @$ z: P6 O" z- hmay make records of airspeed, outside air7 C: v! i& L: M/ }- ~: A temperature, vertical acceleration, engine RPM,8 G+ x" R5 U5 ~) v8 I% U& `/ k a manifold pressure, and other pertinent variables for a' [! j; D6 H' ?- h( P given flight.2 r) Q! M! d1 D2 ^+ ~0 L$ e% H1 K (See ICAO term FLIGHT RECORDER.)9 e- n5 |: U5 J# d9 n% M# \ FLIGHT RECORDER [ICAO]- Any type of! h! G; h7 u) c0 J- A recorder installed in the aircraft for the purpose of + E E o4 u3 o) [3 ?. A' V) T5 L! y% tcomplementing accident/incident investigation.+ Z$ f2 ~- [8 E# e# W5 G; z/ ] Note:See Annex 6 Part I, for specifications relating ; X* v& v V' Z {, nto flight recorders.$ E% U" y) R, p3 [ FLIGHT SERVICE STATION- Air traffic facilities . z. D0 Z5 l( d4 o2 }; |- O/ lwhich provide pilot briefing, en route communica‐ 9 y4 F7 U, Z* B1 t0 O0 ?tions and VFR search and rescue services, assist lost + c" H2 F+ p. q8 c: j9 {aircraft and aircraft in emergency situations, relay 6 v5 C) t% P! wATC clearances, originate Notices to Airmen, & @/ w0 }, e7 ^6 b8 Ebroadcast aviation weather and NAS information, * Y3 @- y% u; \4 Iand receive and process IFR flight plans. In addition,' s+ n) s: \, K. E5 }; Z4 o at selected locations, FSSs provide En Route Flight/ F2 C( g( a; V3 T Advisory Service (Flight Watch), issue airport . |$ C K" A- A4 V! n( O) qadvisories, and advise Customs and Immigration of : B& m0 b) h6 R; otransborder flights. Selected Flight Service Stations w; U" C3 N+ e" z3 ?- j in Alaska also provide TWEB recordings and take$ J% \0 T% S; L+ p6 z K: i" ` weather observations. : s0 i u. B+ n3 [& \! k- y(Refer to AIM.)% o% q5 a' e2 d5 e a, e, D8 n/ }( F FLIGHT STANDARDS DISTRICT OFFICE- An 7 `/ o. ~* n0 G( N' eFAA field office serving an assigned geographical t8 ^% H1 {; u5 k4 Carea and staffed with Flight Standards personnel who" W% N5 V8 {6 x8 x& B, m serve the aviation industry and the general public on : t' c R. K# t ^5 l2 nmatters relating to the certification and operation of2 Y8 }# I/ \( c L% J air carrier and general aviation aircraft. Activities % U; q7 }* l* g, Z$ binclude general surveillance of operational safety," f: o4 h A; B certification of airmen and aircraft, accident [: a3 K3 i- @ {prevention, investigation, enforcement, etc.: O T* P& ~! g% Y9 @" X" E6 {8 _ FLIGHT TEST- A flight for the purpose of: & r) L; H1 L9 m, F" ?0 sa. Investigating the operation/flight characteris‐ % {( h5 x% R2 |( `( B8 w# u$ gtics of an aircraft or aircraft component. ' Q1 v! g, w& c# ^" Rb. Evaluating an applicant for a pilot certificate or v2 |# _; H/ F% erating.5 O8 U6 p6 m$ O& W) X FLIGHT VISIBILITY(See VISIBILITY.) / O$ g5 G4 d7 D% L3 N' @FLIGHT WATCH- A shortened term for use in 5 p: b1 h# H/ V6 oair‐ground contacts to identify the flight service 8 f; @" T: ~- y& i9 \8 Bstation providing En Route Flight Advisory Service;) i: V/ t1 }8 ^1 h. v2 p e.g., “Oakland Flight Watch.” r2 N1 p; n/ m- F; v9 M(See EN ROUTE FLIGHT ADVISORY* W8 j! Y# |& s. G @ SERVICE.)6 r7 W/ E) p1 b( X _; c7 p FLIP(See DOD FLIP.) 7 ^. j Y1 Z7 D; u3 \FLY HEADING (DEGREES)- Informs the pilot of + {8 z6 B& U6 w% w4 M4 Bthe heading he/she should fly. The pilot may have to) b7 @( u, {7 O- U* H, G turn to, or continue on, a specific compass direction# Q7 {2 R: m1 K6 ?9 g) N in order to comply with the instructions. The pilot is # M2 N5 v! v) ~& z \) }4 k, `- Eexpected to turn in the shorter direction to the heading ! M0 I% ~* J: N' y/ V Munless otherwise instructed by ATC.9 Y2 G, R S: s! R2 @ FLY‐BY WAYPOINT- A fly‐by waypoint requires$ `; ^$ k! n1 [% ]& H the use of turn anticipation to avoid overshoot of the W. F4 a! {; d* ]- C w) j& Jnext flight segment.' m# h. r# q# J; k/ E FLY‐OVER WAYPOINT- A fly‐over waypoint ! t) P. y4 x! rprecludes any turn until the waypoint is overflown# P( ^" Y1 Y" e: W' Y; |% a* j and is followed by an intercept maneuver of the next9 N& i; K* l) M) w, C# d flight segment." @/ ^! i/ ~7 Z8 x9 r FMA(See FINAL MONITOR AID.)6 K# @4 q c. c2 Z9 _- F FMS(See FLIGHT MANAGEMENT SYSTEM.)3 |+ R3 o$ t, o* x1 k6 N FMSP(See FLIGHT MANAGEMENT SYSTEM 2 c4 b0 S" Q( ePROCEDURE.) `, T2 g& v: x) dFORMATION FLIGHT- More than one aircraft H4 d- ^5 M" mwhich, by prior arrangement between the pilots, r4 ^3 V" d2 K* O! b, h9 soperate as a single aircraft with regard to navigation7 y q E/ I, h' z# Q' m1 }* Q" { and position reporting. Separation between aircraft% k2 y* Y' n+ ^) _8 V within the formation is the responsibility of the flight" H0 B) i) w& o) B leader and the pilots of the other aircraft in the flight. - I9 a5 l. m6 m: ^9 nThis includes transition periods when aircraft within 5 D2 Z( G; I% [8 a: f& Qthe formation are maneuvering to attain separation M$ M& n5 D, V3 J, s9 Z7 \from each other to effect individual control and/ a2 C. L% v8 M4 Z, g during join‐up and breakaway. 3 f9 S1 I- F; p+ f5 I2 b$ |a. A standard form ation is one in which a" N @; V+ f' o/ \$ o proximity of no more than 1 mile laterally or! s- A( e1 |- p5 y3 c8 M( V longitudinally and within 100 feet vertically from the* F5 x; L1 }0 x7 W( ~- w flight leader is maintained by each wingman.4 r, R7 k9 r+ r! _/ C# {. x. ? b. Nonstandard formations are those operating. D8 b9 p" T; |& D" ^7 }# W under any of the following conditions: 3 e( G* j8 o# Y) L: ]6 QPilot/Controller Glossary 2/14/084 r h9 K: h) g/ f0 F( I. { PCG F-5 5 i2 X) w' S' P3 ~9 x9 o1. When the flight leader has requested and ATC {$ I& |0 D+ p) b! ` has approved other than standard form ation) b2 O9 t$ P4 z6 C dimensions.5 C& O, a# H1 X ^- [ 2. When operating within an authorized altitude. d8 w a0 x) g# E: ]3 P3 E reservation (ALTRV) or under the provisions of a5 l: [* E( C+ M- k letter of agreement.0 O) B: i3 @' {( e/ ^, O 3. When the operations are conducted in/ I, r' G$ T# p( ]2 U$ d; B airspace specifically designed for a special activity. * J. z. M7 E% x, B3 f$ @& ?6 I(See ALTITUDE RESERVATION.) % ^ w3 Z0 }' N% R- L% V(Refer to 14 CFR Part 91.)- B9 c! S( ]+ ?0 G8 w; e FRC(See REQUEST FULL ROUTE CLEARANCE.)# S: X. f! E, E2 j) M) N FREEZE/FROZEN- Terms used in referring to0 C. e3 G0 R ^" L6 t. r( A; f7 J! @ arrivals which have been assigned ACLTs and to the . O# J9 E3 Y# Z$ g' ~) mlists in which they are displayed.8 ~+ Y( H6 x/ S& T1 ^, | FREEZE CALCULATED LANDING TIME- A 8 C1 w0 C( i' {1 e2 Adynamic parameter number of minutes prior to the' D9 V* A1 S) x) z2 x% Q7 }8 B7 Q' Z meter fix calculated time of arrival for each aircraft ) x2 J4 k& c" J. N Y' S: _when the TCLT is frozen and becomes an ACLT (i.e.,' m+ y' ^/ x9 {$ _6 d$ n8 J the VTA is updated and consequently the TCLT is3 ~7 _ Y0 y8 t modified as appropriate until FCLT minutes prior to! G$ Y" r6 H, W+ d2 e" D3 _ meter fix calculated time of arrival, at which time ! x* v% r* a2 oupdating is suspended and an ACLT and a frozen& m# D) z" J5 \& m3 S( x& I meter fix crossing time (MFT) is assigned).1 k) |7 X( f8 `; S+ w1 D. l! e FREEZE HORIZON- The time or point at which an. Q) x) b, c2 q) ^0 { aircraft's STA becomes fixed and no longer fluctuates # ^6 H& r+ Y8 }) wwith each radar update. This setting insures a constant$ j) B$ p$ o V time for each aircraft, necessary for the metering- v! X( U* ?: [ controller to plan his/her delay technique. This 9 i& H& b) `* Esetting can be either in distance from the meter fix or 3 |' i1 n R x+ j! f" f, U0 r& q# x6 W3 Oa prescribed flying time to the meter fix.$ f! J1 O' b0 {/ V FREEZE SPEED PARAMETER- A speed adapted & g+ t- ~) o' y4 o: i) J: ?5 J" G8 p8 dfor each aircraft to determine fast and slow aircraft. ) [% Q: E+ ~5 P! Z$ X+ Z1 N% \Fast aircraft freeze on parameter FCLT and slow ) L3 F7 @0 e$ i( Haircraft freeze on parameter MLDI.* A ?5 M) v1 D: y( p% m' n FRICTION MEASUREMENT- A measurement of/ W, T" }, Z, s- g# i. N the friction characteristics of the runway pavement # T' g& ~2 S- o# fsurface using continuous self‐watering friction ' J Y% ]% O1 Q: b( N8 W6 \3 F' n! nmeasurement equipment in accordance with the( v9 a- c! Z$ o* _$ W0 T, \/ ` specifications, procedures and schedules contained ; ?' i' H/ g( rin AC 150/5320-12, Measurement, Construction, 3 M6 S0 R7 X8 r q& j# p% ]+ rand Maintenance of Skid Resistant Airport Pavement/ O* m7 G, H4 r, L% ` Surfaces. , M5 M# m4 V, e: qFSDO(See FLIGHT STANDARDS DISTRICT OFFICE.) ' E( Q& F! s" O( fFSPD(See FREEZE SPEED PARAMETER.) 2 T$ L1 o/ D' W* E! L4 JFSS(See FLIGHT SERVICE STATION.)2 |/ c; V0 L i* T- | j- l& s/ P' _9 ~ FUEL DUMPING- Airborne release of usable fuel. $ T/ Y) i3 f' n0 ^; l% hThis does not include the dropping of fuel tanks. " M, O0 @1 a i8 K2 E G(See JETTISONING OF EXTERNAL STORES.) " n4 V0 b. M; ` N; h; j2 }3 r1 \FUEL REMAINING- A phrase used by either pilots* u7 A9 a0 m9 E+ s7 ]7 B$ S or controllers when relating to the fuel remaining on 6 r5 v" ]# f; x5 j2 d& I8 `board until actual fuel exhaustion. When transmitting# j7 d% d m# J$ D9 H( t8 K# `( J, } such information in response to either a controller ( }6 }: B$ `4 @# Z# G8 Kquestion or pilot initiated cautionary advisory to air4 } l+ ^6 x% W. U traffic control, pilots will state the APPROXIMATE' u) Q- X5 R9 h6 X NUMBER OF MINUTES the flight can continue O j) h1 w. q) O* G6 Gwith the fuel remaining. All reserve fuel SHOULD6 V5 u4 q4 w" k9 `; `. P7 ]- a! r BE INCLUDED in the time stated, as should an, \2 C' L* c' { ^+ x allowance for established fuel gauge system error.' t, ?) h6 j/ a6 G: @, [7 \ FUEL SIPHONING- Unintentional release of fuel % R1 s9 {/ H* X6 Z/ \# P; T2 Mcaused by overflow, puncture, loose cap, etc.) I& S3 ]# J/ u# W; n5 y# x FUEL VENTING(See FUEL SIPHONING.)7 O4 l8 g, X ^! m Pilot/Controller Glossary 2/14/08 8 b/ l3 r- C! s3 A5 C! lPCG G-1 {8 z' D9 ^8 e/ J( q& E1 ? G

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发表于 2008-12-28 14:13:18 |只看该作者
GATE HOLD PROCEDURES- Procedures at) h# Y7 i# E; J' A3 g+ b: \ selected airports to hold aircraft at the gate or other- I# a: I- G$ C& L, E5 z4 f ground location whenever departure delays exceed or " k3 S- ^& x5 M8 Sare anticipated to exceed 15 minutes. The sequence ) Y4 X* c' ?1 g; v8 l' N) Wfor departure will be maintained in accordance with' ?& O) O. c5 F initial call‐up unless modified by flow control6 C* e8 [# v0 [ restrictions. Pilots should monitor the ground/ {" g, c0 U7 d' k control/clearance delivery frequency for engine 7 q+ m. u' l; p8 ^; C1 y. lstart/taxi advisories or new proposed start/taxi time / G- f8 q; \) m* p" T4 }; Kif the delay changes.

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发表于 2008-12-28 14:14:19 |只看该作者
GBT(See GROUND-BASED TRANSCEIVER.) 9 f) |5 Z5 N$ W0 W$ d& GGCA(See GROUND CONTROLLED APPROACH.) ( v" _4 O8 f" y$ x7 G3 gGDP(See GROUND DELAY PROGRAM.)1 L6 d& b/ K( E( z3 m# w GENERAL AVIATION- That portion of civil * X: e$ k. M3 ]& S [- j/ u! g( Uaviation which encompasses all facets of aviation: y) a# C `5 s4 [5 Q$ J; k except air carriers holding a certificate of public ; c9 y; K; l8 }: N& u, S% Bconvenience and necessity from the Civil Aeronau‐$ Z- z: p6 [# F2 { tics Board and large aircraft commercial operators. ' Z5 T. E% T9 ?2 C: j) R(See ICAO term GENERAL AVIATION.) # ^0 ?2 x7 ^. H! `: g3 }, V7 U! n7 EGENERAL AVIATION [ICAO]- All civil aviation ! p' ~ e$ y+ |" e1 H! _operations other than scheduled air services and- W3 a/ e" q0 g; D4 i nonscheduled air transport operations for remunera‐ ! h! R O' ?) P9 x9 K; i. ntion or hire. " P/ Q0 B' _) r/ |2 v. }1 cGEO MAP- The digitized map markings associated$ ] j; B) T! K8 K5 O3 [# X2 G/ J with the ASR‐9 Radar System.- s& ~1 _6 Q/ O GLIDEPATH(See GLIDESLOPE.) " X8 ?$ o% q) f: O; p% s+ q1 AGLIDEPATH [ICAO]- A descent profile determined , N- a% {) l. n' n( f+ v, ?for vertical guidance during a final approach. 2 }0 u# c# g) Y, k; \GLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.)- w' t% ^# f2 j: Z- w* y GLIDESLOPE- Provides vertical guidance for * a1 ]( o+ c) ^9 k9 [aircraft during approach and landing. The glideslope/ % s- W/ A3 b( n" B5 Xglidepath is based on the following: : o# A; \$ e/ R2 }a. Electronic components emitting signals which! W* w; |! I$ T' A8 V provide vertical guidance by reference to airborne- N4 ]1 C# c5 N& |+ a0 w instruments during instrument approaches such as # j5 _4 L) e0 f9 PILS/MLS, or ; y3 _4 h5 P# h }. xb. Visual ground aids, such as VASI, which" Q0 X1 M/ o$ b. \( D2 U7 R* E provide vertical guidance for a VFR approach or for 4 W2 ~3 \% S' S. hthe visual portion of an instrument approach and 5 s2 w% y9 Q `2 k) Planding. / ?5 f6 B5 x/ G9 }' E( gc. AR. Used by ATC to inform an aircraft making : A! J4 c. p2 k* H' _- y) ]a PAR approach of its vertical position (elevation) / l. v% `2 g4 r2 {& Frelative to the descent profile.1 a/ K$ W* s0 L& u' z- E (See ICAO term GLIDEPATH.)( I/ b9 K9 P2 Z( M" _# x. d/ L" U# D- x GLIDESLOPE INTERCEPT ALTITUDE- The 3 q* ]7 x$ M4 X. b; qminimum altitude to intercept the glideslope/path on# S8 h# W' e$ n5 |* s6 ]( n4 G7 c a precision approach. The intersection of the / W) V9 @8 b( _& o; Mpublished intercept altitude with the glideslope/path, * w! u* s- w1 odesignated on Government charts by the lightning; h8 X6 m/ e u bolt symbol, is the precision FAF; however, when the 1 \7 y( {0 ^7 `4 ?approach chart shows an alternative lower glideslope & {. H% L) O1 M3 Qintercept altitude, and ATC directs a lower altitude, ( C4 z1 p) X* athe resultant lower intercept position is then the FAF. 7 O: X5 O& r& N(See FINAL APPROACH FIX.)1 W. f: k' d6 @( N1 T* B (See SEGMENTS OF AN INSTRUMENT ' F. a! N& T: M; h4 k. {APPROACH PROCEDURE.) 0 o- H5 G" F% g2 B' @6 t- JGLOBAL POSITIONING SYSTEM (GPS)- A9 d4 a" A/ e0 ^3 @: }5 e" C- F space‐base radio positioning, navigation, and$ s3 z6 t" D' I4 l8 }; n time‐transfer system. The system provides highly & |" s. K' }/ a* s0 Q! d7 _7 z5 Iaccurate position and velocity information, and! s5 _3 y7 I0 @/ o3 X2 q precise time, on a continuous global basis, to an. _0 g }# F1 P0 f+ U7 m! K5 R unlimited number of properly equipped users. The " ^/ `9 `( H( a3 Ssystem is unaffected by weather, and provides a) t: o/ y! U6 q+ R worldwide common grid reference system. The GPS ; z# Q, C7 M5 s4 b7 S u7 Pconcept is predicated upon accurate and continuous/ S* F5 C/ O' v# U# k knowledge of the spatial position of each satellite in) u2 L! A, M; o; Q/ J the system with respect to time and distance from a : T4 R3 Q7 w' xtransmitting satellite to the user. The GPS receiver0 e4 v/ b( q8 o! ] automatically selects appropriate signals from the ) r- B( W1 n' k5 Vsatellites in view and translates these into three‐9 t- ^7 Y3 T, A% ` dimensional position, velocity, and time. System - u! s" g, S/ z, jaccuracy for civil users is normally 100 meters% d5 }. E# n' g8 e+ l horizontally. # B; B8 V9 B$ b: KGO AHEAD- Proceed with your message. Not to be ( ^$ j8 {. s! Lused for any other purpose. - {8 j& q* k- r5 @: F* t+ FGO AROUND- Instructions for a pilot to abandon 3 p; q: I( Y( ]' f# Y! ^5 w; c- Ahis/her approach to landing. Additional instructions* p1 u# A. X# ^) Z3 m9 g# n may follow. Unless otherwise advised by ATC, a $ N6 T; ], d4 h9 J, eVFR aircraft or an aircraft conducting visual $ i9 J a3 i% L' Qapproach should overfly the runway while climbing N2 \* [: p, a6 ~! Fto traffic pattern altitude and enter the traffic pattern# v- B4 N1 y9 H, M( _; ^" ~9 v0 w via the crosswind leg. A pilot on an IFR flight plan6 H D/ O. M# b+ i8 L1 y3 h8 _! o* V Pilot/Controller Glossary 2/14/08 5 o1 k d7 ] o7 |5 yPCG G-2 % x _' F! B) J2 }making an instrument approach should execute the ; |3 k$ T4 K/ D1 e1 r! c7 [7 x8 mpublished missed approach procedure or proceed as / x0 J" b$ e& ^( h) n# H0 J' vinstructed by ATC; e.g., “Go around” (additional4 `3 L, n8 Z: @* i7 |; n$ ] instructions if required). ) o! a% x$ y, I/ g6 d(See LOW APPROACH.) 6 r, e) |/ a" n, \2 M# A! i(See MISSED APPROACH.)8 f" q) `6 _) I5 O& H! _ GPD(See GRAPHIC PLAN DISPLAY.) 1 c- d) ]3 e+ N% uGPS(See GLOBAL POSITIONING SYSTEM.) 4 g" A0 I8 V5 {" k4 q, mGRAPHIC PLAN DIS PLAY (GPD)- A view" z0 R" P/ K' W. u7 {3 ~ available with URET that provides a graphic display + a J+ j, ]6 Y9 d3 H$ ~of aircraft, traffic, and notification of predicted $ p/ l3 b# }4 F8 d: P$ \$ Qconflicts. Graphic routes for Current Plans and Trial8 n) [" m. o6 x- A" m D Plans are displayed upon controller request.$ ]4 ~! _! |$ k1 l7 Z1 j6 ]. ` (See USER REQUEST EVALUATION TOOL.) , c. F* ]7 l5 ], @7 y* HGROUND-BASED TRANSCEIVER (GBT)- The 7 Z7 z; u l7 Y- `/ k5 rground-based transmitter/receiver (transceiver) re‐3 z0 t8 U& \+ h6 ^" }2 X5 S ceives automatic dependent surveillance-broadcast 8 a Q; {6 w* p( omessages, which are forwarded to an air traffic & V; u- ^! h L& Kcontrol facility for processing and display with other - Q) V6 A X5 K7 Fradar targets on the plan position indicator (radar / H# W/ \. Y+ n# m+ n" F3 q0 [display).5 p$ d* j5 t9 E" {6 N+ Z3 u/ N/ _1 Y (See AUTOMATIC DEPENDENT+ w, }' [# \5 V6 y5 [ SURVEILLANCE‐BROADCAST.)1 n$ l+ p0 z# b, V GROUND CLUTTER- A pattern produced on the( d( o2 ?* F1 F4 q2 c3 V* Q radar scope by ground returns which may degrade4 O7 R( U: X4 o2 J2 @# a0 v; D1 Z7 J: V other radar returns in the affected area. The effect of ! _$ J( _4 B. C& n, ]ground clutter is minimized by the use of moving9 \0 {( H" |1 A$ O4 B7 w8 f target indicator (MTI) circuits in the radar equipment9 _' n" h6 Y1 ] resulting in a radar presentation which displays only 5 f8 M+ _ A. _) c. n3 M. H/ Dtargets which are in motion.5 h* l$ S. ~3 s. b/ X (See CLUTTER.) 8 K, n5 H0 }, d4 [: m3 @& bGROUND COMMUNICATION OUTLET (GCO)-$ C2 h* w! P4 R9 v( L9 b# H) ~ An unstaffed, remotely controlled, ground/ground 0 O/ Z0 u; {! g4 U) G8 wcommunications facility. Pilots at uncontrolled 5 g7 U) j! K( V* Y0 q8 n$ dairports may contact ATC and FSS via VHF to a & i" _! _8 k/ W- _' p" Rtelephone connection to obtain an instrument . x) b9 l7 ^5 T9 Eclearance or close a VFR or IFR flight plan. They may2 K6 V5 m) Q l6 H# D* d- l also get an updated weather briefing prior to takeoff. , e# s5 `4 m8 ?6 ?Pilots will use four “key clicks” on the VHF radio to $ P) i* }. p, t0 |contact the appropriate ATC facility or six “key 5 i4 ^6 J$ w& \/ @: A' Lclicks” to contact the FSS. The GCO system is " T. c8 @0 d! [intended to be used only on the ground. . x6 h" H& c9 F0 EGROUND CONTROLLED APPROACH- A radar2 ~2 Q+ s2 B: x* a+ | approach system operated from the ground by air& W' m. S% J( w$ V0 R/ \# Q" D2 { traffic control personnel transmitting instructions to. u( p' }- M7 y7 F the pilot by radio. The approach may be conducted0 k1 S% o F) e0 q2 |* @5 E& \9 n with surveillance radar (ASR) only or with both) O5 Z+ F7 I, U# ]4 L* |' q" x surveillance and precision approach radar (PAR).+ O9 }& i5 n! R& ^9 P$ K Usage of the term “GCA” by pilots is discouraged ; r5 b( s; g, [, q# R7 Jexcept when referring to a GCA facility. Pilots should / R7 A% l- V# C9 b3 Tspecifically request a “PAR” approach when a ) `& A J" Y1 Q# {, d. Aprecision radar approach is desired or request an G9 C" |# ~. |; U- n “ASR” or “surveillance” approach when a nonpreci‐- M! E3 [: f. h7 d1 c' l sion radar approach is desired.6 ^- q) o& ?5 o9 j! A (See RADAR APPROACH.) 6 d3 h. K! I4 i3 QGROUND DELAY PROGRAM (GDP)- A traffic+ `$ q4 x3 {# [ management process administered by the ATCSCC; 1 K5 F' V2 X, r& G0 H4 X% ~when aircraft are held on the ground. The purpose of 8 H/ x7 w: i+ |2 r* c$ fthe program is to support the TM mission and limit ' o, B- j$ G9 L* Gairborne holding. It is a flexible program and may be0 u3 E" o! O: t6 E4 N implemented in various forms depending upon the1 g* I( c1 G% k) \) h, V needs of the AT system. Ground delay programs) i1 ]9 s& G7 P0 o' I, H9 a provide for equitable assignment of delays to all: l) _7 |0 K% w& M! ] system users. [, g, }3 \# E* |- c- J6 fGROUND SPEED- The speed of an aircraft relative( N" W; O1 ^0 M! j2 _) A( U$ T to the surface of the earth.- R1 M/ @' b0 ?- _ T% n, l GROUND STOP (GS)- The GS is a process that+ U; R: w9 e, c1 I- v: O requires aircraft that meet a specific criteria to remain( _) ~% D, w. u6 q on the ground. The criteria may be airport specific,3 W' x! t5 w# S3 B4 D4 }1 k& W airspace specific, or equipment specific; for example,8 I# @9 u+ |6 ~8 g* [; |3 E all departures to San Francisco, or all departures1 I% b: u- ?7 d2 G5 s5 } entering Yorktown sector, or all Category I and II( L2 ~" B S! O9 u aircraft going to Charlotte. GSs normally occur with |1 A h U- V8 F: Ylittle or no warning. / v; q d- _' Q. {2 X1 Q0 CGROUND VISIBILITY(See VISIBILITY.) 1 |) H$ r/ l; Y9 ~, F; @GS(See GROUND STOP.)3 R2 Z; Y6 D, H$ h9 r8 `4 J" E. \( \2 m3 ? Pilot/Controller Glossary 2/14/08 / s4 R+ @ o* G4 {0 C7 w* BPCG H-1- V; z5 V* ^* u" m4 j H $ W% T( {3 \ V% A8 h; S& y" U* JHAA(See HEIGHT ABOVE AIRPORT.) , W8 n$ j2 e" g' THAL(See HEIGHT ABOVE LANDING.) 5 f/ j# x6 c# d' P1 ~HANDOFF- An action taken to transfer the radar8 }$ |8 u" _1 P( { identification of an aircraft from one controller to , ~/ e3 l: Q' {' O- V8 d! Vanother if the aircraft will enter the receiving : V. ~3 i X5 r3 X1 u Y vcontroller's airspace and radio communications with' d* A0 E0 }) [% k! ]( u* |! e+ _ the aircraft will be transferred." }& Y1 g) G0 ~) a( { HAR(See HIGH ALTITUDE REDESIGN.), u/ r3 v2 ~) D HAT(See HEIGHT ABOVE TOUCHDOWN.)/ ^( F6 b9 V6 n, N. }' n HAVE NUMBERS- Used by pilots to inform ATC g( ~) D& @/ l9 r2 Zthat they have received runway, wind, and altimeter 1 Z' x6 D% u& g; \. y4 Linformation only. / v1 q& q+ H. U( AHAZARDOUS INFLIGHT WEATHER ADVISO‐ 6 ]2 I9 T+ f9 ]7 n6 j' I6 @. tRY SERVICE- Continuous recorded hazardous! v2 G, ^4 Q% h7 T- ]' ? inflight weather forecasts broadcasted to airborne. L o/ f; n* D2 j9 B+ L8 c pilots over selected VOR outlets defined as an; r9 ?5 a `1 ^ HIWAS BROADCAST AREA. 4 _( B6 t" l9 S- d7 r) iHAZARDOUS WEATHER INFORMATION- # E' U9 \: B' G, H' RSummary of significant meteorological information' D( }+ ^6 P; d4 }" }6 D: O (SIGMET/WS), convective significant meteorologi‐$ {- Z, e8 Z- {1 ~8 v( X } cal information (convective SIGMET/WST), urgent/ [ D x" { {, s2 h5 Z pilot weather reports (urgent PIREP/UUA), center 7 M: t7 Q2 v" l; Iweather advisories (CWA), airmen's meteorological" R! _/ o- X( X+ O7 p information (AIRMET/WA) and any other weather0 u) Q: u! e5 X. Z$ e+ ] such as isolated thunderstorms that are rapidly/ I7 ~% N7 o, q. m. t developing and increasing in intensity, or low7 ?* L. S. ?) u& |; J8 B$ M ceilings and visibilities that are becoming wide‐ & s/ ]6 z' {& T- {: k3 G yspread which is considered significant and are not8 [/ y) L8 y6 z" h% x% z included in a current hazardous weather advisory. ; I ^4 u+ c* Z& |! JHEAVY (AIRCRAFT)- 9 q7 ]5 R+ N' X. f" L9 Y(See AIRCRAFT CLASSES.)* t/ b! o4 n7 g5 J$ A HEIGHT ABOVE AIRPORT- The height of the ; s/ D6 j* h# f* t* E8 gMinimum Descent Altitude above the published ! Z9 W% I& J1 J. n2 [' @$ q" E! l+ aairport elevation. This is published in conjunction) c+ D. s! B- }8 [1 Q" S with circling minimums.) r1 i3 n1 I5 w" Q" ` (See MINIMUM DESCENT ALTITUDE.)6 B! d2 w0 `- ?: d6 e* D% \! F1 W6 p2 r HEIGHT ABOVE LANDING- The height above a ' C4 z9 O6 b7 |! a- {5 e2 Xdesignated helicopter landing area used for helicopter' @ \6 N* z$ Y. m2 d instrument approach procedures.2 O0 e9 P: ^# {8 r2 ^4 J# ] (Refer to 14 CFR Part 97.) 1 E) S( |. m/ ]: i! h: oHEIGHT ABOVE TOUCHDOWN- The height of 7 y% w1 X& Q2 Y' vthe Decision Height or Minimum Descent Altitude8 z# r1 K; X0 `( W" ]; F! y above the highest runway elevation in the touchdown/ h- z# [* }, J; i zone (first 3,000 feet of the runway). HAT is2 D% o ?& d' w: p1 {6 I5 ]' a published on instrument approach charts in conjunc‐( _& c# N% _2 K) d5 R: s tion with all straight‐in minimums.- _+ K; j8 x3 M: e# E0 _7 [ (See DECISION HEIGHT.)8 ^: m, H) n" D7 l4 Q1 x- v+ a (See MINIMUM DESCENT ALTITUDE.)( \! p9 h4 n. M- a! d6 X HELICOPTER- Rotorcraft that, for its horizontal + D3 @9 `$ x) _motion, depends principally on its engine‐driven 6 M2 g- [4 L6 O/ X- ]3 {, ~6 arotors./ W' V9 ?4 W6 K1 k (See ICAO term HELICOPTER.)

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发表于 2008-12-28 14:14:39 |只看该作者
HELICOPTER [ICAO]- A heavier‐than‐air aircraft ( z& H$ H$ Q: Y2 M+ ?supported in flight chiefly by the reactions of the air . U7 X- s' ?; ^3 o& W! Won one or more power‐driven rotors on substantially+ }# q( H0 h& R' `7 w vertical axes.* K# D) Y5 [7 B9 v' J& N7 R: ? O HELIPAD- A small, designated area, usually with a/ O. j% M" A6 q' F prepared surface, on a heliport, airport, landing/take‐# m5 ?' [5 \( o0 [ off area, apron/ramp, or movement area used for4 i; |2 y& R0 A. N: [1 y takeoff, landing, or parking of helicopters.% g- a( u7 _' V+ W2 i HELIPORT- An area of land, water, or structure used $ i! c' G' Z+ c# ~) ]or intended to be used for the landing and takeoff of* a4 C# ] P3 P/ K helicopters and includes its buildings and facilities if 1 j- b* u; ^' D: p% M# h+ O+ W+ @$ Many. # J5 G- B' I; Y) d: M( eHELIPORT REFERENCE POINT (HRP)- The & w o& _4 y) X r& {9 F S7 B; i7 ]geographic center of a heliport.! I7 d/ P% r; E# e4 X6 `# \ HERTZ- The standard radio equivalent of frequency5 h& T: A5 v; b- M5 c$ t. m T in cycles per second of an electromagnetic wave. 4 D8 L1 h' `3 K6 l& G1 b* R! K- cKilohertz (kHz) is a frequency of one thousand cycles ' ?' R0 w9 u* L7 R5 uper second. Megahertz (MHz) is a frequency of one; o- v$ A1 I! A2 G/ ] million cycles per second.4 e1 C) C' K* ^( X: ^5 M) ~ HF(See HIGH FREQUENCY.) / k, ^, B/ N: M V2 lHF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.) 5 M- j6 ~& |9 v( ZHIGH ALTITUDE REDESIGN (HAR)- A level of 7 s" j0 o t% E0 b9 O, G8 G3 @non-restrictive routing (NRR) service for aircraft0 `" J: l% }" Z1 ]) P* v2 F that have all waypoints associated with the HAR , J. J% Z; j. G/ R1 lprogram in their flight management systems or% A9 I0 `3 {% f! A RNAV equipage.; O( u( k' ~( h( x% G4 t Pilot/Controller Glossary 2/14/08 ' I4 C- d# W: s2 n' JPCG H-2* n% N; |2 ?. E* X; i1 O HIGH FREQUENCY- The frequency band between 2 _# ]$ a8 Z" {5 ]! T3 and 30 MHz.4 U$ u# U8 d7 K- m l (See HIGH FREQUENCY COMMUNICATIONS.) : H, ?- G3 t3 y, J* R3 WHIGH FREQUENCY COMMUNICATIONS- High ! R) W1 ~0 \4 k+ C5 bradio frequencies (HF) between 3 and 30 MHz used & J; x$ |+ q# N6 R: Hfor air‐to‐ground voice communication in overseas : l6 t0 j0 n' M7 u# C! v# Hoperations. 4 O0 G) v$ A: z6 P7 p; b+ THIGH SPEED EXIT(See HIGH SPEED TAXIWAY.) / }# D& T, ^+ F. uHIGH SPEED TAXIWAY- A long radius taxiway b- k- l$ T- g; ?! c designed and provided with lighting or marking to* i/ m: V) s1 X0 S/ i; ` define the path of aircraft, traveling at high speed (up0 L- X# u2 h5 {+ ~& Q to 60 knots), from the runway center to a point on the/ p* d3 \* d$ H% ~& A! @ center of a taxiway. Also referred to as long radius : _/ M: B" R1 q4 _, Yexit or turn‐off taxiway. The high speed taxiway is ) Q, H9 }% L% d# f5 u) ~) R- wdesigned to expedite aircraft turning off the runway 4 R( d1 [1 f; q0 j. ]after landing, thus reducing runway occupancy time. / f3 Y$ D2 U" w3 [HIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.)* H: X2 r) Q) a" r) {4 b HIWAS(See HAZARDOUS INFLIGHT WEATHER . A; R8 `1 ~; ^: o5 }' zADVISORY SERVICE.)/ S/ h" s! }1 k8 U- v3 u5 h) |: R HIWAS AREA(See HAZARDOUS INFLIGHT WEATHER1 w9 x8 Y! F% c4 I" `" w1 f ADVISORY SERVICE.), I# N" p& A7 r2 I" w HIWAS BROADCAST AREA- A geographical area , O+ `$ T" L. ]of responsibility including one or more HIWAS - S5 J8 y2 o& b& `- Aoutlet areas assigned to an AFSS/FSS for hazardous0 M6 b' A3 ?- X7 i# }: K weather advisory broadcasting.* e5 ^) N" w4 S$ a# J! {/ k HIWAS OUTLET AREA- An area defined as a 150 / q4 x$ ~/ n1 x9 HNM radius of a HIWAS outlet, expanded as necessary m) R" g3 T4 n/ K* \5 M2 Pto provide coverage.( j& g. S: c, K; o( R: E' c HOLD FOR RELEASE- Used by ATC to delay an ) \( W* d% v$ M5 D7 Kaircraft for traffic management reasons; i.e., weather,' {" i1 Y5 P& M+ s: z traffic volume, etc. Hold for release instructions$ }1 q5 X# y7 E: k0 S7 t (including departure delay information) are used to+ @3 r+ t7 {2 y& A1 Q; r inform a pilot or a controller (either directly or' L" ]* M2 m$ f" e through an authorized relay) that an IFR departure & O0 i, F- I$ eclearance is not valid until a release time or additional / W: X0 g, ?; Qinstructions have been received.- U5 L. ]4 q/ \8 B0 v, D, h2 I V (See ICAO term HOLDING POINT.) ' |& n% X" H: e" {- q0 _HOLD IN LIEU OF PROCEDURE TURN- A hold ; z! x# V+ Y* ?in lieu of procedure turn shall be established over a+ S$ ~4 `( S( M final or intermediate fix when an approach can be ' n4 S" b3 K7 n7 R3 u6 y Bmade from a properly aligned holding pattern. The/ Y2 z/ L! ^ s) v) r+ q hold in lieu of procedure turn permits the pilot to `& k+ N# g- r% {) V" I3 Xalign with the final or intermediate segment of the- Z W8 x, G" n approach and/or descend in the holding pattern to an, C' q# _, i$ k$ l* x' L altitude that will permit a normal descent to the final( ]) G8 h* O, `, }: | approach fix altitude. The hold in lieu of procedure ; D, j0 r* G2 ~ f; Z% T4 Zturn is a required maneuver (the same as a procedure& q" k. N1 T* G4 {; N$ C turn) unless the aircraft is being radar vectored to the % O/ \4 L% M, w. Lfinal approach course, when “NoPT” is shown on the0 J& H$ D0 }" P approach chart, or when the pilot requests or the 1 U6 V3 v3 x2 {2 |8 o1 scontroller advises the pilot to make a “straight-in”" L0 [' l: d, _* G4 E& b approach. 2 W4 m* t, f" |HOLD PROCEDURE- A predetermined maneuver # I" Q/ [) U) Kwhich keeps aircraft within a specified airspace while! d/ C3 X" [$ f awaiting further clearance from air traffic control.$ L5 O- S% {$ k9 v Also used during ground operations to keep aircraft6 g# N6 Q" |) ?# z9 @ within a specified area or at a specified point while- x& b) @6 ?' O* R! w7 i" C2 a awaiting further clearance from air traffic control. " }6 T4 B$ T; v- G+ N( H, _. p$ y(See HOLDING FIX.) % U" S# i+ s. N1 C+ _(Refer to AIM.) 7 B: {( s/ E5 l" \8 m+ wHOLDING FIX- A specified fix identifiable to a & j7 B1 e/ C0 |' vpilot by NAVAIDs or visual reference to the ground4 S# F, K4 s; ~- Y) n9 |: o5 s7 t' s used as a reference point in establishing and / y. b4 y0 R0 J0 h$ |4 [maintaining the position of an aircraft while holding.( \5 U/ _2 r8 P1 ~, r1 L (See FIX.)% @0 P( j- b/ U3 f$ b' @" x (See VISUAL HOLDING.)4 W6 R4 J- ?. J8 n (Refer to AIM.). T+ ]4 l! K' y5 }1 L HOLDING POINT [ICAO]- A specified location,: N6 |$ y- J! M$ ~ identified by visual or other means, in the vicinity of8 I- h/ M0 {6 Y$ r which the position of an aircraft in flight is' Y* n( A- D7 z( l0 ^2 G3 ^ maintained in accordance with air traffic control % G' N, d, C7 Yclearances.: z9 a# d: {: O2 z, ] HOLDING PROCEDURE(See HOLD PROCEDURE.) $ w. I! G, a$ @8 \( o& |1 k# gHOLD‐SHORT POINT- A point on the runway( P/ c) h& l" P beyond which a landing aircraft with a LAHSO6 i5 {! `6 K9 X1 i9 V! a clearance is not authorized to proceed. This point% M, p7 N2 t# @$ B- n; J4 ^ may be located prior to an intersecting runway,8 r6 C- y% g* ]6 R0 i taxiway, predetermined point, or approach/departure ) `0 N; x! h. S6 e5 Gflight path.9 F( C7 |. t' V1 F5 Y# Y HOLD‐SHORT POSITION LIGHTS- Flashing/ Q# v3 ~1 X( |. w in‐pavement white lights located at specified+ A* C/ ^: h1 y$ F( R( I hold‐short points. ( l, Q6 v0 E; Q- j* YHOLD‐SHORT POSITION MARKING- The( w' d) V, W/ m0 ?0 b painted runway marking located at the hold‐short7 A% U- Z* M# F point on all LAHSO runways.) M+ f: H: [: I6 P) z9 g HOLD‐SHORT POSITION SIGNS- Red and white3 i% E2 j! Z/ _. I. G holding position signs located alongside the ( Y4 t! y4 h1 h0 P: t7 khold‐short point. , W$ o2 R7 _! b5 B' Z3 tPilot/Controller Glossary 2/14/088 G: i1 I6 P' i( p PCG H-3 % M8 ]- s& u& K5 b- w( @4 ^HOMING- Flight toward a NAVAID, without7 [ i* a0 P" \3 ~4 Y correcting for wind, by adjusting the aircraft heading Z2 o; ~' o# T; oto maintain a relative bearing of zero degrees. 4 r1 V" A7 o) V! j. y' h: q(See BEARING.) # J& p0 B. }9 n(See ICAO term HOMING.)- r) L( h# S# w: W8 i HOMING [ICAO]- The procedure of using the% t* A0 X# z! j1 S6 M- R) P direction‐finding equipment of one radio station with1 i2 X8 D) B& Y5 k! u0 x the emission of another radio station, where at least $ M- `5 ^% l. T$ S. O( U: Yone of the stations is mobile, and whereby the mobile 3 w6 o- s( g8 }" o- Vstation proceeds continuously towards the other ! `' ~( g, ]. Q! N& }8 w8 mstation. $ C8 _' L8 ^3 h8 K( V! hHOVER CHECK- Used to describe when a 9 P4 Z( d& Z& [0 V$ Qhelicopter/VTOL aircraft requires a stabilized hover # |& F3 ~7 ~( k% v' e( ?+ pto conduct a performance/power check prior to hover / E& ~" x1 c' \8 v+ Rtaxi, air taxi, or takeoff. Altitude of the hover will) ^2 ^+ k3 A+ K: Z9 m vary based on the purpose of the check.7 Q4 Q$ J7 d; x2 o$ z8 ?, @% { HOVER TAXI- Used to describe a helicopter/VTOL 7 }' K9 y/ P6 kaircraft movement conducted above the surface and4 G# j; Q3 Z7 W1 F* i in ground effect at airspeeds less than approximately4 E$ ? S" t. C% I( k% s: c 20 knots. The actual height may vary, and some # j+ V! x3 n g* t. R9 G, J; Ohelicopters may require hover taxi above 25 feet AGL7 u4 m( K% X- b- L+ } to reduce ground effect turbulence or provide* ^2 V) ]- b- P; j9 T9 v: y clearance for cargo slingloads.* N/ @( X4 u9 S& s! G+ u+ G (See AIR TAXI.)3 [$ ?' e. b' s4 e( f" G+ U4 E (See HOVER CHECK.) - r8 n" z: W3 }6 \(Refer to AIM.) : h" b1 T. T n) y- b8 H. EHOW DO YOU HEAR ME?- A question relating to1 T+ L" {* ^9 u( Q4 [# Q. V the quality of the transmission or to determine how ' w+ L; P W* N; qwell the transmission is being received.8 S" b D" V l1 J: h% y HZ(See HERTZ.)' J+ h8 v* l/ W8 |- Y$ |' s Pilot/Controller Glossary 2/14/089 f5 D$ n" S- ], E9 d PCG I-1# _& G3 E4 D% d4 N1 w( `' X( _. ? I 7 i: H7 B% T. f3 Z0 o' e. AI SAY AGAIN- The message will be repeated. ! l, f6 B- z, ]4 i, W( nIAF(See INITIAL APPROACH FIX.) 5 i7 f `+ ]: Y7 w, L# \. C5 m* y2 |IAP(See INSTRUMENT APPROACH# R! F# `/ }" I PROCEDURE.), y4 N5 F% Q# d2 P5 e8 Z- J2 T+ y IAWP- Initial Approach Waypoint- z8 r( l# A# }4 C+ ? ICAO(See ICAO Term INTERNATIONAL CIVIL 7 [& C' K0 a7 g. [& x0 yAVIATION ORGANIZATION.), x- ]2 a/ j5 C( d( e/ v1 ? ICING- The accumulation of airframe ice. : n& A1 k" d5 U! e8 q$ I# }Types of icing are:0 `$ \# o. g4 m6 D a. Rime Ice- Rough, milky, opaque ice formed by - i V' h8 N- Q3 a+ {* K; n# n! Gthe instantaneous freezing of small supercooled & J8 i) |6 \9 s. Dwater droplets.0 u2 E% q( P" |$ p& ~, N9 _# ~4 L b. Clear Ice- A glossy, clear, or translucent ice8 o+ [ _$ {9 x formed by the relatively slow freezing or large- q4 ^' z( V [' o( S; \; Q5 E( G supercooled water droplets. ) x9 [5 M3 k! s2 `: `9 yc. Mixed- A mixture of clear ice and rime ice.5 e7 t( z* ~* B1 r7 Z4 g Intensity of icing: . S/ B: w% Y: v; t0 _3 ka. Trace- Ice becomes perceptible. Rate of& J' l/ d* w1 n1 @$ j accumulation is slightly greater than the rate of# _0 ~8 v8 e) l$ C. n5 ?7 M3 Y sublimation. Deicing/anti‐icing equipment is not& x- P9 a1 U$ _ utilized unless encountered for an extended period of 6 g5 y2 Y' A4 h8 H0 \time (over 1 hour). ) F# U, P" x# s$ b9 \2 z/ `9 |b. Light- The rate of accumulation may create a R6 Y; w* Y% S) G: _ l- G problem if flight is prolonged in this environment / J! b% c' i: r(over 1 hour). Occasional use of deicing/anti‐icing" k; F% @" A3 J Q: Z. q$ y' y equipment removes/prevents accumulation. It does & Y) C' a/ }- Hnot present a problem if the deicing/anti‐icing 9 n2 C6 U# D. m( N( x* s% ]( |equipment is used.4 Z8 V1 ~9 S6 w8 W. w$ V6 G c. Moderate- The rate of accumulation is such that5 m7 O9 e1 Q+ p" R; f; } even short encounters become potentially hazardous 8 t5 K& p# V- v, T! \7 dand use of deicing/anti‐icing equipment or flight 1 }& H/ A4 U7 T6 J7 J7 q& k* g1 N! kdiversion is necessary. 7 \- k0 Q. o" s8 c1 Vd. Severe- The rate of accumulation is such that1 u" b3 i8 ~7 |8 Z3 U deicing/anti‐icing equipment fails to reduce or ; B: O. V5 c3 j: fcontrol the hazard. Immediate flight diversion is* c* z: y7 W+ F/ m# H4 s necessary.1 U& q& r( `( y2 {2 j$ f* Q8 W IDENT- A request for a pilot to activate the aircraft0 M0 F: t+ q0 q6 S transponder identification feature. This will help the " c8 u4 V: Z+ @2 vcontroller to confirm an aircraft identity or to identify$ Q! |! R9 _0 P3 ~( `3 u an aircraft. / O2 h3 s5 r1 D# Q- J(Refer to AIM.)8 _% `4 C# u4 H j$ s1 G. b IDENT FEATURE- The special feature in the Air $ z' R) N& w T2 Z6 }. I1 wTraffic Control Radar Beacon System (ATCRBS)% T) n7 A- U* S equipment. It is used to immediately distinguish one 0 o# ]/ k5 ~, d! t( Vdisplayed beacon target from other beacon targets. K3 S# G& _; Z. G7 K (See IDENT.)$ f" n- z3 K! E# X/ @ IF(See INTERMEDIATE FIX.) 9 w1 y; W6 }0 t, L' B2 fIFIM(See INTERNATIONAL FLIGHT INFORMATION/ n6 `8 ]8 X8 w1 p& v6 j E# E MANUAL.): I8 {; R5 F6 { IF NO TRANSMISSION RECEIVED FOR # h% @6 J) |, ^( `3 s0 C(TIME)- Used by ATC in radar approaches to prefix* Q( Y6 e8 ~, o' Z! x procedures which should be followed by the pilot in& }& D1 Q/ R1 m, C event of lost communications." W! p/ B5 z# c9 E# w h (See LOST COMMUNICATIONS.)- ]+ v/ Y& |& \ IFR(See INSTRUMENT FLIGHT RULES.) " w3 W( x4 `. D0 gIFR AIRCRAFT- An aircraft conducting flight in6 z+ c P' i$ M) a$ E accordance with instrument flight rules. : [& u$ g# I- z( kIFR CONDITIONS- Weather conditions below the$ V3 E; t+ B0 e- N+ g6 v) G* K minimum for flight under visual flight rules. / H6 E1 D5 [0 I' Z- J* J% e5 H" \6 H(See INSTRUMENT METEOROLOGICAL* |2 s0 v+ R8 E CONDITIONS.)% T4 D8 e9 m6 Y' m& @ IFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND 1 T) K0 X# y" o# @' Q: _DEPARTURE PROCEDURES.)5 D( ^/ E8 w& ~5 Z7 s2 |6 N* H& j (Refer to AIM.)% Q n: m L: i9 y) V- w IFR FLIGHT(See IFR AIRCRAFT.) * h+ Z! [3 f) l5 LIFR LANDING MINIMUMS(See LANDING MINIMUMS.) , e, m0 \% F# ?4 T9 KIFR MILITARY TRAINING ROUTES (IR)- Routes ; Q4 O, _, G; v% z1 oused by the Department of Defense and associated ( F7 n% n3 P; h' t. B# NReserve and Air Guard units for the purpose of 4 H \6 p: a* o0 ^ ?conducting low‐altitude navigation and tactical5 z3 ]8 T1 y& u7 p8 c5 D- l% K training in both IFR and VFR weather conditions + `" _. B# ^- _" v2 e. W8 j6 }below 10,000 feet MSL at airspeeds in excess of 250 + e' j$ ~" E$ l; B1 v; w9 s* nknots IAS.9 c3 B: l( @, x IFR TAKEOFF MINIMUMS AND DEPARTURE . E" |* _/ g5 I0 B& MPROCEDURES- Title 14 Code of Federal* d r3 ]2 X; `! c9 t Pilot/Controller Glossary 2/14/08 ' J( V3 z; P$ p' @1 H& s0 ]) VPCG I-2

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发表于 2008-12-28 14:14:55 |只看该作者
Regulations Part 91, prescribes standard takeoff rules : B I5 `( `) b" A& M4 l" b" Nfor certain civil users. At some airports, obstructions! T& H4 O, o+ |* M' d& D, ^ or other factors require the establishm ent of . W3 D ~* U5 ?9 X+ v2 b$ ?$ Knonstandard takeoff minimums, departure proce‐; U4 b! k( t1 s8 S& D dures, or both to assist pilots in avoiding obstacles 9 z% I7 E3 c8 V" y* fduring climb to the minimum en route altitude. Those & H, A. Y5 o1 m& xairports are listed in FAA/DOD Instrument Approach 5 x4 S" O2 y# \8 K, RProcedures (IAPs) Charts under a section entitled # Z8 @& ~/ h- ]8 j8 ]2 I5 |! X2 m“IFR Takeoff Minimums and Departure Procedures.” / M1 n! S! J2 G% e, m9 KThe FAA/DOD IAP chart legend illustrates the ) [- I( b5 A$ ?+ U' \symbol used to alert the pilot to nonstandard takeoff' }1 v0 P O7 X) a7 r/ r minimums and departure procedures. When depart‐, a$ U4 Y% J. r. x# A! o ing IFR from such airports or from any airports where + k- D, v& d! B! R. athere are no departure procedures, DPs, or ATC- a' ?& i" c; b: W/ o* P) e) Z2 m facilities available, pilots should advise ATC of any7 J# `+ a4 W) \& W0 ~/ l- f; v departure limitations. Controllers may query a pilot/ A" H7 P& b, o" t1 }- a! P: o to determine acceptable departure directions, turns, & z6 T0 @3 b; h& Y2 q) R% \4 S/ }+ H2 Z7 Bor headings after takeoff. Pilots should be familiar! Q% M% H8 ~4 Y6 {: s2 r with the departure procedures and must assure that6 A; S4 m( k4 B8 V: o5 V/ e/ d# p their aircraft can meet or exceed any specified climb2 e! O3 C8 `: O, g. w* W gradients. 7 q& ]0 {. p. F) kIF/IAWP- Intermediate Fix/Initial Approach Way‐ % r# D7 X: U! r, qpoint. The waypoint where the final approach course 6 a$ z4 `7 U, F& z Wof a T approach meets the crossbar of the T. When 1 I5 Y `" ~6 ]) _. G" m! Ddesignated (in conjunction with a TAA) this 8 i. q. G' ~! A7 b3 z9 c% @5 Q" ywaypoint will be used as an IAWP when approaching K" p' l0 `! ?the airport from certain directions, and as an IFWP. u3 K& V' A8 n3 W when beginning the approach from another IAWP. 6 `* Z! m1 J& G, K4 C; B( @5 Q% xIFWP- Intermediate Fix Waypoint( T4 m0 L5 N5 k. K ILS(See INSTRUMENT LANDING SYSTEM.) C5 P$ h7 p A" z9 ] ILS CATEGORIES- 1. ILS Category I. An ILS - U4 H; a/ X o, E, \& vapproach procedure which provides for approach to, S2 `9 s1 Q; ^ a height above touchdown of not less than 200 feet; M+ `+ \# K7 @3 I7 c and with runway visual range of not less than 1,800 + c4 u0 S* X/ @+ W. G9 afeet.- 2. ILS Category II. An ILS approach procedure 6 W$ c5 v( S0 Q; ?1 J0 iwhich provides for approach to a height above ( \( j4 G1 b# p( z8 Z+ _: _touchdown of not less than 100 feet and with runway - S+ w6 P$ G( n& O0 K: a5 E0 Gvisual range of not less than 1,200 feet.- 3. ILS 5 U% W% r0 ~9 kCategory III:: Z( d9 L$ B1 |' v a. IIIA.-An ILS approach procedure which ! {% x+ S* s2 d+ V0 D% u2 {4 Cprovides for approach without a decision height % A& c+ R. R9 }) _) i1 q- f5 Nminimum and with runway visual range of not less 1 e- b( s& Y' W" S6 U$ v1 gthan 700 feet. % a1 t9 H5 k) @4 j" L1 [; }# sb. IIIB.-An ILS approach procedure which , X8 m* r( h* S# }0 G& Qprovides for approach without a decision height: `$ e+ b0 L3 v! v6 s minimum and with runway visual range of not less * a+ D4 O+ ^( K6 P' r+ ^1 j' u' T( i' `than 150 feet. 8 z7 \6 ?7 ^. i. q1 n+ z! ^c. IIIC.-An ILS approach procedure which ( S5 J7 m# g- g: c$ v- F; Q1 O" tprovides for approach without a decision height4 `+ p X: e$ V6 R1 A minimum and without runway visual range 9 q2 q% v) K) D3 d& kminimum. 4 ~: V8 d3 T9 u0 i0 |! _ILS PRM APPROACH- An instrument landing 6 z5 t* o/ Y8 B2 Fsystem (ILS) approach conducted to parallel runways * P) O2 m7 G" s2 H8 X* R) zwhose extended centerlines are separated by less than$ }" P+ T' F8 T9 _/ c& f1 T% F5 p 4,300 feet and the parallel runways have a Precision 0 A7 V( l S5 M$ k) d5 r1 GRunway Monitoring (PRM) system that permits. E' `$ I# m& O# I/ { simultaneous independent ILS approaches.9 ^' M9 C* m5 Q+ } IM(See INNER MARKER.)5 |5 u; j9 C. }% ~) K7 e- p IMC(See INSTRUMENT METEOROLOGICAL & Y% u9 C; w2 U& z7 m6 }2 m7 eCONDITIONS.)3 o0 g# K7 A& ?# T q Y9 V IMMEDIATELY- Used by ATC or pilots when such& O8 Z# z# e d action compliance is required to avoid an imminent6 B$ B; `) @1 y: ] situation. 0 U& a4 k( E# Z5 B2 e. kINCERFA (Uncertainty Phase) [ICAO]- A situation$ d" |9 O3 Q% Q* ]' Y3 d wherein uncertainty exists as to the safety of an $ h- {0 U, j- i+ [aircraft and its occupants. 5 }! q. |' c$ S2 a8 I- ~' xINCREASE SPEED TO (SPEED)-$ y- d T" ~' Q) O" ? (See SPEED ADJUSTMENT.)+ S, l0 L0 A: J* [1 p INERTIAL NAVIGATION SYSTEM- An RNAV. x. q$ c. _( a, E% O0 @* X system which is a form of self‐contained navigation.) e2 [ _4 H! ?5 `7 j- x (See Area Navigation/RNAV.) ' m. R. b( U% \: ZINFLIGHT REFUELING(See AERIAL REFUELING.)7 u4 n) m# U+ S: O, U' c INFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.). k( u, V u: ?0 o0 j/ R INFORMATION REQUEST- A request originated2 X8 P3 H' j4 v8 g: @: H by an FSS for information concerning an overdue6 m7 a5 n! l& d, u1 q/ o O VFR aircraft. 2 R9 b- ]6 v- t; ]' OINITIAL APPROACH FIX- The fixes depicted on2 H: g4 Z0 L3 |8 Q) j" N' d V' ? instrument approach procedure charts that identify4 I5 y" a, O4 Z7 Q- F the beginning of the initial approach segment(s).8 J' o& Y: N& ~. y (See FIX.)2 F* g4 i' l& u6 P- o3 _' m (See SEGMENTS OF AN INSTRUMENT$ o+ b( n/ L# ` y, ]3 N7 T2 R APPROACH PROCEDURE.)9 @* ` r2 L9 z' q INITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT % ?; L9 R' b( O1 a$ `1 @, KAPPROACH PROCEDURE.) 1 S6 x+ A8 R3 ~( Q9 KINITIAL APPROACH SEGMENT [ICAO]- That$ k: c0 a, O/ A a( I/ D segment of an instrument approach procedure : g2 o+ |0 v; \* m+ r6 z" q' lbetween the initial approach fix and the intermediate I* b. z' `' V1 S; ?" n* gapproach fix or, where applicable, the final approach/ `# W2 r* U9 `" W9 a8 A( M3 `$ X fix or point. . j8 R& e) D( x7 D9 H) ]( ~4 _$ TPilot/Controller Glossary 2/14/08 $ g4 T: d; Q s, h* @PCG I-3 5 x/ e1 o0 o3 M) J' t: ]! cINLAND NAVIGATION FACILITY- A navigation ! n4 R) f5 Y% ?( maid on a North American Route at which the common a0 o2 u- C- C2 M7 ~! S+ x" lroute and/or the noncommon route begins or ends. 1 T/ ]$ h. C/ ]! e3 o% qINNER MARKER- A marker beacon used with an; d+ X; R( o" _ ILS (CAT II) precision approach located between the 3 ^, b: ?9 ~+ u z' @ _" Gmiddle marker and the end of the ILS runway, 1 j8 x) N0 O, X% h. Ptransmitting a radiation pattern keyed at six dots per + t- I3 e% p0 b( t" Q$ n2 S9 _second and indicating to the pilot, both aurally and 2 O: v4 j! [7 H4 g; [& }visually, that he/she is at the designated decision% y0 V6 ~' D5 Z* y5 W height (DH), normally 100 feet above the touchdown; u+ c* H( ?" U zone elevation, on the ILS CAT II approach. It also- f' T0 s( B; }) d0 l4 N9 ` marks progress during a CAT III approach.1 X, y% M3 o; T% V! h0 @7 Z (See INSTRUMENT LANDING SYSTEM.) , Q: s0 A7 d' d: p! O" x9 Y(Refer to AIM.) % Y6 r1 \% ~8 k$ a/ ]/ [INNER MARKER BEACON(See INNER MARKER.)9 s' F6 h0 g3 f. J2 o INREQ(See INFORMATION REQUEST.)2 i/ Q5 s. X0 Y INS(See INERTIAL NAVIGATION SYSTEM.) " s/ O0 W; `; S% yINSTRUMENT APPROACH(See INSTRUMENT APPROACH/ S* Q0 s( G; L- P& s' N PROCEDURE.) % y" D. J$ K3 x( t5 a% m% \INSTRUMENT APPROACH PROCEDURE- A1 H. }1 a, v9 Y: F8 O series of predetermined maneuvers for the orderly , \# }" P( C# d3 L# B$ [transfer of an aircraft under instrument flight9 a/ r+ R$ `1 z/ }3 i4 A; O conditions from the beginning of the initial approach0 \6 }5 Y9 O" a. M, W to a landing or to a point from which a landing may * j" I x- E1 ~5 t9 q$ sbe made visually. It is prescribed and approved for a6 J2 x$ u# k6 p8 l7 u) V specific airport by competent authority.# Z! F) x1 Y4 U; L/ V/ H( O [$ c (See SEGMENTS OF AN INSTRUMENT' _ W# a' p! K9 U% |# K! X APPROACH PROCEDURE.) ( i- X" F2 G2 p9 H9 b9 A$ Y3 A(Refer to 14 CFR Part 91.) W3 c0 M% x4 @4 W5 T(Refer to AIM.) " K1 J, o1 A% e! ?a. U.S. civil standard instrument approach; M) [& l6 O- F0 Z2 j. x procedures are approved by the FAA as prescribed " d i/ ?8 T7 ?- ~0 ]under 14 CFR Part 97 and are available for public 0 K: @, v( P, Juse.4 @) J1 c' ]7 O4 m Q2 c( [0 b b. U.S. military standard instrument approach2 v4 e6 A# n: p' L, Z: d procedures are approved and published by the & e% K# B3 P8 c8 y8 rDepartment of Defense.1 l9 B# C1 y6 C% a' ~8 }6 h9 M c. Special instrument approach procedures are 6 \! V$ g" O& i2 mapproved by the FAA for individual operators but are ; N0 m9 r/ B# Lnot published in 14 CFR Part 97 for public use.) ^( P8 q. n5 s2 p9 H (See ICAO term INSTRUMENT APPROACH 3 Y! O: Z! V4 u5 BPROCEDURE.)" J/ |6 O& L, v! e! K INSTRUMENT APPROACH PROCEDURE 5 y0 ^" T* ?6 D1 u0 i% p- x ~# w[ICAO]- A series of predetermined maneuvers by / M9 q6 r7 r: l3 B8 zreference to flight instruments with specified, t9 ?9 _) f5 u6 ?4 r protection from obstacles from the initial approach: L0 F6 f6 I! x2 U# X, }& y fix, or where applicable, from the beginning of a5 o6 H* H# m# ?4 M defined arrival route to a point from which a landing 4 e. t, ~2 ?- n2 O5 Z2 Z8 G o1 k: Ocan be completed and thereafter, if a landing is not2 a/ `* }% v- n4 ^1 A; S/ o9 j completed, to a position at which holding or en route. k$ C3 M) e( y- L3 S' p obstacle clearance criteria apply. $ f; m6 _% l: ^1 h eINSTRUMENT APPROACH PROCEDURES6 Z" q# z+ {6 l/ y, Y% R! | CHARTS(See AERONAUTICAL CHART.) f/ L4 P/ [: B, {INSTRUMENT DEPARTURE PROCEDURE2 Z! o5 j& t3 B$ R3 C# C" z( } (DP)- A preplanned instrument flight rule (IFR) 3 U" t! D) z D7 c0 L5 qdeparture procedure published for pilot use, in 5 O; o" Q1 ]1 Ngraphic or textual format, that provides obstruction: t. J: i0 Q6 X; S, O clearance from the terminal area to the appropriate en2 y; y5 O" m5 u7 I( K' e8 G+ ~/ L route structure. There are two types of DP, Obstacle * i' G; Z2 x5 D7 w( V3 y3 {1 ?! wDeparture Procedure (ODP), printed either textually 1 z) L+ e G0 V) ior graphically, and, Standard Instrument Departure $ Q5 S% N: E3 p% w; P8 f# L(SID), which is always printed graphically.4 V4 @1 W* T2 G% a' L" D (See IFR TAKEOFF MINIMUMS AND 4 T' k- Y9 P2 `: L: ~# bDEPARTURE PROCEDURES.) ) o5 f2 L# B0 l0 `(See OBSTACLE DEPARTURE PROCEDURES.)2 [$ M; v4 t* h7 |2 X# A y6 l (See STANDARD INSTRUMENT DEPARTURES.)* L% n- W& n2 Z3 a" p( O. N (Refer to AIM.): i/ _) V T- ]$ g/ z INSTRUMENT DEPARTURE PROCEDURE (DP)5 F7 a, k6 ]5 F$ H' Y CHARTS(See AERONAUTICAL CHART.) / i R, e1 C! g3 _4 wINSTRUMENT FLIGHT RULES- Rules governing 0 O g" ]& }# ~1 ]the procedures for conducting instrument flight. Also 9 `8 J' U5 j* K Oa term used by pilots and controllers to indicate type 2 X! b( t0 u5 t5 |& G6 j# r+ `of flight plan.0 u7 V0 M% e8 X, w) _4 o+ o" v (See INSTRUMENT METEOROLOGICAL$ Y y' ?" X! p2 ^ CONDITIONS.) : g$ w7 d* \7 s7 L(See VISUAL FLIGHT RULES.)* _2 g' t: ~1 {: b- f (See VISUAL METEOROLOGICAL % z4 s% P* N% b; ~3 T1 I$ ?CONDITIONS.)2 q" q- T, _- h& Z0 c2 I (See ICAO term INSTRUMENT FLIGHT& V5 t' C% D( }# k1 O$ r5 K RULES.) 0 d( e# N4 M+ x5 M(Refer to AIM.)( l* T- V( V d# V: O* i INSTRUMENT FLIGHT RULES [ICAO]- A set of ) m P+ n7 M: B1 T0 S2 p: \3 v( Erules governing the conduct of flight under0 e( F, C' A: g s" |; K) V* p; f5 q2 R instrument meteorological conditions. " A8 h, C- U; w& dINSTRUMENT LANDING SYSTEM- A precision5 T7 N; a. ?8 Y( e; Q9 @% F instrument approach system which normally consists 1 Y1 z! X7 c7 k" d: t& dof the following electronic components and visual / l& ~9 c) |! l7 ~$ C# y$ \- | yaids: ) M: q. \# W7 d9 dPilot/Controller Glossary 2/14/08$ M# s" b* i J1 s. o) t PCG I-4% P, u5 ?0 [# Z" f a. Localizer. ) M- Z9 E+ X0 \+ t. ^(See LOCALIZER.) 8 B3 N$ k y$ R$ d& V5 |b. Glideslope.- k3 T; v5 n& K, [ (See GLIDESLOPE.) & h" {( p5 z# A) p/ d1 X6 j" i+ tc. Outer Marker. ( ?3 z3 {7 {' C# m( D' }) _(See OUTER MARKER.)' a- k" _# w0 d9 j- T. C d. Middle Marker. 4 ^# M. C( y: }! p(See MIDDLE MARKER.)3 I" p3 H9 x0 `3 l9 C0 Y4 b7 ? e. Approach Lights. # {* ~3 c9 t$ k/ R# x(See AIRPORT LIGHTING.) 1 j/ y; }6 J8 v- b+ h% J* b1 O+ u(Refer to 14 CFR Part 91.)" R, M) v# V- ]+ q1 M5 ? (Refer to AIM.)/ W/ G5 r/ _3 B' F! |% ~6 O INSTRUMENT METEOROLOGICAL CONDI‐, s S7 X# Y8 w7 d TIONS- Meteorological conditions expressed in 0 A& [! ?% I+ c$ G+ s5 @4 o- K" Mterms of visibility, distance from cloud, and ceiling * E% @, |( N$ M( ?/ Q! q6 g% m+ Iless than the minima specified for visual meteorolog‐2 {1 I- r9 i/ r ical conditions.- Q) k6 W G6 b2 P7 W1 W+ ` (See INSTRUMENT FLIGHT RULES.) 7 {' @5 e% M* B& r0 w7 I(See VISUAL FLIGHT RULES.)- I2 N5 K* k% S2 k: H* l, b (See VISUAL METEOROLOGICAL # {: O! C9 y. I% ^9 SCONDITIONS.)" S2 n* O+ z' t3 i1 O INSTRUMENT RUNWAY- A runway equipped; o* ^- F+ o' b( n8 x with electronic and visual navigation aids for which% c( M/ }% M! Z c0 | a precision or nonprecision approach procedure ! ~ q# a; s. f \* b L; J( R( s& Shaving straight‐in landing minimums has been , D4 m" R3 X) z4 ^, ~$ {3 |4 C1 ?% ]approved." i$ D2 W* ^+ q/ a3 G+ s7 K (See ICAO term INSTRUMENT RUNWAY.)$ @* O6 M* x3 m4 ^1 T INSTRUMENT RUNWAY [ICAO]- One of the( U) o2 E) |% L5 E7 b: B/ ^3 Y( g: z following types of runways intended for the! W- t5 P* J6 Q6 J% i operation of aircraft using instrument approach Z ]* c# j& R8 H) x, iprocedures:0 b9 r) @. z) K. u' G6 e3 e1 f a. Nonprecision Approach Runway-An instru‐6 K& J- |2 _( z6 ^3 n. z ment runway served by visual aids and a nonvisual 3 C) b; s$ W8 k4 Maid providing at least directional guidance adequate# u: _) A+ d, m$ M4 o( G9 X% U# j for a straight‐in approach. $ l ]: z& H4 W4 C8 m3 [) ~b. recision Approach Runway, Category I-An ' u2 F3 p# K8 s6 R9 Rinstrument runway served by ILS and visual aids& k4 Y( k% W4 Y9 b* c1 a intended for operations down to 60 m (200 feet)3 b8 ]& P) v" J+ d, i& Z6 i" G decision height and down to an RVR of the order of $ J U* N+ j: _/ l Y8 ^3 y, q0 ?800 m. ! {* |* a" l0 L1 ic. recision Approach Runway, Category II-An' q; D7 q* Z6 P* z2 U/ l4 J1 ? instrument runway served by ILS and visual aids 8 E* {0 T( N' _5 g7 @intended for operations down to 30 m (100 feet) * E- n; N) c- H; Rdecision height and down to an RVR of the order of- T. T. P/ s. c( h0 e 400 m.8 P+ s" f. e' ?& {- o d. recision Approach Runway, Category III-An. F' s9 o# v; j" Z) N; Y instrument runway served by ILS to and along the / J/ U8 R; |8 s. Fsurface of the runway and: ( y4 T& X* ^# o! I$ ~5 P0 u1. Intended for operations down to an RVR of ' x9 P5 B, L/ h( s( s; othe order of 200 m (no decision height being& D6 O3 i$ }' F( S7 d1 i3 F1 d& h applicable) using visual aids during the final phase of 1 b* w3 g% ^$ l) mlanding; , ^$ c; t/ ~! z) v3 q5 T2. Intended for operations down to an RVR of 2 l: H( x+ W! Z5 {- Q' a: D1 X9 Sthe order of 50 m (no decision height being 0 v8 W+ n- G$ d4 s: m6 Q% wapplicable) using visual aids for taxiing;; |8 i* J8 h! }3 S4 l 3. Intended for operations without reliance on 6 E+ n; g5 Z* f4 Evisual reference for landing or taxiing.1 W- U2 [& V6 n. S Note 1:See Annex 10 Volume I, Part I, Chapter 3, - R2 H' i9 z) z# r$ ufor related ILS specifications.; y1 C/ c9 ~0 D N Note 2:Visual aids need not necessarily be) Y0 I9 S9 j% p! s* ]% t$ B matched to the scale of nonvisual aids provided., V; Z7 S! _- I8 L: F+ I; _% n% ^ The criterion for the selection of visual aids is the / C- x* H2 _3 ?2 u: zconditions in which operations are intended to be ; h* Y+ D# R3 a+ U4 i9 K e" gconducted. / a7 ]$ d) N( S* w; QINTEGRITY- The ability of a system to provide' X& x" f& Z, K8 r, Y1 {$ O timely warnings to users when the system should not; o; N& [0 U9 I. k+ S# F* F be used for navigation. 5 p; d. n7 K* |! h5 v1 IINTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT% w% `( x! [& A6 z APPROACH PROCEDURE.)( i4 {1 G) H3 Y1 i8 |, e INTERMEDIATE APPROACH SEGMENT. t$ l! j; }2 a( w [ICAO]- That segment of an instrument approach) v* f }5 o* H, a procedure between either the intermediate approach ( K* z% U1 G: A9 \3 zfix and the final approach fix or point, or between the2 Q+ V/ x6 x$ n% z8 ^8 b end of a reversal, race track or dead reckoning track) _2 o! L7 L$ G5 o. | procedure and the final approach fix or point, as / M* L& i& c& o6 Y% _& A' B4 ~appropriate.3 c" [- _0 X: y INTERMEDIATE FIX- The fix that identifies the5 z3 Z5 S! S) q! v5 z# l6 z" s beginning of the intermediate approach segment of an ; V8 V1 z" q* @/ f+ Q t- Kinstrument approach procedure. The fix is not / @4 D0 {* E% Q& j" Nnormally identified on the instrument approach chart T" r0 W. n0 E1 s as an intermediate fix (IF). $ }7 C. O& [$ O6 ]2 g(See SEGMENTS OF AN INSTRUMENT# v. v7 z& j9 \/ s" m/ H APPROACH PROCEDURE.) ' u' t' {, C% |INTERMEDIATE LANDING- On the rare occasion3 l* _6 j" l: r$ p6 Y8 Q that this option is requested, it should be approved. / g5 n, G: J" U6 \2 ]( gThe departure center, however, must advise the7 h5 D! y; ]4 w: B- O$ V ATCSCC so that the appropriate delay is carried over : W, ~6 v3 l1 v- [8 R( [( `and assigned at the interm ediate airport. An8 Y5 v7 ?; G4 S5 v8 T1 K5 v9 O intermediate landing airport within the arrival center- b4 ^+ `, S8 U7 U) d' t will not be accepted without coordination with and ) m8 ^2 O2 f7 v0 k, u2 a5 S( H4 x cthe approval of the ATCSCC.) ^+ o2 w: |# Q! I8 w. D3 d INTERNATIONAL AIRPORT- Relating to interna‐ " J$ Q( q/ D8 l* k7 Ltional flight, it means: " ]5 }, j- G- oPilot/Controller Glossary 2/14/08! E2 R/ c7 y; x' x8 W PCG I-5' R7 A& y& x1 x# }0 X9 R) \- B a. An airport of entry which has been designated8 e8 D* Q/ h) ~" W6 a; ] by the Secretary of Treasury or Commissioner of , }- ~2 {' v* aCustoms as an international airport for customs : i* ?) _/ F1 A# Kservice.& m" r+ o2 y6 Z! T8 W b. A landing rights airport at which specific 5 @) r2 j1 n9 ^permission to land must be obtained from customs2 \, N% k* R. y1 F' d authorities in advance of contemplated use.) M5 R5 f; n* B3 w6 x8 k. s# | c. Airports designated under the Convention on ' }" z* _2 y1 p# iInternational Civil Aviation as an airport for use by' R* u. p; u3 l international commercial air transport and/or interna‐ 8 M1 w! N& q+ }6 htional general aviation.: d3 t7 u" }8 z2 Y/ S3 J4 {9 A- w (See ICAO term INTERNATIONAL AIRPORT.)& [7 @4 ?% b1 m, Y2 ^" S2 M! g (Refer to AIRPORT/FACILITY DIRECTORY.) 5 U$ W. g C$ ^' s, M+ S$ v(Refer to IFIM.) $ n9 ]- y- e4 n% b, } MINTERNATIONAL AIRPORT [ICAO]- Any airport 1 w8 R4 I8 i- }. a! s8 O! Z; Pdesignated by the Contracting State in whose: @& I& D' U& @8 p territory it is situated as an airport of entry and 5 V# `' h+ Z; V$ s2 O# pdeparture for international air traffic, where the 5 K2 x* W6 p5 C1 Q2 z0 P' Pformalities incident to customs, immigration, public 3 D$ y. `& r0 I7 j# s) K1 w3 N ^health, animal and plant quarantine and similar9 T( |" D4 f$ T$ M" H procedures are carried out.9 u* a" e7 y( B. g( o- ?. A2 z( G INTERNATIONAL CIVIL AVIATION ORGA‐ 8 v* ?) p7 \+ w. Z4 QNIZATION [ICAO]- A specialized agency of the 6 j# G6 A, D( v( B* FUnited Nations whose objective is to develop the 8 `* {& }) Q2 R7 k! sprinciples and techniques of international air. X/ k7 a( t8 ?; _- D navigation and to foster planning and development of# |3 d4 B0 r: o8 Y. s international civil air transport. ! j( X2 {; Z) A* w: _/ Aa. Regions include: " Y% b0 p9 C/ b; ?1. African‐Indian Ocean Region- E0 @8 U7 j% L$ u7 \# s 2. Caribbean Region& U9 @9 w# {2 x. ^! M5 P 3. European Region7 U, B- G2 A: y 4. Middle East/Asia Region" H0 ^+ q6 \3 g8 e2 q( h" \ 5. North American Region . S0 W/ c. t* D" ~9 F D6. North Atlantic Region. {2 T f& _% t2 ^ 7. acific Region! g% B1 |" Z- n# P: e! d# ` 8. South American Region; O' J+ O) h* m7 R2 V K INTERNATIONAL FLIGHT INFORMATION " n- @/ e: V- ~7 Y' zMANUAL- A publication designed primarily as a , N' u; g9 E7 d) \8 Gpilot's preflight planning guide for flights into B0 P. `+ } ^8 X foreign airspace and for flights returning to the U.S." R; w$ @5 `2 J, L( G from foreign locations.$ h# _4 j5 \( W# W# j2 R7 H INTERROGATOR- The ground‐based surveillance , F, @! J/ P) d+ A" K$ W uradar beacon transmitter‐receiver, which normally! b5 F! i( n- a( ?7 x" w scans in synchronism with a prim ary radar, ' w' l' }3 Z+ r8 y4 V0 ~& @transmitting discrete radio signals which repetitious‐ . n5 M# a$ U+ i. Fly request all transponders on the mode being used to+ v. t2 D5 I8 h reply. The replies received are mixed with the ! {6 p, x" {* B! Cprimary radar returns and displayed on the same plan4 n1 d. c1 f4 B) t3 }2 T/ ^/ f position indicator (radar scope). Also, applied to the ) J/ d! d9 r: w+ C; }# iairborne element of the TACAN/DME system. 6 `3 K# w7 b$ v1 y( h# `5 v(See TRANSPONDER.) 2 d4 {1 n( R9 I U) T. ?$ b(Refer to AIM.) 0 f9 _' N; n( GINTERSECTING RUNWAYS- Two or more2 s& a. I3 k" P& W3 M runways which cross or meet within their lengths./ \; e1 _6 r7 L (See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses,2 L A5 o6 X: b( \ radials, or bearings of two or more navigational aids. & [( o$ O8 K: x6 A7 ub. Used to describe the point where two runways, u# o/ L' K+ {; |, na runway and a taxiway, or two taxiways cross or 8 ?" C8 |; W0 Kmeet. / Y, J Z' n% M. Q* z9 T9 \INTERSECTION DEPARTURE- A departure from $ i# a& R+ M8 t6 `4 t% |any runway intersection except the end of the runway. 7 h1 }) [' W; ?4 B5 d; E(See INTERSECTION.)& l; l& i0 D* i+ f. @" A H INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.)/ @8 v0 D( z8 h1 o+ }& e8 L IR(See IFR MILITARY TRAINING ROUTES.) & S3 k% V/ E# T2 B( o2 C4 c1 ePilot/Controller Glossary 2/14/08 + m9 H" U E/ o- U' LPCG J-1 . P2 K' @# M* |/ GJ

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JAMMING- Electronic or mechanical interference 4 m' X h/ e% i! mwhich may disrupt the display of aircraft on radar or- q- N3 f e- `# a2 L- S* ^ the transmission/reception of radio communications/7 F( K) T; C- F6 X navigation. 2 n- [" Q! e. W" X, J1 BJET BLAST- Jet engine exhaust (thrust stream/ O+ u) T- Q) A$ r1 r turbulence).& \( v! L0 D2 Z) Z6 v; ^ (See WAKE TURBULENCE.) 0 t5 g! H* A& x2 ^, _' C PJET ROUTE- A route designed to serve aircraft / G! ^: ^: w* `5 ~; l( woperations from 18,000 feet MSL up to and including3 l/ X0 o) B* F; o& a flight level 450. The routes are referred to as “J” & l/ h9 z* G, Q8 N N( Hroutes with numbering to identify the designated 7 E& R3 W; i, z! broute; e.g., J105.* X: ]5 k6 j( h7 V9 D% ^: ?- @ (See Class A AIRSPACE.) . N! }# T- p' b0 D J(Refer to 14 CFR Part 71.)1 m6 O, F3 t4 x3 V9 A. H) f JET STREAM- A migrating stream of high‐speed / t6 u/ `3 e$ J3 mwinds present at high altitudes.6 y. ]- k/ @. h6 s- u7 m JETTISONING OF EXTERNAL STORES- Air‐ 2 P/ n! m2 @. V; Oborne release of external stores; e.g., tiptanks, : b$ y( z% S5 o) R/ ^" |4 C" z2 pordnance.' _# c, s. c% s; j2 ?- I! q (See FUEL DUMPING.)* g9 |) Z) f) c- p( } (Refer to 14 CFR Part 91.): Y2 h& Q& |' ]7 S# v5 V JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)6 T! }9 P7 e; Z, N2 N) d Pilot/Controller Glossary 2/14/08 2 [$ \* O8 F. tPCG K-17 A5 {% B0 b2 B5 [' n7 v# y K: C2 w6 d! s& |) ^" {% }, V KNOWN TRAFFIC- With respect to ATC clear‐5 k; K7 l8 Q0 l4 X5 z ances, means aircraft whose altitude, position, and* _/ ?1 o& R% C& H intentions are known to ATC.' ? v! d8 v h( A4 p! @" Y Pilot/Controller Glossary 2/14/08 p4 Z) W5 S" x# f4 s2 XPCG L-18 ?$ w q& Q2 b. [& J' A6 L+ _ L 0 `" H0 P9 U( P% E+ }LAA(See LOCAL AIRPORT ADVISORY.)% x" W: V5 v1 c( z! T LAAS(See LOW ALTITUDE ALERT SYSTEM.) ) C1 S% L9 y1 p( @; _- V# V" OLAHSO- An acronym for “Land and Hold Short7 w, P2 c# ?0 [# z: p; H0 L Operation.” These operations include landing and / _4 E2 H/ S, h: ?6 J$ H9 `9 {holding short of an intersecting runway, a taxiway, a' G6 s. n3 y7 B predetermined point, or an approach/departure6 p# _/ n2 b$ V/ Q flightpath.7 y9 g$ T* B6 z& \3 G' i LAHSO‐DRY- Land and hold short operations on # y$ A% y; J) Z6 arunways that are dry. + s6 W( f( u2 {LAHSO‐WET- Land and hold short operations on 9 z" `: m* C* E- ^" crunways that are wet (but not contaminated).1 k5 Y2 l, d* L LAND AND HOLD SHORT OPERATIONS -- N9 \ {3 }" W Operations which include simultaneous takeoffs and # I' R/ F, K# v: ilandings and/or simultaneous landings when a 4 @8 g& S$ o) v, x) `+ ^landing aircraft is able and is instructed by the ! |/ O. _5 W P5 Lcontroller to hold‐short of the intersecting runway/ ' o* h0 h* p, Y+ w) k9 G! Ataxiway or designated hold‐short point. Pilots are * ^6 }$ E+ ]( _6 iexpected to promptly inform the controller if the hold 1 u$ p9 |1 I0 n5 ]short clearance cannot be accepted. 2 g4 ]& H: i6 F; b& g& U(See PARALLEL RUNWAYS.)# a o/ z5 C) ]* m% x( t (Refer to AIM.) 7 w* |3 y# B% N' t% W/ e+ qLANDING AREA- Any locality either on land, % m) X+ l+ Z: ?# z9 Gwater, or structures, including airports/heliports and . p2 Z: c3 i9 ?+ z3 q9 Tintermediate landing fields, which is used, or- h2 n m, ]0 a4 s( F3 ]( x, {! w# I9 m intended to be used, for the landing and takeoff of 5 q O+ O# T, ~& y, s7 Z- D4 t) jaircraft whether or not facilities are provided for the 7 I3 M8 W! v& Z3 Y6 vshelter, servicing, or for receiving or discharging 3 ^% l7 p6 [2 n: wpassengers or cargo. 5 p+ o1 U+ I6 ^& K1 h' b# e: J(See ICAO term LANDING AREA.)) @# ]4 Q3 C$ k0 [& G2 Q" t% i LANDING AREA [ICAO]- That part of a movement 4 E' c: M% Q' ^) Larea intended for the landing or take‐off of aircraft.3 }0 R/ m2 c2 Q3 b0 N8 b9 X LANDING DIRECTION INDICATOR- A device/ d* L# M, j- m( \ which visually indicates the direction in which- G* D9 \0 ?" u8 k& i5 m landings and takeoffs should be made.1 R' T; I. a. p$ y4 d$ c (See TETRAHEDRON.), z7 S+ l% Y/ ^- Z) B% C) b (Refer to AIM.)* c' x: ?9 m7 s! ^- t7 O, c; X LANDING DISTANCE AVAILABLE [ICAO]- The # }' M2 L$ o. a8 x' H }9 tlength of runway which is declared available and ; V5 ]+ g3 G$ Z" @' q* j0 @& y) d z Ysuitable for the ground run of an aeroplane landing. ( ~$ N. _. S e2 V4 _' E% i6 k6 WLANDING MINIMUMS- The minimum visibility 6 z0 j" d: S/ X) @prescribed for landing a civil aircraft while using an % p0 q, o9 Y4 n/ X8 hinstrument approach procedure. The minimum6 ]! W, |8 s% h, D' t applies with other limitations set forth in 14 CFR b% V" P$ `+ `+ C4 S; ]Part 91 with respect to the Minimum Descent/ J) W: f4 A2 e! K0 B8 T, a Altitude (MDA) or Decision Height (DH) prescribed3 `+ e' o# \+ m in the instrument approach procedures as follows: & [5 r- s& @" }3 R' u6 @2 Ca. Straight‐in landing minimums. A statement of2 a9 e- B2 b' w' k' ?* ^ MDA and visibility, or DH and visibility, required for2 X2 Q0 ~2 M" V$ i1 x a straight‐in landing on a specified runway, or ! T1 |0 m# ~5 q5 l0 e/ Hb. Circling minimums. A statement of MDA and* j) U3 A& L3 o' U visibility required for the circle‐to‐land maneuver. $ p% v8 ]) ~5 ~7 zNote:Descent below the established MDA or DH is 5 f$ i; E2 D7 r) @: Y- Knot authorized during an approach unless the ! x' |4 Q: s) R- s5 a- Naircraft is in a position from which a normal - @4 s' ~% P7 Z. G) [8 Sapproach to the runway of intended landing can be $ e' y( C5 e9 b9 F% C1 B4 ]made and adequate visual reference to required1 f9 O9 y' r) s visual cues is maintained. 3 P' Y7 n1 \1 \2 d(See CIRCLE‐TO‐LAND MANEUVER.) # C0 X" v% G; \8 p+ T8 D(See DECISION HEIGHT.)- i! ?, ~8 ]2 ~* _" F ?2 }3 P (See INSTRUMENT APPROACH2 ^3 y6 b3 u* P& s0 ^' d PROCEDURE.)0 n# L/ {8 x$ y; h' b6 l (See MINIMUM DESCENT ALTITUDE.)- D7 @. h+ D; j e4 { (See STRAIGHT‐IN LANDING.)2 o, Z" ~, k, C p+ \ (See VISIBILITY.) ' F+ f- V3 F% {$ t(Refer to 14 CFR Part 91.)5 R0 g% U1 M3 j. @ LANDING ROLL- The distance from the point of " J) r# J$ t/ V- T9 Xtouchdown to the point where the aircraft can be: a1 b% U) J5 {9 G1 A brought to a stop or exit the runway." ]8 g- S# D, J. W% T LANDING SEQUENCE- The order in which . _, [/ x0 P- P. _1 ^5 Jaircraft are positioned for landing.2 t% _ ~1 }, k/ d, q6 Q5 B' I (See APPROACH SEQUENCE.)! }. a$ j9 o; x6 [6 f LAST ASSIGNED ALTITUDE- The last altitude/9 v$ F6 h; n1 j. ~) o* V flight level assigned by ATC and acknowledged by 5 F1 j2 b7 C) \- X$ e& b( _8 H Cthe pilot.4 X+ ?. V2 S" | e* A: g1 E8 O+ l (See MAINTAIN.) & L, `4 C' k$ `: U! _(Refer to 14 CFR Part 91.) 2 A' {4 o \1 ELATERAL NAVIGATION (LNAV)– A function of $ A8 `* f5 o3 b: larea navigation (RNAV) equipment which calculates, & V4 `+ C: _3 e9 C3 @displays, and provides lateral guidance to a profile or $ P# g1 ` ?' I/ C6 `path.' U8 l p6 Q1 @8 L$ [ LATERAL SEPARATION- The lateral spacing of - V4 I3 a4 { faircraft at the same altitude by requiring operation on 7 ] f) b+ M: X, K. a: K( edifferent routes or in different geographical locations., q: y$ l: g0 e; T, J/ b3 z (See SEPARATION.)" m: r/ A5 T8 x4 j9 F6 n Pilot/Controller Glossary 2/14/08' Y7 f+ U% e4 b6 V" ^ PCG L-2 9 v/ y" [2 r' ~LDA(See LOCALIZER TYPE DIRECTIONAL AID.) 2 S: P# P- ~8 z6 ^4 Z; N(See ICAO Term LANDING DISTANCE ) R# K/ n( X$ F8 U1 w: h/ w8 m; A' oAVAILABLE.)1 W: q1 V. Z5 Q" V$ T: \ LF(See LOW FREQUENCY.)) B* ~( o$ r2 U" C" j9 P LIGHTED AIRPORT- An airport where runway and * d8 b3 p2 q( O7 eobstruction lighting is available. & @' w& H; [- S5 t(See AIRPORT LIGHTING.) 4 C" v! C/ r, ~/ [. I(Refer to AIM.) % U, ?3 w" s3 ]2 }7 |. Q( bLIGHT GUN- A handheld directional light signaling 7 X' J# |3 G- w2 z6 ~8 {device which emits a brilliant narrow beam of white, 7 |' ~/ d' j& A" H7 k3 |; agreen, or red light as selected by the tower controller.9 `, i9 a" i" ^7 H7 ~ The color and type of light transmitted can be used to( a+ S9 [2 I/ q/ F6 _/ ` approve or disapprove anticipated pilot actions where $ S" P }! y0 {. jradio communication is not available. The light gun; `( h8 s8 P) R1 Z% R is used for controlling traffic operating in the vicinity 7 L' b4 s s/ H, g1 h) Iof the airport and on the airport movement area.6 L1 r! }! v+ b (Refer to AIM.) - g E4 O7 F; b0 ^LOCAL AIRPORT ADVISORY (LAA)- A service + D A8 v% J2 _1 F8 }# W+ k& ]7 vprovided by facilities, which are located on the0 |: }: R$ p0 u( }/ L, B1 C landing airport, have a discrete ground-to-air / B% j: I2 z3 Scommunication frequency or the tower frequency * W# B* A; [$ [2 }when the tower is closed, automated weather. [; M% S q% { reporting with voice broadcasting, and a continuous" v% k5 [7 f- g6 H5 `7 O ASOS/AWOS data display, other continuous direct 8 _5 f$ ]" Z8 greading instruments, or manual observations avail‐5 c! u) v P# |$ C, I able to the specialist. 0 W. X* \. g1 f. P7 p5 o(See AIRPORT ADVISORY AREA.) + v2 n0 ] l1 x$ f1 lLOCAL TRAFFIC- Aircraft operating in the traffic J7 q0 O# `$ c& j- _pattern or within sight of the tower, or aircraft known 8 E" S$ {9 l" l6 Nto be departing or arriving from flight in local practice ) l" [. H/ I7 e i& U# J- Jareas, or aircraft executing practice instrument - D7 y7 i, K5 h1 O: Lapproaches at the airport. 8 q E8 G' C' Z# p. I/ Q(See TRAFFIC PATTERN.)1 O/ ]: N/ r% J' j( G1 @ LOCALIZER- The component of an ILS which% ^% I( E* `/ F4 Y provides course guidance to the runway.9 ^8 s2 l& o- E% m4 [- _ (See INSTRUMENT LANDING SYSTEM.) X, N* b, V- E" \ (See ICAO term LOCALIZER COURSE.)/ g# `! u7 |4 p (Refer to AIM.) 2 L, s7 }# G2 G8 v5 |LOCALIZER COURSE [ICAO]- The locus of % {, a* O/ S8 E4 b* c& opoints, in any given horizontal plane, at which the 6 z, v) ~) j. L3 q7 DDDM (difference in depth of modulation) is zero. ' }! ` X- Q5 eLOCALIZER OFFSET- An angular offset of the) P+ H6 ~6 y; E9 \, \ H/ o- N" ] localizer from the runway extended centerline in a; A: T6 Z, S5 Q$ }* I direction away from the no transgression zone (NTZ)2 L0 `4 Z* U% F5 n/ J9 u, N2 | that increases the normal operating zone (NOZ)8 h: T' Z% G% P$ {* ~& o width. An offset requires a 50 foot increase in DH and9 R& y# q7 e) P/ T, n& `5 z+ U/ ` is not authorized for CAT II and CAT III approaches. Q; X. b8 v1 x% C4 ELOCALIZER TYPE DIRECTIONAL AID- A( I5 F* o3 c7 Z, w: _0 ]/ | NAVAID used for nonprecision instrument ap‐4 o! a4 J) ]. H k) E proaches with utility and accuracy comparable to a2 e7 \7 h1 T0 o. r3 Z. J7 k* y localizer but which is not a part of a complete ILS and4 r j& O% H" F. [ is not aligned with the runway. 0 x7 f$ C+ ?! R/ ]! \(Refer to AIM.)4 k5 j- o. u# A1 V LOCALIZER USABLE DISTANCE- The maxi‐ : Q6 Q/ z, B# { q* ?mum distance from the localizer transmitter at a 8 E; |% y2 K* R, K6 D1 i. \! c7 l5 Lspecified altitude, as verified by flight inspection, at: F7 i2 D) @# X& J1 i; ?# } which reliable course information is continuously$ y( e* y; f, w c% j received. % |, w5 z6 \$ E0 H' S: q(Refer to AIM.)/ F8 ~+ Q: M+ S3 n6 s LOCATOR [ICAO]- An LM/MF NDB used as an aid5 C% l+ `5 B9 L, H# v to final approach. ) Y2 d9 D$ T6 W2 {, R9 u! pNote:A locator usually has an average radius of B1 D+ ?8 e, E3 [ x rated coverage of between 18.5 and 46.3 km (10 $ U9 S* X/ s; l& |2 S7 Wand 25 NM).# i y& ~, L- J9 o LONG RANGE NAVIGATION(See LORAN.) 8 x/ o/ G4 J. {LONGITUDINAL SEPARATION- The longitudi‐ , F, W. O. \0 c- U) ~4 Mnal spacing of aircraft at the same altitude by a & l- |" K4 g5 C2 K7 [2 ]. tminimum distance expressed in units of time or 9 s* T# n' S0 A( f: o6 C& C2 Emiles.6 T) q7 j* t! [4 i$ }: i (See SEPARATION.)" k8 G: x; F8 f" X (Refer to AIM.) - z( X E2 ^5 L9 D ?LORAN- An electronic navigational system by+ j7 ]% `* I# t8 _/ }( m which hyperbolic lines of position are determined by 7 r. n. x) `! omeasuring the difference in the time of reception of ; _+ h. d6 K9 `7 q x7 b% qsynchronized pulse signals from two fixed transmit‐/ j) Z- [8 [) x4 `8 P" m ters. Loran A operates in the 1750‐1950 kHz' g( c1 I+ a% D' X: I$ s frequency band. Loran C and D operate in the y7 U& Z# C7 C F2 M- h* |- x 100‐110 kHz frequency band.6 V B. M+ h, M (Refer to AIM.) H g* L9 L9 l5 \$ |% `LOST COMMUNICATIONS- Loss of the ability to c# V- `" W" Q/ D$ Q2 Ycommunicate by radio. Aircraft are sometimes ' b& _2 B7 l' G. V$ a! Treferred to as NORDO (No Radio). Standard pilot ( P! N& u# `6 p0 K4 V' Dprocedures are specified in 14 CFR Part 91. Radar 7 R3 r$ ~7 v; q4 q+ ncontrollers issue procedures for pilots to follow in the 3 q& P- J9 j, e" u U2 T9 f, ievent of lost communications during a radar approach $ V, \. ?( k' ~# r x* f' kwhen weather reports indicate that an aircraft will 1 K, U: b6 j$ N& X3 H2 wlikely encounter IFR weather conditions during the / I# S6 G9 F! l K# ]0 O6 @5 [approach. 4 n0 ~, _2 g5 U# s$ ^(Refer to 14 CFR Part 91.) / ^& q8 v, R- K( `(Refer AIM.) : G$ c M2 G5 W0 u& Q1 i8 I" O+ D, vPilot/Controller Glossary 2/14/08 3 T$ Y% l! h, e0 d" t. [PCG L-3 $ J! V3 K4 e- p6 R. L' HLOW ALTITUDE AIRWAY STRUCTURE- The 0 S1 ~0 Y1 X8 W9 pnetwork of airways serving aircraft operations up to! [( o/ o. W' V$ `) Y1 Y; g but not including 18,000 feet MSL.3 R% H9 P( Y1 K (See AIRWAY.) / a2 h, _* s/ h7 A3 {(Refer to AIM.); v0 N" H7 s* e LOW ALTITUDE ALERT, CHECK YOUR ALTI‐* t) U; L! F# Q& o6 N" e5 u TUDE IMMEDIATELY(See SAFETY ALERT.)& T- X' C7 X$ _2 n2 c F LOW ALTITUDE ALERT SYSTEM- An auto‐ . n, e# C: l5 h3 `( ymated function of the TPX‐42 that alerts the/ f1 b1 T1 Q' m e. B5 h+ ^ controller when a Mode C transponder equipped: O( b' d3 G. N! L aircraft on an IFR flight plan is below a ' i% f( U( j' M2 Y" G0 Apredetermined minimum safe altitude. If requested# r# k" T. H' E; E, v by the pilot, Low Altitude Alert System monitoring1 o) X6 @- p4 J# |1 N is also available to VFR Mode C transponder2 K1 P, A+ I' M/ h* Z' E equipped aircraft.8 j0 \& l& f% ] LOW APPROACH- An approach over an airport or$ l# K! ~1 g1 ]- \+ N- P runway following an instrument approach or a VFR ! a x6 B$ W% Xapproach including the go‐around maneuver where / c8 @6 b5 M a! Hthe pilot intentionally does not make contact with the k/ P& |) N1 A4 H- @' V2 v- \9 {8 Xrunway. ' K* i3 c5 ?! ~5 B(Refer to AIM.) 7 q$ o* Z$ c* q2 B: v6 K, ELOW FREQUENCY- The frequency band between : ]+ K( |8 N7 n5 `0 i30 and 300 kHz.* B0 T$ J/ ^& h8 X3 s6 e7 V* l. Q (Refer to AIM.)- \7 D: S# F; E6 n LPV- A type of approach with vertical guidance % x2 c" D( r8 a( {. s' Y" D) p(APV) based on WAAS, published on RNAV (GPS) ' p6 _1 t3 d7 ~5 n" \approach charts. This procedure takes advantage of 1 _# b8 ]( O6 C/ x J* i# Nthe precise lateral guidance available from WAAS.7 T8 }7 R5 U% z ^& e% [ The minima is published as a decision altitude (DA).$ O! `; \0 z# B" ^% H' p" y Pilot/Controller Glossary 2/14/08' J, I, w. Z8 w PCG M-1- ^3 A+ ]- q9 E0 P; d M. z, o7 F3 ~; l+ a MAA(See MAXIMUM AUTHORIZED ALTITUDE.)! ]4 Q' U* m7 E' p8 ^ MACH NUMBER- The ratio of true airspeed to the) |- f; r- I" Q1 X; K C speed of sound; e.g., MACH .82, MACH 1.6. ! y% I2 C2 F, {) q6 d(See AIRSPEED.)6 V) J0 r g% x- v; \ MACH TECHNIQUE [ICAO]- Describes a control: |- e# }+ D$ p2 O4 P# f% M technique used by air traffic control whereby turbojet ! ^6 {3 y# C* \& C. Vaircraft operating successively along suitable routes ; d. |( n! a4 n, x7 L' Y6 iare cleared to maintain appropriate MACH numbers7 {" q y) t1 ?4 @- m( Q/ ^" j for a relevant portion of the en route phase of flight.% }* h7 h% [3 h The principle objective is to achieve improved , u/ O, {& \$ Sutilization of the airspace and to ensure that + v* |; V1 m9 ?5 b! G1 H) n1 Zseparation between successive aircraft does not @4 K* F# J6 @6 Qdecrease below the established minima./ q$ o- w3 g! a MAHWP- Missed Approach Holding Waypoint 8 O) ^$ b. i4 _" I' S5 H; ]MAINTAINa. Concerning altitude/flight level, the term0 \6 Y) [6 d! R# f; t3 ]/ h means to remain at the altitude/flight level specified. + K& h v0 G+ e/ UThe phrase “climb and” or “descend and” normally / @6 ^1 C& [% J& i4 I4 \precedes “maintain” and the altitude assignment;+ E1 M# s! ?8 _2 e& x% i Z2 o e.g., “descend and maintain 5,000.”1 W+ {; O- x9 |7 C) q: w4 I: k b. Concerning other ATC instructions, the term is+ X1 o2 k# o5 C( a used in its literal sense; e.g., maintain VFR. / e$ \6 h f8 }( G2 R5 [MAINTENANCE PLANNING FRICTION # U3 r6 `$ A7 I. ?LEVEL- The friction level specified in 3 E- \ ~9 {- d4 d1 G3 KAC 150/5320‐12, Measurement, Construction, and, x4 W2 U! F$ H3 _( _+ u! V Maintenance of Skid Resistant Airport Pavement8 J- D0 h [) x C. Z Surfaces, which represents the friction value below 3 G& c4 T' O& b7 k7 V* Twhich the runway pavem ent surface rem ains# \" P: G, B5 O+ X; ] acceptable for any category or class of aircraft 0 I N' H+ ]6 J8 a2 T3 j; D8 F! Loperations but which is beginning to show signs of* Q1 B: x3 X& Z* F/ o) O0 k4 o ] deterioration. This value will vary depending on the4 E/ ~2 S1 ]8 y0 g" ^: m particular friction measurement equipment used. 0 J; I# j n( ]7 g U* ~, D" jMAKE SHORT APPROACH- Used by ATC to # @& P8 Q' U- @) Einform a pilot to alter his/her traffic pattern so as to 3 ]0 T- l: R! zmake a short final approach.& }; _! H m5 f1 ?4 `! T+ W (See TRAFFIC PATTERN.)% ~1 R8 M) k( p P3 W MAN PORTABLE AIR DEFENSE SYSTEMS x2 I2 l! q9 {& V (MANPADS)- MANPADS are lightweight, shoul‐ 9 P' m( p3 \, A6 Pder-launched, missile systems used to bring down + {6 @* j+ o5 S8 K+ F% z7 ^, xaircraft and create mass casualties. The potential for: ~: Z( Y. L# \7 c9 C- J MANPADS use against airborne aircraft is real and, F7 n% o. G$ s) P requires familiarity with the subject. Terrorists% v9 y0 w; I- P/ S choose MANPADS because the weapons are low$ W$ L. e k! b2 G cost, highly mobile, require minimal set-up time, and 3 ?$ D5 I: _6 `are easy to use and maintain. Although the weapons 7 B9 T- _) N9 _1 V. g6 C% ]7 Uhave limited range, and their accuracy is affected by/ v0 p1 Y- Q" A. C; B' \( \2 w poor visibility and adverse weather, they can be fired d, D, g7 b c# afrom anywhere on land or from boats where there is - ? E5 `- o& eunrestricted visibility to the target.1 ~1 E# v }/ P4 M4 h, S7 a9 p MANDATORY ALTITUDE- An altitude depicted! @- `/ q( I% W) a% K" n on an instrument Approach Procedure Chart7 g7 `6 ?/ y) s% ~ requiring the aircraft to maintain altitude at the 2 H6 b, A% P* F' x( {2 `: H' Zdepicted value. 4 j! [' Q, P% P3 x( q! `MANPADS(See MAN PORTABLE AIR DEFENSE 0 g- c- g+ i! C* i' N s5 H* r. BSYSTEMS.) , K6 _$ N+ A4 tMAP(See MISSED APPROACH POINT.) 4 T+ L, T' l; M! FMARKER BEACON- An electronic navigation - u0 S: v S V3 C# Dfacility transmitting a 75 MHz vertical fan or2 t8 v0 d' E# O8 R; @7 \ boneshaped radiation pattern. Marker beacons are3 p/ X, ^3 E, F, n identified by their modulation frequency and keying G* v9 [( @! V1 R" s) ^ code, and when received by compatible airborne3 k6 I' P% _$ `; v8 }- x equipment, indicate to the pilot, both aurally and K) B' d) N& j2 p$ A4 Pvisually, that he/she is passing over the facility. & s( Q- [& s V9 N2 r. W; g7 r(See INNER MARKER.)0 H J( U( B! n1 z6 u% W2 E (See MIDDLE MARKER.)- p: R2 H6 F5 m7 e N( l E( ^ (See OUTER MARKER.) t5 T0 X. g% q# k(Refer to AIM.)

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MARSA(See MILITARY AUTHORITY ASSUMES M! d, x! f B7 N* S6 k8 X RESPONSIBILITY FOR SEPARATION OF5 L2 C+ ~& B( }3 _$ j" q+ S) { AIRCRAFT.) ! |2 V9 p+ K) m, d* \9 c, pMAWP- Missed Approach Waypoint- {/ C7 C4 z/ \- X* P1 X! H MAXIMUM AUTHORIZED ALTITUDE- A pub‐; M/ ]$ A: \* m5 T7 U& P lished altitude representing the maximum usable) ]6 p4 {/ S7 r* Y: G& Y altitude or flight level for an airspace structure or 4 X1 y# y5 ?' n' w7 @0 rroute segment. It is the highest altitude on a Federal $ P3 i7 z7 d) Y6 j+ w6 F0 ?/ Hairway, jet route, area navigation low or high route,) \! y- b( F/ p# [* x8 g* V2 W r- z or other direct route for which an MEA is designated: W# o! F$ W6 q" n in 14 CFR Part 95 at which adequate reception of # V& ^( x7 h) B0 P: E6 knavigation aid signals is assured. 6 t4 {- y: \( }MAYDAY- The international radiotelephony distress 2 I% G/ A; ^+ k2 P6 asignal. When repeated three times, it indicates $ {& i' w" V) k; k* ~; BPilot/Controller Glossary 2/14/086 x: t" L% C2 i3 s+ I0 c PCG M-2" @. Q4 D% X- g7 g4 z7 `% e- T imminent and grave danger and that immediate: ~, F3 G \: x: K assistance is requested. + @- T- S# Y7 B(See PAN‐PAN.)4 l* h: n: a2 m+ _, m! R6 Q (Refer to AIM.)4 m: E8 g- d3 l# }/ @$ j O MCA(See MINIMUM CROSSING ALTITUDE.)! v; L& ^9 m" N, [- q" f0 H) l MDA(See MINIMUM DESCENT ALTITUDE.) ' w0 s0 F/ W' YMEA(See MINIMUM EN ROUTE IFR ALTITUDE.)) E! i2 C0 g+ I MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR* S. q& z! J; [. I8 ~( ` TRACKING SYSTEM.)5 Q7 `+ m2 Q2 u* D& _) E' ~" C METEOROLOGICAL IMPACT STATEMENT- 4 u+ i* c5 x( O* Q5 e) _An unscheduled planning forecast describing2 W7 M; q: ~; D1 U conditions expected to begin within 4 to 12 hours ! u% u; S6 ?- bwhich may impact the flow of air traffic in a specific8 z+ U+ Z& o( }2 ^# |( G center's (ARTCC) area.( {" M% c! u% s- J* g$ M" R+ s6 J METER FIX ARC- A semicircle, equidistant from3 q) ~. U8 O! m6 Z3 t" e, J a meter fix, usually in low altitude relatively close to , F" j% B) b L& L1 Q ]6 v B X8 ?" {. S8 athe meter fix, used to help CTAS/HOST calculate a 8 |( `9 L- v+ S3 Imeter time, and determine appropriate sector meter 0 D2 [ Q" I2 f7 rlist assignments for aircraft not on an established % z3 P5 l- E" qarrival route or assigned a meter fix.9 q: i& `2 p) F- y9 r3 H METER FIX TIME/SLOT TIME- A calculated time5 K0 s' ?" y- v2 z to depart the meter fix in order to cross the vertex at : N4 S {- |, L6 ~: Ythe ACLT. This time reflects descent speed9 d. |6 i+ r4 \4 {/ V adjustment and any applicable time that must be % S, I9 a3 P) iabsorbed prior to crossing the meter fix.* P( Z1 I. }* R5 z9 Y! Q" ` METER LIST(See ARRIVAL SECTOR ADVISORY LIST.) 2 Y# @/ P# y& K5 M2 y+ E; u) jMETER LIST DISPLAY INTERVAL- A dynamic 4 S: F5 d/ _# Gparameter which controls the number of minutes& S2 g1 t+ Y% T( V prior to the flight plan calculated time of arrival at the# D( X8 I8 g% l; b2 E meter fix for each aircraft, at which time the TCLT is & Z9 R4 E0 V, @% Zfrozen and becomes an ACLT; i.e., the VTA is 8 x- c+ v6 m4 p: j$ U6 eupdated and consequently the TCLT modified as ! O! ~' H! {8 S( ?* Nappropriate until frozen at which time updating is 2 C6 p, n+ c" J4 o: H6 `suspended and an ACLT is assigned. When frozen, ) y# U" Z3 o5 ^# d: P2 f4 rthe flight entry is inserted into the arrival sector's o: n! |; t* ?+ Bmeter list for display on the sector PVD/MDM.8 J! B! i. J; B7 s# { MLDI is used if filed true airspeed is less than or# J8 p4 x" K( h% i; d; x, T equal to freeze speed parameters (FSPD).9 q9 ^; A* P/ J METERING- A method of time‐regulating arrival 6 z' x% x) s4 g( n" D6 Ttraffic flow into a terminal area so as not to exceed a. C# _; c* t# X; b! ]; q* r predetermined terminal acceptance rate. 5 K( `* \# {# `/ S7 K2 yMETERING AIRPORTS- Airports adapted for " O2 k4 u" T# H8 jmetering and for which optimum flight paths are 2 }/ Q! ]1 k3 m1 o6 S$ h xdefined. A maximum of 15 airports may be adapted.& P4 R | N. k: f2 z METERING FIX- A fix along an established route l# a+ F& x {6 D$ wfrom over which aircraft will be metered prior to & z$ \5 N+ y# }: W9 n" V" t+ B, Kentering terminal airspace. Normally, this fix should & s5 N* l7 w1 S6 ^9 C! M8 q6 {8 Pbe established at a distance from the airport which ( M, U5 H0 j8 I( z( Awill facilitate a profile descent 10,000 feet above - w7 w; P, H. A9 D1 i2 H5 W% oairport elevation (AAE) or above. 8 y* N+ V ^$ J5 K! \METERING POSITION(S )- Adapted PVDs/8 s- A' n' H) v* d+ i2 ~, Z' Z MDMs and associated “D” positions eligible for: o' e L5 ` ~8 H1 A6 d display of a metering position list. A maximum of q# \4 v& T# a: s* o( Y) D0 r3 k$ ufour PVDs/MDMs may be adapted.4 L9 ~+ u/ K0 q/ U METERING POSITION LIST- An ordered list of5 \+ {9 `, C0 g# e5 y1 i data on arrivals for a selected metering airport / p8 f3 O# ~) i$ Z) Gdisplayed on a metering position PVD/MDM. 7 n1 o* Q4 ?/ j- ^; ?5 e. _: GMFT(See METER FIX TIME/SLOT TIME.) 9 c% ^3 T$ L# L- LMHA(See MINIMUM HOLDING ALTITUDE.)4 a2 T. `$ d) [ MIA(See MINIMUM IFR ALTITUDES.) & {3 g0 {( y' gMICROBURST- A small downburst with outbursts 6 b" |- P: h2 l4 x; b0 t3 h8 gof damaging winds extending 2.5 miles or less. In 7 O( O7 o2 F4 X N* z! D- Bspite of its small horizontal scale, an intense " N4 _/ R9 t7 X. E/ v; a8 Omicroburst could induce wind speeds as high as 150 $ s' X# B& b# A4 Y1 W# ?( wknots ) m2 a8 v+ _( L% q! h( R(Refer to AIM.) 6 e- t. T+ s- w6 |MIC RO‐EN ROUTE AUTOMATED RADAR ) B! m4 y G" a- fTRACKING SYSTEM (MEARTS)- An automated 7 S* t9 H- `9 p0 J; Kradar and radar beacon tracking system capable of 0 }' ?6 k( b4 C0 y* a) x3 _employing both short‐range (ASR) and long‐range 4 m. Z. M0 \4 d(ARSR) radars. This microcomputer driven system7 o+ O3 o9 g+ X$ n8 m provides improved tracking, continuous data record‐/ V u0 Z7 v, Q' [: \. G# C( w6 C ing, and use of full digital radar displays.7 K6 M% x7 a J! N MICROWAVE LANDING SYSTEM- A precision ( p2 z1 f7 J O" O1 M, @# w8 Zinstrument approach system operating in the' i, g0 z" f' z$ \9 }6 N microwave spectrum which normally consists of the ' W- q7 c6 Y9 p) ?$ Y: U/ sfollowing components:3 C% D6 W8 L! b a. Azimuth Station. / U% A4 z3 y8 e3 f4 ^8 r* Ub. Elevation Station. ! v5 I- Z' K! z1 ?c. recision Distance Measuring Equipment. 8 k# X+ A- w" F5 D(See MLS CATEGORIES.)0 o5 T& p0 r( j MID RVR(See VISIBILITY.) + l+ P% I; w# c& g6 @. D0 UMIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.)& h7 O# f& e) y N0 I& w/ K( ]. d Pilot/Controller Glossary 2/14/08) d6 P) M0 @3 O0 u PCG M-3- s; X* D# F. l4 q" u% \ MIDDLE MARKER- A marker beacon that defines2 R! c+ U) M# K" d, ? a point along the glideslope of an ILS normally x' v. B( g5 m6 N. K+ @located at or near the point of decision height (ILS" p9 T& }# T+ \1 K/ p9 k$ u Category I). It is keyed to transmit alternate dots and 9 L$ k9 S. w1 f3 [4 ?& vdashes, with the alternate dots and dashes keyed at the 5 L/ I* W, K9 Y% k, l- q9 Yrate of 95 dot/dash combinations per minute on a+ J& }8 F M$ w# ` 1300 Hz tone, which is received aurally and visually/ r& E7 H( K/ G/ \ by compatible airborne equipment.6 [# G3 P" C8 m# V B& b (See INSTRUMENT LANDING SYSTEM.): [; e" \2 N1 {0 r5 w; J (See MARKER BEACON.). }9 }% {. u: t2 N+ T2 Q- X6 t (Refer to AIM.) ; A7 h) @- N0 z, E9 v7 {7 v3 D V/ D4 ]MILES‐IN‐TRAIL- A specified distance between! a4 Z( l, R5 A aircraft, normally, in the same stratum associated : ^7 M! m: g; i" S4 L4 pwith the same destination or route of flight. " L |5 h* y8 {; c0 OMILITARY AUTHORITY ASSUMES RESPONSI‐4 U# Y. q$ m( H BILITY FOR SEPARATION OF AIRCRAFT- A 0 L# O8 d; L( C/ y2 u/ r7 fcondition whereby the military services involved* T# {+ }7 v" `$ \ assume responsibility for separation between1 ^ H" T l# {4 A# v! w participating military aircraft in the ATC system. It is : V7 f6 [& t8 t6 xused only for required IFR operations which are : o; D1 {7 |6 ^: Tspecified in letters of agreement or other appropriate & B) O$ _" ]9 |FAA or military documents.; Q; M7 G! ]* C( X K% z$ ? MILITARY LANDING ZONE- A landing strip used# o8 h3 X# ~/ M1 Q% q& r exclusively by the military for training. A military' w% ?" j% h3 V landing zone does not carry a runway designation. : Z/ Z1 d: V4 @0 }; p7 `MILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.) ! D6 u0 j+ m% f# }1 T2 KMILITARY TRAINING ROUTES- Airspace of/ v" z( E% k5 B. V defined vertical and lateral dimensions established - W# V5 `( b# }( W6 jfor the conduct of military flight training at airspeeds. [ B& q$ V+ d/ x2 Z/ q in excess of 250 knots IAS. * m1 k" |7 w; f* `2 v3 s3 ?(See IFR MILITARY TRAINING ROUTES.)8 V* V. |+ s% b0 A) Y (See VFR MILITARY TRAINING ROUTES.) + g. p" H$ r, h7 i. c0 sMINIMA(See MINIMUMS.) 0 Q3 u* p# { M+ y" ~; m8 WMINIMUM CROSSING ALTITUDE- The lowest# C' w Z/ j+ n9 h% H altitude at certain fixes at which an aircraft must cross 5 ^1 f4 _: ]9 J; `1 [$ iwhen proceeding in the direction of a higher( V( s: t! r9 h minimum en route IFR altitude (MEA).1 v C) e0 Z7 V* b (See MINIMUM EN ROUTE IFR ALTITUDE.)! w" c1 h+ Z) ? MINIMUM DESCENT ALTITUDE- The lowest 9 ~9 H' @4 u8 V8 G3 kaltitude, expressed in feet above mean sea level, to4 n! F* b3 A; r, [/ G which descent is authorized on final approach or 4 Y; c; V* h/ e7 K5 Hduring circle‐to‐land maneuvering in execution of a3 b! V, x/ F. y p standard instrument approach procedure where no - n5 R0 n* `4 v- t/ g7 V, n5 Z4 @electronic glideslope is provided.- w. r5 f( F6 N5 [9 X (See NONPRECISION APPROACH ) ~, h% U3 e" U! A% ?# {- xPROCEDURE.) 5 O! f0 ^4 c/ a' R! d2 Q6 i6 QMINIMUM EN ROUTE IFR ALTITUDE (MEA)- 2 |8 @' i: B! c" u' g0 TThe lowest published altitude between radio fixes6 x/ o& ^! I* F$ { which assures acceptable navigational signal cover‐/ }7 r" Y( S' s age and meets obstacle clearance requirements 8 t3 x. P9 y7 S. r5 Ebetween those fixes. The MEA prescribed for a 1 n" K% X" \9 M% ?Federal airway or segment thereof, area navigation * X [3 V6 p* ?" N p, I/ D+ olow or high route, or other direct route applies to the- q$ i! v# T( f8 w+ O' n entire width of the airway, segment, or route between 9 l$ F; ?6 R, n9 P- ?( mthe radio fixes defining the airway, segment, or route. , x; O8 Q, x; P! @3 d(Refer to 14 CFR Part 91.)9 d. ]$ p6 O. `! ~ (Refer to 14 CFR Part 95.)5 p; b7 V! Y- B$ F( t A" P8 X (Refer to AIM.) 0 |+ J( N8 J9 j6 _9 N; D* dMINIMUM FRICTION LEVEL- The friction level& T" [0 i% c& k$ q1 ? specified in AC 150/5320‐12, Measurem ent,* Y, e& {! l1 h" V Construction, and Maintenance of Skid Resistant 2 Y2 }( Y! j# v7 E$ q1 G5 f& k6 b5 W& pAirport Pavement Surfaces, that represents the 6 J; q, u7 ^" t: _- o" e* [minimum recommended wet pavement surface" L- f( t' b. S, i5 y1 { friction value for any turbojet aircraft engaged in & R. \# t- _+ {. g0 u/ X( Q* A6 RLAHSO. This value will vary with the particular4 J- x& A) I/ o% j friction measurement equipment used. 0 v. T, l5 U3 v2 @MINIMUM FUEL- Indicates that an aircraft's fuel3 L2 v* [3 [) X; {3 R4 ]: s supply has reached a state where, upon reaching the) D! r$ u) K% Z& M/ J b2 a4 a destination, it can accept little or no delay. This is not, t$ b( z. B1 r( X% y an emergency situation but merely indicates an& O7 C7 c' D- l+ u, M2 A/ @0 n emergency situation is possible should any undue$ r3 k/ _' A! H2 }3 G. \ delay occur. 7 i' S) G4 s6 g9 J5 e2 }. X(Refer to AIM.)/ G+ [' i3 y A9 `9 q MINIMUM HOLDING ALTITUDE- The lowest , j$ y$ q/ [% x/ X* h, {. E9 I5 ]altitude prescribed for a holding pattern which/ C, M+ ~( V8 V4 B, I assures navigational signal coverage, communica‐* N! T$ n/ U A; d tions, and meets obstacle clearance requirements. 8 p$ [. s+ @" K% s4 {MINIMUM IFR ALTITUDES (MIA)- Minimum, @7 q! [& ?4 z7 b- ^) ~ altitudes for IFR operations as prescribed in 14 CFR" \3 x4 R% ~6 L# ]/ l) k6 Z Part 91. These altitudes are published on aeronautical8 b6 p, X. a* P charts and prescribed in 14 CFR Part 95 for airways" F( ]7 W) {8 ?* s. ]% j+ w$ s5 _ and routes, and in 14 CFR Part 97 for standard . F' p$ z# r7 minstrument approach procedures. If no applicable% i" ?' f* F4 G minimum altitude is prescribed in 14 CFR Part 95 or+ d0 E# n. i+ E$ B& }, }) \ 14 CFR Part 97, the following minimum IFR& g# t0 N& S% P0 _. a# ]" @. \: P2 t altitude applies:" n9 ?) z% l. ~' f) C! o a. In designated mountainous areas, 2,000 feet 5 [" g% J. S7 D5 O, Z- Dabove the highest obstacle within a horizontal # w0 f$ C' X/ n/ \+ X1 [1 f7 m) Cdistance of 4 nautical miles from the course to be 7 R- x" a% ^$ `! S) V/ y/ U6 rflown; or- V! `' q) i1 H" A8 q, e* b Pilot/Controller Glossary 2/14/08/ N: n% q3 R( N# _7 w PCG M-42 p1 R' t3 J- u. [0 g b. Other than mountainous areas, 1,000 feet above 7 G! W# c; z( u2 a" l m8 h/ ]/ u0 [- O8 Othe highest obstacle within a horizontal distance of 40 {) o; k, K8 q nautical miles from the course to be flown; or ; `% q' u: | d9 E8 o0 ?' dc. As otherwise authorized by the Administrator& n( I. V% O4 O) C- a or assigned by ATC. , x/ S3 I# b, [(See MINIMUM CROSSING ALTITUDE.) % D! n; s$ O' U3 ]3 r2 d# O/ \; j(See MINIMUM EN ROUTE IFR ALTITUDE.) 0 b& W3 X, r/ d- n# g(See MINIMUM OBSTRUCTION CLEARANCE6 C1 }6 J3 v# ]: o ALTITUDE.), b2 R3 R1 M# w; W (See MINIMUM SAFE ALTITUDE.): \9 f/ T& h, l/ `! N- V- i, O7 Z (See MINIMUM VECTORING ALTITUDE.)2 J% [6 I# {( B& P& u# k% L% F (Refer to 14 CFR Part 91.)

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MINIMUM NAVIGATION PERFORMANCE 9 Y5 Q/ E; _* d) b6 [7 WSPECIFICATION- A set of standards which require/ ^; ~/ x5 e8 B0 C2 O% C aircraft to have a minimum navigation performance, E+ \ G( b1 \ capability in order to operate in MNPS designated # d9 t+ I& [& B# w: C2 Wairspace. In addition, aircraft must be certified by' N+ x$ m( u3 T2 q! p& V their State of Registry for MNPS operation.; ] o! `& ^+ [1 e" \8 {$ D MINIMUM NAVIGATION PERFORMANCE/ z4 p* Q! H& q& I4 Z* B6 D SPECIFICATION AIRSPACE- Designated airspace 6 b! M4 d; \7 D+ Z! i4 B; gin which MNPS procedures are applied between ) l7 `# O5 S6 TMNPS certified and equipped aircraft. Under certain ) o X$ C8 ^5 m( S" fconditions, non‐MNPS aircraft can operate in. S% b9 [2 o% J" r MNPSA. However, standard oceanic separation 5 ], P! |3 r: ]minima is provided between the non‐MNPS aircraft% y, V: v4 J5 o. T5 I: D d* s and other traffic. Currently, the only designated 1 Y4 W# I4 {* q8 L: zMNPSA is described as follows:- i: g/ A3 J7 J$ K0 b a. Between FL 285 and FL 420;' C5 j) g l% @: R b. Between latitudes 27N and the North Pole;& [5 Q* W. D7 x1 N c. In the east, the eastern boundaries of the CTAs . x$ n# u% `: ]6 H4 eSanta Maria Oceanic, Shanwick Oceanic, and* h; a3 s3 q [% W% Q Reykjavik;% _1 Q2 h, K/ b, F$ d$ y2 i8 G d. In the west, the western boundaries of CTAs3 I/ T2 y- X% w; v k5 R6 c Reykjavik and Gander Oceanic and New York2 B# z+ o& r' Q' ], N4 i Oceanic excluding the area west of 60W and south + M* `( s* L" n) S& d0 mof 3830'N.# k! b. j2 M! B MINIMUM OBSTRUCTION CLEARANCE ALTI‐: \. P! p. K4 q x# X I9 p6 Y TUDE (MOCA)- The lowest published altitude in& o# D: j3 N; d& c/ M! r# i& I effect between radio fixes on VOR airways,/ s9 J( ~$ ` f8 g off‐airway routes, or route segments which meets5 d# f% N0 q1 e& ]+ k/ B6 x obstacle clearance requirements for the entire route $ j9 W- k! i, S; m+ W9 \segment and which assures acceptable navigational 2 U6 O6 |! d' @. A- I. i0 h3 wsignal coverage only within 25 statute (22 nautical); f3 G6 `& o9 U9 r2 n miles of a VOR.* j: u0 ^& ]/ h6 T& V (Refer to 14 CFR Part 91.)( P4 E0 ?/ w& Y7 o. h* j+ d5 p9 X (Refer to 14 CFR Part 95.)$ U8 _8 M, e3 p MINIMUM RECEPTION ALTITUDE- The lowest9 l0 ]. }1 {4 r* }" \. }2 Z$ S altitude at which an intersection can be determined. , k9 Y& n+ _. G; U8 u2 G4 n(Refer to 14 CFR Part 95.) . p# L* z! m0 f* }MINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR ) t* u! Z8 r) W6 n% B4 u0 RPart 91 for various aircraft operations., {3 B2 K/ {. A* M6 s/ O b. Altitudes depicted on approach charts which 4 n9 q0 a& B8 Fprovide at least 1,000 feet of obstacle clearance for 5 f" u/ S& _ V5 x: {emergency use within a specified distance from the ) u+ D- |3 W& a( hnavigation facility upon which a procedure is / t* g! O0 S" {2 Xpredicated. These altitudes will be identified as 3 h+ p: b8 V7 o4 B( h2 l* B6 ^Minimum Sector Altitudes or Emergency Safe 7 Y4 \2 A1 D$ f) t5 q. G* JAltitudes and are established as follows: + b* I8 S$ [, E1. Minimum Sector Altitudes. Altitudes de‐& W8 `, `* r( L8 S" e" ^ X- u picted on approach charts which provide at least * l! ~# I( D+ y8 e8 F! g' Y1,000 feet of obstacle clearance within a 25‐mile - ~- J% E- f% Q) wradius of the navigation facility upon which the 9 e. P6 D6 ]* I! d- m& U4 f7 ?procedure is predicated. Sectors depicted on - R7 x. f& D/ t, u- l; @2 o; h2 {: m- ]approach charts must be at least 90 degrees in scope.( R; {5 k4 j0 g These altitudes are for emergency use only and do not $ q, ~9 q2 u# R, Pnecessarily assure acceptable navigational signal# l- X6 b# ?' N9 x5 a4 S& O& O- A: p coverage.2 e( J% H1 K2 y (See ICAO term Minimum Sector Altitude.)- c3 z% T. y7 w* O( X' f 2. Emergency Safe Altitudes. Altitudes de‐' F! ]- H( ?3 A) R picted on approach charts which provide at least + H) s$ Q/ _' q& h4 ]# X1,000 feet of obstacle clearance in nonmountainous3 q& b) I8 ~* t( ^4 U; ^ areas and 2,000 feet of obstacle clearance in . U# R- [( }7 h6 T8 S6 Ndesignated mountainous areas within a 100‐mile7 P) b4 L3 @* p radius of the navigation facility upon which the2 e3 I5 Q* }# I' \ procedure is predicated and normally used only in1 s) }) H w) u military procedures. These altitudes are identified on1 _0 N; v: }8 l ]" L$ O published procedures as “Emergency Safe Alti‐ 1 u/ @- }6 N' x( A( P" S7 Otudes.” ) e! p- C0 @) I9 QMINIMUM SAFE ALTITUDE WARNING- A 3 x2 c( B7 ~4 Q& Wfunction of the ARTS III computer that aids the " q+ N+ R( }$ c! @: W8 i: ccontroller by alerting him/her when a tracked Mode 4 n# @$ c; }1 F$ W! n2 dC equipped aircraft is below or is predicted by the7 {9 o: c( x" d* W) ^3 J5 q computer to go below a predetermined minimum safe. L# T! G% u, O# n altitude.1 {( Y7 N; k/ Z% c- h (Refer to AIM.) h! v% Z( s) QMINIMUM SECTOR ALTITUDE [ICAO]- The7 e1 C9 e$ Z8 _6 t lowest altitude which may be used under emergency( n! L: m+ g! v+ Y5 T7 O conditions which will provide a minimum clearance5 }6 U/ {5 B9 G, v4 ]0 I of 300 m (1,000 feet) above all obstacles located in , d" Z- y" @& Y v4 x2 `an area contained within a sector of a circle of 46 km v* D$ j: _& \- Z" |: C f# N(25 NM) radius centered on a radio aid to navigation. + f9 O, R( I6 O8 V! A) ]MINIMUMS- Weather condition requirements) l; y* q; l+ D8 J8 |7 e! U established for a particular operation or type of : g8 s1 Z5 U9 g+ G$ O4 M" ePilot/Controller Glossary 2/14/08 : E: ^9 R4 Q7 FPCG M-5 ! d( }- c/ K" x9 J. x3 Ooperation; e.g., IFR takeoff or landing, alternate* Q0 \ }! i1 I' L% V } airport for IFR flight plans, VFR flight, etc. # U3 E; k% ?) l(See IFR CONDITIONS.)$ a7 W1 f, [; y) Q; w$ { (See IFR TAKEOFF MINIMUMS AND 6 y4 N8 k9 J$ ~/ i% n# n8 dDEPARTURE PROCEDURES.)* M0 l1 [1 s& w2 J (See LANDING MINIMUMS.): R3 E& T! |( c+ q (See VFR CONDITIONS.)7 D! [' N; A" S7 z k1 ? (Refer to 14 CFR Part 91.) 3 c3 h: I; a; m" Q8 W( S6 i2 l(Refer to AIM.)3 r, f2 U0 l5 S- q! n" E0 K+ O& h: d2 ^ MINIMUM VECTORING ALTITUDE (MVA)- ' x+ ]1 _9 m- T. s" E& HThe lowest MSL altitude at which an IFR aircraft will & Q1 V8 p4 r! @6 k7 X* Kbe vectored by a radar controller, except as otherwise 3 P( h( ?, V7 r; K. A; J2 G3 {authorized for radar approaches, departures, and + y- O0 m/ k% Z( Y' Tmissed approaches. The altitude meets IFR obstacle3 ] a. N8 k& Q" } clearance criteria. It may be lower than the published$ ?$ j6 n9 b: L/ o5 } MEA along an airway or J‐route segment. It may be & A. x! t8 ?; ]3 L2 X' r) R* ~utilized for radar vectoring only upon the controller's ) F/ f' K& K& t6 F5 @+ b# Zdetermination that an adequate radar return is being( p- `" x' ~0 r1 R5 n& ^& _& Q received from the aircraft being controlled. Charts! [$ K$ b9 R- [: D: }7 D depicting minimum vectoring altitudes are normally! Y- X& {+ P8 h" [2 R available only to the controllers and not to pilots. 8 x- a" n8 l& q* t(Refer to AIM.)2 B5 }( c2 Z8 l% v MINUTES‐IN‐TRAIL- A specified interval be‐0 Q( p" M- G' K6 m1 I9 G tween aircraft expressed in time. This method would $ D0 A7 X7 w1 z8 {" d' \more likely be utilized regardless of altitude.* z! O! O* _: Q9 T) P MIS(See METEOROLOGICAL IMPACT! n( b; j& l* _ STATEMENT.); `5 ]5 R* V! T u6 Z MISSED APPROACH- 1 m1 r- p' v D" W6 H1 Ua. A maneuver conducted by a pilot when an 1 W9 I2 t4 o/ x3 B4 x( e* P4 P8 b* tinstrument approach cannot be completed to a% ~8 @) `/ }" v$ v; ]7 t( K$ E: w Q6 \ landing. The route of flight and altitude are shown on; P3 O3 r" S* O5 }% E x9 \ instrument approach procedure charts. A pilot + ?7 P6 Q- [7 y9 O( c1 `( Sexecuting a missed approach prior to the Missed# o. c* ^5 R1 t2 A. P& F. k9 [ Approach Point (MAP) must continue along the final 3 X0 L" t+ A \- ]4 a8 o Z2 v; kapproach to the MAP. . o! i2 E9 M& h' H; ob. A term used by the pilot to inform ATC that 9 T. H- K2 ?/ w. i" H& n& rhe/she is executing the missed approach. ( Z' [7 Q- V0 w" O% E* fc. At locations where ATC radar service is + I# k' ~1 M: Mprovided, the pilot should conform to radar vectors - H- A% e8 A( A `+ T9 Awhen provided by ATC in lieu of the published 4 @* G+ ]* o* J H( x0 zmissed approach procedure.2 a: W' c- f3 X1 Q5 B/ | (See MISSED APPROACH POINT.)# C% A. _: O8 \% |' ` Z (Refer to AIM.)4 h5 U. b3 |& N1 T8 q( b0 [ MISSED APPROACH POINT- A point prescribed4 v5 O( m1 Q0 ? in each instrument approach procedure at which a& f# _3 s( ]5 L% K; D) U6 j( { missed approach procedure shall be executed if the / L# G$ Q4 i$ E( Irequired visual reference does not exist.4 p) s/ y6 w! L (See MISSED APPROACH.) 5 j) Y; N! G5 T/ l(See SEGMENTS OF AN INSTRUMENT 8 P5 p: g4 b- }9 ~, g2 r6 J& _APPROACH PROCEDURE.); F. H& s( G# z6 B5 h MISSED APPROACH PROCEDURE [ICAO]- The , |9 z/ W0 T/ ^procedure to be followed if the approach cannot be 5 i' p W' o" w, o0 A0 x) zcontinued.1 p" R( Q1 D7 [5 _# X MISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT % N4 c: I3 i g3 BAPPROACH PROCEDURE.) % x# S# b9 u H& w/ q! j+ KMLDI(See METER LIST DISPLAY INTERVAL.) $ U! E6 h3 M1 MMLS(See MICROWAVE LANDING SYSTEM.) ) {4 G- y9 J! S# G0 _% h2 G7 U% jMLS CATEGORIESa. MLS Category I. An MLS approach procedure ! p6 [. Y5 P- M3 i, _5 qwhich provides for an approach to a height above ) r, s0 Z U7 p7 J: Stouchdown of not less than 200 feet and a runway8 {& G: m# V/ F: u visual range of not less than 1,800 feet.: e$ c3 h* m% `9 R* e* s b. MLS Category II. Undefined until data gather‐" l4 b6 N. e7 y) [# } t! Q ing/analysis completion.2 r3 g- w- y5 R& ] c. MLS Category III. Undefined until data # m. ]9 g( y" ?3 dgathering/analysis completion.9 X, C' W2 y0 x9 Q MM(See MIDDLE MARKER.)0 ]7 W8 U6 w; q MNPS(See MINIMUM NAVIGATION PERFORMANCE9 \' ]& j* k0 c; x7 M. _3 R, F SPECIFICATION.) - ]; Y! t9 m$ a3 t$ Z( r" cMNPSA(See MINIMUM NAVIGATION PERFORMANCE-* `( G) r3 A; L2 g! p- u* \' b SPECIFICATION AIRSPACE.) " M+ c3 y5 Z7 a) fMOA(See MILITARY OPERATIONS AREA.)6 k! }, X; M! N+ K" ~. m: F& B MOCA(See MINIMUM OBSTRUCTION CLEARANCE 8 q, D4 x! M5 h. X5 U$ Q8 qALTITUDE.)6 ^' V# _% L5 L" S3 K3 |7 N MODE- The letter or number assigned to a specific ) W" j2 [8 ~) Tpulse spacing of radio signals transmitted or received3 C+ L* Y9 b) _ by ground interrogator or airborne transponder" l ^* k8 n1 C9 G6 Z; {2 J components of the Air Traffic Control Radar Beacon 3 l) q& `7 R5 j2 v) }9 O# yPilot/Controller Glossary 2/14/08 9 a6 ~% T3 U8 k6 E6 vPCG M-68 o. H9 B! h; Y) o System (ATCRBS). Mode A (military Mode 3) and / q8 T! U: A1 I6 M9 \Mode C (altitude reporting) are used in air traffic1 N1 x( x" D: V* J3 F control., G/ ?* x, I0 E8 s# y+ q (See INTERROGATOR.)1 }9 \; c+ E0 E0 w6 [0 t (See RADAR.): q" T) e2 K. U1 J (See TRANSPONDER.) ( g9 e# e/ {8 L8 B0 w(See ICAO term MODE.) 5 ? L5 R n" Y# j) R i# Q3 i(Refer to AIM.) 1 P, p9 {$ L) Q- z% V0 g& pMODE (SSR MODE) [ICAO]- The letter or number 9 t+ N# z6 \) H: _! E) \5 W+ `( Zassigned to a specific pulse spacing of the1 g+ T3 g8 j+ g$ y interrogation signals transmitted by an interrogator.2 ?# |" ^7 P8 y7 q) s2 G" W There are 4 modes, A, B, C and D specified in Annex 8 z" F/ y* S7 D, S2 L, X/ m10, corresponding to four different interrogation, E- f: n+ K+ H& R6 h, k pulse spacings.- S$ b7 m4 Q2 c& V/ b! f MODE C INTRUDER ALERT- A function of 1 F9 x& E6 L' c3 a( i. f+ Xcertain air traffic control automated systems designed( ^6 ]2 J/ S U4 n( g" n q to alert radar controllers to existing or pending 8 G4 X8 n/ k" |+ B; @situations between a tracked target (known IFR or c# b+ d6 ], r& L( ^ VFR aircraft) and an untracked target (unknown IFR y3 ]0 E4 G9 i6 l% m/ c% L; L or VFR aircraft) that requires immediate attention/% i% N! ?1 d' s4 G8 C+ m; C* b- `; j9 R% | action.; @. S& e F3 o/ ~ (See CONFLICT ALERT.)

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MONITOR- (When used with communication 3 y1 ~) q0 J) H9 k+ Ktransfer) listen on a specific frequency and stand by( W. l6 ]* A- N y for instructions. Under normal circumstances do not+ g. ?; w/ I7 q& x9 U' Z establish communications. # \, S @) Y" F) C0 Z0 Z. s/ IMONITOR ALERT (MA)- A function of the ETMS * B) H. D5 V! a6 P5 z7 e6 e( \2 ythat provides traffic management personnel with a , C1 o5 _0 c T# q- utool for predicting potential capacity problems in0 U" E: T6 h; v$ ]3 D6 z/ N* c individual operational sectors. The MA is an% N5 G* f: R' o" v' j8 \' O indication that traffic management personnel need to( ?- {; h2 t5 d) J- O analyze a particular sector for actual activity and to% A2 o. q& {$ D. X% n u) X determine the required action(s), if any, needed to 2 j4 a& h5 x! F3 o& }! H- Fcontrol the demand.' t# m- T5 D( d8 G% _$ z/ S( u" d, e: j# C MONITOR ALERT PARAMETER (MAP)- The + \5 k1 u! G( a9 t* Gnumber designated for use in monitor alert $ z0 i6 t8 r1 b' A6 z1 {processing by the ETMS. The MAP is designated for2 l+ [ U! {' M- }0 z# ? each operational sector for increments of 15 minutes./ E( l' ?% P' o9 }- j& Y MOSAIC/MULTI-SENSOR MODE- Accepts posi‐ 0 ?' K1 u$ }4 q7 ~tional data from multiple radar or ADS-B sites.( b' _$ H' V$ B' \ w/ A Targets are displayed from a single source within a* Z) d& S$ C, N: U+ w radar sort box according to the hierarchy of the+ S9 I/ Z+ L* h k/ n( ~ sources assigned.! c% N$ C0 h* X& _3 g9 e- \6 s MOVEMENT AREA- The runways, taxiways, and, s6 `: i5 I2 p- D/ b other areas of an airport/heliport which are utilized . v( A# A+ ]- i$ x: ~; nfor taxiing/hover taxiing, air taxiing, takeoff, and & V. W2 {9 n% ilanding of aircraft, exclusive of loading ramps and , v5 X; e1 R# Y, @. d+ |parking areas. At those airports/heliports with a 2 f0 ]8 V# ^3 D' ]3 rtower, specific approval for entry onto the movement 4 w9 ?3 v3 ]7 sarea must be obtained from ATC. 1 f1 b4 L' P2 k5 G(See ICAO term MOVEMENT AREA.)0 \2 d5 r& L- L. U& [ MOVEMENT AREA [ICAO]- That part of an ) }$ C+ [" H& g/ M: o/ ^' Q- Paerodrome to be used for the takeoff, landing and: P# H2 ]7 I9 _( v/ u taxiing of aircraft, consisting of the maneuvering area & ?/ s. V8 i+ P6 g5 z% E1 Fand the apron(s).# n' x2 M/ K1 R MOVING TARGET INDICATOR- An electronic6 k9 P9 a% r2 O device which will permit radar scope presentation2 p( ^7 n/ v/ F f3 M only from targets which are in motion. A partial9 @" a/ G9 K' P4 y; e remedy for ground clutter.& O, d; u) t/ G% l* R MRA(See MINIMUM RECEPTION ALTITUDE.)( g) {4 s1 z* p7 P7 _ MSA(See MINIMUM SAFE ALTITUDE.)' g* C( {+ V; A2 K7 |' `& ] MSAW(See MINIMUM SAFE ALTITUDE WARNING.) 4 L4 ?, G# e8 W# P; rMTI(See MOVING TARGET INDICATOR.)2 }9 {; ^( Q$ n, v3 @" }- m MTR(See MILITARY TRAINING ROUTES.) - }1 X4 n( g8 EMULTICOM- A mobile service not open to public" c* y- A7 r/ \( H! k% Q3 y9 K2 U! n correspondence used to provide communications* E' l2 ~) U% k. F- X essential to conduct the activities being performed by / w; S7 I. }& g8 o) `) M {( ~or directed from private aircraft. + T( V0 G. M8 |MULTIPLE RUNWAYS- The utilization of a% C( G5 X) r# k2 o( W" P2 k$ u% K dedicated arrival runway(s) for departures and a& `" e+ p7 u$ z# V/ v1 S: G dedicated departure runway(s) for arrivals when G# Z& T' u7 Kfeasible to reduce delays and enhance capacity.: M9 O- z0 a/ M- z, I1 N7 e MVA(See MINIMUM VECTORING ALTITUDE.) * \7 P" H+ g7 l( E$ xPilot/Controller Glossary 2/14/08 % ~' N4 R' ?) d) |PCG N-16 y5 {; B' L' K' R0 R N $ M1 L [- p% z4 KNAS(See NATIONAL AIRSPACE SYSTEM.) * |8 p6 T1 e' D3 Y0 U( T- t; NNATIONAL AIRSPACE SYSTEM- The common9 {" o4 O8 h7 |/ x network of U.S. airspace; air navigation facilities,: L9 ~; b! r; a; g5 v equipment and services, airports or landing areas; ) g' `, z" q1 s% t4 o& P2 v, W9 l/ raeronautical charts, information and services; rules,: W* K7 \8 }7 c/ ^ regulations and procedures, technical information, ; y& E9 U* q- D3 M0 { z1 nand manpower and material. Included are system 5 n; b: j6 N1 p$ H/ jcomponents shared jointly with the military.7 O! Z( B# T' h9 | NATIONAL BEACON CODE ALLOCATION . S5 [ l5 _5 e( l* E7 i% ~% OPLAN AIRSPACE- Airspace over United States# ^, f) b& ^/ |2 K* x {0 g territory located within the North American continent 6 q/ e( n n: fbetween Canada and Mexico, including adjacent ! I9 r' o$ a& Lterritorial waters outward to about boundaries of- Z( Q, f- F& K; ]5 R9 I oceanic control areas (CTA)/Flight Information 1 P$ Y& t# [( RRegions (FIR). 1 P& C! x* i2 {(See FLIGHT INFORMATION REGION.) z# A( o: N$ V$ B3 a4 TNATIONAL FLIGHT DATA CENTER- A facility in . h5 k, s1 X) @8 PWashington D.C., established by FAA to operate a& ?6 h' N% w0 j8 x! q2 ]7 d central aeronautical information service for the7 e8 Q$ l) G, }7 S collection, validation, and dissemination of aeronau‐ ( L9 C: Z3 \! D6 F/ stical data in support of the activities of government,% z/ J3 V1 U& p7 z9 F0 |0 P y industry, and the aviation community. The informa‐ k8 M+ ]4 _* Ktion is published in the National Flight Data Digest. # x* }" u2 T0 Z! ~$ Y(See NATIONAL FLIGHT DATA DIGEST.) 7 m- o; h- l1 t$ h3 u$ YNATIONAL FLIGHT DATA DIGEST- A daily ' a% D1 |0 Y! ~7 t(except weekends and Federal holidays) publication ) N8 T1 F {/ S3 l+ j* _of flight information appropriate to aeronautical( ?2 Y* z, e, I8 B1 _ charts, aeronautical publications, Notices to Airmen, ) g1 Q# H, P( O5 @. s4 P1 W) Dor other media serving the purpose of providing+ T) _/ d* h/ J) T0 h! Y0 H operational flight data essential to safe and efficient( c0 o. ~% T8 r5 @/ f+ |1 | aircraft operations.! x( V. Q+ G5 Y NATIONAL SEARCH AND RESCUE PLAN- An : h' d4 s0 f$ einteragency agreement which provides for the $ K) Z6 q4 u7 d& \& Ieffective utilization of all available facilities in all 1 x1 a: F y: W1 I- K! vtypes of search and rescue missions. 3 v: l- g" Y/ ~" ?NAVAID(See NAVIGATIONAL AID.)4 |* n% G' S6 p0 Z NAVAID CLASSES- VOR, VORTAC, and TACAN 0 _( _ d4 J. ?aids are classed according to their operational use./ F) C# k! V* ` z2 s+ z/ C! G The three classes of NAVAIDs are:' V# ?5 K& O l# p E6 C a. T- Terminal.6 }( K/ X2 K1 C6 R b. L- Low altitude. 2 R2 n" F4 L* f1 [9 o) Tc. H- High altitude.* H& z* P- N- \: X Note:The normal service range for T, L, and H class ! t0 s5 {# H9 |; U! H3 ^, laids is found in the AIM. Certain operational 7 T* M1 Y' e8 M# m; G/ Krequirements make it necessary to use some of $ o0 x; A8 H p$ D" Jthese aids at greater service ranges than5 A y" }* x' c: O* A- B# k6 a specified. Extended range is made possible ; l) K: O3 t6 n$ k' pthrough flight inspection determinations. Some , p! |8 }. m6 A4 ^+ j6 Aaids also have lesser service range due to location, / b# ?5 u. d2 m% y2 Iterrain, frequency protection, etc. Restrictions to9 E2 D8 T8 Q, [% N4 t8 ~( { service range are listed in Airport/Facility6 U0 R1 m% G' r" V; ` Directory. ( ]6 Q" `- f1 C1 ]4 u* wNAVIGABLE AIRSPACE- Airspace at and above - a8 E/ P$ u1 _) V# Y3 y0 ]# f8 Nthe minimum flight altitudes prescribed in the CFRs V4 d" A) R1 @% U% f. mincluding airspace needed for safe takeoff and ( T q# Q; n7 P+ q; A8 Ylanding., ^4 @% m' X" Q, v$ O" S( ?# ? (Refer to 14 CFR Part 91.) 6 b/ Z8 R4 T' ]( [% L4 }- NNAVIGATION REFERENCE SYSTEM (NRS)- 2 t- A# o- Z' z# [, F+ m" ]5 F4 ]The NRS is a system of waypoints developed for use) N7 s3 L6 I9 D& K7 j& D within the United States for flight planning and / u0 |" E2 V$ D) S; ]0 c2 |4 enavigation without reference to ground based% d: n7 }- X# t& y$ F0 w" t navigational aids. The NRS waypoints are located in7 i" h3 w: [& A6 D a grid pattern along defined latitude and longitude - z0 g2 Y8 P2 ^lines. The initial use of the NRS will be in the high ! v( t9 q, k, g5 W/ J/ D4 J% Caltitude environment in conjunction with the High 1 l9 ?$ w @' ?8 w# H: B2 k; fAltitude Redesign initiative. The NRS waypoints are% }4 Y) w6 y0 y/ Y9 v% f intended for use by aircraft capable of point-to-point Y# \; `4 P: g& u2 b7 h0 C" g8 m navigation.3 \/ q# F V, Z2 n0 M+ b NAVIGATIONAL AID- Any visual or electronic , }" E8 p; o3 E# O# hdevice airborne or on the surface which provides0 a4 D% V& n) B; O' q0 Z3 B4 w point‐to‐point guidance information or position data2 @. X! p( H9 s to aircraft in flight./ D: E3 a5 o! u; x' V( P (See AIR NAVIGATION FACILITY.) # K" J8 M4 g4 f& n, ?' P+ YNBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION 4 W, Z6 w s* v9 c' J5 K! GPLAN AIRSPACE.)% t" e* o |: s0 m# P. p+ W NDB(See NONDIRECTIONAL BEACON.) - x0 ^% n8 n; Z; b# i2 u$ n& I0 FNEGATIVE- “No,” or “permission not granted,” or 1 F4 D! \" f) V8 @! p! i+ V“that is not correct.” 5 n5 y1 y, N4 M5 |NEGATIVE CONTACT- Used by pilots to inform4 t; z( c& \" `3 ^4 H, M ATC that: _# F' F# ?7 U$ }" q a. reviously issued traffic is not in sight. It may" _) V9 Y; r+ S4 G be followed by the pilot's request for the controller to 3 h& ^3 W- f( T e, t# l+ T" qprovide assistance in avoiding the traffic. ) v* D# e! q6 pb. They were unable to contact ATC on a% I- Z# p, l- O+ t7 u particular frequency. 5 s, D2 g/ q7 \. [) wPilot/Controller Glossary 2/14/08! G- V& m5 A1 B% S* q PCG N-2 3 c$ [. M8 n. M, WNFDC(See NATIONAL FLIGHT DATA CENTER.) ' n J! v5 p8 e! v7 w, Z/ TNFDD(See NATIONAL FLIGHT DATA DIGEST.) 8 U5 {' t* E# f3 U' \ @NIGHT- The time between the end of evening civil h# L5 M' r# I" ]* E4 g4 Q* O- n& X6 e twilight and the beginning of morning civil twilight, 4 p& x( n1 o5 ?" R+ L- H' ? Has published in the American Air Almanac, converted 2 [: l0 i. H. m+ @) qto local time. ' c/ _& N0 ~& _4 t( i( f0 J1 h(See ICAO term NIGHT.)6 @9 c6 K0 J8 g. O6 I+ A% A. Q NIGHT [ICAO]- The hours between the end of 6 }: V: Z( G9 b- W! e: Bevening civil twilight and the beginning of morning ; b! k6 ]/ W3 c" w5 Rcivil twilight or such other period between sunset and! \- |3 H, Y8 K9 q3 G sunrise as may be specified by the appropriate$ @- C4 h! z i' B! v7 z authority. , J( g* j5 y7 Y- v4 R" w( ^$ fNote:Civil twilight ends in the evening when the6 Q8 O0 m d" a7 ~, K- t9 c# h center of the sun's disk is 6 degrees below the 3 M1 ~% R3 f4 W) b( shorizon and begins in the morning when the center" r: K8 I# ]# [' @ of the sun's disk is 6 degrees below the horizon.6 _7 ^8 `9 c t' u P+ V n NO GYRO APPROACH- A radar approach/vector- J t% C- S+ Q, o: |6 f# x provided in case of a malfunctioning gyro‐compass' r( x- a2 S( Z' A! { or directional gyro. Instead of providing the pilot8 |$ j3 K0 j5 E$ O. b: [# [ with headings to be flown, the controller observes the w, ~' u* T/ S, W- P2 [ radar track and issues control instructions “turn+ a6 V' S* x2 |/ S3 c5 f% u# L, ]" I right/left” or “stop turn” as appropriate.# U+ E) F k: l2 E: Q9 S (Refer to AIM.) # B: e, w1 x4 w2 LNO GYRO VECTOR(See NO GYRO APPROACH.) 2 ]6 s7 I- }! [& O0 qNO TRANSGRESSION ZONE (NTZ)- The NTZ is ) H" i; ^$ l! Q, k- Oa 2,000 foot wide zone, located equidistant between" j0 `8 _% }" }! h parallel runway final approach courses in which3 z) S5 U, S/ O flight is not allowed.1 [' b3 W- r/ c$ p6 u$ I1 ` NONAPPROACH CONTROL TOWER- Author‐ ) b2 X9 `! _2 R" m/ s* Bizes aircraft to land or takeoff at the airport controlled ! e. h6 ^1 \' a5 }* bby the tower or to transit the Class D airspace. The* F, i1 W% Z5 E+ T- m% p: d# Q primary function of a nonapproach control tower is& e# Y- C$ x! ^ the sequencing of aircraft in the traffic pattern and on5 a% n+ Y) K3 |+ Q. x3 x2 C the landing area. Nonapproach control towers also 8 _5 G) V* Y! ?separate aircraft operating under instrument flight 8 ]5 J/ V3 F5 V; b% jrules clearances from approach controls and centers. % h1 h. {' s, jThey provide ground control services to aircraft, - D5 e, M9 m, X n& Xvehicles, personnel, and equipment on the airport7 P( S4 B; L' t# F4 p p movement area.# b! U5 n; w5 g9 K NONCOMMON ROUTE/PORTION- That segment# Q2 G3 `) J4 \! U9 f: M, e of a North American Route between the inland3 G! j9 Z; Q; A navigation facility and a designated North American / x8 ^. |* F- s: }0 i# |0 Tterminal. ! b. ?' k0 D" r2 L. mNONCOMPOSITE SEPARATION- Separation in0 j0 C# }# {# s9 B& Y6 H' ?2 s accordance with minima other than the composite5 C1 a. i+ k9 k# | separation minimum specified for the area con‐ r' U3 {5 e3 r% h0 n1 e cerned. . J& j0 N# r) l& `( L: A. SNONDIRECTIONAL BEACON- An L/MF or UHF4 B4 `1 ^( ^+ m3 t" o$ |# L radio beacon transmitting nondirectional signals: F# o. \ x5 u* L+ n6 H whereby the pilot of an aircraft equipped with * U1 Y3 G7 _1 Z1 B0 d$ |( ~% pdirection finding equipment can determine his/her- W9 Y5 f( T! v: _: E" O5 Y bearing to or from the radio beacon and “home” on or& _8 [% q6 }% j( d8 o4 \$ h track to or from the station. When the radio beacon is; T% N7 O: o# |7 d' F installed in conjunction with the Instrument Landing . @1 a5 ^% ?+ g6 H- }System marker, it is normally called a Compass8 q, s+ F7 ~0 ~5 S2 W7 d/ } Locator. 5 ]/ J; U3 i+ j k: W' i$ z0 V4 N(See AUTOMATIC DIRECTION FINDER.) R0 J/ ]' h. e3 p2 n(See COMPASS LOCATOR.)

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