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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‐ * _6 P" g# Y. u5 X! h5 O0 A. B: H" zing aircraft in a composite route system where, by & _' K4 d3 j. [ d$ tmanagement of route and altitude assignments, a: W$ d6 [% _( @ r4 b) r" }9 Y combination of half the lateral minimum specified for' A# V: N1 @# i3 y the area concerned and half the vertical minimum is- B; S# ]3 a% U- A applied.# H/ p) P1 i ]. A# p# M5 k2 ?; I COMPULSORY REPORTING POINTS- Reporting U6 x6 K! x0 a* L0 [! gpoints which must be reported to ATC. They are9 |) B3 ~: H5 x. V- L6 _. l' e! U designated on aeronautical charts by solid triangles or 7 e, F0 h) `5 z8 Vfiled in a flight plan as fixes selected to define direct 6 G! q# J( b' Z) w9 Troutes. These points are geographical locations" N$ t) L6 Q: t. }+ [! _6 A which are defined by navigation aids/fixes. Pilots & M( Z7 I/ w* R4 ?should discontinue position reporting over compul‐1 u# n& b* l# J5 X$ j0 e( N4 m; s sory reporting points when informed by ATC that$ A! E( J x3 R- x9 j their aircraft is in “radar contact.” % c# J+ y: T6 C/ y% ?# wCONFLICT ALERT- A function of certain air traffic' |+ `: [! P/ P c0 O control automated systems designed to alert radar- _6 G) Z m# Z+ H controllers to existing or pending situations between: Z5 a, w) R6 e. v tracked targets (known IFR or VFR aircraft) that3 Q( x B% `7 I4 n% V' V" c& f; w require his/her immediate attention/action.0 ~/ J( S" c1 K1 h+ i (See MODE C INTRUDER ALERT.). Z& r9 o" R( @ CONFLICT RESOLUTION- The resolution of6 j. W% c( @" d( S potential conflictions between aircraft that are radar 7 W A7 f! _9 J& e" J" s. k% Videntified and in communication with ATC by 8 U ~0 X7 @4 x% censuring that radar targets do not touch. Pertinent 8 J% _1 t( G/ j& F, A# Rtraffic advisories shall be issued when this procedure % L8 @& z+ ^# J3 k9 H; V0 Fis applied.# f7 p2 L6 `8 x8 C0 u; F- o1 F" q Note:This procedure shall not be provided utilizing & U& L/ Z' h6 l1 h/ K; d+ umosaic radar systems.) S) g$ d% C% c3 T3 I' n) k& K CONFORMANCE- The condition established when i2 k. g7 _8 | an aircraft's actual position is within the conformance $ U$ w2 F3 b# H, H( |9 V, k6 bregion constructed around that aircraft at its position, # U. ` j: h+ q1 C, ]3 zaccording to the trajectory associated with the 4 O& h& Z( F A% x$ g8 m& x V" aaircraft's Current Plan. 3 Q2 O% _/ X; U3 ZCONFORMANCE REGION- A volume, bounded 0 f" u% N% H5 B- y& M, P8 S0 Glaterally, vertically, and longitudinally, within which 6 j- b2 K- a$ [! u3 {an aircraft must be at a given time in order to be in3 X+ `" E& b% J! C" n. ^ conformance with the Current Plan Trajectory for that : d' \7 c2 u. ?4 f- daircraft. At a given time, the conformance region is . y% x0 Q( m! I9 g! G1 ndetermined by the simultaneous application of the 0 ]$ K r$ {( o; V0 l. j: xlateral, vertical, and longitudinal conformance$ ~- u% c! W: t' Y3 Z bounds for the aircraft at the position defined by time! P7 f1 }/ e1 ?: C9 |: y and aircraft's trajectory. , Q: W! @2 g3 r4 h7 F. mCONSOLAN- A low frequency, long‐distance X" K5 z( e# P' q NAVAID used principally for transoceanic naviga‐% W2 }: |3 Y+ B1 C) N- F! g& }! Y tions.1 _: @( N0 ~4 v5 a# l! m CONTACTa. Establish communication with (followed by the 6 y0 z+ @0 f5 r; X9 m) R7 hname of the facility and, if appropriate, the frequency9 ]) i. t0 E/ c8 L4 [& j0 d to be used).! B6 d: ?5 x% P) t3 ^& G& \ b. A flight condition wherein the pilot ascertains# \8 E; J8 s" v, f3 y0 k8 O. C the attitude of his/her aircraft and navigates by visual ) }+ ^; t4 y- j5 o/ D3 b9 Y6 h8 `9 \reference to the surface. 3 ]& n& L1 V8 r, w% W( s8 N3 k(See CONTACT APPROACH.)/ J' P% ^, |0 D ~3 P# I (See RADAR CONTACT.) 0 _# } k2 B0 s1 q7 \CONTACT APPROACH- An approach wherein an C; A( z" {; V! p/ r. N3 L4 E aircraft on an IFR flight plan, having an air traffic 3 c/ G, j1 Y; R7 rcontrol authorization, operating clear of clouds with # W2 K. X2 L) \ oat least 1 mile flight visibility and a reasonable" R' }: s: D! B w2 _; ] V% |$ N expectation of continuing to the destination airport in z# {' h3 p4 J& r# Xthose conditions, may deviate from the instrument 8 t1 O+ L. s) Dapproach procedure and proceed to the destination0 V9 _1 I9 U) R0 c- M airport by visual reference to the surface. This6 s( t' Q& i& v5 Q1 F& j8 U approach will only be authorized when requested by $ G1 Q( N- u+ f/ f6 I- vthe pilot and the reported ground visibility at the 2 h. c2 V1 F1 B7 |destination airport is at least 1 statute mile.8 g7 x! k% y- i) Q" c4 z: N2 @ (Refer to AIM.) / e: M0 P. F. K0 L* NCONTAMINATED RUNWAY- A runway is f* i0 X0 L# o' o7 Y2 q* cconsidered contaminated whenever standing water, . x9 q9 X3 F) }ice, snow, slush, frost in any form, heavy rubber, or / z; l$ y( P( p7 H7 H6 l8 i- D: z& Fother substances are present. A runway is contami‐, o) S g6 L9 @. w" I nated with respect to rubber deposits or other, E" F+ Y* l5 a) d+ B! r friction‐degrading substances when the average4 ]$ r9 n4 V8 v+ h l/ J friction value for any 500‐foot segment of the runway ! M8 O- ^5 g9 e/ x* r! Iwithin the ALD fails below the recommended : |& w; W. _. iminimum friction level and the average friction value 5 g/ a$ M. q: W9 k6 A/ Z6 v1 x2 J* B" Yin the adjacent 500‐foot segments falls below the ) a c+ Q& O# {- a8 F/ s$ {+ H& h: {maintenance planning friction level.( t% \ t8 ~0 A+ H9 d. o+ ~ CONTERMINOUS U.S.- The 48 adjoining States ' |' Z9 `& R; G$ q+ L Yand the District of Columbia. 7 H) q) D# O/ J: L) _) IPilot/Controller Glossary 2/14/080 `5 [( F( L8 w PCG C-6 4 P5 \! u+ J, f& @CONTINENTAL UNITED STATES- The 49 States 1 y# s9 e; M* r/ c' Qlocated on the continent of North America and the" O# o5 u! P9 p1 H District of Columbia. 9 c/ u1 c: \6 ]) v& VCONTINUE- When used as a control instruction + m5 v! R) S0 b* O- {3 Q6 Hshould be followed by another word or words, h3 ]9 X6 w1 P7 e clarifying what is expected of the pilot. Example: # `/ V I) z$ o5 S L“continue taxi,” “continue descent,” “continue" w6 N+ k6 [, f3 a inbound,” etc.# h, D3 T2 e+ H# v CONTROL AREA [ICAO]- A controlled airspace% t8 T6 e' N8 u% n extending upwards from a specified limit above the. E0 h, M+ t. i" ?: f+ e earth. * y0 {4 F9 o* Y$ _CONTROL SECTOR- An airspace area of defined 8 K$ o/ t% ] g+ `6 K5 Phorizontal and vertical dimensions for which a, U8 ~# u) N# W4 a controller or group of controllers has air traffic 3 X8 u: n9 _8 m6 |control responsibility, normally within an air route - E( ?" F# {% P( z4 A. Qtraffic control center or an approach control facility.+ N S1 H. u0 q: k* M# K Sectors are established based on predominant traffic, f6 U; o @1 w" O flows, altitude strata, and controller workload.9 l/ Y9 F1 Z5 ]0 ]: p Pilot‐communications during operations within a* W- ^2 ` E2 M$ V2 j4 q% N sector are normally maintained on discrete frequen‐ 1 n5 ] ^1 h. }3 w1 e' V4 hcies assigned to the sector. 6 g; }, W: y2 y0 w! `6 P(See DISCRETE FREQUENCY.) ) }6 t2 s8 H0 }( c# f# c; RCONTROL SLASH- A radar beacon slash repre‐ ! O% @4 s8 i9 n+ k) Ssenting the actual position of the associated aircraft.* Z3 @, k7 G! {; K Normally, the control slash is the one closest to the3 O# `# V2 |3 [3 M K interrogating radar beacon site. When ARTCC radar* m9 j9 g6 s- F0 s- C& W is operating in narrowband (digitized) mode, the & _/ h( \* [) Q! m, Q3 Fcontrol slash is converted to a target symbol.- E/ S, Z6 C1 Y' a: o+ } CONTROLLED AIR SPACE- An airspace of 8 D, C9 u5 n- p7 g% udefined dimensions within which air traffic control 3 f) @' r" F$ y6 U2 S1 C) x3 Iservice is provided to IFR flights and to VFR flights* d. B4 Q& Y/ f9 I6 ^& y in accordance with the airspace classification.& `, F# t& W- }& M |, v' l! o- T a. Controlled airspace is a generic term that covers 6 p$ H o2 H2 GClass A, Class B, Class C, Class D, and Class E * J& ]2 e; V; w! F" fairspace. - M: t% c A9 E4 kb. Controlled airspace is also that airspace within 0 B$ R% ]2 G% i# f7 y& _which all aircraft operators are subject to certain pilot, e' _! Y9 m+ u6 k% c qualifications, operating rules, and equipment 0 p- y1 I6 \- Q1 j. Yrequirem ents in 14 CFR Part 91 (for specific : [2 l# k; P9 d3 \4 N6 ]operating requirements, please refer to 14 CFR ; ~/ R& k: Y) U( g y7 r. MPart 91). For IFR operations in any class of controlled ; I. v+ u0 l3 P" x6 N1 Dairspace, a pilot must file an IFR flight plan and / y; ]; d F- S" F) ]! @+ k7 I3 hreceive an appropriate ATC clearance. Each Class B, . ]: Z: v8 S+ J# @ B4 p" k+ o5 K# AClass C, and Class D airspace area designated for an9 b( L$ m: r# Y4 A' J9 C! _ airport contains at least one primary airport around; _: \4 E2 f3 Z% {5 Z0 { which the airspace is designated (for specific % Z' Y0 r6 _6 y& ^( h2 ^designations and descriptions of the airspace classes, 9 n2 ]9 R8 r: K) c0 x4 fplease refer to 14 CFR Part 71). 5 |, ~. h+ C( @5 j" B' Ic. Controlled airspace in the United States is " }* W( D- p9 B$ I) m5 ?' K& |designated as follows:5 K" @5 L" c4 w, O& j4 ~ R% Q 1. CLASS A- Generally, that airspace from8 v# e) F. L0 F+ W- s0 B( g 18,000 feet MSL up to and including FL 600,4 \, r, T; Q. L$ P4 T) N% J: E3 ` including the airspace overlying the waters within 12 ( r- P$ X5 F/ F {* A+ G: }nautical miles of the coast of the 48 contiguous States: w& [$ Y4 T7 u* t and Alaska. Unless otherwise authorized, all persons2 w- C7 v: @. } must operate their aircraft under IFR. " M5 M5 _6 S. o4 z2. CLASS B- Generally, that airspace from the & D- ?7 |1 a8 Y. T2 R9 I; osurface to 10,000 feet MSL surrounding the nation's. y6 S3 v: ` [! F+ `0 t busiest airports in terms of airport operations or ' A! Z% q( s$ O. G6 Ypassenger enplanements. The configuration of each ) f5 `% C9 j' g% d# S3 m+ f: mClass B airspace area is individually tailored and % ]5 C4 O8 L4 fconsists of a surface area and two or more layers ; R0 b$ w8 T/ M6 m, }2 n# s; ^: c(some Class B airspaces areas resemble upside‐down) h" F+ R- P. k# ^- g wedding cakes), and is designed to contain all K9 J# {- h9 q+ S% R# x published instrument procedures once an aircraft3 R7 P0 @& Y) O: S+ G3 |7 s enters the airspace. An ATC clearance is required for: }& T6 M1 S R4 J0 l! V all aircraft to operate in the area, and all aircraft that8 W3 q2 Q, {+ d: i9 d are so cleared receive separation services within the/ y9 W0 d; w, G6 k# G, A airspace. The cloud clearance requirement for VFR+ i# G( E C" t; E4 t' w- ?" g operations is “clear of clouds.”3 j8 r3 z7 o1 p' R, V 3. CLASS C- Generally, that airspace from the Q/ K( d3 S9 i5 g& i7 X surface to 4,000 feet above the airport elevation- I5 ]0 {% f. P (charted in MSL) surrounding those airports that; W& `. v) v! ^ have an operational control tower, are serviced by a : G' b% E& V6 E6 Y7 dradar approach control, and that have a certain ! X# R; o9 e' b/ v/ w m# m* tnumber of IFR operations or passenger enplane‐ % C, L# m+ M: [& z* _2 E: Z& J% bments. Although the configuration of each Class C5 u( [2 m+ }! f7 w4 T; v area is individually tailored, the airspace usually. x8 G- O p$ M: z consists of a surface area with a 5 nautical mile (NM) $ @# R2 p6 J3 ]% J. L1 dradius, a circle with a 10NM radius that extends no # v w! A$ _! k' }lower than 1,200 feet up to 4,000 feet above the1 T! O; U2 m. n& [- {# ~ airport elevation and an outer area that is not charted.8 @- o& a; p& u- j _ Each person must establish two‐way radio commu‐: Z4 k- ]1 w0 ^ nications with the ATC facility providing air traffic - R: n$ E0 v' J: \% k2 E" ]services prior to entering the airspace and thereafter " N" ]3 p: o7 O3 s N" Wmaintain those communications while within the8 j3 ~. j K* V# O/ V; D/ d airspace. VFR aircraft are only separated from IFR" `$ n4 q: s' f3 _ aircraft within the airspace. % x' {8 l8 [& ^1 r(See OUTER AREA.) C; F; _& }- J+ A# h2 G" Q( c4. CLASS D- Generally, that airspace from the; w. z. k. x7 o- R surface to 2,500 feet above the airport elevation 2 g' n( W2 C# g( b" `9 P2 Z5 I(charted in MSL) surrounding those airports that ' I1 Z/ o- E' O8 u+ a9 ohave an operational control tower. The configuration 2 F8 ^ c# K0 r" ?; y, {# G* ?of each Class D airspace area is individually tailored( L% X: C5 T* e5 M and when instrument procedures are published, the, y- g; _' ]( l1 r! ^; z4 }4 C" ~2 F airspace will normally be designed to contain the , k3 L( o' _$ M0 x' F! eprocedures. Arrival extensions for instrument& z) S5 ~) [+ O! }+ N& T- F$ W approach procedures may be Class D or Class E ) i. T0 }' y+ g$ WPilot/Controller Glossary 2/14/08 - ~0 Q1 X; s& i$ L9 ]PCG C-7! M: h# B5 k1 `+ L, d8 `! ] airspace. Unless otherwise authorized, each person 4 K% H: K* v" Kmust establish two‐way radio communications with' X! u* z! u6 Y# w% N3 k, @" [ the ATC facility providing air traffic services prior to , w. j) d: s8 ~ z- n aentering the airspace and thereafter maintain those" u a) }& l; |: [+ T$ u communications while in the airspace. No separation " u+ k# [# x" N: o4 iservices are provided to VFR aircraft.9 X$ b0 b& E% r* y: Q 5. CLASS E- Generally, if the airspace is not % { N3 |& _0 @9 Y- AClass A, Class B, Class C, or Class D, and it is9 m6 s2 |1 b- {& v* a- L. C controlled airspace, it is Class E airspace. Class E 2 N4 c' O: o+ X0 E6 bairspace extends upward from either the surface or a 5 H, N/ v' }- H9 W* @7 _designated altitude to the overlying or adjacent& z) l. j9 b# p7 d& @. j8 p controlled airspace. When designated as a surface( M6 q9 F2 D7 K, `- ~. M. B area, the airspace will be configured to contain all. s2 ]5 c% w! i( z instrument procedures. Also in this class are Federal * @( p4 }" q6 \7 Z# Nairways, airspace beginning at either 700 or 1,200- a0 e3 G; a" P* d5 ? feet AGL used to transition to/from the terminal or en! b) |- Z4 a. j* b8 e) E7 w route environment, en route domestic, and offshore" a) N9 @, X5 q) | airspace areas designated below 18,000 feet MSL. + V! Z2 u$ t" R @, C5 Q: i/ JUnless designated at a lower altitude, Class E/ p. }1 P8 W" @ airspace begins at 14,500 MSL over the United : q) m7 z% }9 `+ f# \9 rStates, including that airspace overlying the waters V1 h1 |- q' z- x within 12 nautical miles of the coast of the 48 + v% l9 E9 r* ~, K- v2 l. n9 ?0 a1 rcontiguous States and Alaska, up to, but not 2 z3 J& P/ X- d- t+ u9 j+ L* `including 18,000 feet MSL, and the airspace above 4 c" U% m) m( eFL 600." ^/ t% @- ?+ e! e" e CONTROLLED AIRSPACE [ICAO]- An airspace: P+ [$ k+ s5 W% v) m M. k of defined dimensions within which air traffic control ' G/ s) x' m. y5 O) uservice is provided to IFR flights and to VFR flights 1 p H5 T; ?! c6 ^) Uin accordance with the airspace classification. 3 e5 v4 \6 s6 qNote:Controlled airspace is a generic term which( B2 t( Q$ s; \! z" w: t covers ATS airspace Classes A, B, C, D, and E. - J! ~. @0 p& QCONTROLLED TIME OF ARRIVAL- Arrival time 4 Y* E7 W" C/ ~' H6 R uassigned during a Traffic Management Program. This & r0 g" t& N* @. n# A* V# W9 N% X( Ytime may be modified due to adjustments or user 2 l7 a* i( v; O( K) Loptions. @5 e# H$ f/ A2 s4 L+ E) R$ g4 X CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.) / x. k5 \$ ], D9 t0 bCONTROLLER [ICAO]- A person authorized to) [3 k6 ?1 r/ d; J provide air traffic control services. A2 Z# D. \; c) W6 O+ tCONTROLLER PILOT DATA LINK COMMU‐ " D: n ~% _/ \) B& \ E6 P5 \' O8 RNICATIONS (CPDLC)- A two-way digital very) [2 D V0 d! w* s high frequency (VHF) air/ground communications. @0 N+ c3 M0 Q! d system that conveys textual air traffic control' `: Q5 l! t0 r0 ]1 p1 R messages between controllers and pilots. 7 ]6 P4 m# q! _; DCONVECTIVE SIGMET- A weather advisory * b1 X+ Z4 \" W$ k7 oconcerning convective weather significant to the5 |8 c7 _$ e+ t6 p1 N7 X safety of all aircraft. Convective SIGMETs are issued * }" n8 w! b9 S% ?* J+ lfor tornadoes, lines of thunderstorms, embedded$ q" N: \9 [2 J9 X. ]( { thunderstorms of any intensity level, areas of8 \& `2 Z2 C, O6 N8 g# x, m thunderstorms greater than or equal to VIP level 4 , F9 F, }; @5 dwith an area coverage of 4 , O* e, n! }$ S+ h% H/10 (40%) or more, and hail 5 e, ~( w8 V, O$ ?1 Z3" w9 b3 L6 K- m0 L" o /4 inch or greater. % m8 S$ G7 i7 c3 @/ W$ h, n6 b(See AIRMET.)3 i5 d S/ j1 q' }' g (See AWW.). c6 g" k$ P9 N/ X$ D# r. Q (See CWA.) 4 B7 V9 t0 u+ ^( D& k3 K" O(See SIGMET.)- o8 B0 U4 e' G: q, e% M" N* a, B (Refer to AIM.) % j8 g* G! l, V1 lCONVECTIVE SIGNIFICANT METEOROLOG‐* |: C" s; I% U0 @; |: \+ I ICAL INFORMATION(See CONVECTIVE SIGMET.)7 h6 J$ d' a9 l# e4 p) O. @ COORDINATES- The intersection of lines of 8 h( c1 ^% B' L" Q) K breference, usually expressed in degrees/minutes/$ M% C4 N+ y I" f+ t6 Z seconds of latitude and longitude, used to determine , C) f3 [6 t* g! P) |position or location. ) k) Y; d" U- M* l: U' v9 nCOORDINATION FIX- The fix in relation to which4 x4 T. i$ Y$ `8 s4 C! s5 K4 L facilities will handoff, transfer control of an aircraft, 9 Q- q, E K: D/ D) tor coordinate flight progress data. For terminal5 D. { N+ B' }8 m( \ facilities, it may also serve as a clearance for arriving ) _1 x, _) T, k1 ~2 J0 aaircraft. # T O m$ s. L, C. |COPTER(See HELICOPTER.): t& z5 `0 ?' V7 x! x/ F7 z d CORRECTION- An error has been made in the + [ }' N; z9 k7 H& {* ?transmission and the correct version follows.9 O1 y6 X! i/ S& i( U9 H: T/ C" ^ COUPLED APPROACH- A coupled approach is an, t: p0 f) ?7 a$ e o$ q: L instrument approach performed by the aircraft 0 j" p" s* l; c$ p q& {3 k/ ~autopilot which is receiving position information$ r0 b8 m$ v9 K! a and/or steering commands from onboard navigation. a+ u& U( Y. ?5 z equipment. In general, coupled nonprecision ap‐8 P0 @! @/ m7 d6 v proaches must be discontinued and flown manually " ~: Y. V- s6 X/ O5 vat altitudes lower than 50 feet below the minimum' c, Z7 p/ ]% E* M* {5 S8 _& L descent altitude, and coupled precision approaches$ a! [4 K7 M( H; C7 f7 { must be flown manually below 50 feet AGL. 2 W e: o, p3 y7 O5 _Note:Coupled and autoland approaches are flown / D3 o3 @4 q, q2 Tin VFR and IFR. It is common for carriers to require . ]. i& v6 D& |/ p, l& }5 i" |+ {( btheir crews to fly coupled approaches and autoland0 ?! @) F. _5 S( L) i( O% d9 A* B5 ^ approaches (if certified) when the weather, e/ ~$ c! t- T7 _: p& U conditions are less than approximately 4,000 RVR. 1 d" T+ R1 e+ K1 u- s w# N6 Q(See AUTOLAND APPROACH.)9 p: ?- A* w; |! r COURSEa. The intended direction of flight in the horizontal ) T* a1 H5 k# J( c$ A9 V: W1 U7 P+ X0 S% Gplane measured in degrees from north. # ~( j# s" Y0 p H4 L0 ]b. The ILS localizer signal pattern usually( L: |1 k+ P0 [2 J3 Q5 Q i specified as the front course or the back course." A o0 T% Y2 r. v$ b/ C' | Pilot/Controller Glossary 2/14/085 J& k9 h: ~$ G; r; ~; C% ^* F PCG C-8 8 M0 k6 ?8 `; |2 Zc. The intended track along a straight, curved, or& b% J* m& X2 u! K8 Q2 ^ segmented MLS path. : q, v8 q F( ]9 }(See BEARING.)! }/ N4 J% G3 X1 ^! B (See INSTRUMENT LANDING SYSTEM.)/ A- D S; A$ x8 D, T (See MICROWAVE LANDING SYSTEM.) 2 q7 Q) K1 }$ v(See RADIAL.) # C0 ]9 [7 _' J. @3 d- @CPDLC(See CONTROLLER PILOT DATA LINK : H% j! e% C1 f) L H [9 TCOMMUNICATIONS.) ( O2 ^0 h5 t/ ^* _+ E& cCPL [ICAO]- |1 N5 s: t: W (See ICAO term CURRENT FLIGHT PLAN.)3 W! }3 A+ n0 G- g CRITICAL ENGINE- The engine which, upon. q+ c/ j. v8 p2 \5 m' @ failure, would most adversely affect the performance, h( ]* s& T2 y2 \& t+ `+ y V or handling qualities of an aircraft. & x4 g1 T) r/ _- T: G( sCROSS (FIX) AT (ALTITUDE)- Used by ATC o$ n: @% z1 @! `( m) A when a specific altitude restriction at a specified fix ! b4 }0 T: i sis required.% M, ^, F: c% C2 `1 e/ p3 z: H CROSS (FIX) AT OR ABOVE (ALTITUDE)- Used/ t& \) K! c7 H6 J3 U) E by ATC when an altitude restriction at a specified fix L! e2 b( Q4 w7 {- ^9 B is required. It does not prohibit the aircraft from( @/ {+ m0 u' ~+ k- J, N5 H6 v crossing the fix at a higher altitude than specified;+ G( z$ D. P7 I# O3 J! s however, the higher altitude may not be one that will. X% Q6 t3 R# W. b* N violate a succeeding altitude restriction or altitude 5 U6 {' v/ [: x4 c* i* x. Iassignment./ _ X) b- |: d; b2 ^$ h (See ALTITUDE RESTRICTION.)& D+ t. I1 r" s# a- X& } (Refer to AIM.) 6 N3 Z8 y+ h. CCROSS (FIX) AT OR BELOW (ALTITUDE)-& [5 x/ Q% u9 |3 f Used by ATC when a maximum crossing altitude at : k S* q {: h; x$ {a specific fix is required. It does not prohibit the + q" ^' }5 R, Y4 N/ N! jaircraft from crossing the fix at a lower altitude; : G& ?) f2 ?, r: Zhowever, it must be at or above the minimum IFR . C4 f& c j& H* P% ? l" M, Laltitude.6 x$ f' o) w- J, Q. p/ b$ p7 [. G# L (See ALTITUDE RESTRICTION.)/ ]" V( _( L+ F; e (See MINIMUM IFR ALTITUDES.)& j) C! A* v# |. @0 S# n (Refer to 14 CFR Part 91.) 6 n& o$ R" X3 }. P) I! zCROSSWINDa. When used concerning the traffic pattern, the, v7 C% Z) b) i word means “crosswind leg.” 5 h+ J; {5 p+ m7 U: G% d(See TRAFFIC PATTERN.)4 I- `6 A# }% ]0 P, ]: T% K' h5 r b. When used concerning wind conditions, the : A3 Q5 ?& U# w( uword means a wind not parallel to the runway or the8 Y9 g8 ]& ~/ i& H8 b- _0 d2 I3 J* N9 G path of an aircraft.6 h# N4 a% f7 q& r$ {( ~% h (See CROSSWIND COMPONENT.) , t; l" x4 J5 S8 d6 x3 YCROSSWIND COMPONENT- The wind compo‐; D7 j# a0 a: H nent measured in knots at 90 degrees to the 0 I* }6 X( {) K! ~: Tlongitudinal axis of the runway. T4 ?' [3 W4 i2 hCRUISE- Used in an ATC clearance to authorize a ; T; }0 i2 ^4 d4 p! k* kpilot to conduct flight at any altitude from the : e' K! i: K1 J- Qminimum IFR altitude up to and including the 5 v7 ` a. q7 N7 g3 h% K* h; \altitude specified in the clearance. The pilot may" g# n S% M( Y; N3 G level off at any intermediate altitude within this block5 c; x' o- c. A0 W" b% q of airspace. Climb/descent within the block is to be& K; ^5 W! h8 l* _ made at the discretion of the pilot. However, once the 7 Y2 h: q) c/ f+ Cpilot starts descent and verbally reports leaving an 2 c# c% K9 ^6 |0 x; ?altitude in the block, he/she may not return to that& m6 M6 u# s; }" ]8 \ altitude without additional ATC clearance. Further, it + u6 _3 x: C4 P8 i* Zis approval for the pilot to proceed to and make an* l9 m( } Y2 E! f approach at destination airport and can be used in / i* [, J: k- }( W/ l, Lconjunction with:7 s# D1 w" u2 y" I+ _ a. An airport clearance limit at locations with a( z' f. R3 N: ~+ j1 \: x standard/special instrument approach procedure. The6 ?( K+ p& L5 f" j) I CFRs require that if an instrument letdown to an 2 m5 y8 y4 j- M/ Zairport is necessary, the pilot shall make the letdown; N/ W5 @4 L+ Z in accordance with a standard/special instrument 1 {5 G" T+ [1 M! T3 O0 eapproach procedure for that airport, or5 R% @+ L0 {! `! Q4 U b. An airport clearance limit at locations that are* w& y/ D, [! R) y; T within/below/outside controlled airspace and with‐ 6 k" x5 e! I, ]+ Gout a standard/special instrument approach " d: c/ d8 |" D7 f H# T0 |; F% ]procedure. Such a clearance is NOT AUTHORIZA‐ - E. x" b" g8 c! X/ j; e9 I# B' STION for the pilot to descend under IFR conditions2 |7 B7 s6 D5 w( ~) a* X. }3 A below the applicable minimum IFR altitude nor does. G4 C1 _( X% M8 }, j4 |$ J% d. \ it imply that ATC is exercising control over aircraft6 j1 q. O1 `, `* N' ` in Class G airspace; however, it provides a means for2 l' q1 x2 p& H' E1 \( Q the aircraft to proceed to destination airport, descend, $ ~, Y% W% O/ z" r; z! u9 ]and land in accordance with applicable CFRs& a! w/ r( L$ @0 Y governing VFR flight operations. Also, this provides 9 P2 b8 R! p* B! [" L, Isearch and rescue protection until such time as the' z0 }) z1 y8 q% o IFR flight plan is closed. ) z8 r3 H' r1 X(See INSTRUMENT APPROACH ( Z2 N. K' v! {- X* cPROCEDURE.): t8 y: ]9 L9 e CRUISE CLIMB- A climb technique employed by' _+ W/ F' g0 A+ S aircraft, usually at a constant power setting, resulting+ M a4 {8 N i8 c% }, Z in an increase of altitude as the aircraft weight& o1 I1 F8 B( I8 X& t decreases./ K5 _! x2 k1 c- z CRUISING ALTITUDE- An altitude or flight level% }2 ?& }$ E' L8 R; d% x+ d9 @ maintained during en route level flight. This is a 2 n, T8 W( e4 P0 w/ J: D6 Pconstant altitude and should not be confused with a+ b# c' ?+ u: L) I9 ` cruise clearance. 6 Q3 Q% `) Z: E/ S4 ~7 Y(See ALTITUDE.)) x3 Y0 K1 r3 s' i9 L( w) s (See ICAO term CRUISING LEVEL.) $ y1 K# R; p. L; B( T6 L1 J5 d {CRUISING LEVEL(See CRUISING ALTITUDE.)3 s% Z% `1 G) n2 T4 { CRUISING LEVEL [ICAO]- A level maintained. h7 b) O# x m% v& l" u during a significant portion of a flight. 7 ~( r; ^( @" k7 v5 DPilot/Controller Glossary 2/14/080 [" _8 H0 u! U" } PCG C-94 P4 g+ r9 ?! ~- B- x5 C CT MESSAGE- An EDCT time generated by the $ E* \$ Z9 {: f+ i7 K0 zATCSCC to regulate traffic at arrival airports.4 S5 w7 Z4 [2 Y( B- j! N% m* ^ Normally, a CT message is automatically transferred " q9 [: b5 }0 h4 p2 ~from the Traffic Management System computer to the0 C* N6 o6 l9 n NAS en route computer and appears as an EDCT. In5 W0 o" Z& f6 b6 E4 ?/ U6 r the event of a communication failure between the 6 k7 x5 f% w! `TMS and the NAS, the CT message can be manually# o% m$ p, \ W+ i7 H A/ k8 U, Q, ` entered by the TMC at the en route facility. ; p9 T( U" V9 [( L' ]4 ~CTA(See CONTROLLED TIME OF ARRIVAL.) 7 F) A. N2 |7 G5 x9 U(See ICAO term CONTROL AREA.)7 U5 w& K, d; C7 e! P! O) r5 m! A CTAF(See COMMON TRAFFIC ADVISORY 8 T* a/ ^- u- I4 T/ {FREQUENCY.) 2 B' f, s/ n" \2 \9 MCTAS(See CENTER TRACON AUTOMATION $ U9 \4 z) _' | E5 ~SYSTEM.): ]3 f( A* H% c f CTRD(See CERTIFIED TOWER RADAR DISPLAY.) G" E5 |: x! c6 b CURRENT FLIGHT PLAN [ICAO]- The flight 5 k' |' i/ G% p0 I( F8 |8 O% hplan, including changes, if any, brought about by : {- l* [$ \) I4 S1 `8 ?! i/ U. Z, i1 Asubsequent clearances.8 E; C, T1 M1 Q1 _ CURRENT PLAN- The ATC clearance the aircraft ) Q% _; u# u& ?7 V! d9 p: rhas received and is expected to fly.+ k2 a" w& v0 Q6 W5 ~ CVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE& q# H: l8 h4 m8 @( ]" u1 b APPROACH.) 2 y# z- Z$ O$ a4 E. h! ]CWA(See CENTER WEATHER ADVISORY and$ D/ z! q8 K4 W# j: A/ n0 e3 M6 j3 M WEATHER ADVISORY.) , J$ w5 G% {* \6 [# ^Pilot/Controller Glossary 2/14/08 : {- \1 O" H2 \4 j- p2 H, ?PCG D-10 I# _4 }' E# z" U' _3 _' N' f5 C D ; X; v1 J! b/ J& v7 o. YD‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL ) a3 B; {) U2 j+ q* Z' `INFORMATION SERVICE.) 6 [6 D' r9 i+ s5 x8 K2 sDA [ICAO]-, V* V) ^6 z- K! N6 r (See ICAO Term DECISION " }5 H% S) p! Y9 gALTITUDE/DECISION HEIGHT.)9 Y. [9 Y# [$ e- g DAIR(See DIRECT ALTITUDE AND IDENTITY/ |$ Q) x. C9 u7 g; E1 |, U READOUT.)9 X; f" f" K6 h DANGER AREA [ICAO]- An airspace of defined 8 \ f+ W' m; Cdimensions within which activities dangerous to the ) A) {) \! B$ X f# ^3 Hflight of aircraft may exist at specified times. + T. y; G: s: b: \Note:The term “Danger Area” is not used in 8 p* L7 l+ K0 o* }7 [: sreference to areas within the United States or any + V1 B# l4 n: d: Sof its possessions or territories.5 c6 t5 z( L( O2 E2 v DAS(See DELAY ASSIGNMENT.) 5 J: T3 o. o4 R4 d6 ODATA BLOCK(See ALPHANUMERIC DISPLAY.)5 T( t4 m3 Q& j9 I DEAD RECKONING- Dead reckoning, as applied 0 N V- k0 P" J+ l) R! Y, Uto flying, is the navigation of an airplane solely by* l) @8 y% c, B/ U0 n5 o( s means of computations based on airspeed, course,9 m# ~! e: `* B+ f7 E/ @ heading, wind direction, and speed, groundspeed, i, ]* L0 T; ?+ D+ ]% jand elapsed time. : A4 d" \3 E1 }$ cDECIS ION ALTITUDE/DECIS ION HEIGHT. R6 O# i8 V. ~ [ICAO]- A specified altitude or height (A/H) in the# c9 ]* g, K" U- B1 Q( j9 j precision approach at which a missed approach must ' O$ c0 D$ q% O9 e) a8 Gbe initiated if the required visual reference to % k$ H% S7 a) z; u, Ycontinue the approach has not been established. 8 `8 }4 @+ U. l0 {. _0 O, VNote 1:Decision altitude [DA] is referenced to& H: n* ^5 j$ B _/ v1 Y mean sea level [MSL] and decision height [DH] is! l. S0 K' f& p! ~ referenced to the threshold elevation.2 Z ?6 ~3 h8 j' H1 ~4 r/ e Note 2:The required visual reference means that n" k7 d3 t! \9 Y6 b# Fsection of the visual aids or of the approach area & i, h+ _. Q2 ^$ _which should have been in view for sufficient time' a. B; ~2 P2 m for the pilot to have made an assessment of the P# t! }; o" S& |8 T# s( Haircraft position and rate of change of position, in( s8 L$ q3 P+ ?" [ H* c8 S relation to the desired flight path. 0 P# W$ Y, o* Q4 jDECISION HEIGHT- With respect to the operation8 D- ]8 b [( V9 V2 K of aircraft, means the height at which a decision must ; ]2 [/ ~2 Y' k& |# xbe made during an ILS, MLS, or PAR instrument4 k& [' p1 q2 C/ _ approach to either continue the approach or to execute" R' x) C9 z! J3 R; |% O0 |9 x a missed approach. : D5 m3 k0 ?: f2 D+ D(See ICAO term DECISION 2 d1 V4 _7 p t, e t6 ]; UALTITUDE/DECISION HEIGHT.)# N% Y& I3 ~: z+ d; T# C DECODER- The device used to decipher signals ! c! e' J* u6 K2 Ureceived from ATCRBS transponders to effect their ) c! I( h3 A- Z* v5 gdisplay as select codes. # f( s% G" e3 k7 i6 G! J(See CODES.)0 G0 X3 c7 \1 U% _1 U (See RADAR.) ( a0 c5 O& N7 M: Y U* vDEFENSE VIS UAL FLIGHT RULES- Rules8 F- J, o0 Y' d; n applicable to flights within an ADIZ conducted under 6 j6 |) C/ }- s% nthe visual flight rules in 14 CFR Part 91. 8 s, q% r- ^; K% R t(See AIR DEFENSE IDENTIFICATION ZONE.): `8 L0 P' x5 c6 t0 h; Y (Refer to 14 CFR Part 91.) . P! R9 A/ d# y6 S% H(Refer to 14 CFR Part 99.); k' M+ @5 w: K6 ^& c, Z7 e: i DELAY ASSIGNMENT (DAS)- Delays are distrib‐$ c) n0 F$ p, V, W, z5 j/ q, u8 ^7 C uted to aircraft based on the traffic management * y# C& j& }8 g8 _) Wprogram parameters. The delay assignment is \1 f8 G0 y: p$ Wcalculated in 15-minute increments and appears as a 6 t( l% O/ A* e7 Q& }5 itable in Enhanced Traffic Management System5 _. `9 c% _. _5 [6 T (ETMS).; k4 H: j# B8 R' R DELAY INDEFINITE (REASON IF KNOWN) 8 A, v0 f5 F4 ]EXPECT FURTHER CLEARANCE (TIME)- Used0 Z+ k% ?) b' N6 V: | by ATC to inform a pilot when an accurate estimate. u" |) E: G$ `# n0 w of the delay time and the reason for the delay cannot0 R7 t' X+ h0 v: w immediately be determined; e.g., a disabled aircraft % T- M& p# f+ s; B! X- won the runway, terminal or center area saturation, 7 ?1 x2 h& G! k. Y" j% _& Y8 X7 v) q. @weather below landing minimums, etc.! @9 k; R2 C }7 d7 h: N (See EXPECT FURTHER CLEARANCE (TIME).) $ f/ O _. n7 E$ z dDELAY TIME- The amount of time that the arrival ) K% _% U# Z6 U, i1 Q% j) _7 Vmust lose to cross the meter fix at the assigned meter8 o$ v9 e, L5 F7 E: z1 J/ X fix time. This is the difference between ACLT and7 T/ @; t' }+ @8 y+ R VTA. T3 Y6 E' q ^7 e. L4 VDEPARTURE CENTER- The ARTCC having % i) C/ B# v3 hjurisdiction for the airspace that generates a flight to , ^9 y3 Y: w4 F2 tthe impacted airport.( m) s" p8 t4 p4 w- x. K7 S( ] DEPARTURE CONTROL- A function of an 7 w# D- K' z/ t3 c- ?' y! d; j: @; tapproach control facility providing air traffic control # Q) I! E) d: n J/ lservice for departing IFR and, under certain + X% h1 D. O) l4 B8 i3 S5 qconditions, VFR aircraft. . U6 J7 R3 I T' d7 ~(See APPROACH CONTROL FACILITY.): a" L( G8 I/ K0 I R' `, T (Refer to AIM.) ! Z3 U p" f* H5 `DEPARTURE SEQUENCING PROGRAM- A8 k/ l+ _) g6 x+ o7 b program designed to assist in achieving a specified 2 V# H1 g! j- B+ G' ?# Y+ Binterval over a common point for departures., L3 G8 F7 C Y7 s' D x/ ^' z Pilot/Controller Glossary 2/14/08 / X+ c3 O" f1 K2 B6 t) w. S5 }5 ]PCG D-2* N D1 f- k& z3 t J: @# i DEPARTURE TIME- The time an aircraft becomes , Y! t. v, e4 Y$ Q Kairborne. # S9 X8 n# {- G& a1 C5 nDESCENT SPEED ADJUSTMENTS- Speed decel‐ / ]* s' h1 M1 c2 Geration calculations made to determine an accurate 2 O% u" a) w9 Z. D) y4 h( FVTA. These calculations start at the transition point / r9 A/ z5 L- S- Nand use arrival speed segments to the vertex.# _( ^6 H' c0 n7 b DESIRED COURSEa. True- A predetermined desired course direction 3 Y' u, ?* C8 o7 U; a) J2 Z% }to be followed (measured in degrees from true north).4 r+ Y$ p* x6 ]5 o1 O$ a+ ~) o2 X b. Magnetic- A predetermined desired course- y1 w6 h. P8 E# N4 A7 h( z direction to be followed (measured in degrees from- E0 v z6 E" G local magnetic north). 3 ~2 d" |. v2 ~; m& HDESIRED TRACK- The planned or intended track $ l, U8 X3 [9 t2 F, _between two waypoints. It is measured in degrees # i: a$ A0 Z! t$ bfrom either magnetic or true north. The instantaneous" e3 N# D8 q7 J$ L" P+ ^* b angle may change from point to point along the great& V8 {; D* a) x- P" m0 ^+ G circle track between waypoints.3 M1 }1 i; l. U DETRESFA (DISTRESS PHASE) [ICAO]- The9 {; h% ]: d2 g: x code word used to designate an emergency phase2 p8 F+ J- k- n8 @ wherein there is reasonable certainty that an aircraft, P2 N& U5 `5 ^* t and its occupants are threatened by grave and: N& ~3 _3 t- d& d7 l5 c imminent danger or require immediate assistance. 3 J# I( H2 Z* v- c6 fDEVIATIONSa. A departure from a current clearance, such as an " v: J: F7 F; Y& R$ Z! a. u3 ?off course maneuver to avoid weather or turbulence.3 ~% E& [: r8 c. ?! h" i" T7 o b. Where specifically authorized in the CFRs and . P9 g# I6 \6 n5 G( Brequested by the pilot, ATC may permit pilots to ! d- Y, c N2 m \deviate from certain regulations., b; j1 e- S; E4 | (Refer to AIM.)5 u# E( i! |$ K M DF(See DIRECTION FINDER.) $ g/ D1 h( [6 d4 U' _ ~% fDF APPROACH PROCEDURE- Used under 1 Y% }0 x- E& q5 d% uemergency conditions where another instrument" q; n. ?1 ~. X( D! \ approach procedure cannot be executed. DF guidance & x+ k3 G3 j- z) nfor an instrument approach is given by ATC facilities6 `1 x" H5 ^2 D5 p- a6 u with DF capability.* P6 F2 I$ E0 e1 i (See DF GUIDANCE.) : G0 N) ]( h, k8 A$ }+ }" M; n(See DIRECTION FINDER.)) J+ @5 { A& s D \6 w2 q (Refer to AIM.)4 w: W0 `% }0 e+ E3 Y% V/ s DF FIX- The geographical location of an aircraft 8 M' g; l9 i' k' Q2 ~obtained by one or more direction finders.& `( k3 ^/ L. t' i, j: g (See DIRECTION FINDER.)9 ?" y: W( } [7 ?( M; I' W8 } DF GUIDANCE- Headings provided to aircraft by 1 w" G& s6 w) s2 q1 `facilities equipped with direction finding equipment. " ^; L8 [- s* H, j/ x* s, AThese headings, if followed, will lead the aircraft to8 ]/ Y/ |! X3 K4 M a predetermined point such as the DF station or an 1 ~" G8 x) I1 N) i. E5 q' {airport. DF guidance is given to aircraft in distress or8 I7 \1 L* w) a to other aircraft which request the service. Practice + q. [4 b$ R ~* A2 CDF guidance is provided when workload permits. + U0 I8 }! E/ B; }(See DIRECTION FINDER.) " ?) r2 X0 E' e% D- m/ V3 Y1 i8 q6 k(See DF FIX.)& N g; G" c/ w (Refer to AIM.) 3 e# K7 x; z! U* m8 t* t. Q- w+ VDF STEER(See DF GUIDANCE.) & [! D ^" t' `+ I. W& pDH(See DECISION HEIGHT.) : ~8 V9 x2 w# g; B8 l$ F: J! CDH [ICAO]-/ ~/ Z- l" R1 n1 @# ]. s5 b (See ICAO Term DECISION ALTITUDE/ $ |: M1 }. x5 U" ~6 m4 g0 dDECISION HEIGHT.)' F8 U9 V4 x. [6 o( n DIGITAL‐AUTOMATIC TERMINAL INFORMA‐9 h% Z4 N4 d0 f! J TION SERVICE (D‐ATIS)- The service provides+ d' P0 `! j) [" ]9 T' c text messages to aircraft, airlines, and other users( U$ A9 s6 L. M% H! b) L5 f outside the standard reception range of conventional - }5 H3 W# q) R5 w( I: CATIS via landline and data link communications to # E: ?, Y# A( f# E/ `the cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to 8 n5 m5 f1 n0 F1 Wall aircraft within range of existing transmitters. The # W: Q, w' A! vTerm inal Data Link System (TDLS) D‐ATIS : m/ {$ a J& W* f% |: vapplication uses weather inputs from local automated ~" m7 b9 T- E/ y4 }5 |5 C7 R/ k% [; Y weather sources or manually entered meteorological/ |3 d& O, L; B: r- F: Z$ V data together with preprogrammed menus to provide8 C* Q$ S2 }5 ~3 `0 V1 d standard information to users. Airports with D‐ATIS! q% `! X; Z2 B! `3 q capability are listed in the Airport/Facility Directory. * I8 ~& \! v2 C2 |# m4 i m; [DIGITAL TARGET- A computer-generated symbol 9 Y( Y9 J9 S% k/ M4 ]representing an aircraft's position, based on a primary7 Z0 ], H# ^ ^' Y7 z: R' a return or radar beacon reply, shown on a digital3 Y9 F) I; k. [) b/ t display. 8 k8 M/ E3 g( ODIGITAL TERMINAL AUTOMATION SYSTEM, K, y. V% ~: Q* f" F. [ (DTAS)- A system where digital radar and beacon 2 E, ~; G# v% ~& y/ fdata is presented on digital displays and the ; U7 h: w$ E z& V' V/ E( ^$ Hoperational program monitors the system perfor‐% v3 ?( H# v% [; Z1 X6 S mance on a real-time basis. 0 E& Y9 h: O5 _DIGITIZED TARGET- A computer-generated 2 e2 ^0 ]+ C D. a- k& ?indication shown on an analog radar display resulting * v: J6 z6 C: h* l( C" M0 Qfrom a primary radar return or a radar beacon reply. 9 m$ ~' D" \5 F! eDIRECT- Straight line flight between two naviga‐0 y. G) }& \ N9 e tional aids, fixes, points, or any combination thereof. : Z% t% b% F C. s4 W( CWhen used by pilots in describing off‐airway routes, ' }7 }* |% n2 w- c+ v i1 |points defining direct route segments become ; Z4 o( w8 d* q6 Q) c) y% Bcompulsory reporting points unless the aircraft is # `5 d5 `- [, k' nunder radar contact.+ c* f* y' w% o: E3 C4 h DIRECT ALTITUDE AND IDENTITY READ‐ # L- D8 i* I$ e" U1 JOUT- The DAIR System is a modification to the5 k, i+ V. W5 ?( a! N m& d Pilot/Controller Glossary 2/14/08/ d9 g `' X: ] PCG D-30 P% p' V9 o5 r8 m, ~& f4 z AN/TPX‐42 Interrogator System. The Navy has two * p) P3 O. t* Z- f: tadaptations of the DAIR System‐Carrier Air Traffic 2 p r9 v4 Y0 B/ ~4 |, T5 CControl Direct Altitude and Identification Readout # G& f/ l6 e! o5 \* DSystem for Aircraft Carriers and Radar Air Traffic' Y* t, K9 p J7 R Control Facility Direct Altitude and Identity Readout # l0 E* w/ J. mSystem for land‐based terminal operations. The% F/ g3 C! i3 O7 ~, v DAIR detects, tracks, and predicts secondary radar% p$ o: r) K4 l6 [! A aircraft targets. Targets are displayed by means of4 H, K( R5 c) g. y3 X* i computer‐generated symbols and alphanumeric " B0 D( y$ P# u' n" xcharacters depicting flight identification, altitude, 2 h/ f. q* O" Q( K3 B* _ground speed, and flight plan data. The DAIR System " K3 }: a* u/ l5 I* l5 tis capable of interfacing with ARTCCs. 9 L) W! P2 \2 k! J+ T9 ]DIRECTION FINDER- A radio receiver equipped ! [. K* f/ r% ~7 Xwith a directional sensing antenna used to take+ J+ s5 d! t9 x, n" Z3 L bearings on a radio transmitter. Specialized radio( ?1 A, s |5 r! ?$ [) Y, K direction finders are used in aircraft as air navigation, x: A+ N1 X3 D. F8 |4 z aids. Others are ground‐based, primarily to obtain a ' `# _% M( t6 E$ ?6 {9 t6 s“fix” on a pilot requesting orientation assistance or to0 Q1 l4 A4 [( |, }' v locate downed aircraft. A location “fix” is established3 K- V/ t" X! f* Q7 v& D9 _8 T by the intersection of two or more bearing lines, v# C! _, f" }! l2 x8 J plotted on a navigational chart using either two& j8 ]; |5 V7 D b N' ^: k separately located Direction Finders to obtain a fix on; M. C* t$ p2 j) k) q" |4 Q, [ an aircraft or by a pilot plotting the bearing+ u8 L/ O9 _7 e* I indications of his/her DF on two separately located # l. O3 D# [7 C% ]ground‐based transmitters, both of which can be7 [ H& T; F v; J j. A identified on his/her chart. UDFs receive signals in0 Z' U: n* X8 N9 D4 f8 H the ultra high frequency radio broadcast band; VDFs# g H M2 W$ h) z! L in the very high frequency band; and UVDFs in both . v" ~+ L: u2 Tbands. ATC provides DF service at those air traffic$ z: S: Q. x% F) T$ F. I control towers and flight service stations listed in the 3 J, g; i, k- v4 v" G% AAirport/Facility Directory and the DOD FLIP IFR En4 \: |2 j, X" c- ^0 g4 X Route Supplement.8 m* M; b$ l% ~+ V& b6 a (See DF FIX.) 2 P; P7 `* M) H1 {$ E" w* w4 c1 c" b(See DF GUIDANCE.) + @& k) I- Y4 L xDIRECTLY BEHIND- An aircraft is considered to # k" K4 M) G! k9 _/ J% }/ X' D& q- ybe operating directly behind when it is following the7 b0 f# f: W+ w: A3 K actual flight path of the lead aircraft over the surface0 b- a7 Z+ p" I+ V of the earth except when applying wake turbulence 5 ^# a) y9 Q" Q2 u D! z2 [separation criteria. " k( _9 @3 x ]# KDISCRETE BEACON CODE(See DISCRETE CODE.)) `. {; b( O+ [0 n DISCRETE CODE- As used in the Air Traffic " N' s+ c6 k, {! |4 J4 v% _* zControl Radar Beacon System (ATCRBS), any one/ d; S! Y9 w8 C! I7 B of the 4096 selectable Mode 3/A aircraft transponder6 X6 U# c! U1 W! `& s" ~1 D! g; [ codes except those ending in zero zero; e.g., discrete ! }' h! \9 v0 p7 W; n2 b5 fcodes: 0010, 1201, 2317, 7777; nondiscrete codes: 4 L' C: Q4 [+ Z0100, 1200, 7700. Nondiscrete codes are normally. L1 x5 z g' u G# s$ S* g reserved for radar facilities that are not equipped with. q" M F- O! B; K2 p3 h0 @ discrete decoding capability and for other purposes8 y- a. z; y1 F. `! b such as emergencies (7700), VFR aircraft (1200), etc., ^: H* e" ~4 q) W (See RADAR.); a3 {; x7 K6 V8 D) { (Refer to AIM.)( t3 V5 s/ I: W) O* z DIS CRETE FREQUENCY- A separate radio1 Y; J8 \. R: o- g$ u frequency for use in direct pilot‐controller commu‐/ D/ W R. ~- j( ?9 Y nications in air traffic control which reduces % u; M: f& J' Sfrequency congestion by controlling the number of ) A. I# |- X' i* Z# Paircraft operating on a particular frequency at one. X2 s K/ D* j! y6 r% L f time. Discrete frequencies are normally designated ' E! O6 S5 [1 P$ Gfor each control sector in en route/terminal ATC& d) f$ x" ^( E. Z* F+ F. Z) y/ y facilities. Discrete frequencies are listed in the U( F* m# C% [; I( G# n( P- `Airport/Facility Directory and the DOD FLIP IFR En) q% I# x- X$ F. o5 d3 x Route Supplement. 3 Y1 [" K* ?5 O% v3 u+ f9 t(See CONTROL SECTOR.) 1 S: ]/ g- v0 T3 r8 mDISPLACED THRESHOLD- A threshold that is- X ]. U0 i; b) q located at a point on the runway other than the 0 _, T' r! `7 E I, _9 i# I2 Zdesignated beginning of the runway.4 B2 A/ a7 U% U* m8 C* N/ o (See THRESHOLD.)/ s3 P% G3 b2 F1 c$ H, H (Refer to AIM.) ! J5 Y5 V' s' M$ v$ VDISTANCE MEASURING EQUIPMENT- Equip‐8 L. i" E/ e2 E" k7 N ment (airborne and ground) used to measure, in( `& v" A6 D3 f nautical miles, the slant range distance of an aircraft - G% \& F3 E+ Afrom the DME navigational aid.% }, H {5 y$ M# Q3 J9 @ (See MICROWAVE LANDING SYSTEM.) * Z% ^+ q9 [5 A9 r(See TACAN.)8 L0 X+ i) y# N5 k3 Z (See VORTAC.) # {! z/ f6 Y Z' {, `& HDISTRESS- A condition of being threatened by 0 a# O2 ?: _1 b: M# Z0 U# }serious and/or imminent danger and of requiring , s3 ?5 H, z. j" T: f4 Qimmediate assistance.1 h/ d- @1 ^ Y% e- G0 l% j2 q6 O5 p DIVE BRAKES(See SPEED BRAKES.) # U3 E2 O0 F1 O7 M' [* JDIVERSE VECTOR AREA- In a radar environ‐ 1 A, P D3 [; W; ^( }ment, that area in which a prescribed departure route5 E5 s; Y& U* \# n6 ^ is not required as the only suitable route to avoid 4 [- K& x1 u7 q7 sobstacles. The area in which random radar vectors 4 X. [. H. R) ]- b h0 r. j3 Ebelow the MVA/MIA, established in accordance with 1 J1 ?% S1 q* F7 F3 \the TERPS criteria for diverse departures, obstacles6 s# j% b ]; [% i and terrain avoidance, may be issued to departing6 T7 j) S$ w: a4 G z* I$ W aircraft. 7 }9 {. z' Z, S0 ?& F; ?DIVERSION (DVRSN)- Flights that are required to , h# m4 I- V2 ?, |# k" ]. pland at other than their original destination for * e2 @& D1 j# G% ]* rreasons beyond the control of the pilot/company, e.g. 1 E0 x9 {6 Q. zperiods of significant weather. & s5 ^8 z2 F0 JDME(See DISTANCE MEASURING EQUIPMENT.)& n& H) z; m9 {( a6 y Pilot/Controller Glossary 2/14/08; v# Z( [7 N9 `$ a5 Z) T PCG D-46 N t* T6 d; C DME FIX- A geographical position determined by y. @- @# j4 U0 Sreference to a navigational aid which provides ' b+ }) g" @1 |. m! d" s, \4 x; W/ P- Rdistance and azimuth information. It is defined by a i, v$ i4 B8 _9 W2 @3 n- D/ @ specific distance in nautical miles and a radial,9 l* f% K# h% Z4 H azimuth, or course (i.e., localizer) in degrees + L* A0 t/ o8 O* s* Wmagnetic from that aid. . i3 w8 i- t6 N(See DISTANCE MEASURING EQUIPMENT.)3 A* O% {$ F) x, Z. O (See FIX.) 3 ~5 I6 i- k( \+ i1 O7 }(See MICROWAVE LANDING SYSTEM.)4 \' K) X D9 u DME SEPARATION- Spacing of aircraft in terms of- l- t5 N9 j3 L8 H distances (nautical miles) determined by reference to2 ~+ Q5 c9 c/ U: Z6 P7 N( P distance measuring equipment (DME). / \# ^ [3 R+ N; f; b& b+ t/ y* i z(See DISTANCE MEASURING EQUIPMENT.) + D8 G4 B- D8 {9 e% r i4 ]DOD FLIP- Department of Defense Flight Informa‐+ V* a" G" j+ T: F4 i* W6 E tion Publications used for flight planning, en route,( [1 |. V4 X" s! G, W/ n and terminal operations. FLIP is produced by the# A% B+ c' \) |, ^9 r { d National Imagery and Mapping Agency (NIMA) for7 w1 A, Y- b$ I- \: K3 z A& ?4 D world‐wide use. United States Government Flight4 x6 s* V- H; y; Z9 j6 Z Information Publications (en route charts and ' H7 g6 k; b i; H* Sinstrument approach procedure charts) are incorpo‐ X. g' ^* h$ @5 v" @3 hrated in DOD FLIP for use in the National Airspace: z8 P# \1 @: B) r8 ^- O9 ^ System (NAS). . O$ u. \% p+ ?( l' _DOMESTIC AIRSPACE- Airspace which overlies : ^0 X- T' a& x2 Lthe continental land mass of the United States plus, s# g' p! A6 @/ l7 Q Hawaii and U.S. possessions. Domestic airspace# M: o' b4 ^# A! ? extends to 12 miles offshore. - |* a& D. g0 C8 r3 EDOWNBURST- A strong downdraft which induces - R" {1 X* _* G$ n8 x" V6 x( ian outburst of damaging winds on or near the ground. 2 O' H+ @7 J& ]" F1 }( `Damaging winds, either straight or curved, are highly 0 V2 M$ R8 ]8 p$ D b" bdivergent. The sizes of downbursts vary from 1/2, f4 N2 e0 K2 M" h, [& U* ] mile or less to more than 10 miles. An intense 1 S. r+ ^( @ U' ~! o- u7 Y! vdownburst often causes widespread damage. Damag‐ 2 C+ u2 f8 d' ]7 l9 ving winds, lasting 5 to 30 minutes, could reach speeds6 n' D+ h7 f3 j5 v as high as 120 knots.1 N7 r; ]0 L5 B DOWNWIND LEG(See TRAFFIC PATTERN.) & f- |1 U5 K( j% I5 TDP(See INSTRUMENT DEPARTURE PROCEDURE.)* ]+ Q% c7 a! W# q DRAG CHUTE- A parachute device installed on' j8 S; R; V7 D! [" l. |: t certain aircraft which is deployed on landing roll to2 M+ e) A0 u- M assist in deceleration of the aircraft. ! k5 r+ _; y! z/ \8 ?DSP(See DEPARTURE SEQUENCING PROGRAM.) ; i6 H% f. ]4 u' N( XDT(See DELAY TIME.) + O6 R) v4 q# ^0 Z' S* x! c* pDTAS(See DIGITAL TERMINAL AUTOMATION 6 G& S" E- x2 M& ^3 dSYSTEM.)+ [. r( i4 ?4 T8 N DUE REGARD- A phase of flight wherein an' |. ]5 p4 R1 w2 H- I }2 E aircraft commander of a State‐operated aircraft ) c8 q- H& E0 O+ v7 Bassumes responsibility to separate his/her aircraft" W! D& u) }- t5 q5 ^ `: @ from all other aircraft.3 C/ F' }0 l2 { n5 o (See also FAAO JO 7110.65, Para 1-2-1, WORD( ^1 t1 F2 [- M* M, B0 b MEANINGS.) $ `. o; N+ ?: \9 d. B0 sDUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY) A: h: Z* T' Y RUNWAY.) 5 L3 I9 B6 Z/ N! \) g; mDVA(See DIVERSE VECTOR AREA.). O& V- z; s; O! X DVFR(See DEFENSE VISUAL FLIGHT RULES.)& n, Y1 C$ r/ g; }: }/ E DVFR FLIGHT PLAN- A flight plan filed for a VFR3 F% M3 p, W2 {, j aircraft which intends to operate in airspace within& V2 ~3 O6 J& F: R' g( |6 v9 p# z which the ready identification, location, and control ( Y) ]7 Q ]5 c$ Z& e0 A2 |of aircraft are required in the interest of national 0 B/ J& b2 v$ h/ _2 Zsecurity.2 u* ]& i' u3 P) w DVRSN(See DIVERSION.)0 B% B$ R$ F. T6 T" B DYNAMIC- Continuous review, evaluation, and/ E8 D- s8 B* a3 F+ {1 h change to meet demands. ) |% M& I" P/ Q. H$ b+ _- QDYNAMIC RESTRICTIONS- Those restrictions % S( Y# s3 Q1 D* `' k! F) x aimposed by the local facility on an “as needed” basis: y4 F% |) _6 w, u0 v to manage unpredictable fluctuations in traffic9 l. m9 I1 r( b) N% E demands.) o" K4 x! ]7 _3 u% N2 U2 h' r Pilot/Controller Glossary 2/14/08; k7 H% [% f' b* N1 {; r" y- h! j PCG E-1$ D% M# i% Q3 K1 x E }; F& D5 [+ e) M- Y: i& \EAS(See EN ROUTE AUTOMATION SYSTEM.)- ~" s& b; x2 [: I& B7 R, q2 R EDCT(See EXPECT DEPARTURE CLEARANCE! a7 u; F) O: L8 o) | TIME.)& o/ Z: L/ T4 n; M8 H EFC(See EXPECT FURTHER CLEARANCE (TIME).) 1 b* W. u! m" U) h. X( CELT(See EMERGENCY LOCATOR TRANSMITTER.)/ b" Y% O" C+ r- o, @& g EMERGENCY- A distress or an urgency condition. / F7 X* J0 ]$ ]7 C) s3 N# C, Z# TEMERGENCY LOCATOR TRANSMITTER- A * n" u/ J- S- Q3 U* K Y p: eradio transmitter attached to the aircraft structure : B* y5 X: X1 J: Z I- @which operates from its own power source on" J( f/ c8 j2 s 121.5 MHz and 243.0 MHz. It aids in locating+ Y" F1 A h/ u4 t6 j downed aircraft by radiating a downward sweeping , Y. @" |; Z. Z* i0 Uaudio tone, 2‐4 times per second. It is designed to % P p! j+ R0 d5 F$ {1 {0 mfunction without human action after an accident.: A" h' k" M2 }" b3 s8 \, g2 N6 a (Refer to 14 CFR Part 91.)) x# P+ y* e3 a: Q7 c' s (Refer to AIM.)* D! u* U8 ?) a$ C E‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE" O7 S5 V4 D/ \ WARNING.) ! w7 M& w$ A ~: E, U. g KEN ROUTE AIR TRAFFIC CONTROL SER‐ * h$ G# o& r% l5 T+ z* JVICES- Air traffic control service provided aircraft ( A) b& u% v+ X+ Aon IFR flight plans, generally by centers, when these8 G3 e+ K( E. F) w& Q aircraft are operating between departure and9 R0 G5 Y. F3 _0 D+ k destination terminal areas. When equipment, capa‐/ F5 b+ d6 G3 a8 a. w bilities, and controller workload permit, certain : A8 X! {! N- }7 L4 j7 }/ ]; vadvisory/assistance services may be provided to VFR9 g% Y7 ]' I2 @1 }. d) w% L" J7 C j- t aircraft.) j+ D1 k) F- ]0 [) N/ V* C: D$ y (See AIR ROUTE TRAFFIC CONTROL: H* o" @' L" X& z; P) ] CENTER.)8 M& K) ^& o- Z0 t (Refer to AIM.)7 b" B$ R* t" n1 P- e k EN ROUTE AUTOMATION SYSTEM (EAS)- The0 b i/ m2 P. N1 p" D complex integrated environment consisting of " r8 z1 C% q: b3 V4 a+ psituation display systems, surveillance systems and : U. N9 {; L/ T% r$ U( b# ^flight data processing, remote devices, decision$ {4 p4 Y$ R6 Z6 w2 o support tools, and the related communications - V; a& ? ~% Y- n. z' T& pequipment that form the heart of the automated IFR 3 M4 P8 }) `! Z' a. b+ cair traffic control system. It interfaces with automated5 `* p! }: a% D5 C+ F' ? terminal systems and is used in the control of en route {! `" A) K& z) F+ J e' \. oIFR aircraft.( r, g V v3 }9 r1 c3 d: Y (Refer to AIM.)/ p: [( |. l: n5 t ]7 K. ] EN ROUTE CHARTS(See AERONAUTICAL CHART.)" N/ X! H( L5 \ i6 h$ ? EN ROUTE DESCENT- Descent from the en route 4 h: T) L/ ~9 d2 n: [# m' Wcruising altitude which takes place along the route of1 [2 j) J0 m/ W! u" L flight. " s$ _( @9 D/ k2 r4 i$ A; y+ DEN ROUTE FLIGHT ADVISORY SERVICE- A/ w7 T3 D y2 |# {! _" W5 y# g1 u( v service specifically designed to provide, upon pilot 1 G2 z! R5 P2 W1 V' M' S" @- srequest, timely weather information pertinent to; e8 [ H) ?1 T+ W) f, S his/her type of flight, intended route of flight, and8 P% N* w: x7 S- z# z) Q altitude. The FSSs providing this service are listed in M* j; X. w6 |6 v- n/ m6 V4 jthe Airport/Facility Directory.3 t# \8 [$ l: ?; r' }; ]( ^ (See FLIGHT WATCH.) * h# c, n' ]1 V; @/ f- J0 ]5 A/ w(Refer to AIM.) 2 Q7 p9 b. Q1 ]5 u$ t; {& UEN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.)0 q$ `' g+ j1 h3 i7 L2 z EN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.) # Q+ T! w. w1 b4 t4 R; LEN ROUTE MINIMUM SAFE ALTITUDE WARN‐8 R G. c/ \9 o' l! t3 E" ] ING- A function of the EAS that aids the controller1 e* p ~: S* G2 d' `% t8 ?7 V) ~ by providing an alert when a tracked aircraft is below7 k m$ y( p5 f4 z7 N7 U or predicted by the computer to go below a6 h) o8 k7 ]) ~- @+ \ predetermined minimum IFR altitude (MIA).' B, S1 S& B' Q S" v \% h! P v% B EN ROUTE SPACING PROGRAM (ESP)- A' v' B7 i$ B5 q; }4 Z2 b program designed to assist the exit sector in8 m& o8 x7 Q9 ~, L9 l7 g achieving the required in‐trail spacing.9 o( [: M) ?! e& m EN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a 7 K l# |+ |- x1 BSID/STAR that connects to one or more en route' ]* Y: W) X: N- x8 g airway/jet route. + C" `& z/ t8 B3 [! f8 n9 Bb. RNAV STARs/SIDs. The portion of a STAR+ O* V8 r J" Y- o+ v6 i) O preceding the common route or point, or for a SID the0 K: `' M D' e0 U# D portion following, that is coded for a specific en route0 z5 F6 g+ t% M9 P: E fix, airway or jet route.. n( J, s% R1 b1 _ ESP(See EN ROUTE SPACING PROGRAM.) " W$ _- R/ Z# e e+ LESTABLISHED-To be stable or fixed on a route, e, J0 e; X5 _% v! j# O) j route segment, altitude, heading, etc. . y2 S' ~- |/ tESTIMATED ELAPSED TIME [IC AO]- The) E4 F! o6 X8 F7 B$ |: e+ v) H estimated time required to proceed from one # f; P6 q8 ]) V" Z3 D fsignificant point to another./ _3 x' S3 q# f: |9 G8 G (See ICAO Term TOTAL ESTIMATED ELAPSED% F* {) Z) ?& k! W TIME.) " j: Y" ^& T5 A5 pPilot/Controller Glossary 2/14/08 # x' C. j" Q& x3 R5 K# K3 U( vPCG E-2 1 F3 _ {% q* Z# p8 `- w6 }ESTIMATED OFF‐BLOCK TIME [ICAO]- The1 j2 L$ |" d/ j* q& y3 ~ estimated time at which the aircraft will commence6 q$ U7 i) I8 B* D9 i% T n, r% Q# Q movement associated with departure.+ r+ \/ c1 M4 Q+ A0 N$ r ESTIMATED POSITION ERROR (EPE)-2 q3 K9 U# y! ]$ }' `7 Q# @- q (See Required Navigation Performance) # N$ X4 u( g; ]ESTIMATED TIME OF ARRIVAL- The time the 2 x, R4 e; T/ Mflight is estimated to arrive at the gate (scheduled6 z8 F, g# ?- n8 L operators) or the actual runway on times for2 ?: ~% D7 u& Q nonscheduled operators. " ]( Z4 \ K9 w/ W+ DESTIMATED TIME EN ROUTE- The estimated 5 t2 Q& ]9 k% fflying time from departure point to destination & ~: V4 } L3 z(lift‐off to touchdown).# K3 E" ^2 V7 m0 u ETA(See ESTIMATED TIME OF ARRIVAL.) - E# n2 g' [; z, J6 pETE(See ESTIMATED TIME EN ROUTE.)+ G8 U9 l J+ h' O EXECUTE MISSED APPROACH- Instructions$ G4 s- z8 R+ N; q3 a; D: w issued to a pilot making an instrument approach9 |1 H/ G5 m3 M# D) c" F which means continue inbound to the missed; R+ G$ z* x# K approach point and execute the missed approach / D) j% o3 E9 J/ o4 q1 ?procedure as described on the Instrument Approach + q E5 K. t" q7 _) GProcedure Chart or as previously assigned by ATC.; O" N; W5 ~. D$ F. C4 G The pilot may climb immediately to the altitude 4 G/ n" _5 ^# m+ F5 p+ i* m3 Y$ mspecified in the missed approach procedure upon 3 J2 X3 @4 [3 U5 X+ |making a missed approach. No turns should be7 }" O* ?& ~& Z( [/ u+ l. Y initiated prior to reaching the missed approach point. , S& a! ~4 |1 e1 h+ F2 P; X6 zWhen conducting an ASR or PAR approach, execute0 i3 ^, O- x) x, ^/ } c the assigned missed approach procedure immediately" J0 M* T% u1 e) o upon receiving instructions to “execute missed, I; [& @+ ~! t6 l4 h9 P. S' G) v approach.” / W$ I j. k& x(Refer to AIM.) 3 k0 ~( c* |: p' S7 z0 mEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used : T: o; g v0 B" g3 Q. V) xunder certain conditions to provide a pilot with an 7 y7 `) Y- a3 X5 q/ m& Q3 [5 Faltitude to be used in the event of two‐way% ^2 T$ w4 T& g communications failure. It also provides altitude # c6 e9 r/ k0 j9 j8 @information to assist the pilot in planning. ' K1 C+ T# X# l(Refer to AIM.)" p# |: j9 C2 F1 ` EXPECT DEPARTURE CLEARANCE TIME , d4 w8 U$ |' Q- {$ t; U(EDCT)- The runway release time assigned to an ! j# o6 o% f5 j# q# E6 C+ Vaircraft in a traffic management program and shown - @' e( I. w) @5 ?- ~; f) Ron the flight progress strip as an EDCT. : |' z7 I+ K1 x6 o; c' }$ _, u(See GROUND DELAY PROGRAM.)* r8 W5 D0 A' }$ O EXPECT FURTHER CLEARANCE (TIME)- The7 p, h3 z! r0 }& w3 E time a pilot can expect to receive clearance beyond a & b' \' A- d) R9 G) H; t& ~3 w3 yclearance limit. ( p0 `2 D: B/ }; ^% u( ~* uEXPECT FURTHER CLEARANCE VIA (AIR‐7 s* m0 [! @ e3 x) p WAYS, ROUTES OR FIXES)- Used to inform a* y* x+ i! F' v& o, ` pilot of the routing he/she can expect if any part of the. ~# E. j4 ^& {' A* Z" n route beyond a short range clearance limit differs4 A' `* P# a( a+ | }( V from that filed.8 r! @4 O" R6 s( ^( O# v# E EXPEDITE- Used by ATC when prompt com‐7 S' Z, E& Q- k/ B8 g pliance is required to avoid the development of an4 \" A/ F3 D4 H4 H4 h imminent situation. Expedite climb/descent normal‐; v/ b/ q1 c0 j ly indicates to a pilot that the approximate best rate$ o0 f8 M( i0 q of climb/descent should be used without requiring an * i3 \4 ]6 c" @& jexceptional change in aircraft handling characteris‐ # i6 b& v$ {5 ctics. ; T: H5 N% V0 }' X# \$ @0 yPilot/Controller Glossary 2/14/087 u% \) B' Y7 ?% v6 C! I! w PCG F-1* B! d& Y3 ~/ ~8 [: F2 m- L) a F 3 C" H8 n5 n! b0 jFAF(See FINAL APPROACH FIX.)1 m. ~* c4 f1 R! Z FAST FILE- A system whereby a pilot files a flight 8 {4 M6 s6 Z) q2 i4 Nplan via telephone that is tape recorded and then" a" q$ `, a: ?" L$ l: L transcribed for transmission to the appropriate air f0 ^, F. @9 {: ^traffic facility. Locations having a fast file capability2 s1 x( d% `+ ^& g* G- L% n are contained in the Airport/Facility Directory. 3 l5 i& ~1 @8 H+ R3 g$ N(Refer to AIM.) & J% s* ]& q0 @* ]! g* Z9 M$ ]% oFAWP- Final Approach Waypoint 6 ?/ i) K, {3 UFCLT(See FREEZE CALCULATED LANDING TIME.)6 A! F8 F( p3 h( P* }# d" W FEATHERED PROPELLER- A propeller whose 0 K) c3 O6 g2 o% ?4 F* gblades have been rotated so that the leading and3 o0 o- k# l' k2 l. ?7 x% y9 w trailing edges are nearly parallel with the aircraft& P4 ]/ w, O- B7 K4 x8 A flight path to stop or minimize drag and engine0 B* I0 l4 ?3 s" H6 H$ C U y/ s rotation. Normally used to indicate shutdown of a 3 @# ?# z5 r1 m! X% _6 Xreciprocating or turboprop engine due to malfunc‐) R# Y) x9 B5 v; y0 E8 x tion.5 j9 b4 a) h$ |0 U. ]- Z8 { L6 C FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.) { `- u8 A; x* x4 T0 u FEEDER FIX- The fix depicted on Instrument 3 F) x$ g! u9 m7 Z3 t/ M3 K2 DApproach Procedure Charts which establishes the$ I& Z. f0 m3 ?( s2 |' f6 s/ t starting point of the feeder route." x% X+ I" N3 l y: {7 a* ^ FEEDER ROUTE- A route depicted on instrument0 U0 {3 a5 g, S; u) {* B. a" K approach procedure charts to designate routes for - B5 K; k/ c, p8 qaircraft to proceed from the en route structure to the; m; h7 `4 h/ u5 Q$ y$ a' t initial approach fix (IAF).) J0 n0 j: ~' b" G5 ]/ c+ } (See INSTRUMENT APPROACH + G2 ^/ W3 I. s6 FPROCEDURE.)5 u# k! l2 }( }$ U) r+ N FERRY FLIGHT- A flight for the purpose of: & \% a0 H) m, }+ ]' I9 e5 za. Returning an aircraft to base. " l$ e. }! D9 W/ ]/ z4 rb. Delivering an aircraft from one location to/ x2 I ~; P5 F& O5 F( a another. $ c' p6 M5 L7 m8 hc. Moving an aircraft to and from a maintenance+ s2 D/ B1 d( R* U, \ base.- Ferry flights, under certain conditions, may be - p8 P7 N0 F. I9 B w* x [conducted under terms of a special flight permit., N& O! H0 o7 p" R4 K0 L FIELD ELEVATION(See AIRPORT ELEVATION.): X4 |& p7 P7 S& _$ T$ p3 s FILED- Normally used in conjunction with flight : N2 _) s; z k( ^plans, meaning a flight plan has been submitted to ' f% @# T. a* u: b. b I! E5 iATC. ) z4 g7 D2 z) o3 J3 y+ ^8 OFILED EN ROUTE DELAY- Any of the following# S2 U. ]4 }; d$ n, V5 \9 r' M preplanned delays at points/areas along the route of $ R% b1 Y% s; R, B0 Pflight which require special flight plan filing and% k3 e C4 C& X2 a1 Q handling techniques.& Q! Q7 L5 E' c D* h% o- g a. Terminal Area Delay. A delay within a terminal& X8 f0 y1 `6 T% U area for touch‐and‐go, low approach, or other( E* t9 d6 E3 r7 C terminal area activity.3 N# P. t2 ?* o7 @/ z b. Special Use Airspace Delay. A delay within a ! s% c6 `4 `9 F7 G! UMilitary Operations Area, Restricted Area, Warning 1 W, C) ]* u& X9 DArea, or ATC Assigned Airspace.% P# Y; A# i1 t3 Z/ J; x c. Aerial Refueling Delay. A delay within an - n J7 q) D" ~$ C( O/ qAerial Refueling Track or Anchor. 2 W( y: [7 o3 }FILED FLIGHT PLAN- The flight plan as filed with $ X& m- C J+ A+ }an ATS unit by the pilot or his/her designated3 v8 A% n" H7 o3 [. y representative without any subsequent changes or 5 k5 C; P! [2 Dclearances. 2 z2 W8 f% a7 Z2 R5 RFINAL- Commonly used to mean that an aircraft is p2 Z8 H: w! l# S* u# non the final approach course or is aligned with a : z* m7 C' b: [2 Ilanding area. ) G# r8 g$ f: B! n& E+ x4 p(See FINAL APPROACH COURSE.) % F$ P9 P/ |, Z0 @/ n(See FINAL APPROACH‐IFR.) _/ y: q6 M" C3 u; S2 M (See SEGMENTS OF AN INSTRUMENT Y) ]( }4 v0 C/ Q0 ^/ q6 s* cAPPROACH PROCEDURE.) . Y9 Q, O- h- u, uFINAL APPROACH [ICAO]- That part of an2 n2 w, F- M- ^( x instrument approach procedure which commences at ) r9 D: x& S( F2 P- o2 E( wthe specified final approach fix or point, or where' b$ F% k& Q" T7 s6 Q4 O ^ such a fix or point is not specified.0 j& y+ F: r( n4 `' \: [ a. At the end of the last procedure turn, base turn; m( G9 Z0 Q# A: e/ l or inbound turn of a racetrack procedure, if specified; / a8 Y0 d& b g$ r0 z( o5 Mor 4 I2 i7 ]8 [0 Hb. At the point of interception of the last track o; \% \' t& K* ^+ h specified in the approach procedure; and ends at a. R( B6 l0 e9 e point in the vicinity of an aerodrome from which: & p% M4 B! ]8 t# w1. A landing can be made; or' V4 M, d7 s j$ _' L5 `, } 2. A missed approach procedure is initiated.# L8 s2 i+ c. V; k: f FINAL APPROACH COURSE- A bearing/radial/" Q& q3 U% }9 S" Q2 n# Z% f track of an instrument approach leading to a runway1 E" @7 P2 C* C' H; [2 T( C or an extended runway centerline all without regard1 u8 R3 c+ ], n' H5 m; ] to distance. 4 Z# N" Y" z& h& BFINAL APPROACH FIX- The fix from which the+ x8 u9 T4 u6 v/ M8 |' ?, P final approach (IFR) to an airport is executed and. \, P5 A4 W, e7 [' C. }- R1 J which identifies the beginning of the final approach1 W) E7 o o: U3 E) c& z; C7 m1 m0 q segment. It is designated on Government charts by7 S8 V; }. D b the Maltese Cross symbol for nonprecision5 J/ m9 y: Z, D$ ?6 F5 R3 N Pilot/Controller Glossary 2/14/08: S: S# R; u' L* f6 M, V1 k PCG F-2 l% A+ r: w1 n' x approaches and the lightning bolt symbol for( M0 C E. f2 x7 |8 r precision approaches; or when ATC directs a 5 g( e- P Z S- K7 B6 p2 hlower‐than‐published glideslope/path intercept alti‐, E6 q, T' O S3 g4 q: V tude, it is the resultant actual point of the$ I/ q: L; H6 j; g" y3 R) G' X glideslope/path intercept.! s$ @ x. \( l1 D# w" V8 n. j (See FINAL APPROACH POINT.) ) o D+ e+ g3 T5 W, m) r; o" H(See GLIDESLOPE INTERCEPT ALTITUDE.) $ j' Z0 [: U+ T/ V. k(See SEGMENTS OF AN INSTRUMENT" W2 G' A9 n6 l: S. e* W! y APPROACH PROCEDURE.)5 e. w; S$ B* K; I" d FINAL APPROACH‐IFR- The flight path of an0 e" p/ `" C9 a% u5 x9 u aircraft which is inbound to an airport on a final% e( F b' F$ S" y instrument approach course, beginning at the final Z/ b U& d& B7 S approach fix or point and extending to the airport or " E; A) ?6 r; J5 C) c; \. Othe point where a circle‐to‐land maneuver or a missed+ P, L+ j' M2 R W n9 K8 F! a approach is executed.# Y! u* J& \! r. z9 H- Q ^9 q/ } (See FINAL APPROACH COURSE.)7 `% @" W# b Q2 |: Q9 k# V0 M (See FINAL APPROACH FIX.)4 _3 `" B$ Q0 [) y1 {2 I& c (See FINAL APPROACH POINT.) + D3 U" s' L/ W3 b: Z(See SEGMENTS OF AN INSTRUMENT- m( ]" @+ r1 I3 k- N3 `; z APPROACH PROCEDURE.) * v- a4 q; Q! e3 f5 ~9 g(See ICAO term FINAL APPROACH.) - j/ y# G1 P, W! f. U l, ^5 CFINAL APPROACH POINT- The point, applicable3 E4 L: a1 x5 s# `& g1 F* B* l" C only to a nonprecision approach with no depicted 4 H) N; D1 O* [7 ~9 n" _. uFAF (such as an on airport VOR), where the aircraft7 a6 l+ D$ d+ P9 \9 a is established inbound on the final approach course . q. l9 e5 O1 `* Y1 X) {from the procedure turn and where the final approach 2 a' U, K/ H0 Y& Xdescent may be commenced. The FAP serves as the : d. _/ R. S" r: BFAF and identifies the beginning of the final 9 e* U$ Y5 Z4 D) w6 I% Uapproach segment., r# ^* r' d( _5 ^ (See FINAL APPROACH FIX.), v$ i# J' Y# C/ {/ m: |1 O (See SEGMENTS OF AN INSTRUMENT 6 u3 h! p7 Q( C5 wAPPROACH PROCEDURE.)3 w; S; Y* _! `) s5 p FINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT/ ]( G, L4 }1 o# {/ l/ ^& }7 m& G APPROACH PROCEDURE.)# V# @9 `: C5 ~5 c3 L" k+ n) \ FINAL APPROACH SEGMENT [ICAO]- That + r* b' A) g* j# `segment of an instrument approach procedure in * I; v# B, k* o8 ~5 N, mwhich alignment and descent for landing are! x s3 Y) ]0 y! y1 s& @$ w accomplished. - M: C5 ^5 z+ iFINAL CONTROLLER- The controller providing: d3 P' [# m) u# E8 Q information and final approach guidance during PAR , M7 p+ u2 a& ~% Cand ASR approaches utilizing radar equipment.- f6 e( Z% `( ~6 s4 \ (See RADAR APPROACH.)+ o; T8 Y1 A5 x) N% ~. Q: {2 D9 p) E FINAL GUARD SERVICE- A value added service 7 _; V+ ?4 C/ u4 J7 dprovided in conjunction with LAA/RAA only during9 I u) P! \( _& q; v1 ?7 S/ Q periods of significant and fast changing weather6 l8 p3 q& a2 o* [! K: |" i conditions that may affect landing and takeoff % |* v3 P _9 z Z/ i2 voperations.5 I# {6 _1 |8 d, ^& {6 q5 q4 B FINAL MONITOR AID- A high resolution color$ i0 S3 z. r* C3 N display that is equipped with the controller alert4 v9 j- H9 e& @6 ~( E% D( } system hardware/software which is used in the: S9 O5 t' m2 X( E0 d' ~ precision runway monitor (PRM) system. The & s" M9 Z4 _+ o9 v3 ^$ L5 c. udisplay includes alert algorithms providing the target V+ q( z1 H. o2 x9 } O" wpredictors, a color change alert when a target7 M) f6 R% k2 z; ~ penetrates or is predicted to penetrate the no : |" T. F D- P9 [& ^0 h* jtransgression zone (NTZ), a color change alert if the 4 ?. W5 J( O# i# u0 Baircraft transponder becomes inoperative, synthe‐ 0 q& [9 y) a1 R _. M( U {- s' Lsized voice alerts, digital mapping, and like features/ U+ {+ B8 ]. b# P% L contained in the PRM system.# X! Q& d( Z9 K) e2 p0 d (See RADAR APPROACH.)* Y; F6 Q0 T& d' J6 W FINAL MONITOR CONTROLLER- Air Traffic7 `& j& f3 Y& Q; V% |) i" j0 L Control Specialist assigned to radar monitor the; Q; q6 H) V7 q s, v" Z/ g flight path of aircraft during simultaneous parallel7 T, q+ Q, D1 U n+ Q: O t and simultaneous close parallel ILS approach9 E4 X( V- e! r4 F operations. Each runway is assigned a final monitor 7 [8 G( s% M" E& wcontroller during simultaneous parallel and simulta‐ 5 I& e# q N0 [: l$ zneous close parallel ILS approaches. Final monitor- Y9 m2 o3 e. m& C3 V' k' m controllers shall utilize the Precision Runway - B( K: H: w8 \% }6 BMonitor (PRM) system during simultaneous close$ W1 ?1 Y- A/ E, n6 q parallel ILS approaches.$ d& g+ y3 {7 r- E. p FIR(See FLIGHT INFORMATION REGION.)* w% d. s1 `* @1 b* E% x FIRST TIER CENTER- The ARTCC immediately * ^1 o; f. s. p; m& m9 P- Eadjacent to the impacted center. # F' u5 @4 c. l6 \FIX- A geographical position determined by visual . Y; [+ E. q; X% wreference to the surface, by reference to one or more 6 n6 U# c; }# x# g3 H' Oradio NAVAIDs, by celestial plotting, or by another) ]2 r4 E( c T' W! o. e+ W navigational device.- A: t5 h; b, K FIX BALANCING- A process whereby aircraft are* O/ D+ z8 C5 V p/ N, T# G5 c evenly distributed over several available arrival fixes * i6 i, H+ n6 L8 U2 y3 L {reducing delays and controller workload." P# q5 A d; C FLAG- A warning device incorporated in certain 2 q- }+ }7 H0 X* G3 qairborne navigation and flight instruments indicating # @. O0 L; d) K1 d+ Kthat: 2 g7 P( q6 H9 B$ Y, wa. Instruments are inoperative or otherwise not5 c& H6 ?, r& h1 } operating satisfactorily, or ) c9 p7 r- B( |% @8 v* _b. Signal strength or quality of the received signal( d* t$ K) t' F: i+ y- } falls below acceptable values. 1 ]5 K8 B5 S( {' ~FLAG ALARM(See FLAG.). F% T# y1 R' ~2 h FLAMEOUT- An emergency condition caused by a 2 {0 M h7 _ q0 j( ?% S0 tloss of engine power.1 U$ D( V8 o) I0 L2 b0 \( x FLAMEOUT PATTERN- An approach normally2 [9 L) e& j9 Q: q( I) L conducted by a single‐engine military aircraft1 `+ g; O$ _9 n$ l* I' ~) Y experiencing loss or anticipating loss of engine8 H! J, Z5 d' u8 @7 z Pilot/Controller Glossary 2/14/08$ [# B5 q4 r2 y7 z5 g PCG F-3 ) o$ r8 U& e) o, u0 Spower or control. The standard overhead approach9 s; J; N4 O% j( Y9 ~9 f1 j starts at a relatively high altitude over a runway+ o" o7 M; w( v) \, c& w (“high key”) followed by a continuous 180 degree - c+ r/ H" \( L0 hturn to a high, wide position (“low key”) followed by7 T. g/ r/ O: X$ E! B: [' q a continuous 180 degree turn final. The standard 8 g) _) I0 [7 h' s) ustraight‐in pattern starts at a point that results in a7 _2 n- |* } t, q4 @ straight‐in approach with a high rate of descent to the4 y2 H, L. t9 {. U* W" G runway. Flameout approaches terminate in the type9 J, X; Q8 p' y approach requested by the pilot (normally fullstop). 2 ?4 z* U: ]5 \2 P; ^9 sFLIGHT CHECK- A call‐sign prefix used by FAA, M3 F! K# c% m; u aircraft engaged in flight inspection/certification of 6 i5 n/ i/ z/ b5 I8 @4 P. cnavigational aids and flight procedures. The word 4 X! D2 X, [7 O& [2 Q“recorded” may be added as a suffix; e.g., “Flight 3 b g! s3 d; B0 Y* |2 `# {Check 320 recorded” to indicate that an automated% U6 ?% n# c2 o- w flight inspection is in progress in terminal areas., f9 n H$ H. h8 c0 T* y (See FLIGHT INSPECTION.) ( P* \) q/ g0 e" _/ ](Refer to AIM.)& j8 G' N' g% o( u: Y FLIGHT FOLLOWING(See TRAFFIC ADVISORIES.)( y2 c, p) a( }$ X- T FLIGHT INFORMATION REGION- An airspace of ! L9 i4 r8 Y# L0 d2 R7 Rdefined dimensions within which Flight Information* n1 |- M0 X# \3 W9 s/ H Service and Alerting Service are provided. ' q# b5 _- s# D2 F Fa. Flight Information Service. A service provided % h. @0 K' A$ T/ J' ^for the purpose of giving advice and information 3 M0 J& _ W1 @0 L; W3 M, quseful for the safe and efficient conduct of flights.7 ^; a0 n: ?/ P( L5 h b. Alerting Service. A service provided to notify+ h& h2 q# L) L {6 [4 f2 Y appropriate organizations regarding aircraft in need " k' N% ^: G6 W7 T* dof search and rescue aid and to assist such 6 W; O! }" n# U, @5 G, jorganizations as required. 6 x- I9 i1 y0 s+ K/ K/ S+ JFLIGHT INFORMATION SERVICE- A service - _+ o3 H( F+ o! u5 ?6 I: m" Bprovided for the purpose of giving advice and 0 i2 U( z9 l9 j; ^1 G' Cinformation useful for the safe and efficient conduct3 F! h4 v: X# S( I8 y7 H& D of flights. - C D/ \; L" S5 e$ W. P* cFLIGHT INSPECTION- Inflight investigation and* G, ]) w/ f& m! A) P, e evaluation of a navigational aid to determine whether' _7 s' @9 {* _3 k it meets established tolerances.& d& J* y3 G1 r, E) J: o6 Y& z8 Z (See FLIGHT CHECK.) 1 [3 T6 D) z$ h, E: H9 r2 ]7 B. L(See NAVIGATIONAL AID.)8 Q% }, r4 b/ W/ {/ |/ D FLIGHT LEVEL- A level of constant atmospheric% J2 c, P! X5 a, w( o% f pressure related to a reference datum of 29.92 inches1 n8 _% I# N" H. c of mercury. Each is stated in three digits that represent % k( k9 [8 \4 Y. Uhundreds of feet. For example, flight level (FL) 2503 B! Z2 @$ M/ I: U' v8 I# R represents a barometric altimeter indication of! m# ~! g, @. U" D 25,000 feet; FL 255, an indication of 25,500 feet. ! a2 `2 Z- \% Q2 p7 g, C(See ICAO term FLIGHT LEVEL.) 7 W, R/ w0 d. u/ x, N# [8 tFLIGHT LEVEL [ICAO]- A surface of constant * W' O& f# J# v8 Vatmospheric pressure which is related to a specific2 s3 V# `# t; K+ K+ S5 I pressure datum, 1013.2 hPa (1013.2 mb), and is 8 v) h+ ~4 |0 l9 cseparated from other such surfaces by specific7 s, ?9 O9 g" f pressure intervals. 2 c" N# b9 {; e) [Note 1:A pressure type altimeter calibrated in 6 o/ y# n M8 P! \; p1 ~accordance with the standard atmosphere:, z5 X- Q9 V0 E) J a. When set to a QNH altimeter setting, will% T1 p: a# y1 _7 z+ T indicate altitude; 3 v H) G4 g0 R q ?6 Hb. When set to a QFE altimeter setting, will 9 @( s& v- X1 _* V4 d3 Aindicate height above the QFE reference datum; 3 S9 \$ M& O: dand _9 N& C$ D' {2 v) B c. When set to a pressure of 1013.2 hPa7 K3 ~% ^3 x& [ d2 Z! b (1013.2 mb), may be used to indicate flight levels. ) @6 l0 u% L SNote 2:The terms `height' and `altitude,' used in : J9 J. f6 q& LNote 1 above, indicate altimetric rather than 9 i* J$ k! S6 R0 pgeometric heights and altitudes. , s9 ]0 t3 A1 X3 |" A4 b1 o8 TFLIGHT LINE- A term used to describe the precise! q( [8 }9 ?5 r: A9 O/ H3 J movement of a civil photogrammetric aircraft along4 [# i1 x& Q% d& M5 E& F9 r a predetermined course(s) at a predetermined altitude * `- ^% R' q1 U7 ` Aduring the actual photographic run. + o) j& J2 w; k# H$ V! {FLIGHT MANAGEMENT SYSTEMS- A comput‐7 b6 V& K3 k0 R6 G+ _# M+ Z1 n; W er system that uses a large data base to allow routes9 m" }" i3 u- {0 L8 l) m to be preprogrammed and fed into the system by7 n' c5 x5 X; I# k- P3 C5 X means of a data loader. The system is constantly 7 X3 O1 ^! u0 k* r+ n. R" rupdated with respect to position accuracy by8 t4 T9 ^ \' Y1 j Z s reference to conventional navigation aids. The $ r p9 U2 c7 V) L( ]" u( Qsophisticated program and its associated data base' p2 c% o& Y0 H { insures that the most appropriate aids are automati‐ 0 ~5 x. [( a* B8 K4 W! ~cally selected during the information update cycle." S3 d" ~( E% d- D& o" k5 ` FLIGHT MANAGEMENT SYSTEM PROCE‐ ( p+ L. Q8 t& {DURE- An arrival, departure, or approach procedure * w2 S) @5 S0 M& T/ u2 Edeveloped for use by aircraft with a slant (/) E or slant$ W: B& \2 C7 i8 R, i (/) F equipment suffix." }4 L2 }! q7 T u3 X& P FLIGHT PATH- A line, course, or track along which & V5 ~+ P7 l# [( T, \an aircraft is flying or intended to be flown. + Q0 q8 ~) @( Z5 q2 j7 C0 M: P(See COURSE.)/ N4 k, H2 m4 l4 w( ? (See TRACK.) , ]2 A' {3 i, V+ a) x9 CFLIGHT PLAN- Specified information relating to. H0 y; N ]) p the intended flight of an aircraft that is filed orally or $ A3 g- e0 v' _- W9 q# Ein writing with an FSS or an ATC facility.% b% s) y! H+ t) G- @) J. g$ k (See FAST FILE.)" V+ N) ~( g0 p% ^* }$ F (See FILED.) ; @* ?+ R' b, R* Q7 p9 h! S( |$ b(Refer to AIM.) % O: |7 e- g/ b& F- J6 e' CFLIGHT PLAN AREA- The geographical area- P. `' j; X, X' K1 J assigned by regional air traffic divisions to a flight + j4 ]5 p; U5 p vservice station for the purpose of search and rescue( O2 L+ s, G# B" m3 {/ x5 h6 [ for VFR aircraft, issuance of NOTAMs, pilot1 n3 i- Q9 m! r8 x) Y" W briefing, in‐flight services, broadcast, emergency M6 \" q% L! Xservices, flight data processing, international opera‐2 a7 r9 O7 f/ H* }0 R tions, and aviation weather services. Three letter 6 N8 p- W8 ?4 f/ \! I2 M* }' zPilot/Controller Glossary 2/14/08 ' A4 p1 B- K' R5 w8 _9 IPCG F-4! w4 P( }$ s0 m" C q& z identifiers are assigned to every flight service station h( R+ O1 n: l' S- H v# w' tand are annotated in AFDs and FAAO JO 7350.8, % u9 A+ v8 M# k/ q! L5 d; uLOCATION IDENTIFIERS, as tie‐in facilities. v) n$ s( N" ]: A. | (See FAST FILE.)8 b" O p4 F) k" f. N8 n (See FILED.)0 q8 _4 X. v& Q! s3 J (Refer to AIM.) # q W9 T" f1 a) s" y) W6 t' l5 @' aFLIGHT RECORDER- A general term applied to 4 }- M* Z& D- Q3 w% x8 J7 d! W! Kany instrument or device that records information1 r* E9 C+ V2 } about the performance of an aircraft in flight or about# ]' h% ^' L5 N x/ X conditions encountered in flight. Flight recorders/ Z) N: ~+ s1 X; p5 D may make records of airspeed, outside air9 A5 M: @0 L% @! L2 @ temperature, vertical acceleration, engine RPM,' P2 P! h2 Y1 d: s) b$ H* S manifold pressure, and other pertinent variables for a / T5 P9 b: a& N5 ~, N% @) Cgiven flight. ' m' {- G" e* W9 u(See ICAO term FLIGHT RECORDER.)) y3 H9 o! {/ s. ~! c+ y2 g FLIGHT RECORDER [ICAO]- Any type of0 s) @: F/ q9 Q" G recorder installed in the aircraft for the purpose of * r) D7 L. f. V* Qcomplementing accident/incident investigation.( X; _5 t: R! A Note:See Annex 6 Part I, for specifications relating* U$ L1 y" G, {" {* k5 q3 p to flight recorders." x% G$ W8 x( }1 k) S F FLIGHT SERVICE STATION- Air traffic facilities. I- o$ B7 J& t which provide pilot briefing, en route communica‐8 {6 }' s1 d* K. u2 V tions and VFR search and rescue services, assist lost # W' c; v* n6 _8 \# m3 o T% gaircraft and aircraft in emergency situations, relay + R3 s) K, O( k( p. }, d( _: Z: ^ATC clearances, originate Notices to Airmen,( P( r; j: K, g) `8 R2 G4 J broadcast aviation weather and NAS information,$ [6 s2 S2 `7 U; p& z and receive and process IFR flight plans. In addition, " `; \: C% N! r3 \2 Lat selected locations, FSSs provide En Route Flight2 C. t2 q' g+ Z0 }! t8 @ Advisory Service (Flight Watch), issue airport 6 ]2 l! T+ A! W& v1 Sadvisories, and advise Customs and Immigration of, [4 r O8 ^# M5 Z7 x transborder flights. Selected Flight Service Stations 1 s l! T o- T% Din Alaska also provide TWEB recordings and take # Q3 n* O0 M8 g% }* Uweather observations. 3 d2 }8 M/ R2 S m8 b(Refer to AIM.)! C! @+ E6 c: s9 p7 F FLIGHT STANDARDS DISTRICT OFFICE- An' z9 M! j# c" g: x* p: | FAA field office serving an assigned geographical - \: f @* G. Y6 U. Garea and staffed with Flight Standards personnel who 3 H: d: s- e. L8 o' l S7 H, D% Dserve the aviation industry and the general public on ( w2 h5 [' a% Q6 V" ]! d1 ]# S2 Amatters relating to the certification and operation of3 p. V+ Q3 m* @( K$ Q( y& x. B air carrier and general aviation aircraft. Activities; D" U8 R3 t4 m& b4 w include general surveillance of operational safety,! M. f( ^4 l+ S4 r* G/ f certification of airmen and aircraft, accident% b( m c! q. F \' Y/ d! b prevention, investigation, enforcement, etc. . g3 D. R$ R6 p4 G: lFLIGHT TEST- A flight for the purpose of:& T& V& R3 i* E! b a a. Investigating the operation/flight characteris‐3 Q7 s1 ?" g1 z, Z tics of an aircraft or aircraft component.( l$ o/ y$ }( @2 r/ P& N6 p b. Evaluating an applicant for a pilot certificate or! z0 x! E3 D3 P) q# [4 v% A% y rating. }, \% s) x& a) W FLIGHT VISIBILITY(See VISIBILITY.) , D. S) e. R) TFLIGHT WATCH- A shortened term for use in4 r2 i5 ~; s- C! M air‐ground contacts to identify the flight service + ]. o L4 V4 ~1 R( dstation providing En Route Flight Advisory Service; . M5 O0 _9 r! `e.g., “Oakland Flight Watch.”9 ?5 Q. c# i- S c0 _. M5 a (See EN ROUTE FLIGHT ADVISORY " A r+ J1 R7 P9 S. ^8 }SERVICE.) 0 A( H" a( _+ G+ z$ Y, PFLIP(See DOD FLIP.)! [% G( G( U2 m2 T, } FLY HEADING (DEGREES)- Informs the pilot of0 w) g) V9 m1 G3 i$ g9 d3 ]' C the heading he/she should fly. The pilot may have to7 q, r9 X( W' o5 J/ ? turn to, or continue on, a specific compass direction 4 h) n/ M& d l' s0 O; e) n/ Cin order to comply with the instructions. The pilot is% b* S& W# z6 ~3 l) V expected to turn in the shorter direction to the heading& ~, u% R; g2 _9 d6 f* T unless otherwise instructed by ATC. " u" o o/ c5 tFLY‐BY WAYPOINT- A fly‐by waypoint requires' U0 n) }5 |5 K the use of turn anticipation to avoid overshoot of the8 C% i$ S6 E3 P4 P next flight segment.* ?: u& n7 G2 a5 V; \ FLY‐OVER WAYPOINT- A fly‐over waypoint1 k3 a: X8 N a; g precludes any turn until the waypoint is overflown \5 }5 v |8 Z9 K4 j1 @and is followed by an intercept maneuver of the next 6 t# }8 O6 `5 p3 Dflight segment. ; U7 B% o% H6 _2 u( R( wFMA(See FINAL MONITOR AID.)& J! N* V% S8 T: g* t8 ~7 _" r FMS(See FLIGHT MANAGEMENT SYSTEM.) ! k7 b6 s4 _9 V% Z( U8 q0 S, mFMSP(See FLIGHT MANAGEMENT SYSTEM/ y8 Q k7 c2 G V, \& l8 L PROCEDURE.) % X/ e/ q* a& oFORMATION FLIGHT- More than one aircraft ' }; Y3 W) U! p! O" |which, by prior arrangement between the pilots,6 O5 A `# E- r! `4 f9 [# ] operate as a single aircraft with regard to navigation( t( Q+ ]3 v# f( g7 _5 u and position reporting. Separation between aircraft % q' R4 C: z7 U) Owithin the formation is the responsibility of the flight9 q8 v. [/ ~6 C1 b6 \ leader and the pilots of the other aircraft in the flight. + |% S) Q: Y2 o5 O1 ?This includes transition periods when aircraft within" K5 h# g0 r+ { the formation are maneuvering to attain separation " o g, k q+ m; D5 ffrom each other to effect individual control and 9 O: a$ M+ T' K/ B5 f6 Uduring join‐up and breakaway. ) J* D1 o, ]% U9 E) s$ da. A standard form ation is one in which a+ G$ E7 D. [( ? proximity of no more than 1 mile laterally or " K4 M- e- j6 |5 Q6 @longitudinally and within 100 feet vertically from the4 C n5 T. q( r" H flight leader is maintained by each wingman.1 G9 r* a. z6 A, h/ P& i5 L; j b. Nonstandard formations are those operating 1 u" S" p2 w- x! W/ y" t& h* {under any of the following conditions: 6 E0 M/ y& r- GPilot/Controller Glossary 2/14/08 / H8 ^% B9 F) ~9 w& H9 a" |PCG F-5 4 D( T# q2 p) M* w0 K% `1. When the flight leader has requested and ATC( _6 I1 k7 o9 |$ p7 }1 v) @ has approved other than standard form ation / k' z. B# b0 S* Ndimensions.$ @/ ~: U7 L; q2 m j 2. When operating within an authorized altitude 5 {3 @5 i( v* T# {- jreservation (ALTRV) or under the provisions of a * w5 o- |+ D7 Q4 p u& iletter of agreement. : J) A: x1 O3 f2 m3. When the operations are conducted in/ ^* O* o! H( u& \! Q4 a9 Z9 T: ]% Z airspace specifically designed for a special activity.5 S& i) c0 d8 ?- c+ A (See ALTITUDE RESERVATION.)) @+ t. Q0 n' U! o. e2 k1 G; k (Refer to 14 CFR Part 91.) / Q& c* V! `$ t4 M4 L% n7 k5 qFRC(See REQUEST FULL ROUTE CLEARANCE.) / h9 |& p1 W0 q+ S4 M7 H9 y+ VFREEZE/FROZEN- Terms used in referring to * E% f( s) c, x$ _! m0 \+ e4 }arrivals which have been assigned ACLTs and to the 3 w' k4 Q f( c2 H# M$ alists in which they are displayed.; R7 ~; O1 E. P0 n( o9 Y8 s5 H7 g2 q" F FREEZE CALCULATED LANDING TIME- A9 ?% O7 h6 f- S6 b3 O dynamic parameter number of minutes prior to the " F0 }- B6 ]( H- imeter fix calculated time of arrival for each aircraft ' s7 K& n/ ?6 Ywhen the TCLT is frozen and becomes an ACLT (i.e., 6 e: t; x! d- p8 y3 Vthe VTA is updated and consequently the TCLT is . M0 N$ r. ?$ R0 P6 Umodified as appropriate until FCLT minutes prior to! R! ?: L. H# i, S h, R# l) a& v1 s1 y meter fix calculated time of arrival, at which time 8 [$ \! J1 ]+ S; A5 f$ j) ?. mupdating is suspended and an ACLT and a frozen$ G5 N0 d2 z0 w% s meter fix crossing time (MFT) is assigned).# f( v( g0 X" Q" m, } FREEZE HORIZON- The time or point at which an , [- [6 U5 f M* [aircraft's STA becomes fixed and no longer fluctuates 2 o0 ^. c7 e5 owith each radar update. This setting insures a constant ( f) i2 {6 g, j! e. e, Vtime for each aircraft, necessary for the metering B8 M# k3 l6 e6 [3 ?/ T0 Scontroller to plan his/her delay technique. This7 g8 m+ T" I$ G0 O! Z: y3 d; r( a5 e setting can be either in distance from the meter fix or. Z: b2 r# M; ?& p a prescribed flying time to the meter fix.* ~$ h5 Y! Q3 p% }* O: Q FREEZE SPEED PARAMETER- A speed adapted- J0 n$ L( [: ~% p' {, f8 ]( A1 b for each aircraft to determine fast and slow aircraft.+ v! q; ^2 r8 R; w# E# b6 }& ~! } Fast aircraft freeze on parameter FCLT and slow5 [ u% m! }/ U0 P- C& e aircraft freeze on parameter MLDI. + W4 |1 b/ o4 I9 I/ R) @) L% u8 SFRICTION MEASUREMENT- A measurement of ! X: E+ }6 H: H7 M% Ethe friction characteristics of the runway pavement) I; m# y, S& ?% R* z+ l surface using continuous self‐watering friction - }* s6 n: r, F+ zmeasurement equipment in accordance with the" O+ o' I1 o$ K" E7 j2 Y: K specifications, procedures and schedules contained 2 T5 s# d% F0 M4 hin AC 150/5320-12, Measurement, Construction, + u! j: A" k6 b' \7 dand Maintenance of Skid Resistant Airport Pavement- d! Q6 }1 T V7 h n1 Z Surfaces.- ?5 o; w6 _. a9 d( n FSDO(See FLIGHT STANDARDS DISTRICT OFFICE.) 3 _2 R" B. Z) F: jFSPD(See FREEZE SPEED PARAMETER.)" Q {/ a1 H% ] FSS(See FLIGHT SERVICE STATION.) 3 k1 W" G6 t" G1 z" k WFUEL DUMPING- Airborne release of usable fuel. * G u3 p2 o* ? i6 ~This does not include the dropping of fuel tanks. * |. X( T r, ]4 m* }' K0 I6 E# F(See JETTISONING OF EXTERNAL STORES.)4 w8 n$ h1 N. v FUEL REMAINING- A phrase used by either pilots 3 l! s! c7 y w% r) ~% n' q# M& C, Nor controllers when relating to the fuel remaining on / X! ] V( D0 G& n8 y3 \board until actual fuel exhaustion. When transmitting 2 a: d8 [4 d" c1 ~( Isuch information in response to either a controller& H' p1 j( s8 ?/ X+ S+ U question or pilot initiated cautionary advisory to air7 m( K: u/ M& p traffic control, pilots will state the APPROXIMATE1 o' m" Y) l' G: Q; y O+ n NUMBER OF MINUTES the flight can continue ( ?" `' M9 T5 u, F0 @with the fuel remaining. All reserve fuel SHOULD + H2 G8 ]& C' `$ {4 k$ QBE INCLUDED in the time stated, as should an- K" p# m4 f, f4 ~, |& u allowance for established fuel gauge system error. 5 x( i7 P/ g F+ `5 S. p5 Z4 ?FUEL SIPHONING- Unintentional release of fuel # J" M# _2 C6 E0 D2 L5 w1 t& c0 H0 pcaused by overflow, puncture, loose cap, etc. * X* N9 P" r; B z9 i. [FUEL VENTING(See FUEL SIPHONING.)/ t) I, P' C, ]' l# P( w Pilot/Controller Glossary 2/14/08 ^ J7 U! A7 ~# Q- Z$ ~+ QPCG G-13 T4 M2 n1 E4 f( w; b' A G

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GATE HOLD PROCEDURES- Procedures at. e8 k6 L" U5 R selected airports to hold aircraft at the gate or other 1 ~8 y' r! _0 v7 \" }ground location whenever departure delays exceed or1 K2 i; X w3 }, X% x3 f5 ^ are anticipated to exceed 15 minutes. The sequence+ e0 c+ }; V5 F7 T: K, p; b- { for departure will be maintained in accordance with* |9 ]% V. l4 z initial call‐up unless modified by flow control % I @: l9 \" `6 r- g( Brestrictions. Pilots should monitor the ground9 o6 q% w9 N: }& D% U/ u control/clearance delivery frequency for engine: `# R0 D3 ?. |/ }& D" @ start/taxi advisories or new proposed start/taxi time " e. c+ X: H! l7 l, s8 oif the delay changes.

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GBT(See GROUND-BASED TRANSCEIVER.) % }* w4 V$ |! N2 u! H% Z/ N8 n/ eGCA(See GROUND CONTROLLED APPROACH.) 1 A) R" u% H- ^8 V7 L! _GDP(See GROUND DELAY PROGRAM.)0 M& |# }0 ?% K GENERAL AVIATION- That portion of civil : ^% b* A* o" w- R9 Q s3 Javiation which encompasses all facets of aviation % Z$ B2 L7 n) Q% z6 a; a o8 Bexcept air carriers holding a certificate of public9 u" o j! v8 h. O3 [ convenience and necessity from the Civil Aeronau‐7 y* O k$ X, y$ c y; k3 a& C5 ~ tics Board and large aircraft commercial operators. - p: J! ], ^. |7 X3 R+ C(See ICAO term GENERAL AVIATION.)4 H) c4 E6 _! M( G5 f a GENERAL AVIATION [ICAO]- All civil aviation; h' R5 r, U$ F u operations other than scheduled air services and 8 R# A G0 ^. m* `9 N F: w2 ?nonscheduled air transport operations for remunera‐ + c5 O. U& B2 k) }# P2 t! y. n6 ution or hire.8 L6 Y7 V$ q0 c* a GEO MAP- The digitized map markings associated' K$ s) C: {; u3 O6 A7 v with the ASR‐9 Radar System.) `/ C0 V9 H) v; } GLIDEPATH(See GLIDESLOPE.) o& q7 H2 l1 L; R& U$ D GLIDEPATH [ICAO]- A descent profile determined g/ Y- v# X3 Q; vfor vertical guidance during a final approach.) p& }9 g& ?1 v! L' A GLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.) 8 m( {. I' [0 J4 F& R" q' oGLIDESLOPE- Provides vertical guidance for3 W3 T8 [$ l2 \- ^' T aircraft during approach and landing. The glideslope/ 2 N; V; V- M% n$ C6 a/ ]" Eglidepath is based on the following: # z. t+ W/ m+ {* Y3 I" wa. Electronic components emitting signals which 2 H, i' m% v2 \/ Aprovide vertical guidance by reference to airborne) h+ k/ _6 W0 L2 L4 B instruments during instrument approaches such as% ^7 r1 W9 _$ Q |# n ILS/MLS, or , }- R" |' I. x' nb. Visual ground aids, such as VASI, which % ?, K2 g/ {9 W& z% X, S; Qprovide vertical guidance for a VFR approach or for Q! ~; ]3 P7 p6 c4 Athe visual portion of an instrument approach and" [: A. g3 h: M, e landing.6 A3 q6 A; N7 L$ R c. AR. Used by ATC to inform an aircraft making) x o0 T% @0 M% D* v+ E( G a PAR approach of its vertical position (elevation)) @$ Q8 P# x# c$ e& h$ |$ l relative to the descent profile.& H' j T1 k+ a4 u7 g- R+ R! p (See ICAO term GLIDEPATH.) , u$ D# g2 o- R1 C8 f2 Z* r! w" ?GLIDESLOPE INTERCEPT ALTITUDE- The5 f% P, I8 |3 B; ]& W minimum altitude to intercept the glideslope/path on1 H, c2 n* a. h/ `* _ a precision approach. The intersection of the y6 a+ X h9 e% ^. m published intercept altitude with the glideslope/path, / o& b4 k, d% x7 r- m% l( s" Idesignated on Government charts by the lightning 6 \6 }( @* P; B) i7 k2 Ubolt symbol, is the precision FAF; however, when the W9 u7 L$ M# w {' d. m approach chart shows an alternative lower glideslope3 w1 b; s' a. g% C intercept altitude, and ATC directs a lower altitude,2 c* F0 W) `! {* K the resultant lower intercept position is then the FAF." m+ B! ~, z* u (See FINAL APPROACH FIX.)2 M' V) l0 ^ _* G5 A, T (See SEGMENTS OF AN INSTRUMENT3 M1 s- @( X. {) m t APPROACH PROCEDURE.)8 I( [6 i8 \7 f# z GLOBAL POSITIONING SYSTEM (GPS)- A 5 T3 o1 L/ d% }1 @5 a, jspace‐base radio positioning, navigation, and ! |( U% C7 s0 c/ ?! ztime‐transfer system. The system provides highly , Q1 {9 X) F* E r# u7 raccurate position and velocity information, and 9 I: D# _) a" d( Yprecise time, on a continuous global basis, to an B4 k& J) G% Junlimited number of properly equipped users. The : A* v5 M. V% Tsystem is unaffected by weather, and provides a . S# H* A& N; P0 jworldwide common grid reference system. The GPS , @- ?0 m2 U5 P' e& uconcept is predicated upon accurate and continuous % C9 ^. U j& t+ Y2 X! h9 u* _knowledge of the spatial position of each satellite in3 w/ s( {/ W3 c- Z3 N* T the system with respect to time and distance from a( D$ L$ O( V1 Q transmitting satellite to the user. The GPS receiver, s+ B; Z; [% q( N7 t: w; J automatically selects appropriate signals from the * I) Y; {- X8 O7 v2 L- fsatellites in view and translates these into three‐ I% y: [* `4 T+ e* Idimensional position, velocity, and time. System 1 ^. W+ t; H c. s Kaccuracy for civil users is normally 100 meters: ^% U' `2 G( L3 w% G! y8 L horizontally. 7 S) S$ S7 d: r! o! c4 B- {* B7 _( hGO AHEAD- Proceed with your message. Not to be 9 ~/ d4 _' _4 m5 F& l- a2 P/ | R% pused for any other purpose. 7 J3 `) a7 o# m$ d4 WGO AROUND- Instructions for a pilot to abandon. J, Z' r% U% Y& `1 h8 E his/her approach to landing. Additional instructions 3 m7 Y5 B5 h4 [% Y6 h1 w0 umay follow. Unless otherwise advised by ATC, a# r8 x0 @% O9 ~ c) z% k; ] VFR aircraft or an aircraft conducting visual / g: Z" K' A/ {# s$ l w* u) B! A+ W0 wapproach should overfly the runway while climbing# k- I3 k6 ?$ V6 h8 \2 o to traffic pattern altitude and enter the traffic pattern 7 t. h/ ^3 e: z$ A- Q6 P4 q$ o/ zvia the crosswind leg. A pilot on an IFR flight plan: S9 t$ ^9 q6 I9 M1 E+ z! [ Pilot/Controller Glossary 2/14/08. U6 `! F5 C$ X% o PCG G-2 % b' g+ S8 b! [) G& O. V: q" fmaking an instrument approach should execute the # H, ?* U! b, |+ _, d2 m4 mpublished missed approach procedure or proceed as 8 z* H9 U# A/ C# b' t8 j; z8 [instructed by ATC; e.g., “Go around” (additional $ D. c8 ^/ I' ]7 e7 E1 hinstructions if required).+ ]. T( i% o/ h. Q (See LOW APPROACH.)$ v& t, g& ^) J3 u (See MISSED APPROACH.)* j5 Q8 T/ w: }# `9 h7 E) M( B GPD(See GRAPHIC PLAN DISPLAY.)- y% H! z; U7 U+ m( T+ \7 N/ K GPS(See GLOBAL POSITIONING SYSTEM.) * _3 u) U/ p" p- wGRAPHIC PLAN DIS PLAY (GPD)- A view7 ?2 ^. w+ p; w) R available with URET that provides a graphic display * Z0 ]; h' @0 S5 w; @3 C7 y. g4 ?of aircraft, traffic, and notification of predicted) o5 ^2 c: d" V9 q# t* P conflicts. Graphic routes for Current Plans and Trial * I7 Y) O! j9 W# W* ~9 j: SPlans are displayed upon controller request.+ p, K' E( x2 N) t0 v% E* J; [' h. U- s5 G (See USER REQUEST EVALUATION TOOL.): c' p% V8 x* q$ D2 m2 P GROUND-BASED TRANSCEIVER (GBT)- The 5 O1 Z# W8 w) h/ ?3 @ground-based transmitter/receiver (transceiver) re‐1 j; ^6 j, W9 R* z2 ` ceives automatic dependent surveillance-broadcast8 I* y4 L0 O+ E2 m4 t7 a messages, which are forwarded to an air traffic + _; {( T& u2 L+ D3 B% xcontrol facility for processing and display with other) M6 C3 M7 I' W; U radar targets on the plan position indicator (radar" Y- ?& |8 f" C! \2 T- [ display).1 _! G5 x; U6 w/ m" R. d( } (See AUTOMATIC DEPENDENT + s& r! U" y! b) w9 MSURVEILLANCE‐BROADCAST.)/ l1 L. Q( I$ H GROUND CLUTTER- A pattern produced on the7 ]6 W) h# }; g( F0 p radar scope by ground returns which may degrade + r% e+ G8 B' Q8 m" a1 O- vother radar returns in the affected area. The effect of5 e8 x/ I1 p6 n1 r/ N4 p ground clutter is minimized by the use of moving 2 @* M3 f) j* v) ~# Wtarget indicator (MTI) circuits in the radar equipment : L) F5 L1 B6 p9 n/ Zresulting in a radar presentation which displays only ( C2 D3 c* l7 }7 P$ S/ J* @/ stargets which are in motion./ H, j& u; y: Y! s: @ (See CLUTTER.) 4 h/ W$ @$ z* ~" SGROUND COMMUNICATION OUTLET (GCO)- ; \! b1 y. o% F/ |) p( J. w/ M& FAn unstaffed, remotely controlled, ground/ground ) q4 I* X: l$ X) u, F$ qcommunications facility. Pilots at uncontrolled , H+ D0 i. ^: m* f. @, Aairports may contact ATC and FSS via VHF to a + F% ?) @( h! U7 `7 O/ R( u! Ntelephone connection to obtain an instrument 2 @6 i* g8 f4 w, }clearance or close a VFR or IFR flight plan. They may % @1 g! v" [8 M$ _1 m# R6 calso get an updated weather briefing prior to takeoff. $ |5 C! \+ J a0 N8 _) }9 [Pilots will use four “key clicks” on the VHF radio to 0 ~& _4 U: W* {, O: g3 O; ycontact the appropriate ATC facility or six “key0 c) z5 ?4 a* \" O# h clicks” to contact the FSS. The GCO system is , d7 ~9 G+ U- E& s3 y1 k4 [! Iintended to be used only on the ground. ) F* n" ^3 h5 [& UGROUND CONTROLLED APPROACH- A radar1 t m2 |" W/ P4 k! w& [ ~0 B approach system operated from the ground by air # N8 H# {- f, i1 Ctraffic control personnel transmitting instructions to ; i( j1 W7 a# {. K; Ithe pilot by radio. The approach may be conducted4 F) G# _, y! ^ with surveillance radar (ASR) only or with both2 Q" O# d _: c: ~ surveillance and precision approach radar (PAR).2 S8 `3 ]. K; d1 \( u) w, ~. J Usage of the term “GCA” by pilots is discouraged* Q( v. |0 j; f/ h* V0 G except when referring to a GCA facility. Pilots should / q' u w4 Q3 B6 }# o8 Jspecifically request a “PAR” approach when a 0 D J5 w$ N7 _precision radar approach is desired or request an# O) ~% B% y$ b8 Q/ q “ASR” or “surveillance” approach when a nonpreci‐ 7 b+ I; j, B u7 Rsion radar approach is desired. & [) J9 c+ z9 W4 {: j(See RADAR APPROACH.)8 H# \ C( e! V. o. b: e8 q GROUND DELAY PROGRAM (GDP)- A traffic " G; K: Y8 d8 j7 g1 mmanagement process administered by the ATCSCC; 0 p$ B4 _* C' Q; [: Q4 Rwhen aircraft are held on the ground. The purpose of' `/ O0 `* N2 o) e# ^! @3 ` the program is to support the TM mission and limit1 _3 k0 l s/ D. C* a2 g airborne holding. It is a flexible program and may be 4 o% k6 t: W8 S6 W; B5 l/ A4 W/ kimplemented in various forms depending upon the- V" P9 q& [6 B) j- m needs of the AT system. Ground delay programs * X( ^: h `) { ?) k/ ~ u$ Cprovide for equitable assignment of delays to all , ~7 U$ q9 D9 J( F% Q" |system users. ' i! c. ]: X+ A7 F w+ Q0 EGROUND SPEED- The speed of an aircraft relative 0 x, [* d* i! j: s. h W; lto the surface of the earth.; `( d7 p9 J' i% Y: ^ GROUND STOP (GS)- The GS is a process that; r9 X+ y8 g% \2 }2 j- ?0 R requires aircraft that meet a specific criteria to remain * w/ z ~; \5 \6 F9 ton the ground. The criteria may be airport specific,% I; h5 g; m8 R+ l airspace specific, or equipment specific; for example,5 ^ D! {5 z6 [8 H- W4 J2 W; [ all departures to San Francisco, or all departures : j; h. A) t, \5 ]' U- ientering Yorktown sector, or all Category I and II3 O( d2 X! v+ A( a& A aircraft going to Charlotte. GSs normally occur with ; N3 n: f5 ~7 k$ |little or no warning. 8 \% }! e) R! oGROUND VISIBILITY(See VISIBILITY.) / u4 n& z' {. XGS(See GROUND STOP.) 6 d/ F( l. Y' J! m! a2 V- U( kPilot/Controller Glossary 2/14/082 h; l5 H3 a' ^; R; H* T" D/ ^ PCG H-1 2 V! N/ Z2 \3 M% q, |- z. K/ PH + m: e6 B" [% x8 [5 t. k( e1 sHAA(See HEIGHT ABOVE AIRPORT.) 1 v" m: l5 y3 u( `. X c- W/ D- |HAL(See HEIGHT ABOVE LANDING.) " q. U! Y: D$ @" j& n, e& v& MHANDOFF- An action taken to transfer the radar( T6 P. W% a1 _5 z; \1 u identification of an aircraft from one controller to e- B# {7 A7 ~+ V; j$ w another if the aircraft will enter the receiving % m! d* f6 s2 q: Tcontroller's airspace and radio communications with2 d! ~ j* S3 N- M! l3 H$ D the aircraft will be transferred. 3 R1 }. f: y, H- N) YHAR(See HIGH ALTITUDE REDESIGN.)% \* ?% R& _7 x; `: ?- j Q HAT(See HEIGHT ABOVE TOUCHDOWN.)% Q# [) @0 {) r* J HAVE NUMBERS- Used by pilots to inform ATC . d' E5 G; k6 G c& n! n! w* |% _that they have received runway, wind, and altimeter / ^( l& _! M" Iinformation only. - B: H* D, |6 Y! U$ P7 fHAZARDOUS INFLIGHT WEATHER ADVISO‐ 7 [3 m0 w, V8 G0 Z" R0 G1 e" JRY SERVICE- Continuous recorded hazardous ' M3 \3 u% d' `4 y ^; \8 L5 vinflight weather forecasts broadcasted to airborne 3 _. m5 m3 ~1 O) D" K) m% T; Rpilots over selected VOR outlets defined as an( p3 c+ Y$ i, } HIWAS BROADCAST AREA. ! A, a: Y- M- i& kHAZARDOUS WEATHER INFORMATION-, h8 h. ~ N% R5 b6 f Summary of significant meteorological information, ?3 _1 _3 h! Q# f0 @ (SIGMET/WS), convective significant meteorologi‐ $ Y; T- k# O4 i2 e1 dcal information (convective SIGMET/WST), urgent/ ?0 n. U5 Y( |8 A, V4 v# ]) G pilot weather reports (urgent PIREP/UUA), center4 n/ N7 Q! p4 S weather advisories (CWA), airmen's meteorological + t! s% U4 |, s: d, Tinformation (AIRMET/WA) and any other weather! S1 d. l1 J$ |6 A/ C, N \ such as isolated thunderstorms that are rapidly - \6 _" |: l$ V% E: N# Adeveloping and increasing in intensity, or low ! X7 C6 P6 D( O- Mceilings and visibilities that are becoming wide‐ 3 a* a, D8 D; E( ~( V0 qspread which is considered significant and are not3 ~ v8 o& K8 l included in a current hazardous weather advisory. + Z+ [2 C( \. |HEAVY (AIRCRAFT)- ( ^4 U9 n6 x) Y(See AIRCRAFT CLASSES.)% R+ g; u6 k e6 k1 V! t U! O0 h HEIGHT ABOVE AIRPORT- The height of the 7 |* j( L3 O. T. N+ bMinimum Descent Altitude above the published/ \# R7 W# J5 e7 F$ x: B airport elevation. This is published in conjunction) C2 I+ D. O6 W) D, |% X with circling minimums. # {2 q6 t( B& U- A, G R(See MINIMUM DESCENT ALTITUDE.)$ ^% ]0 e5 ^7 s6 K9 q; l HEIGHT ABOVE LANDING- The height above a) U2 b) ]( w3 s designated helicopter landing area used for helicopter & V8 K, d' P9 D4 _, Y- Dinstrument approach procedures. ! _5 }1 l: n$ ]; S/ e(Refer to 14 CFR Part 97.) 3 G7 R, ^* ?4 V7 V) cHEIGHT ABOVE TOUCHDOWN- The height of 3 t/ D7 s+ k; L" @ h) Jthe Decision Height or Minimum Descent Altitude $ O/ u3 Q1 _) @ h! j. u- C* Cabove the highest runway elevation in the touchdown $ `0 h, I$ B* `3 b6 l, n8 Ezone (first 3,000 feet of the runway). HAT is ) Y5 E4 ?& u/ P/ Q9 [. zpublished on instrument approach charts in conjunc‐5 {8 w% `% d" {% k3 w" N6 ~# Z tion with all straight‐in minimums. 2 P6 r" E% R# E' Z7 T" p) `# d7 |(See DECISION HEIGHT.)! n8 P% g6 _! I! k$ S (See MINIMUM DESCENT ALTITUDE.). n! \9 W+ b2 w" G& Y3 M HELICOPTER- Rotorcraft that, for its horizontal * v$ J! N4 B( b0 D! q* S" wmotion, depends principally on its engine‐driven H5 T2 m8 V4 v2 b, M; c rotors.! O- a! ]& u, _ (See ICAO term HELICOPTER.)

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HELICOPTER [ICAO]- A heavier‐than‐air aircraft: u- |1 |( A- H8 a4 s" S4 b+ \3 r supported in flight chiefly by the reactions of the air" V' {- x( C2 ^ on one or more power‐driven rotors on substantially 9 U, K s1 E- v$ C, Fvertical axes.& \5 B$ R) P1 z HELIPAD- A small, designated area, usually with a/ h6 \1 O+ }- K. V) E prepared surface, on a heliport, airport, landing/take‐0 C- a3 f# ?/ X% o$ _ off area, apron/ramp, or movement area used for+ ~6 ]4 s. T+ c) O takeoff, landing, or parking of helicopters. 2 z; w' B$ ^( i, K, LHELIPORT- An area of land, water, or structure used; m) v0 d9 N! B# `& r or intended to be used for the landing and takeoff of; X6 P( M1 ~4 b0 e helicopters and includes its buildings and facilities if4 W0 H+ g* d! o" p any.( T. F3 O2 ?: e2 J# f HELIPORT REFERENCE POINT (HRP)- The . w1 J7 O1 _4 d0 A8 ?( H* x) {4 ggeographic center of a heliport. : s- k# A s4 F' P( u7 nHERTZ- The standard radio equivalent of frequency 8 q. \; R \) k# n5 W. ?( gin cycles per second of an electromagnetic wave.8 [6 U( z( A' Z: e! F Kilohertz (kHz) is a frequency of one thousand cycles6 ~* y$ O) T* b( ^3 U per second. Megahertz (MHz) is a frequency of one( Y6 i& a" j1 J5 K# Y9 ?8 A million cycles per second.4 e8 V, i% X% I' l! o3 L4 Y HF(See HIGH FREQUENCY.)4 l: n- H7 N- }: V8 @ HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.), H. I z1 P) }. L! g+ F0 ~ l HIGH ALTITUDE REDESIGN (HAR)- A level of ' b! w6 r3 l X# Y& n7 znon-restrictive routing (NRR) service for aircraft * f$ j+ h6 r; i2 e, W- Mthat have all waypoints associated with the HAR ) @; }9 \/ |1 l" Mprogram in their flight management systems or 1 J2 o+ h% ^/ f, c P" wRNAV equipage. , c+ I& ^4 w) i4 g. |Pilot/Controller Glossary 2/14/08$ S+ p; p. A! k PCG H-28 V6 d1 [" {5 w9 `0 X4 h- e9 Y HIGH FREQUENCY- The frequency band between }: l& Z" e/ l2 Y; { 3 and 30 MHz. 5 m9 b' a5 G1 N8 _% \! E: l0 Y) x(See HIGH FREQUENCY COMMUNICATIONS.)2 _0 d. F) |+ `( e5 }! A HIGH FREQUENCY COMMUNICATIONS- High " J0 \( T1 E& x- W) }$ D" Uradio frequencies (HF) between 3 and 30 MHz used + g, h0 n' X, x1 Afor air‐to‐ground voice communication in overseas ; F+ u* P4 p0 K# [operations.& l8 S Z9 S! z7 `3 \6 l$ t: h HIGH SPEED EXIT(See HIGH SPEED TAXIWAY.) : ~6 G3 g) i0 O6 `$ ~HIGH SPEED TAXIWAY- A long radius taxiway& e F: s+ a9 R; a designed and provided with lighting or marking to* i% h7 ^* v% U define the path of aircraft, traveling at high speed (up 0 Y( G- b+ Q* O* X8 k# Qto 60 knots), from the runway center to a point on the6 y; s3 o; F$ `& i5 f center of a taxiway. Also referred to as long radius # b* b* e' ~3 J( n z7 C6 _exit or turn‐off taxiway. The high speed taxiway is / B/ R) q- [3 F5 B9 X" rdesigned to expedite aircraft turning off the runway1 m. J$ O2 Y" C4 T7 l3 P7 d after landing, thus reducing runway occupancy time. ; u/ W' U( T( g& w: W5 Z1 |# e5 w1 LHIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.)& \5 y, p h1 S* L2 l HIWAS(See HAZARDOUS INFLIGHT WEATHER 6 p) f0 [% G: x8 kADVISORY SERVICE.)1 k5 {7 Q( f# g HIWAS AREA(See HAZARDOUS INFLIGHT WEATHER: U$ S. l, ?9 d3 B) [- e- e ADVISORY SERVICE.) ) L5 ]. h' p' a4 n5 L$ ^HIWAS BROADCAST AREA- A geographical area. k6 V6 s* C L4 u) Q; @0 k of responsibility including one or more HIWAS ( Z7 q* f6 d8 d6 ]) b' c/ Eoutlet areas assigned to an AFSS/FSS for hazardous* r! `8 J3 @# H- i/ w# I weather advisory broadcasting./ {" i9 o! s* U' u) V HIWAS OUTLET AREA- An area defined as a 150- m; a6 i# i l. q3 y6 Z NM radius of a HIWAS outlet, expanded as necessary & o& U& k0 @, U. zto provide coverage. : F7 v$ b7 J* N. xHOLD FOR RELEASE- Used by ATC to delay an3 V: c' b' l0 z9 @; {* S aircraft for traffic management reasons; i.e., weather,& t2 n, k# a6 T2 Y' z% X m traffic volume, etc. Hold for release instructions7 k* U! M0 G K8 _. u7 J' a, d. Q6 x (including departure delay information) are used to) f8 Q d( E* l" l inform a pilot or a controller (either directly or ( Y, S# R& _7 }7 `& g _* o) z4 Zthrough an authorized relay) that an IFR departure; o7 c; e7 U. i; ~9 ]" h clearance is not valid until a release time or additional6 O; |! W3 Q R7 o$ b( i% j5 M instructions have been received.0 _: _3 l W# G8 R$ K! |( B5 @ (See ICAO term HOLDING POINT.) & N/ @1 I( H8 C+ j dHOLD IN LIEU OF PROCEDURE TURN- A hold % a7 j4 W/ R. I' }1 P1 y3 q# Yin lieu of procedure turn shall be established over a + E4 Q5 v: k! N% O& Yfinal or intermediate fix when an approach can be7 r" O6 z, ~8 L% z4 f* L- j/ L made from a properly aligned holding pattern. The / _$ G0 v j f6 y4 Dhold in lieu of procedure turn permits the pilot to , O7 K0 d3 N( v* L0 Lalign with the final or intermediate segment of the ( Q# m7 U: I; ]$ l8 }approach and/or descend in the holding pattern to an0 n9 s4 K9 ?2 Q K/ ? altitude that will permit a normal descent to the final 4 C, N, M% N# k6 `% ?approach fix altitude. The hold in lieu of procedure % g( q4 |5 h, U- fturn is a required maneuver (the same as a procedure ! K4 ]1 i5 f1 H2 Nturn) unless the aircraft is being radar vectored to the : J# m6 m+ P2 p) @8 w. T7 ifinal approach course, when “NoPT” is shown on the9 S* i5 H j5 j approach chart, or when the pilot requests or the, G$ E7 w/ L2 e, F% E controller advises the pilot to make a “straight-in”) E& t' Z8 G6 f5 k& I# s approach. 5 M1 a5 i- B2 W' q( eHOLD PROCEDURE- A predetermined maneuver 7 n! x* S4 m8 ]8 \/ kwhich keeps aircraft within a specified airspace while + c( g1 m! ` G2 u4 d. t: lawaiting further clearance from air traffic control.. i5 u3 A) w1 Q0 c" B0 _& q Also used during ground operations to keep aircraft7 d" X+ m3 j$ s9 ^+ V2 f within a specified area or at a specified point while / C) L% p/ [$ A4 C! Y: F/ K$ d6 a: |awaiting further clearance from air traffic control. - j9 ~/ u6 b' I4 c% f(See HOLDING FIX.); a% i0 \9 U2 s) L2 j (Refer to AIM.)0 |( C# [0 e2 d# F HOLDING FIX- A specified fix identifiable to a D- f) O4 X5 r* b2 B" u8 D pilot by NAVAIDs or visual reference to the ground, |* q9 j6 m2 Y. q used as a reference point in establishing and 5 G6 i( H3 x& mmaintaining the position of an aircraft while holding. , B, W3 I) V5 }. }' [$ f(See FIX.)6 \' }5 B1 E+ M% d3 W* h (See VISUAL HOLDING.) 2 n) m. g, |: ?(Refer to AIM.) $ d5 f' U+ G/ C; LHOLDING POINT [ICAO]- A specified location,) c( e B: [4 w, j$ W5 \ identified by visual or other means, in the vicinity of 0 R; r' Q+ j' K Dwhich the position of an aircraft in flight is ) s( A; |& h+ R; kmaintained in accordance with air traffic control 3 x; Z( U" ` dclearances.+ H" Y, i1 K5 [ HOLDING PROCEDURE(See HOLD PROCEDURE.) 3 x I4 S- U, ?- q. IHOLD‐SHORT POINT- A point on the runway; J5 B7 \: c2 r* E- v0 k, | beyond which a landing aircraft with a LAHSO 6 S3 \, }9 ?% J8 _0 Z# j+ `clearance is not authorized to proceed. This point" f% B# @' T! J0 w4 m9 g; P8 j' e may be located prior to an intersecting runway, ; h) O! ?% H5 Y) p; ]/ Staxiway, predetermined point, or approach/departure) y% `9 R9 y- K4 ^4 G9 y flight path. $ z1 Q4 a& ]8 J% `HOLD‐SHORT POSITION LIGHTS- Flashing& E8 n' k* }7 H9 v g0 Z in‐pavement white lights located at specified/ v2 m' Q" b1 P hold‐short points.( i" I7 S) h: R$ y1 q* G# U HOLD‐SHORT POSITION MARKING- The 8 P, C9 {) L4 P' f9 Mpainted runway marking located at the hold‐short |. M5 W$ K" V1 e j point on all LAHSO runways. ' {) V I/ [) h; _9 q2 BHOLD‐SHORT POSITION SIGNS- Red and white9 Q/ [- ^- x$ r+ L holding position signs located alongside the& W7 P0 ^) G2 ?2 o" O) t% {' P hold‐short point.# V3 N; `; @" ]' o Pilot/Controller Glossary 2/14/08 ]- l/ N8 Q# _/ q% }; nPCG H-3 - v9 b3 X. d4 R/ bHOMING- Flight toward a NAVAID, without4 c' [( {( h0 I; ^% M+ ]& V correcting for wind, by adjusting the aircraft heading 3 }; W! c. Y, |" N pto maintain a relative bearing of zero degrees. 5 i: I9 C7 N8 @' d/ w+ p+ T5 K# {(See BEARING.)7 V" `* H& \) S6 i, j% h" {( h (See ICAO term HOMING.). ?+ R; \6 p8 I f HOMING [ICAO]- The procedure of using the 1 U. F4 j3 b# F8 H4 U @direction‐finding equipment of one radio station with 9 D( K2 a8 A! K0 e5 t. W" Kthe emission of another radio station, where at least 3 f, l2 P. P W6 r. m" \+ Eone of the stations is mobile, and whereby the mobile: Z4 \& e0 P2 ]7 ?+ n% N0 o. M station proceeds continuously towards the other) k4 z8 B9 A/ w& Z station./ z4 B* L' {4 N8 N" M% D& \8 @# { HOVER CHECK- Used to describe when a & Y6 z- c- `2 l$ {helicopter/VTOL aircraft requires a stabilized hover 0 a( k# U) c. b4 z8 Pto conduct a performance/power check prior to hover0 f# O/ y% o: h2 ^! S: Y, G taxi, air taxi, or takeoff. Altitude of the hover will# ]; D. b2 @. F1 c vary based on the purpose of the check. ' f: v; \, I1 F' h. AHOVER TAXI- Used to describe a helicopter/VTOL p- g# N' F2 {0 W$ zaircraft movement conducted above the surface and- m, R: m$ l3 S* G4 n% S) w in ground effect at airspeeds less than approximately' N8 X/ r+ T3 K+ @* Z; B 20 knots. The actual height may vary, and some 4 L% Q/ J: x' A- z! phelicopters may require hover taxi above 25 feet AGL5 E0 y) ^' S8 J# Q/ w to reduce ground effect turbulence or provide' u; s) p. b: z clearance for cargo slingloads." b. l6 n @; B- V6 m (See AIR TAXI.): q7 Y" x; y: e8 O (See HOVER CHECK.) $ i9 L/ Z5 }+ d! Q(Refer to AIM.) % D" e+ L( Q. J* Y' aHOW DO YOU HEAR ME?- A question relating to' I& A8 u2 D# V$ }0 v# V the quality of the transmission or to determine how: X) z9 h1 Z ?5 o well the transmission is being received.3 I8 h2 x9 _4 q4 z6 ]$ k' ^ HZ(See HERTZ.); e* }, Z, n3 Z1 ~3 A Pilot/Controller Glossary 2/14/08 ( ]8 M1 C5 c9 ~5 A" qPCG I-1: H0 y7 Z0 v4 g8 U' v5 C I $ z2 g; E0 j9 k4 d5 n! r' q+ ?I SAY AGAIN- The message will be repeated. % \" b. L% O! H2 o* bIAF(See INITIAL APPROACH FIX.) 1 Y8 e+ i9 O: v7 c: u5 ^' g- L! fIAP(See INSTRUMENT APPROACH ; x4 Q4 t. O P( a9 X5 {PROCEDURE.) 3 P: [0 j, c, oIAWP- Initial Approach Waypoint9 d, \4 ^6 v8 L9 U ICAO(See ICAO Term INTERNATIONAL CIVIL 6 O' P" R, H% sAVIATION ORGANIZATION.): ~ c1 Q! V# ]* B. O: X- F- Y ICING- The accumulation of airframe ice.3 T0 F4 _- B4 a# T. V3 f Types of icing are: 8 y) a1 h" g; G- _2 aa. Rime Ice- Rough, milky, opaque ice formed by1 g5 B9 F8 X6 K+ y- U# j5 V the instantaneous freezing of small supercooled . p" b+ @1 H5 l1 V T T' dwater droplets. 4 H2 d! C# F ab. Clear Ice- A glossy, clear, or translucent ice) @5 z* p3 Q- L k% Q2 ` formed by the relatively slow freezing or large * B6 r1 j' d% f# vsupercooled water droplets. ( G9 D- L9 N$ m7 d+ Wc. Mixed- A mixture of clear ice and rime ice.' e( Q; o; I0 }0 ^- e Intensity of icing: $ X& g1 c4 R) s7 R, C9 Ca. Trace- Ice becomes perceptible. Rate of + g. L, U, a, ~, T4 p" S/ Laccumulation is slightly greater than the rate of1 ~& K" d: [2 I% {3 d# n sublimation. Deicing/anti‐icing equipment is not 1 Z6 U' V5 B/ ]( X/ w2 Autilized unless encountered for an extended period of 8 p7 } |3 r+ B6 G* otime (over 1 hour).9 v1 J2 ]2 g# { b. Light- The rate of accumulation may create a& Q" E" [; I+ v& }8 x' U; d5 R problem if flight is prolonged in this environment 2 n1 @) Z! g2 _; n! w% S4 C# y(over 1 hour). Occasional use of deicing/anti‐icing . F# }* o# Q6 F, ]equipment removes/prevents accumulation. It does $ T$ _6 e: J9 P( C3 Mnot present a problem if the deicing/anti‐icing5 U6 o# s) @( O0 M& d7 S equipment is used.' @" C5 W1 I+ I+ `, `1 Y6 y9 l c. Moderate- The rate of accumulation is such that8 n! `9 s8 }* B0 ? even short encounters become potentially hazardous4 a) a2 }; W1 e* w7 n2 t and use of deicing/anti‐icing equipment or flight 6 Q4 |# K6 n4 j7 X% Ldiversion is necessary.; r- L+ A2 E# R8 U; N d. Severe- The rate of accumulation is such that % y9 n L- u1 R2 V) r2 k. b9 wdeicing/anti‐icing equipment fails to reduce or ' X7 a+ @3 ~: n8 p) `: V+ i" bcontrol the hazard. Immediate flight diversion is 7 w9 f; y; C/ L( `necessary. # R$ W9 c( V) t' B" X7 _' WIDENT- A request for a pilot to activate the aircraft ; d- ?% j+ X7 [' [& atransponder identification feature. This will help the ( v* e5 Q1 g. ~2 qcontroller to confirm an aircraft identity or to identify 9 r- y$ i' h* K. w; X! S: v! wan aircraft. + ]/ R+ `3 ^: v3 K5 X(Refer to AIM.)& h: g6 r* `) _8 ~ IDENT FEATURE- The special feature in the Air : B( {# ?% O/ c& jTraffic Control Radar Beacon System (ATCRBS) & [& X" f9 }) v. |% F2 y% Y2 qequipment. It is used to immediately distinguish one 1 { i3 e' M* `# m; ]; c3 t( jdisplayed beacon target from other beacon targets. 7 h* M/ g4 z2 O$ ^(See IDENT.) 4 v2 m! i' z6 w) O2 n9 kIF(See INTERMEDIATE FIX.)7 e5 s M \' |/ r, | IFIM(See INTERNATIONAL FLIGHT INFORMATION - W y% D/ F! ?% e$ y0 D) U1 [: HMANUAL.) % G6 r! V( F; p. ~$ [3 F! `IF NO TRANSMISSION RECEIVED FOR. X1 E( f2 D' D9 n7 r (TIME)- Used by ATC in radar approaches to prefix. \8 [3 N' Z0 L% `: G- {1 A procedures which should be followed by the pilot in 8 c" F" E/ Q* {2 w1 wevent of lost communications.% A5 q0 F' n7 M. J8 `& ] (See LOST COMMUNICATIONS.) 8 R; n' z* p2 N: e. |) ~, \IFR(See INSTRUMENT FLIGHT RULES.) ) l% y% E; a: g0 y5 RIFR AIRCRAFT- An aircraft conducting flight in , c8 @5 U% ]" z7 C8 J" P7 daccordance with instrument flight rules. % N# Q1 Z# f+ `3 FIFR CONDITIONS- Weather conditions below the 8 r; `5 v' C1 I) c+ k7 dminimum for flight under visual flight rules.7 X$ y& e* h; c/ o2 Y x) _ (See INSTRUMENT METEOROLOGICAL 0 l& b: O$ ?; b8 S/ o1 Q4 B3 nCONDITIONS.) - y9 k( A& w! P, E0 `) M% BIFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND . ^( X' r0 F$ ^6 RDEPARTURE PROCEDURES.)3 G6 E7 Z; m7 \3 m& N (Refer to AIM.)2 _( D$ m' k0 w8 X$ H- F: W5 z. E IFR FLIGHT(See IFR AIRCRAFT.)2 S3 C' ^, q% ^$ @/ K! l6 o0 C IFR LANDING MINIMUMS(See LANDING MINIMUMS.)3 B0 l1 J" U# ^2 i- `' a. i$ ?* Z IFR MILITARY TRAINING ROUTES (IR)- Routes 6 l* G5 X/ N) W) l8 L+ wused by the Department of Defense and associated 5 M( R: |. d% b- S8 W" uReserve and Air Guard units for the purpose of$ ~, h! x9 M/ ?0 S5 L conducting low‐altitude navigation and tactical) [3 h' M3 P1 \2 v3 o training in both IFR and VFR weather conditions ( B4 U& Q# }7 u4 g0 x( Bbelow 10,000 feet MSL at airspeeds in excess of 2505 z$ R* ~, [! U% `" |. u& Y knots IAS. # j: m! l2 e" E0 \) jIFR TAKEOFF MINIMUMS AND DEPARTURE 7 K) _- l! D$ L" OPROCEDURES- Title 14 Code of Federal : k' I) F* A- g [Pilot/Controller Glossary 2/14/08! s& Z" f( K2 A# X PCG 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 / J* @) h! `1 c+ A2 r, jfor certain civil users. At some airports, obstructions # w" S2 ~2 S; Z; g2 R+ zor other factors require the establishm ent of 7 f# a* @8 Y& q. \4 k) j0 Xnonstandard takeoff minimums, departure proce‐ ! @* l! ^: H D& Idures, or both to assist pilots in avoiding obstacles* P; U- D' K& P6 k E during climb to the minimum en route altitude. Those 5 C, n: B |' I0 q% |- {% wairports are listed in FAA/DOD Instrument Approach 3 [+ \ L0 H1 | b- }, ]Procedures (IAPs) Charts under a section entitled , b* C+ E2 \& t* y ?3 w“IFR Takeoff Minimums and Departure Procedures.” ( ~0 ~6 r1 M) }' K6 h, [. f+ GThe FAA/DOD IAP chart legend illustrates the f% J5 s: X7 xsymbol used to alert the pilot to nonstandard takeoff v7 }1 k7 ~4 Q* J' Q minimums and departure procedures. When depart‐ ( d$ i3 C4 z: {( King IFR from such airports or from any airports where" J& r" S( G% `% B, S0 n( P there are no departure procedures, DPs, or ATC " k, P/ E) ~9 P. H* s) _facilities available, pilots should advise ATC of any 1 B3 N2 }: X" M: U( \. Adeparture limitations. Controllers may query a pilot 9 N8 f- [8 C/ I/ C/ E% K- y0 y8 @to determine acceptable departure directions, turns, 2 B$ L3 ]7 h/ }# f: W) d1 x; y4 S/ oor headings after takeoff. Pilots should be familiar" t, T( [4 _2 e( U with the departure procedures and must assure that- M% y" V+ ^" a) V X their aircraft can meet or exceed any specified climb& r/ J- E9 k" w* P; ? gradients. " _# z8 k' l- ~IF/IAWP- Intermediate Fix/Initial Approach Way‐( Y$ P" r' | X. A* [ point. The waypoint where the final approach course9 \2 G. J9 [* f) X6 `' W+ Y, m; K of a T approach meets the crossbar of the T. When 7 } j0 p4 o6 p# ? i- bdesignated (in conjunction with a TAA) this , l2 y) Y& M/ G# M# x- r' rwaypoint will be used as an IAWP when approaching ' ~- v+ Y: ^0 E5 kthe airport from certain directions, and as an IFWP% d l# s3 w$ s! O6 R. M when beginning the approach from another IAWP. ) [" J! c1 y h0 ?IFWP- Intermediate Fix Waypoint; S" x* a! y" }% c5 y& T2 U ILS(See INSTRUMENT LANDING SYSTEM.) : W5 s. ^% r" W r/ U6 R) YILS CATEGORIES- 1. ILS Category I. An ILS& X8 e3 @3 _. D c, f! c+ E approach procedure which provides for approach to 0 _5 ?2 J$ i) B5 |2 \( Ja height above touchdown of not less than 200 feet1 h* q% _/ n) m# h and with runway visual range of not less than 1,800 + d3 Z: d9 g9 ^* Vfeet.- 2. ILS Category II. An ILS approach procedure - k$ {6 W G" z; xwhich provides for approach to a height above * C' k( W, N1 h) Wtouchdown of not less than 100 feet and with runway ' Y4 U# M; a+ {8 t! \2 R9 g0 G3 `visual range of not less than 1,200 feet.- 3. ILS - q! {& M' B. a) P/ M9 cCategory III: 4 k6 C: f& Z2 I3 h# ha. IIIA.-An ILS approach procedure which ! Y* r) ~) o+ o2 Z4 cprovides for approach without a decision height, f8 S! |4 J+ ] minimum and with runway visual range of not less ! g2 |# F# I# @' _+ \* b, \than 700 feet. 9 b& \5 `5 `/ Ub. IIIB.-An ILS approach procedure which' ?! x4 `/ m ?: _; K* ?8 t! r6 \ provides for approach without a decision height + P$ ^( C/ U/ {+ {( w5 ^+ G0 gminimum and with runway visual range of not less% j3 F1 \5 v- n9 Q1 e9 i6 K than 150 feet. " ]3 y, C2 g. Gc. IIIC.-An ILS approach procedure which/ V8 r4 x% V# i: e& d provides for approach without a decision height 1 Z) M9 Q* Q3 J; r: ~minimum and without runway visual range+ F& a9 d, q0 u. x0 W/ @ minimum.$ [6 L0 @( T" S' {/ d2 @ ILS PRM APPROACH- An instrument landing }" E ]# n1 d8 n% Z1 j( rsystem (ILS) approach conducted to parallel runways9 f I g$ u6 O4 z. s o whose extended centerlines are separated by less than7 l* y8 }' e1 w, g 4,300 feet and the parallel runways have a Precision ( q* E9 T1 u& H O+ ~! t( HRunway Monitoring (PRM) system that permits % L! O5 j" W- r0 R5 m- h# G% |: Osimultaneous independent ILS approaches.$ I! n1 ~# _/ J" k0 P IM(See INNER MARKER.) + h5 F. k/ v- f- a# s. xIMC(See INSTRUMENT METEOROLOGICAL ' G/ G# K7 E# h9 L. \" Q! T8 I2 @CONDITIONS.)- W6 z/ s8 _. H5 c IMMEDIATELY- Used by ATC or pilots when such 5 }" ?9 [3 ~) b! c5 Q$ xaction compliance is required to avoid an imminent: u# r4 H+ V g+ u% K7 w. a situation. # k' r! S" z8 r! {- }INCERFA (Uncertainty Phase) [ICAO]- A situation + e: U2 ?, X. |% A- jwherein uncertainty exists as to the safety of an / T" a2 l8 L9 ?% j4 [0 ]; B4 naircraft and its occupants.+ e! h% h' ` i INCREASE SPEED TO (SPEED)- 1 ]1 y5 A. s) S(See SPEED ADJUSTMENT.)6 S& u" ~" n+ ]% L0 S INERTIAL NAVIGATION SYSTEM- An RNAV: y3 l) z! c5 x; Q' h+ c system which is a form of self‐contained navigation.6 X" D1 C4 s0 T( l# \ (See Area Navigation/RNAV.) 2 f8 C, v' I& g7 {6 ?; gINFLIGHT REFUELING(See AERIAL REFUELING.) 2 O' C6 }* _6 BINFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.)+ `# F& @+ B3 S3 h INFORMATION REQUEST- A request originated % n- ~6 U& v8 s8 M& F. Gby an FSS for information concerning an overdue; _) ?& b' L1 Q# i VFR aircraft. 7 J) q) r* u5 ^# |( g* A. LINITIAL APPROACH FIX- The fixes depicted on 2 G* { n+ O3 O7 G& ]- P6 _, D6 R/ Tinstrument approach procedure charts that identify . H! {2 N' \# O5 ~9 n& Cthe beginning of the initial approach segment(s).$ H3 `1 n2 i: c) U6 \6 ?8 T Q (See FIX.)# y0 y: c3 @2 Z6 D$ o8 n) I: V (See SEGMENTS OF AN INSTRUMENT 5 x8 S* G; [* J0 @7 \APPROACH PROCEDURE.)6 v3 U( C: T2 N& a5 A5 E& L INITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT ; `0 E; B8 `4 c" YAPPROACH PROCEDURE.)) Z7 G8 p, g, _ INITIAL APPROACH SEGMENT [ICAO]- That 9 a9 @: i" _1 l) V+ o$ i( ssegment of an instrument approach procedure / Y6 A+ x) h6 g- Fbetween the initial approach fix and the intermediate7 @- M# b% F3 i: f( D3 Q approach fix or, where applicable, the final approach' W, v$ |+ J P2 L" r+ C fix or point.; r/ o0 N: c2 m7 d/ { Pilot/Controller Glossary 2/14/082 S- U E5 l1 k; k# b PCG I-3 ( Q; X5 W5 s) vINLAND NAVIGATION FACILITY- A navigation5 F) x* a) g: v0 A# M9 ~2 V) D: T aid on a North American Route at which the common 7 X9 J; i: z! a$ r2 l. p i$ j6 rroute and/or the noncommon route begins or ends.) P. k% b1 x! ?9 ^ INNER MARKER- A marker beacon used with an $ ~6 g( ?7 b1 }' |% l# T SILS (CAT II) precision approach located between the ; |3 S: k* ]/ T* ]* D( Wmiddle marker and the end of the ILS runway,/ `8 l8 n( n0 {- |0 R$ W transmitting a radiation pattern keyed at six dots per# N, |. _; V# N- J+ l# d4 { second and indicating to the pilot, both aurally and' L! X+ u( y) a* f. L: ? visually, that he/she is at the designated decision 3 N9 b. Z* E9 Jheight (DH), normally 100 feet above the touchdown 3 \7 [* Q$ B' v6 ~zone elevation, on the ILS CAT II approach. It also- ]( T$ x! v# T% } marks progress during a CAT III approach.) s v$ b1 r1 _" x4 v$ X1 \7 r (See INSTRUMENT LANDING SYSTEM.) . R3 E: R4 p6 O9 Y% O$ o$ v0 y3 X0 b* }(Refer to AIM.)1 J( J3 q1 v) I$ r1 C INNER MARKER BEACON(See INNER MARKER.)5 G5 J8 _4 V* \9 } INREQ(See INFORMATION REQUEST.)% N' ^& ] M/ d0 Z( p INS(See INERTIAL NAVIGATION SYSTEM.) % N$ j# x3 E3 C! f4 v1 E1 pINSTRUMENT APPROACH(See INSTRUMENT APPROACH$ q2 F4 i- o8 k4 `2 K PROCEDURE.) ' N' v; j" _! qINSTRUMENT APPROACH PROCEDURE- A7 \! ~: F1 ]2 L3 e9 ]4 d series of predetermined maneuvers for the orderly 6 h9 u& y) t" ]% B. Q% I" l& `transfer of an aircraft under instrument flight8 `4 t9 r( P( y conditions from the beginning of the initial approach* n6 ~" w) Y8 f- r to a landing or to a point from which a landing may 8 }+ s* d: p- z- D$ s1 ]7 d$ Ube made visually. It is prescribed and approved for a ; L; T, r& e" b6 Fspecific airport by competent authority. 9 a# Z4 Z- w. L ~ ~ ](See SEGMENTS OF AN INSTRUMENT3 r& Z0 P+ y, a3 @9 b! N APPROACH PROCEDURE.), ~9 T2 Q3 d/ a5 @" C; o9 G( p+ e# G (Refer to 14 CFR Part 91.). H2 l/ S* a9 h$ V0 D$ j7 G (Refer to AIM.)2 X, p _9 I$ I5 P5 E9 J a. U.S. civil standard instrument approach9 @* o% C( k+ V1 T, ` procedures are approved by the FAA as prescribed # d6 ^* \5 Y) [under 14 CFR Part 97 and are available for public, |6 | j$ f* _ use.9 r0 v- w4 [: M) s b. U.S. military standard instrument approach: K+ Z6 x N- {4 e procedures are approved and published by the& K0 E! Z% q, C4 f3 ?% J Department of Defense.- k3 I' ~2 z, W c. Special instrument approach procedures are8 U/ \" ]' M1 D" }6 R8 v+ q; @& l approved by the FAA for individual operators but are + t: M1 h1 ~* l0 j: o6 x$ G- Vnot published in 14 CFR Part 97 for public use.9 V0 A& C) h6 p: p, {2 p! s+ z3 f* | (See ICAO term INSTRUMENT APPROACH $ F, e3 u0 |6 ]: T: ]% LPROCEDURE.), f n1 N ]5 L7 @: h INSTRUMENT APPROACH PROCEDURE7 j6 G; l6 d; x7 W5 x6 w [ICAO]- A series of predetermined maneuvers by 9 R' G& p# D1 j( ?7 z5 m9 X3 zreference to flight instruments with specified, I- ~$ c4 i! W6 p& t: P protection from obstacles from the initial approach A, @% b+ |# }. L4 O fix, or where applicable, from the beginning of a + q- U7 B* e/ D0 P: Hdefined arrival route to a point from which a landing 8 d7 W3 E5 X9 k8 |can be completed and thereafter, if a landing is not- W: N9 F! G6 [6 d5 X$ n/ ? completed, to a position at which holding or en route , l. ?/ ]1 e. ]0 D$ _6 ~obstacle clearance criteria apply. # m; V4 W3 m7 N) w p( aINSTRUMENT APPROACH PROCEDURES & [, W; N- H; O3 p. e9 s, oCHARTS(See AERONAUTICAL CHART.) , i" b) ~9 E+ ^0 w4 m0 oINSTRUMENT DEPARTURE PROCEDURE . W( j& L. e& \/ D(DP)- A preplanned instrument flight rule (IFR) 7 u3 X9 V1 D! |0 Vdeparture procedure published for pilot use, in7 ]8 i7 _8 X/ R' x+ V0 T0 X graphic or textual format, that provides obstruction 7 s- \! ^0 e u5 mclearance from the terminal area to the appropriate en 1 B0 I9 C8 ?) k, r; B3 Y' Wroute structure. There are two types of DP, Obstacle) X+ x6 U; f& {! B Departure Procedure (ODP), printed either textually& k( s' Q: V6 n; h6 R or graphically, and, Standard Instrument Departure , }' q% ]0 s( ^8 k(SID), which is always printed graphically.7 T9 Q; ^. a* a! U& I& Z4 B8 V: D (See IFR TAKEOFF MINIMUMS AND # ?( ^! M- v, I ZDEPARTURE PROCEDURES.); i# o7 q% U3 n2 P; P7 e& K4 a (See OBSTACLE DEPARTURE PROCEDURES.) , D, m, p1 J* a" e7 t1 g(See STANDARD INSTRUMENT DEPARTURES.) 9 ]* Q+ c2 o/ |+ H(Refer to AIM.)0 q; [1 v6 x5 N6 G. [, T9 o0 H8 s INSTRUMENT DEPARTURE PROCEDURE (DP)# J1 p! i4 @$ N: ?, Y+ Q CHARTS(See AERONAUTICAL CHART.)# o' O/ a. F' B2 o INSTRUMENT FLIGHT RULES- Rules governing# `6 o( S1 |/ v the procedures for conducting instrument flight. Also + z4 M2 P9 W& Q" v6 xa term used by pilots and controllers to indicate type / e# N3 R8 ]" b; ^of flight plan. M, |3 |8 K3 ~- H (See INSTRUMENT METEOROLOGICAL n+ R1 l" X5 _, g6 k- V( T CONDITIONS.) - F, P8 E! b0 o9 J(See VISUAL FLIGHT RULES.) 8 S+ G9 D1 A/ k(See VISUAL METEOROLOGICAL 4 ]7 m) T6 x; f! W) W$ A* HCONDITIONS.)" ^; u; R0 r, Y$ G9 m5 E; t7 t2 E: h9 v (See ICAO term INSTRUMENT FLIGHT. P1 y3 X- E0 h! R+ c0 s RULES.)! e+ Z' O$ z" B j. Q W' C1 z5 d N (Refer to AIM.) * ~, o+ y8 T* q# R- P* s, rINSTRUMENT FLIGHT RULES [ICAO]- A set of8 B, ]( C V8 w8 Q3 u rules governing the conduct of flight under2 L; i; q, a. S P instrument meteorological conditions.& M# z, r& J% N7 @" O- u- n INSTRUMENT LANDING SYSTEM- A precision( h- L& |$ b& M$ Z4 P$ }: F1 }* {2 f+ } instrument approach system which normally consists% e; ?( R R6 G- g6 t* X) D1 H of the following electronic components and visual - U( n: W3 V- t- V* m# yaids: 2 i3 ^2 u! g( t+ O) ?Pilot/Controller Glossary 2/14/08 , s% ^+ o0 ~2 K' S/ nPCG I-4 / @. J& M1 Z) D3 C0 oa. Localizer. : U" f& V9 I/ l# M7 C- R(See LOCALIZER.)4 r' ]5 ?! @6 G+ f3 W+ j9 d b. Glideslope. " f: E) l0 M8 s7 _0 {# ^(See GLIDESLOPE.) , Y. {$ |! P; X& g" Pc. Outer Marker. w1 |( ~& E+ h P, E(See OUTER MARKER.) & B- w$ N) l. T, [1 g. g6 Kd. Middle Marker., [) ?* e- m! |% ~8 _ (See MIDDLE MARKER.) ) H! j9 o% l( w( Y+ ke. Approach Lights. 8 L3 i; w8 d) a0 k* Y(See AIRPORT LIGHTING.) ) X- z* G) e( o0 c" W* l(Refer to 14 CFR Part 91.)2 M4 h, l: p5 E' w @9 c* n (Refer to AIM.) ! V% M1 c7 t/ Y. ?% P9 l* mINSTRUMENT METEOROLOGICAL CONDI‐ 2 O! v% s, Y: p& S8 ITIONS- Meteorological conditions expressed in . O+ V2 c& a& t/ c' r9 dterms of visibility, distance from cloud, and ceiling * T; ?1 S0 o( r$ Qless than the minima specified for visual meteorolog‐& ~3 w/ n# }3 ? ical conditions. 7 b$ O0 E- x/ S) y3 l(See INSTRUMENT FLIGHT RULES.)4 k$ `. U/ T A1 Q# [4 h8 s (See VISUAL FLIGHT RULES.)% K* Z1 |) d/ g (See VISUAL METEOROLOGICAL# Y. ~! _2 t2 @% k, W; f7 K CONDITIONS.) 5 r0 Z" G/ ^% w/ v7 @INSTRUMENT RUNWAY- A runway equipped9 @& W# R* Y" n0 B with electronic and visual navigation aids for which 6 j6 C x# K7 q/ J5 da precision or nonprecision approach procedure. |) q, Y" _! ]5 ~& N having straight‐in landing minimums has been- t' O5 p5 P6 Z: |) q5 E approved. * r2 G4 Y# J# s7 l' Y(See ICAO term INSTRUMENT RUNWAY.)8 q8 [( L/ e* U# f: i INSTRUMENT RUNWAY [ICAO]- One of the ! o1 N2 n( |% y6 A. H/ g6 kfollowing types of runways intended for the/ W1 g$ t _$ S operation of aircraft using instrument approach 0 ]; u ?8 F. K+ e- N! V! aprocedures: % z$ o- R7 o/ m+ G7 G+ l) Ka. Nonprecision Approach Runway-An instru‐7 S. L/ t( {, v/ f ment runway served by visual aids and a nonvisual3 n+ ?. l: g7 T, t aid providing at least directional guidance adequate* @4 _, B! K0 I$ a4 G: w# Y for a straight‐in approach.$ z- V, y/ G# c7 F& p/ T b. recision Approach Runway, Category I-An ( h% B1 V {; g& |6 Iinstrument runway served by ILS and visual aids: _8 P9 k' R8 S! q) u intended for operations down to 60 m (200 feet): e6 c/ R2 r* C' C/ ~ decision height and down to an RVR of the order of 6 |$ d9 Z- D3 r9 z: Y5 B800 m.) j2 |6 v/ o$ {( d5 O c. recision Approach Runway, Category II-An6 X1 }7 V% M0 [; W! m% F instrument runway served by ILS and visual aids: ]) s. d' o9 [$ \" F" J intended for operations down to 30 m (100 feet). Y* T( `1 S) q8 R decision height and down to an RVR of the order of+ y) k- [2 I; G' {1 S 400 m.0 d% h" T1 W% L+ G" p* m) M* Q d. recision Approach Runway, Category III-An7 \. z4 X8 u* n. t( X9 O instrument runway served by ILS to and along the : ` }1 j" p- B; Psurface of the runway and: ; c- Y; {* e4 B8 m. @; ?3 u1 c2 L1. Intended for operations down to an RVR of 9 _! q1 Z+ x; Z. J# m( Dthe order of 200 m (no decision height being # r) c) J2 Q ^- ?, V9 [applicable) using visual aids during the final phase of4 a+ b6 }3 e7 k8 K4 d! p* |" g8 W& ? landing; # B" F- ~/ l9 S! G7 Y, |) k% E; _2. Intended for operations down to an RVR of - N+ v- ^' L1 a3 g- Tthe order of 50 m (no decision height being 5 ], q3 H9 F; {" h* f2 k4 Happlicable) using visual aids for taxiing; / J. t/ [9 Q; u) y! L3. Intended for operations without reliance on ! U. J- l% B, r/ h3 Nvisual reference for landing or taxiing. 2 R" B* a: b( pNote 1:See Annex 10 Volume I, Part I, Chapter 3, + R! A( W7 V0 ^/ \9 ufor related ILS specifications. 6 `& o1 a5 J: E# oNote 2:Visual aids need not necessarily be & a8 Q% v* E: |+ m0 Qmatched to the scale of nonvisual aids provided.7 E' v' A' G4 x0 E The criterion for the selection of visual aids is the) F: `# J; D8 n, R+ ]8 \2 t- \ conditions in which operations are intended to be! I4 {$ A4 D) `2 A$ a conducted.1 P/ J4 l* e2 _* g. ~3 C INTEGRITY- The ability of a system to provide 5 P1 w5 T, B* h ^0 jtimely warnings to users when the system should not % t2 ^; b$ X& l5 k& X. @( E7 hbe used for navigation. ' I3 Y& h& W1 {INTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT 7 V# Y4 q+ m* E) s8 j' F( H9 f% ?APPROACH PROCEDURE.) # r1 T$ V7 |. d2 b. ?' s2 wINTERMEDIATE APPROACH SEGMENT 0 ?% q, u& T2 P( r# f0 }[ICAO]- That segment of an instrument approach/ d9 B% A4 @( K procedure between either the intermediate approach1 f4 S+ x& j0 W* d* e; O fix and the final approach fix or point, or between the$ N7 A5 z: h& N- ?2 z; R end of a reversal, race track or dead reckoning track ) m- V5 ?0 H# P. x5 |0 lprocedure and the final approach fix or point, as8 P- \9 H( @" P! b8 \ appropriate. ; b* {! v9 ]3 f" H+ hINTERMEDIATE FIX- The fix that identifies the / ^4 h) v& @6 h4 Abeginning of the intermediate approach segment of an9 ? w# c8 N2 Y: S h instrument approach procedure. The fix is not6 G+ E9 a, f# U, H4 p. b normally identified on the instrument approach chart g3 x+ u: ?7 ~6 Z as an intermediate fix (IF). ' z$ k) x* v9 _(See SEGMENTS OF AN INSTRUMENT - ~7 w" A! t8 s GAPPROACH PROCEDURE.) ) E& N+ U; q& z0 a# e1 A( ?INTERMEDIATE LANDING- On the rare occasion* ~( x9 [5 i U$ l7 T that this option is requested, it should be approved. : G5 g0 x' D; I% U- e' D7 }The departure center, however, must advise the . o$ E5 i, O( d ]3 y0 P* K) N6 y5 UATCSCC so that the appropriate delay is carried over 7 ~4 o, p% f* n4 \* [' jand assigned at the interm ediate airport. An 9 t! f. O$ y; C* lintermediate landing airport within the arrival center 1 n# s- J x& P2 Gwill not be accepted without coordination with and : ?/ V1 i& k X6 k! ?! l" Qthe approval of the ATCSCC./ l) Z q6 Q% c" w/ Y INTERNATIONAL AIRPORT- Relating to interna‐ % g( l. t, z9 {/ z* Stional flight, it means: 7 Z" r8 e5 _6 D" D, x& u- hPilot/Controller Glossary 2/14/085 I: ?5 M6 _: i PCG I-5 " L1 \8 }5 Z, G# v2 J3 _a. An airport of entry which has been designated ) V, q/ b4 v, s7 L& J* B' Mby the Secretary of Treasury or Commissioner of8 S+ y3 A& x6 Q9 \& ~* n& H Customs as an international airport for customs , H5 w! b9 p: K' g4 e: Nservice. 7 w" w( Y0 L) D' b; Db. A landing rights airport at which specific# z/ ]& Y( _' [6 Q# Q' V3 A3 L5 y: j" k permission to land must be obtained from customs # g5 g% J7 H; f$ Yauthorities in advance of contemplated use. ; B! A- D2 ]- f4 X Uc. Airports designated under the Convention on 3 b" H( Y# G" T5 zInternational Civil Aviation as an airport for use by5 P( K$ r4 |0 L4 g: w' M6 _) N' i! D international commercial air transport and/or interna‐ ) ?0 w! }/ _& ~( D& W8 u( S$ t+ wtional general aviation.! ~% ^) x* D8 i5 _7 w" w (See ICAO term INTERNATIONAL AIRPORT.) 9 o* y- T, m. r5 ^6 s k(Refer to AIRPORT/FACILITY DIRECTORY.) @4 s3 K* J: h) P1 D, g7 R0 N(Refer to IFIM.)9 K* M- t. t' Y# {/ b7 U5 S6 i INTERNATIONAL AIRPORT [ICAO]- Any airport+ a0 |( U" i- a+ L# u3 q designated by the Contracting State in whose, Y) ?/ s9 X. M5 V' _- r territory it is situated as an airport of entry and0 Q1 Q" B9 _( K0 I# K2 @* h# C5 f departure for international air traffic, where the * G- i5 {6 A: t+ a/ d: z7 Wformalities incident to customs, immigration, public : m- c3 P# o! z- Shealth, animal and plant quarantine and similar$ d1 u% Z$ n; D' f# d4 p$ D: v procedures are carried out. ( \+ O5 u: l, q( @8 L4 h" }1 V! WINTERNATIONAL CIVIL AVIATION ORGA‐! `7 K# {# p" j( y NIZATION [ICAO]- A specialized agency of the" K" ]8 g6 y) J$ F7 L7 O8 r United Nations whose objective is to develop the0 B) Q" N& n9 y; K8 p, j* S principles and techniques of international air( b* f# y( ^1 G' Q+ o D$ N- ^ navigation and to foster planning and development of5 m. Z p+ t7 ^& Y. T international civil air transport. + E: \* g2 s$ [a. Regions include: + `) t8 w: h5 t, L6 \1. African‐Indian Ocean Region 9 a' d. L0 _+ ^" f" T( h* d0 O% B1 W2. Caribbean Region% @) G' M. K) a) A 3. European Region8 l; q! G) I* t5 @ 4. Middle East/Asia Region ) }4 ]/ p% j9 A5. North American Region 9 ]( S7 \6 i/ u5 G- W- f8 {6. North Atlantic Region+ e6 u+ L4 ]/ B 7. acific Region 1 d! A6 b6 `# W8. South American Region/ G! u6 V/ M; M1 l8 s; C# l) m INTERNATIONAL FLIGHT INFORMATION ; l0 J1 q3 U6 |8 L4 k1 Z* C/ Z) gMANUAL- A publication designed primarily as a 2 w7 }/ w! {8 Qpilot's preflight planning guide for flights into6 B. c+ `9 a" c& o% F$ [: g! {( O foreign airspace and for flights returning to the U.S.: |# q3 o! o0 V2 U( j from foreign locations. 0 O! u! C5 i3 D5 bINTERROGATOR- The ground‐based surveillance 0 X* T+ R+ J! M+ [% Y- \1 lradar beacon transmitter‐receiver, which normally 3 ]; w+ l5 |6 \) R# z. N4 K( m# H9 Kscans in synchronism with a prim ary radar, % \9 N" @2 Y' `2 {$ S& a9 B/ qtransmitting discrete radio signals which repetitious‐ N: A$ R* e a" W/ ~ly request all transponders on the mode being used to 3 l' v T+ _) |% j% nreply. The replies received are mixed with the) L, y; l' L0 v primary radar returns and displayed on the same plan ! ?3 K" C' D, i, tposition indicator (radar scope). Also, applied to the8 ^6 e8 |4 C! w$ B7 ` airborne element of the TACAN/DME system. 7 j% V! g _ W4 {(See TRANSPONDER.) / b1 L" v: G( d/ v }9 n3 s(Refer to AIM.) 6 ^: v' @# _9 b* R$ ~INTERSECTING RUNWAYS- Two or more- y7 C% ]# S2 R3 f! G runways which cross or meet within their lengths.2 h/ i% ~/ B; x7 _5 @ [ (See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses, . P& j: o" Q+ q1 ~% N5 Kradials, or bearings of two or more navigational aids. $ V& H; M+ T a9 K5 ?! ?* ab. Used to describe the point where two runways, * R& F) |2 `) G/ h* h8 {a runway and a taxiway, or two taxiways cross or, h. S( A) X: H$ H% _1 Z meet.5 e6 u& f" b& f5 j9 I INTERSECTION DEPARTURE- A departure from9 O: o9 k- l# i* d5 | D v2 F any runway intersection except the end of the runway. % d1 a( g% R# F2 y(See INTERSECTION.)# Q7 }7 O2 A, N/ S* e INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.)( C# x4 ?0 c$ ?7 m IR(See IFR MILITARY TRAINING ROUTES.)/ p8 f/ ^ b/ _; V- H: A Pilot/Controller Glossary 2/14/08, r$ B% e6 \- l- Z1 k PCG J-1 % u' `4 B! i1 CJ

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发表于 2008-12-28 14:15:29 |只看该作者
JAMMING- Electronic or mechanical interference $ ?2 M% Q, K' s( W/ jwhich may disrupt the display of aircraft on radar or E) z& ~& I' P" G$ f4 r/ x* f; ]the transmission/reception of radio communications/ 5 B3 c) W/ O0 {4 Jnavigation. / n; _7 ]: b1 F: KJET BLAST- Jet engine exhaust (thrust stream* e- L+ @$ ^0 J/ u- h turbulence). % U7 V+ p7 H, Q8 D+ H(See WAKE TURBULENCE.)( \$ N4 O( d3 c0 F4 ] JET ROUTE- A route designed to serve aircraft # c; W+ T7 L0 u' |operations from 18,000 feet MSL up to and including " D: j" f' S3 t: eflight level 450. The routes are referred to as “J”8 b {0 A; w" ~' e( ]" n+ o routes with numbering to identify the designated % [0 \ m! L) X ~0 mroute; e.g., J105. ' A# q( h8 u* _; S(See Class A AIRSPACE.) + X& _3 s$ [- {# N(Refer to 14 CFR Part 71.)& F% ]4 _1 q+ o JET STREAM- A migrating stream of high‐speed ; m; R; K, X, `) e! Xwinds present at high altitudes. / z* m) i u1 V, e% v# |' q" IJETTISONING OF EXTERNAL STORES- Air‐7 _& U. R5 h9 [4 k( C; s2 Q borne release of external stores; e.g., tiptanks, - ^. Y, @) P" x- k3 Zordnance.2 L3 K0 i8 ~: v N, Z5 f7 h) V (See FUEL DUMPING.)9 L- `* y8 v: F: z$ G9 [: ] (Refer to 14 CFR Part 91.) $ M( O# `0 g, R) s7 S, tJOINT USE RESTRICTED AREA(See RESTRICTED AREA.)) K5 ^& S& R( T2 V* \2 F, } Pilot/Controller Glossary 2/14/08/ X" z. t, {$ a/ k$ Q PCG K-1' Y! H! ]6 \9 Y7 K; z2 g K* {- g3 k' ^0 h9 _! V1 K- X4 N! z* E KNOWN TRAFFIC- With respect to ATC clear‐) b9 J* r: K" y$ \' r1 v" G ances, means aircraft whose altitude, position, and + Q- d, V: R* ?7 y% {) v! vintentions are known to ATC.: G: I& ]- u3 D6 L0 l% o9 ?4 n7 j$ b Pilot/Controller Glossary 2/14/08 3 U' j& L1 [4 B C& C1 mPCG L-1 : B0 z! I' G; t3 K( g# [* ]+ i$ mL2 K" l7 J& p" X2 q, {9 ? LAA(See LOCAL AIRPORT ADVISORY.) 9 W# P, H6 G* ?5 `( ]0 ^& XLAAS(See LOW ALTITUDE ALERT SYSTEM.)! U, Q- X' Q( m1 O# _ LAHSO- An acronym for “Land and Hold Short 2 n5 \% M0 s4 Q2 B6 F9 }. o zOperation.” These operations include landing and 5 i k- k4 {" B2 K9 z% Q" ~/ Dholding short of an intersecting runway, a taxiway, a 4 y! |5 H$ X& I4 N' h( M7 @+ Opredetermined point, or an approach/departure 9 W2 }3 H7 F9 j( [: h) Bflightpath.& H$ D0 e( v/ R2 X LAHSO‐DRY- Land and hold short operations on2 y5 s) q' X# B0 F F& [ runways that are dry. 1 E1 D9 Q$ ]! T/ D1 r4 v3 P- dLAHSO‐WET- Land and hold short operations on / d- r: w5 y, K4 arunways that are wet (but not contaminated). . V; @2 e- R% iLAND AND HOLD SHORT OPERATIONS -* I0 z2 O2 s) c- _: e2 @6 ` Operations which include simultaneous takeoffs and$ [" ]5 l4 f2 e landings and/or simultaneous landings when a 8 f) o% b; h4 f' \- U/ f X1 y5 Glanding aircraft is able and is instructed by the, s s3 P; O0 x! o controller to hold‐short of the intersecting runway/; R! @! n- Z5 e. m5 S7 { taxiway or designated hold‐short point. Pilots are5 N" [& [( n U: C expected to promptly inform the controller if the hold 4 Y" ?1 N* j! d+ ~# J3 wshort clearance cannot be accepted. * @' O+ Z: R1 i5 e(See PARALLEL RUNWAYS.) ( o n& C# v7 p# {) R$ X1 h2 D(Refer to AIM.) . f9 o b* \- A; R6 v9 k+ e& C: DLANDING AREA- Any locality either on land,4 O5 e5 Q0 i3 f4 P$ F! m# Y water, or structures, including airports/heliports and# H! \. d: V1 B9 k intermediate landing fields, which is used, or E [3 ]& X- m5 bintended to be used, for the landing and takeoff of ) p. M$ [1 J% q) X" saircraft whether or not facilities are provided for the: |5 v% G: ?# e2 ?5 `; e1 K2 J shelter, servicing, or for receiving or discharging( `. q7 ?# F3 f/ e passengers or cargo. 0 B1 G; U3 B7 L* M% P6 U! N6 W8 J8 b(See ICAO term LANDING AREA.) + }+ l* J/ p) Y; H6 ]LANDING AREA [ICAO]- That part of a movement' r+ ]0 ], f$ @" c% J* O area intended for the landing or take‐off of aircraft.% c8 B( z; B6 o" [& m) x# Q LANDING DIRECTION INDICATOR- A device : X8 _ w9 @2 Z9 C/ @which visually indicates the direction in which* O# C' ^! q$ J) p) P t1 I. b landings and takeoffs should be made. / z% o4 Z7 {* u$ |, H) P(See TETRAHEDRON.) * R) U4 G" v: D/ C(Refer to AIM.) + ^6 G+ U+ @/ l3 yLANDING DISTANCE AVAILABLE [ICAO]- The $ I& H' b1 d, d u: L/ Qlength of runway which is declared available and- Q1 k6 ^( n( u- U+ @* h0 M4 I suitable for the ground run of an aeroplane landing. 3 D9 m2 S# I0 `LANDING MINIMUMS- The minimum visibility+ _/ V X$ [* ^6 A ?: P! I prescribed for landing a civil aircraft while using an( o% e% ^# I- H7 D0 y) d: v7 e instrument approach procedure. The minimum2 X- M) a5 |* r- ]5 z applies with other limitations set forth in 14 CFR1 S) O# D2 M& n, C# ~ ^ Part 91 with respect to the Minimum Descent 2 r) S7 X$ x$ q( vAltitude (MDA) or Decision Height (DH) prescribed 9 ^3 m4 C: T+ u. }+ k. N4 o' K1 ein the instrument approach procedures as follows: + N) J' b: N; H0 ^' P% Y$ Ta. Straight‐in landing minimums. A statement of ( A: T* ]/ \) v6 R0 x A# ZMDA and visibility, or DH and visibility, required for ! a9 {2 z" Z$ ba straight‐in landing on a specified runway, or) t1 Z o9 C4 c2 A; O1 C3 m b. Circling minimums. A statement of MDA and + \6 d6 n% o7 J' H" ?4 z! nvisibility required for the circle‐to‐land maneuver.) h) i( _( M" X Note:Descent below the established MDA or DH is * G7 J+ k" V. V1 W/ znot authorized during an approach unless the ) m6 N8 D+ D8 u0 l+ I( paircraft is in a position from which a normal 9 d, @3 n# R5 p6 S9 P8 G: P3 sapproach to the runway of intended landing can be 2 w% E: t' `: y* i; Hmade and adequate visual reference to required 4 ]. S8 ~ [! S) N. e1 Qvisual cues is maintained., _/ q+ d7 E5 s, w (See CIRCLE‐TO‐LAND MANEUVER.) # ^# d: f6 A7 P" J9 W% x$ s% ]5 v(See DECISION HEIGHT.)2 \* |" ^+ n- w (See INSTRUMENT APPROACH ( {, H0 U) B# K: @- C) J; iPROCEDURE.) " M L/ Q& F% Y8 }5 B% u H(See MINIMUM DESCENT ALTITUDE.)4 M1 F1 D; A; G1 l8 P( W (See STRAIGHT‐IN LANDING.) + o4 {4 _% C7 `; n3 f0 f(See VISIBILITY.). O* C6 f7 s7 t& \7 l (Refer to 14 CFR Part 91.)1 N& f" \' X0 k LANDING ROLL- The distance from the point of 3 V9 |6 d. p7 ~) e ctouchdown to the point where the aircraft can be & R& g& p6 F1 J) D; B9 Wbrought to a stop or exit the runway. 3 i' g2 [, c, p2 g, {0 |LANDING SEQUENCE- The order in which% i9 k0 |/ a+ i- m/ S8 b5 l4 b) W aircraft are positioned for landing. ! I% Z( x9 L1 G& V; l2 a! Y; P8 A+ t(See APPROACH SEQUENCE.)$ q: Q5 i& }8 \) j) D0 C0 C LAST ASSIGNED ALTITUDE- The last altitude/ 2 H0 f) |6 y: E% P2 R. Jflight level assigned by ATC and acknowledged by, `( X! N( N, _; _8 h the pilot.9 Q- ]% e- V6 n5 h: x l' j* u1 w (See MAINTAIN.) + T1 f; z; x7 D. B" t* I9 Z(Refer to 14 CFR Part 91.) ! {+ u6 N5 K6 SLATERAL NAVIGATION (LNAV)– A function of ~ j! p4 M0 B% T9 larea navigation (RNAV) equipment which calculates, ' J. `9 k: K0 D7 jdisplays, and provides lateral guidance to a profile or # O u7 c. s; W2 q2 j5 spath.! V7 r6 A( N9 q LATERAL SEPARATION- The lateral spacing of0 B9 p7 s8 v1 O aircraft at the same altitude by requiring operation on) j4 P6 H' f) M7 ]) ]7 u. A different routes or in different geographical locations. 9 y4 X- q9 y R H* N: Y! M8 T3 P(See SEPARATION.) 7 w* j) H/ u% _4 N: h6 e) TPilot/Controller Glossary 2/14/08& U, I2 y6 x/ [! h9 q PCG L-2- {9 s5 y4 c% W% t2 z0 V1 A/ h LDA(See LOCALIZER TYPE DIRECTIONAL AID.) # R) g2 z2 U6 S(See ICAO Term LANDING DISTANCE' V( _1 A h0 g. L$ ] AVAILABLE.) 0 h2 X2 F% `/ E& TLF(See LOW FREQUENCY.)1 W' G2 z3 Z9 `: [# b LIGHTED AIRPORT- An airport where runway and : X- y* Z! i6 u8 q; _" jobstruction lighting is available. - ?8 I7 N, }3 N" c1 o# u5 K(See AIRPORT LIGHTING.) I, A8 m3 E8 r3 q! M(Refer to AIM.) % L7 _! f, W ~; ?3 ` u- A, J, eLIGHT GUN- A handheld directional light signaling$ n; {% D5 G1 [3 h4 P6 o6 Q1 {6 j& x device which emits a brilliant narrow beam of white, 2 J: O+ n8 g; U5 V( g" f; ?green, or red light as selected by the tower controller. ; c. n! E* F5 R& M6 \) \* \% D% RThe color and type of light transmitted can be used to 2 ^$ z% v- P8 u, X9 O" K) happrove or disapprove anticipated pilot actions where . x3 ?( _/ j6 ]# E; O0 eradio communication is not available. The light gun+ C1 G, y: y. C5 C7 @ is used for controlling traffic operating in the vicinity 2 m0 n( L/ D5 Y* T- U) M) gof the airport and on the airport movement area.7 o$ f+ q G. h$ U' E. l, z* ] (Refer to AIM.) / G8 Q; g2 r8 i4 Y( d) f! [0 n& xLOCAL AIRPORT ADVISORY (LAA)- A service ( r( a7 R# |5 H R: z( Cprovided by facilities, which are located on the& k+ m. W! j. e) ?6 W2 _ landing airport, have a discrete ground-to-air 0 K7 z0 G# s j% ncommunication frequency or the tower frequency0 T0 _1 ?( V0 [( Q when the tower is closed, automated weather/ ] |$ c) F# Y4 ]" S2 h `. z reporting with voice broadcasting, and a continuous# [* Q1 W7 M0 f1 m5 a. K* b ASOS/AWOS data display, other continuous direct7 H2 A4 B5 y1 \. r reading instruments, or manual observations avail‐$ C7 U7 I- o& y4 q; F able to the specialist. ( C/ `* R4 S. b7 O7 l) U(See AIRPORT ADVISORY AREA.) . {* B1 ~3 b, ]* xLOCAL TRAFFIC- Aircraft operating in the traffic0 n/ A) c: o- ]+ Z5 n O pattern or within sight of the tower, or aircraft known % o! y, e9 \) W& Z" h9 }! ato be departing or arriving from flight in local practice& q9 g" H' T: [ ], q4 Z4 v areas, or aircraft executing practice instrument/ }. X) F2 B- P& E7 E* ?( B( u approaches at the airport.- g+ ?9 b# D- m' l. v6 p' {2 ? (See TRAFFIC PATTERN.), u* r! [: b& l D6 }% l6 | LOCALIZER- The component of an ILS which ! e% t: W+ F1 Dprovides course guidance to the runway. $ A" y: h5 d5 j& ]1 F4 c7 v(See INSTRUMENT LANDING SYSTEM.); F# j$ g T" \0 l2 w, |/ t0 u/ y (See ICAO term LOCALIZER COURSE.) 5 [4 G$ Z/ M$ G5 ~ ]: j4 [& d4 ~(Refer to AIM.)# x8 e3 h7 c, N' b# R' ] LOCALIZER COURSE [ICAO]- The locus of2 ^# `7 v$ b# N8 q3 s points, in any given horizontal plane, at which the! P2 R9 B2 P; v- u! w DDM (difference in depth of modulation) is zero.7 m- l3 _. @" R }. U, `4 e LOCALIZER OFFSET- An angular offset of the 0 ? I/ T+ |& D( z$ ?, f5 Qlocalizer from the runway extended centerline in a 5 L/ h4 @+ z2 M+ x7 Q) K4 m" N! rdirection away from the no transgression zone (NTZ)* M4 `8 u$ p5 Z; Y% f that increases the normal operating zone (NOZ); J; s; j6 g' U5 J- s5 R/ i width. An offset requires a 50 foot increase in DH and% O0 L) j5 B, ] a: i" v- B is not authorized for CAT II and CAT III approaches. / e$ Z* \7 \9 s, |. _3 rLOCALIZER TYPE DIRECTIONAL AID- A " G/ `3 D7 w; T8 _6 R! ?3 tNAVAID used for nonprecision instrument ap‐6 h( {3 {1 r( b' [1 P proaches with utility and accuracy comparable to a ; u* H) o4 J8 u3 E/ @localizer but which is not a part of a complete ILS and ' P" I6 F/ b1 O* b! R/ Ris not aligned with the runway." r6 e. R6 a% `% s# L5 H$ H (Refer to AIM.)' F2 B) S1 ]$ ~' a! \6 N( m LOCALIZER USABLE DISTANCE- The maxi‐ 9 t2 T& I1 b6 }& N/ b, @1 j- lmum distance from the localizer transmitter at a " t5 ?8 K8 m$ |/ s3 y9 [5 d5 w0 ispecified altitude, as verified by flight inspection, at - [% o' C8 ]& Z, D, P1 M; s/ mwhich reliable course information is continuously % }( g# F: \* _; h0 G/ `5 a" treceived.8 G: ]1 q% U* ~0 C; m (Refer to AIM.)$ E1 r {- }/ L9 O+ O: y LOCATOR [ICAO]- An LM/MF NDB used as an aid8 d0 n7 s5 y( N2 a7 H5 m f to final approach. ) m4 m1 U, r( C! g @5 wNote:A locator usually has an average radius of - R. N, \, R+ [rated coverage of between 18.5 and 46.3 km (10 + c& U; ~, ~& E r4 l/ y Cand 25 NM).4 q) ~" u+ Z/ r3 b( f7 g LONG RANGE NAVIGATION(See LORAN.) 2 r8 k6 o0 F9 B: fLONGITUDINAL SEPARATION- The longitudi‐ ; G" S2 u, ]. I! b* E" z: wnal spacing of aircraft at the same altitude by a / |9 p5 D2 n, x! @; K$ k8 sminimum distance expressed in units of time or 0 u3 t% V ~* Z: c. `miles. 7 y/ F8 r q. d5 ?9 T(See SEPARATION.)0 J1 Q! y- S2 Z1 d2 x (Refer to AIM.) ' [2 e3 R7 j0 r* ~( |! }LORAN- An electronic navigational system by & H: v! {5 p2 s- u( Jwhich hyperbolic lines of position are determined by, `/ L9 p: B0 _; P$ } measuring the difference in the time of reception of " Q) c7 B3 v0 m- E/ Esynchronized pulse signals from two fixed transmit‐* e* z- ^' ?' z N+ J+ s5 O* ] ters. Loran A operates in the 1750‐1950 kHz9 u+ J0 X) R& M: I& Z- h! b frequency band. Loran C and D operate in the! Z9 {! X: X, d4 X6 } 100‐110 kHz frequency band. ' ^- m% A( X; l' O! d% V0 z(Refer to AIM.) - r, C: |% p+ n, c, Z4 { PLOST COMMUNICATIONS- Loss of the ability to 6 l6 ~3 H6 o8 Z7 Z, ocommunicate by radio. Aircraft are sometimes! k+ ?# \1 f& ^( D3 r referred to as NORDO (No Radio). Standard pilot % w5 U% c: B6 Nprocedures are specified in 14 CFR Part 91. Radar 0 H Y' s* P% D# qcontrollers issue procedures for pilots to follow in the 3 d8 p& @& e$ h+ Eevent of lost communications during a radar approach& x! q- _& D. j2 A when weather reports indicate that an aircraft will' a# L& Z! W5 N# S P" V# ~ likely encounter IFR weather conditions during the& E |# _7 S& l: r# }4 N approach.4 J1 T$ W$ l: B7 J: _) W5 ] (Refer to 14 CFR Part 91.); V2 K" H) E, v! E (Refer AIM.) ( _% [. |+ J: ~8 ^; I7 {1 m, o" nPilot/Controller Glossary 2/14/08& D6 Z3 ]6 j% z+ C0 o& ] PCG L-3/ Y" \' I; q: ^9 ~& t! ]' q LOW ALTITUDE AIRWAY STRUCTURE- The& `# C$ y8 ^$ Q2 D network of airways serving aircraft operations up to4 [6 j3 p3 `6 ~) Z+ H8 d( k+ K% e6 U but not including 18,000 feet MSL. . g( G; F/ V" X. u9 o- p2 a) M(See AIRWAY.)2 Z! _% v3 u4 J" ]8 [+ c0 t (Refer to AIM.)& E2 O. i" Y0 E5 v LOW ALTITUDE ALERT, CHECK YOUR ALTI‐& G9 }$ ]/ s2 f# e1 R1 @' G TUDE IMMEDIATELY(See SAFETY ALERT.) % z8 L5 c g3 s. K! z6 }' vLOW ALTITUDE ALERT SYSTEM- An auto‐ 5 u: `- k3 w1 w/ K0 Vmated function of the TPX‐42 that alerts the6 ^3 r2 a& O* W+ f( M7 q& Y8 } controller when a Mode C transponder equipped + Q0 B* E% U% qaircraft on an IFR flight plan is below a + X) f# V* L( q" spredetermined minimum safe altitude. If requested 9 X4 k/ F7 M, Oby the pilot, Low Altitude Alert System monitoring ^/ I# H, h% r a `( uis also available to VFR Mode C transponder) ^4 ]- c& Y' Y equipped aircraft.8 e: S) C; G5 c4 r4 T. k" ^& X) @ LOW APPROACH- An approach over an airport or; n- L* R8 C/ u( ^ runway following an instrument approach or a VFR. E$ x% b2 {+ ? approach including the go‐around maneuver where }, e$ H# g% g# ~- I1 W0 U: O the pilot intentionally does not make contact with the ) z c2 O: B0 Lrunway.; _* ]1 ~2 c& n3 {: M (Refer to AIM.)& Q2 V" K, f2 m5 J4 v( D* Y LOW FREQUENCY- The frequency band between . L: G x* | k P, X# s5 V5 G30 and 300 kHz. ) C- |" X+ C9 d' p: C; s- o(Refer to AIM.)- p: D6 N9 D7 O# R* r LPV- A type of approach with vertical guidance" \# j6 u$ e. Z (APV) based on WAAS, published on RNAV (GPS)7 A; r/ l1 ^9 l5 { approach charts. This procedure takes advantage of- a8 j' c5 h& ]6 D6 q4 i the precise lateral guidance available from WAAS. 9 |" G7 L/ E) |0 z+ I$ q2 rThe minima is published as a decision altitude (DA). ! ]# \, S* \! Y f; W4 z8 LPilot/Controller Glossary 2/14/08 Y( H7 S* |8 ^2 A) \2 ?PCG M-1 ( ]% f( L2 U8 u0 t8 H! Q: KM $ A0 h+ U5 h' r: i& V8 ]( Q. TMAA(See MAXIMUM AUTHORIZED ALTITUDE.) # f, C( B: t9 \" O3 KMACH NUMBER- The ratio of true airspeed to the: Q% O1 n. [( h. C+ w8 c speed of sound; e.g., MACH .82, MACH 1.6." ^9 k& ?" ^- J9 R$ g (See AIRSPEED.)' M( b0 @" s9 G4 ^! J MACH TECHNIQUE [ICAO]- Describes a control. A* Z; n. r+ f% }( E technique used by air traffic control whereby turbojet- r0 E8 J; r; |7 j1 Q4 l aircraft operating successively along suitable routes5 S% R5 u' x9 W7 d9 g3 b are cleared to maintain appropriate MACH numbers5 I/ m2 ^3 ]. g. O for a relevant portion of the en route phase of flight. ( d. O0 s, R% a% T+ gThe principle objective is to achieve improved & u( M q% \( p5 N6 m4 Xutilization of the airspace and to ensure that) ?. \6 X' d9 c! H; g8 | separation between successive aircraft does not6 ~8 M& ^* P' F" Y+ E decrease below the established minima.$ f2 O$ K5 Z0 u MAHWP- Missed Approach Holding Waypoint . o9 i8 Q: ]; [% V" j$ eMAINTAINa. Concerning altitude/flight level, the term6 U( n9 W6 L; V. z$ A" h1 { means to remain at the altitude/flight level specified.) H6 U {' R/ v3 V4 }- r, ?7 U: R' ^ The phrase “climb and” or “descend and” normally & |$ ?! c' ], `' e+ g) Qprecedes “maintain” and the altitude assignment;( \4 u g0 |6 [ m5 j: j4 y4 p e.g., “descend and maintain 5,000.” 3 X) `! ^0 J8 c0 U+ ub. Concerning other ATC instructions, the term is3 j9 }0 C' `3 K$ k# J# Q8 L3 u used in its literal sense; e.g., maintain VFR.! ?8 ^: z. a9 U6 f, d3 p2 h MAINTENANCE PLANNING FRICTION , u5 `+ G: d6 ~- U) D; s! NLEVEL- The friction level specified in & t7 K& [# C0 h. ?! T- N B; pAC 150/5320‐12, Measurement, Construction, and) i1 H6 [) g$ J9 _& y3 B Maintenance of Skid Resistant Airport Pavement: K5 W) W% ?, U' g! H" [4 M) @5 R Surfaces, which represents the friction value below; Z) w/ `. |0 D1 E$ P% V- E7 Y which the runway pavem ent surface rem ains 9 o6 C% W' _' F" l; B: Iacceptable for any category or class of aircraft & k4 L5 @# M9 U* i, Foperations but which is beginning to show signs of# I7 i$ A2 |: p+ s# \. q deterioration. This value will vary depending on the ; Z8 k: o! B( n. D& F8 f0 }" c6 r4 aparticular friction measurement equipment used.! ?9 h. x) j/ Z9 ?# [6 W& V, a MAKE SHORT APPROACH- Used by ATC to $ L8 M" k0 ?+ oinform a pilot to alter his/her traffic pattern so as to" r# x$ l9 p s# R, A8 R% o make a short final approach. ( F( T" q" ~8 x% d(See TRAFFIC PATTERN.); `) p2 @4 v% D MAN PORTABLE AIR DEFENSE SYSTEMS; q/ N7 h$ `" `. x7 q (MANPADS)- MANPADS are lightweight, shoul‐ ; Q( N2 ?9 h: q- z; Q# _der-launched, missile systems used to bring down& d! h; _: A9 ^8 Y$ O; e aircraft and create mass casualties. The potential for . ^8 a" J1 U2 y4 XMANPADS use against airborne aircraft is real and0 f/ m( A3 V* T- y# O7 K( h. C requires familiarity with the subject. Terrorists # \) B0 @6 j0 q7 n8 h! H, ychoose MANPADS because the weapons are low0 k! R- n% \) J a ] cost, highly mobile, require minimal set-up time, and 7 X: t, l+ i. }- u; Kare easy to use and maintain. Although the weapons O% o1 N8 ~1 D! S W6 K5 yhave limited range, and their accuracy is affected by4 w0 D6 G7 M& d* u3 r9 F poor visibility and adverse weather, they can be fired$ V: [: H W9 c2 R1 r- H) H from anywhere on land or from boats where there is 6 k2 _) j# I1 A6 Wunrestricted visibility to the target.1 ~: M; _% c- ~/ X' ]8 n: g& {" ? MANDATORY ALTITUDE- An altitude depicted ! y* X- @1 g( \7 fon an instrument Approach Procedure Chart : X+ F3 r8 C* P/ A* brequiring the aircraft to maintain altitude at the6 Z$ i! [ k4 t1 |1 D# P g0 K depicted value.' N4 U* W5 `5 I* \ MANPADS(See MAN PORTABLE AIR DEFENSE 8 w, H9 S: q* z0 LSYSTEMS.)1 F2 K# h* Z- G) N" L# [" d MAP(See MISSED APPROACH POINT.)$ }& k/ F* \, l5 F MARKER BEACON- An electronic navigation + f2 X Q5 p, f3 ]: `8 I: a% v" ^4 Yfacility transmitting a 75 MHz vertical fan or , u2 X1 q( N$ O% M9 {. {2 ~boneshaped radiation pattern. Marker beacons are h+ |% L0 c' Z- m+ O6 G$ f9 tidentified by their modulation frequency and keying' U- l; q9 @6 ~! H code, and when received by compatible airborne - Z6 ]$ T7 y$ r5 mequipment, indicate to the pilot, both aurally and0 r# }& Q: i, M, F1 A( N% Q+ ~ visually, that he/she is passing over the facility. : i" w. ~% L1 I" O(See INNER MARKER.)! V9 g& I% M) w: t* s( f (See MIDDLE MARKER.)2 g, g: K- P7 C( z* F" d4 u (See OUTER MARKER.)$ U9 g$ y' V4 x4 [: l/ f6 m2 l (Refer to AIM.)

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发表于 2008-12-28 14:15:58 |只看该作者
MARSA(See MILITARY AUTHORITY ASSUMES - p! _* q$ u6 r4 |RESPONSIBILITY FOR SEPARATION OF( ?+ ~. B- S0 P- s7 a' U AIRCRAFT.) ' Q" N6 W( Z, ?1 I# vMAWP- Missed Approach Waypoint ! I3 v4 a2 D |. Z- HMAXIMUM AUTHORIZED ALTITUDE- A pub‐0 R( L- p3 W. Y% M lished altitude representing the maximum usable. f/ L; L7 E/ N% v+ ^) r) V altitude or flight level for an airspace structure or { ?- ^# g6 k+ d% G& droute segment. It is the highest altitude on a Federal% a) L! h6 f" @0 V' R5 q# I airway, jet route, area navigation low or high route,( v* ~' N2 Z5 e5 G or other direct route for which an MEA is designated2 g, X) n. n+ q9 ~' z# d, c in 14 CFR Part 95 at which adequate reception of ! j/ Z4 o: _& `! @& |navigation aid signals is assured.' b9 q) Z2 G: z. [' t MAYDAY- The international radiotelephony distress 7 M; h8 u0 [& d7 |( Asignal. When repeated three times, it indicates $ H: {7 \" l5 k6 }& q, tPilot/Controller Glossary 2/14/08! F& l: d1 D% k, s& [ PCG M-2 + J' ?' P7 B% T% R. f! eimminent and grave danger and that immediate, [: M2 a; m2 R Y( l assistance is requested. ( l/ k' K( n$ E$ d% Z/ L! W(See PAN‐PAN.)( C; E( F& u! x- H3 Y (Refer to AIM.)! e" R; F6 x7 [* U O! H* }: W MCA(See MINIMUM CROSSING ALTITUDE.)4 m* R2 j0 E1 X0 N MDA(See MINIMUM DESCENT ALTITUDE.) % d2 y) y$ \1 e: E/ J0 R# e* B' g. GMEA(See MINIMUM EN ROUTE IFR ALTITUDE.) 4 e T1 t: e: ^% aMEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR: l; {) r& N% s3 H TRACKING SYSTEM.)6 `* \5 Z& F5 | M% V1 ~ METEOROLOGICAL IMPACT STATEMENT- 5 r2 x+ b" x4 s* @ J9 Y, H5 A$ Z8 EAn unscheduled planning forecast describing ! y" T) ?% @# x% b$ j1 T4 tconditions expected to begin within 4 to 12 hours 1 h9 ^4 @+ \" i( cwhich may impact the flow of air traffic in a specific$ j+ ?! J6 v7 e, }: P center's (ARTCC) area. 7 z; k& a9 B$ B3 ~, k7 EMETER FIX ARC- A semicircle, equidistant from % ~! Y1 N( ?) fa meter fix, usually in low altitude relatively close to9 _" o. P8 B3 n, D& w5 M0 q the meter fix, used to help CTAS/HOST calculate a $ C9 O* ^$ v" V% Jmeter time, and determine appropriate sector meter% {2 l6 a$ P; X; @ list assignments for aircraft not on an established 6 [6 }! R6 v$ |' P3 N' a6 x' parrival route or assigned a meter fix.3 X9 ^% a7 w3 f) N4 }" _ METER FIX TIME/SLOT TIME- A calculated time, Y5 y* Q8 O. q( E* J to depart the meter fix in order to cross the vertex at7 q% E3 D7 U1 W; o- o) R( a8 B7 ~ the ACLT. This time reflects descent speed% h0 [: j* R a" b# b8 D adjustment and any applicable time that must be! d, u0 a+ ^9 m absorbed prior to crossing the meter fix.1 X+ G8 m1 l% _6 R0 a5 |0 f2 Q* ]3 y METER LIST(See ARRIVAL SECTOR ADVISORY LIST.) % g0 H! n5 k A' }: N0 I7 ?METER LIST DISPLAY INTERVAL- A dynamic * y" C% F* q# lparameter which controls the number of minutes + J0 }8 V9 a* u4 Pprior to the flight plan calculated time of arrival at the) S$ W* r" c$ p5 |6 g meter fix for each aircraft, at which time the TCLT is# d5 V6 v( T0 {; J! g5 [. |# A frozen and becomes an ACLT; i.e., the VTA is 1 P! I+ H1 D- J" L+ y, Cupdated and consequently the TCLT modified as ! u0 v! ~6 F- u4 Jappropriate until frozen at which time updating is - j, ~/ }4 P3 \. n5 R. Bsuspended and an ACLT is assigned. When frozen, + `5 g5 d7 t* f9 v/ n6 Othe flight entry is inserted into the arrival sector's1 _' m' z7 x0 r9 Y3 M* r& b meter list for display on the sector PVD/MDM. & v& B9 j$ E ^) g7 T; S# L' ?MLDI is used if filed true airspeed is less than or 5 u; N- k) W4 S1 d1 Eequal to freeze speed parameters (FSPD)., X! [: {" W, y4 ` METERING- A method of time‐regulating arrival& m% h% P* b0 E. r traffic flow into a terminal area so as not to exceed a , b4 a. e6 k& }! q0 e3 cpredetermined terminal acceptance rate. 4 W) h1 _9 g8 d5 i6 a: K1 t! TMETERING AIRPORTS- Airports adapted for 0 [, K U4 |4 [1 g9 p2 Emetering and for which optimum flight paths are' V7 ?, p4 |; c( j defined. A maximum of 15 airports may be adapted.# }- V6 O: U7 I8 U; z- N METERING FIX- A fix along an established route 1 i- e4 P9 J f0 @+ ? N% N( ]from over which aircraft will be metered prior to* N+ P" s& J+ t entering terminal airspace. Normally, this fix should 1 J+ `$ v3 `, f) ]# u5 ] @be established at a distance from the airport which 1 M' s' ]6 V6 S& o8 W7 {will facilitate a profile descent 10,000 feet above , W' A" i6 y) \; g9 Q: F! f; Eairport elevation (AAE) or above. 5 F0 ?' g- v) j0 i; ~# pMETERING POSITION(S )- Adapted PVDs/9 p& {1 M3 L/ s2 p" t5 P( _ MDMs and associated “D” positions eligible for: X0 {% ~) y, j2 z( J display of a metering position list. A maximum of $ ~- B' @9 c; Q% R- h9 pfour PVDs/MDMs may be adapted. 6 l/ A2 z1 j; w# zMETERING POSITION LIST- An ordered list of4 e9 d3 q* |0 N! p- j+ m: x data on arrivals for a selected metering airport ' B; r- {9 y ~7 q. F Ddisplayed on a metering position PVD/MDM.7 _/ C- n8 R$ A4 C2 ^# }" h9 o# x4 x MFT(See METER FIX TIME/SLOT TIME.) M4 ^; q% ~5 D. B/ r MHA(See MINIMUM HOLDING ALTITUDE.). F" K9 e9 C6 f MIA(See MINIMUM IFR ALTITUDES.)+ X4 Z) x9 x1 }/ m/ F8 F9 F2 f MICROBURST- A small downburst with outbursts+ f2 ~/ C1 V) {: c$ x of damaging winds extending 2.5 miles or less. In; i2 t8 O9 R/ r4 v( C# C spite of its small horizontal scale, an intense 8 ], x, x7 l1 v2 Rmicroburst could induce wind speeds as high as 150 ! a7 f6 h& m) ?0 F+ D% Oknots8 x2 D, J% K: R& ~4 W" t$ H (Refer to AIM.)& }' a5 L! q7 ^ MIC RO‐EN ROUTE AUTOMATED RADAR 6 M3 d9 c. y3 Z/ i$ HTRACKING SYSTEM (MEARTS)- An automated( k; W: O; l" ]5 k% W9 C/ A radar and radar beacon tracking system capable of% {; m) w7 O2 G employing both short‐range (ASR) and long‐range - Q" I% A a& z+ R(ARSR) radars. This microcomputer driven system - q$ g N# o: t$ l& V; cprovides improved tracking, continuous data record‐% q0 _* R' l5 k0 {! O: G/ e0 ? ing, and use of full digital radar displays.; ]: Q* }; O. _1 y2 I% A4 ?* G- n5 D MICROWAVE LANDING SYSTEM- A precision & C& F/ B7 c! B4 K8 l3 Pinstrument approach system operating in the: O' X y% G) E2 {$ [- a microwave spectrum which normally consists of the ; O7 ~" o/ b+ h( {8 x! Mfollowing components:7 [) w; I4 z2 b2 \. K/ }0 ^: \ a. Azimuth Station. ; C; Y! l h2 I7 p+ |, _. L; mb. Elevation Station.* R) k3 o4 X5 w! @. [ c. recision Distance Measuring Equipment. 2 n$ K7 ^2 D% ~; } E(See MLS CATEGORIES.) m$ g2 m0 d k$ w: N/ lMID RVR(See VISIBILITY.) * ?9 B6 j; `1 t4 c% B" w1 uMIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.)6 n# {; \* `$ s# c) B; ~ Pilot/Controller Glossary 2/14/08 ; k! s/ m- C1 F4 g* J5 ?7 hPCG M-3 4 m! m% ~: E$ W w ~0 wMIDDLE MARKER- A marker beacon that defines+ }* a- @7 _6 E+ o- `4 I- a* D a point along the glideslope of an ILS normally ' D+ x' A4 p8 V$ |- clocated at or near the point of decision height (ILS! D) N# G' Q* n0 C0 r Category I). It is keyed to transmit alternate dots and ' w# v2 P$ _6 s+ O) I$ @dashes, with the alternate dots and dashes keyed at the * S3 A/ a# E6 z! rrate of 95 dot/dash combinations per minute on a - {% B, Z" E: e1 r1300 Hz tone, which is received aurally and visually* f2 M' w$ _9 b" x( B, X by compatible airborne equipment. " S- s9 Q. `* ?(See INSTRUMENT LANDING SYSTEM.) ' X5 H. i0 n% i+ {; d& G(See MARKER BEACON.) 8 m% I) _1 N! y' T) L2 G7 K. _(Refer to AIM.)% `7 G. Z& Q- C MILES‐IN‐TRAIL- A specified distance between( ?, u, n5 q* x* l6 T( o aircraft, normally, in the same stratum associated ; W( Q- f; Q* [- A4 m% |; qwith the same destination or route of flight. 7 A; d6 W# i2 @4 I) OMILITARY AUTHORITY ASSUMES RESPONSI‐4 ?& M$ Y* z/ p/ r3 \ BILITY FOR SEPARATION OF AIRCRAFT- A- G" ~, t9 a, I, p condition whereby the military services involved ' s3 h N n; J6 g+ v3 p5 sassume responsibility for separation between * A7 J' P) e# H+ W: E: L K0 ^9 o9 S# Bparticipating military aircraft in the ATC system. It is( U4 x3 ~. N, P2 E2 u used only for required IFR operations which are8 L A& o( C6 b6 }( L/ Y" n- ~. t specified in letters of agreement or other appropriate& l5 N, n; ^" r2 q. H FAA or military documents.9 X# X# ^4 L) U MILITARY LANDING ZONE- A landing strip used - \. r- k* ]% ]: e9 L+ qexclusively by the military for training. A military ; q4 C/ {6 q. N- H& d) B3 A0 f) \landing zone does not carry a runway designation. 0 y& V5 n& o( w) C5 EMILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.) 9 C; X7 |9 Q) D" k+ d9 {+ ZMILITARY TRAINING ROUTES- Airspace of 6 |7 q1 [3 \/ _7 e" e4 d0 E! rdefined vertical and lateral dimensions established % p7 X- h/ p/ R5 u# e& `for the conduct of military flight training at airspeeds" I, t- K4 _6 I e; C: c in excess of 250 knots IAS. 7 ^# ^0 m0 H: l% S(See IFR MILITARY TRAINING ROUTES.) , `( I# W$ u2 n( }! }(See VFR MILITARY TRAINING ROUTES.)* N6 Z Z: X7 @2 k p9 \9 X MINIMA(See MINIMUMS.) " v5 C( |/ {+ a" y! V6 n) H8 BMINIMUM CROSSING ALTITUDE- The lowest1 W) O `. M B9 {9 c0 G5 S altitude at certain fixes at which an aircraft must cross " N/ a% D' {/ c4 e2 |when proceeding in the direction of a higher * Z( Q+ G' v1 M- i+ P+ Cminimum en route IFR altitude (MEA).2 t& L h! {' ~9 p+ b (See MINIMUM EN ROUTE IFR ALTITUDE.) A# X/ R. P+ | MINIMUM DESCENT ALTITUDE- The lowest7 T6 j5 l7 [, i( k4 y altitude, expressed in feet above mean sea level, to! K% B& X! z, B0 I/ Z' z7 P which descent is authorized on final approach or / v4 d2 A" C& x9 kduring circle‐to‐land maneuvering in execution of a' o, O" b& B4 {5 s; P' Y standard instrument approach procedure where no 6 p' `) M' o+ ?( ?5 w) x9 I9 `electronic glideslope is provided.* ~! p2 r" n. M: o (See NONPRECISION APPROACH1 R' q& ~; R0 d& i PROCEDURE.)/ x( R% S. p1 ] MINIMUM EN ROUTE IFR ALTITUDE (MEA)-: r e" b5 P% T* X7 {$ B# v) m The lowest published altitude between radio fixes 0 ?) J& V! }- Q7 u/ S* b: P. k' Y: |8 ?which assures acceptable navigational signal cover‐/ v6 L+ n) j4 q4 X, `# i- V7 ~ age and meets obstacle clearance requirements% L& m% B( b2 k% Q! K2 I& M8 \ between those fixes. The MEA prescribed for a 4 x5 I6 o% S; z- p: c: L) TFederal airway or segment thereof, area navigation+ q' P( |% H y6 x4 o! y, z/ q low or high route, or other direct route applies to the1 y" L, C5 G3 E0 i. f% E6 [ entire width of the airway, segment, or route between . K' y7 A2 }- s/ w4 K: ~% ethe radio fixes defining the airway, segment, or route. 7 i4 a& b0 I/ o, T, N& b(Refer to 14 CFR Part 91.) - m; R; o2 V4 q# t(Refer to 14 CFR Part 95.)8 q2 I3 |" a @' K, |+ b# B1 N (Refer to AIM.) ' H& T6 X" q& a7 ZMINIMUM FRICTION LEVEL- The friction level) R1 U+ X; D0 |- X& O5 W specified in AC 150/5320‐12, Measurem ent, ( N, e# G$ ^" v. rConstruction, and Maintenance of Skid Resistant4 s" W' m8 _7 i( B Airport Pavement Surfaces, that represents the $ L2 B2 u, d" \7 Zminimum recommended wet pavement surface 5 t( p/ L+ e6 c$ I1 r1 V V7 wfriction value for any turbojet aircraft engaged in 5 i: ~: O8 e) x% rLAHSO. This value will vary with the particular $ }+ e' u; p! f' O/ J8 Nfriction measurement equipment used., Q6 l# Y% P: g8 d5 H& c8 H4 I( c MINIMUM FUEL- Indicates that an aircraft's fuel4 C/ T) U& q# O) } supply has reached a state where, upon reaching the* ^5 z1 D1 M7 F+ |! F5 v4 i. n+ t destination, it can accept little or no delay. This is not# c9 V! H) W. \3 m an emergency situation but merely indicates an 8 Z# N8 Y% p8 f- bemergency situation is possible should any undue+ N3 p5 G) J" x& }6 j- {% c delay occur. k4 q) J' ]( ^* s. z (Refer to AIM.) ( ]" @2 M" ^1 w3 e/ \8 f& P/ P- [MINIMUM HOLDING ALTITUDE- The lowest) k4 g8 A; I' e altitude prescribed for a holding pattern which! T. V' Q$ r9 d% }% y( u* Y assures navigational signal coverage, communica‐2 K% ~& R- L$ _; I" b tions, and meets obstacle clearance requirements.4 U S) B) c5 p+ Q MINIMUM IFR ALTITUDES (MIA)- Minimum - G# |2 m+ F5 e. Q. C jaltitudes for IFR operations as prescribed in 14 CFR4 @, X+ @: Z9 Q7 v; B ^ Part 91. These altitudes are published on aeronautical , N/ l2 @9 J* N0 Lcharts and prescribed in 14 CFR Part 95 for airways $ a6 w; s9 q# [! [8 V3 dand routes, and in 14 CFR Part 97 for standard0 n6 i T) Z, m2 p+ Y3 u instrument approach procedures. If no applicable ' ^8 W o3 E+ v" N- e& C3 G8 B7 cminimum altitude is prescribed in 14 CFR Part 95 or " n7 K& }1 x6 S& f& i14 CFR Part 97, the following minimum IFR, _1 X% F s& n+ D8 D/ G# L7 D/ J altitude applies:4 V8 q- K, X: ~% \ a. In designated mountainous areas, 2,000 feet 2 w; d9 b- P7 K4 T- d( C5 C, Wabove the highest obstacle within a horizontal$ x* O7 @+ J2 ] distance of 4 nautical miles from the course to be. ~4 v" q, b; ?* k4 l& p5 W$ C flown; or 0 V) r1 i, B- s8 R, s k+ y$ o; m: nPilot/Controller Glossary 2/14/08 F+ \6 @/ {9 O5 o5 Z PCG M-4 2 q# T7 e/ Q; O8 z* Xb. Other than mountainous areas, 1,000 feet above " n* v5 u% ]8 \' h0 vthe highest obstacle within a horizontal distance of 4 0 [- l9 n$ `: L. h# {2 g7 E+ ~6 |. Tnautical miles from the course to be flown; or# X1 n! f7 }- Z# z c. As otherwise authorized by the Administrator $ J, J: G2 k `6 v/ X: Eor assigned by ATC.3 c% X' p6 ]" Z' i (See MINIMUM CROSSING ALTITUDE.) : l) Y( m% y1 s5 T(See MINIMUM EN ROUTE IFR ALTITUDE.)5 g9 X% E: m( n! j3 {) A3 t (See MINIMUM OBSTRUCTION CLEARANCE 7 G( Q8 k6 n& \0 s; CALTITUDE.) . k! S0 ~3 I9 C+ a; Z(See MINIMUM SAFE ALTITUDE.) 8 l0 ~- E [: c* p3 Q7 `(See MINIMUM VECTORING ALTITUDE.) % j- ^) ]- a! S1 \2 E) i3 T$ _(Refer to 14 CFR Part 91.)

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发表于 2008-12-28 14:16:14 |只看该作者
MINIMUM NAVIGATION PERFORMANCE+ W4 H9 [4 _( f; p& q8 G9 x SPECIFICATION- A set of standards which require' H& z( l" b1 u& E, q aircraft to have a minimum navigation performance$ S/ z: Z$ ^: v" `1 M5 F- c" e capability in order to operate in MNPS designated . T) r: A- w* {7 Y4 ]' ?airspace. In addition, aircraft must be certified by X3 U' Q5 I) \5 a their State of Registry for MNPS operation. ! m+ g2 C2 I4 `7 _MINIMUM NAVIGATION PERFORMANCE 4 p8 p* g2 x V5 V7 h. S) m" PSPECIFICATION AIRSPACE- Designated airspace % I2 b8 W5 u" e3 D6 Vin which MNPS procedures are applied between7 n" U7 m$ |/ \# [, K- J: u MNPS certified and equipped aircraft. Under certain" p' j$ o& p- I conditions, non‐MNPS aircraft can operate in 5 d. @4 Z4 Y# K) E& S" s+ Z* dMNPSA. However, standard oceanic separation $ |2 f) R! b/ q! E6 ?minima is provided between the non‐MNPS aircraft " t6 j7 \4 H/ v% f& [and other traffic. Currently, the only designated * X, L1 c8 \5 C6 A* ^# h N# j3 xMNPSA is described as follows: * w8 z3 t" R' Y" D+ _, Y& W" ha. Between FL 285 and FL 420; 3 G$ I3 f: j4 ]4 N) lb. Between latitudes 27N and the North Pole; 1 X# R6 l3 u' N* e& T1 |! r. \c. In the east, the eastern boundaries of the CTAs+ E% W5 `9 R% X0 M Santa Maria Oceanic, Shanwick Oceanic, and : V4 f, X* v) L0 X) [/ m/ zReykjavik;+ [, [/ m5 V" c) ~' b1 J" A; V. p d. In the west, the western boundaries of CTAs' t6 x$ n$ D2 [ Reykjavik and Gander Oceanic and New York# D* W8 L6 P" w* L, y7 u% c2 ? Oceanic excluding the area west of 60W and south $ b8 [. w8 x. P" B- c6 C; y9 Hof 3830'N./ P2 z1 E/ n- S3 z* C% O' t MINIMUM OBSTRUCTION CLEARANCE ALTI‐0 p5 R7 E8 C( m# \ TUDE (MOCA)- The lowest published altitude in8 j6 X3 N! y) f0 r5 z, ` effect between radio fixes on VOR airways,9 V; [) A/ L- |* A) S: p off‐airway routes, or route segments which meets0 B" W% [. w! y* p obstacle clearance requirements for the entire route# u2 f4 u5 I; I/ [$ F# p8 f; A segment and which assures acceptable navigational i' k% W8 o9 v7 Y2 [: ^4 k# R signal coverage only within 25 statute (22 nautical) 6 U* q8 F+ ^5 ^3 Q' q+ Q w$ mmiles of a VOR.: D1 {7 f8 L6 a (Refer to 14 CFR Part 91.) % Q% F; u/ }- s- ^(Refer to 14 CFR Part 95.)9 E1 N! v' ]2 t2 X9 ?( e! S MINIMUM RECEPTION ALTITUDE- The lowest8 o' r. q, x$ R: b! ^' h. c& { altitude at which an intersection can be determined.2 U- Z; D: M2 C) A. B (Refer to 14 CFR Part 95.) : E" F) B2 g" j" @. cMINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR - j/ s, z6 T# O% f9 @4 Y8 j7 XPart 91 for various aircraft operations. 9 @7 ~( Y* _9 \. @$ U1 D% i! d* Fb. Altitudes depicted on approach charts which; [) [' W$ D: @3 {- Y provide at least 1,000 feet of obstacle clearance for 7 f2 E8 T& t8 m' {# ~% M* hemergency use within a specified distance from the 2 x) N. P' ?9 r. a% k7 ?navigation facility upon which a procedure is : T% k+ B/ {; N: S' I t, M+ z* R6 Z) fpredicated. These altitudes will be identified as% D7 T$ d2 p2 o q1 R Minimum Sector Altitudes or Emergency Safe ( I0 M$ v" s' [Altitudes and are established as follows: 9 U9 L8 U5 t' k8 F( ]1. Minimum Sector Altitudes. Altitudes de‐ 4 v! I6 q, E$ C3 q3 |picted on approach charts which provide at least9 m& E/ x& c" i3 j$ j 1,000 feet of obstacle clearance within a 25‐mile( I2 k' l/ I) S6 n, H6 q' M radius of the navigation facility upon which the% f: E5 Q9 I1 K' Q$ e& W% U( u procedure is predicated. Sectors depicted on" O( L- \1 X& t, R6 ^3 v approach charts must be at least 90 degrees in scope.* M4 T& R( n& b2 O% h These altitudes are for emergency use only and do not2 L- k3 E$ } [ necessarily assure acceptable navigational signal5 d; S- w8 q9 T; Q7 R5 X' C$ L coverage.4 `; g5 z3 @7 E I$ _ (See ICAO term Minimum Sector Altitude.) 4 n1 z- _: x; d, p* c2. Emergency Safe Altitudes. Altitudes de‐9 p( L9 ?. V' g& }% Q3 E; T! m0 M picted on approach charts which provide at least- y0 j: K7 b0 g; ~$ I" C$ H 1,000 feet of obstacle clearance in nonmountainous 1 m3 f2 _0 Q3 P; Dareas and 2,000 feet of obstacle clearance in: l" D! Q# v, A6 e; F/ j designated mountainous areas within a 100‐mile 4 E; h* b4 S+ Pradius of the navigation facility upon which the. ]3 m1 M, z% i% u6 k procedure is predicated and normally used only in 2 l* N# W$ j6 {9 K+ B0 {: Gmilitary procedures. These altitudes are identified on : i0 l8 p' L! c/ a' Y3 Apublished procedures as “Emergency Safe Alti‐2 H3 T* \ J. I" K. g% _/ u tudes.”* n. o) h, B7 @ [; q2 c MINIMUM SAFE ALTITUDE WARNING- A $ [6 O) ~" P: ]" Yfunction of the ARTS III computer that aids the ) r! X* V2 i; N0 scontroller by alerting him/her when a tracked Mode E5 B# H9 e& T# k C equipped aircraft is below or is predicted by the/ _" q: n( I( a' N0 d5 j computer to go below a predetermined minimum safe3 Q; s1 o. k7 {1 W* u altitude.) B0 o% ^. j* C7 r; O/ g1 ~" r (Refer to AIM.) " B" h' E! J: E4 X* O! EMINIMUM SECTOR ALTITUDE [ICAO]- The0 L- S/ K, _$ C lowest altitude which may be used under emergency ; X3 F+ `$ R: rconditions which will provide a minimum clearance' q& @2 _+ g |' W; K of 300 m (1,000 feet) above all obstacles located in. f5 t r; S9 }9 ?% ^, E an area contained within a sector of a circle of 46 km D, h! F2 @5 A7 e" q" B z(25 NM) radius centered on a radio aid to navigation. 2 Q# C+ y6 c! y) ?0 [) w4 u) E1 CMINIMUMS- Weather condition requirements 8 m+ a% q: i+ o+ ~, n3 k. V7 M* vestablished for a particular operation or type of 0 g& U p$ U) a! G' a4 b8 lPilot/Controller Glossary 2/14/08" ?# _3 d0 P2 j! l' g PCG M-5. T. t& v4 \$ p) R operation; e.g., IFR takeoff or landing, alternate: ?0 b3 M1 F8 c; W! O' n$ z airport for IFR flight plans, VFR flight, etc. 6 W; c( T* Q- P3 N1 \; F) |. H(See IFR CONDITIONS.). R. K4 Y0 y1 @) Y$ ` (See IFR TAKEOFF MINIMUMS AND8 d& h9 P4 g; w+ W DEPARTURE PROCEDURES.) y( M4 Q( x9 w1 j9 U9 v (See LANDING MINIMUMS.): L) g, H- |: R- V, ?& |& ~! e (See VFR CONDITIONS.)& \! V9 g/ T Q C8 ^ (Refer to 14 CFR Part 91.) 2 C) ^4 Y8 L7 e' w8 Z(Refer to AIM.)% t: V# |, D3 r! D$ | MINIMUM VECTORING ALTITUDE (MVA)-: r. h4 j+ P$ T1 v& e3 B: V The lowest MSL altitude at which an IFR aircraft will" n5 F3 |* J& e q% Q/ M' q be vectored by a radar controller, except as otherwise U# [/ l% k4 B2 c% Q& Rauthorized for radar approaches, departures, and " s2 N- t+ ^' `' s$ I* d: Qmissed approaches. The altitude meets IFR obstacle ' j4 h- w! T0 [" Yclearance criteria. It may be lower than the published " P) N8 O6 d& n1 B1 s! fMEA along an airway or J‐route segment. It may be ' }2 M" K& t* c' f, |+ @! {* u( G* zutilized for radar vectoring only upon the controller's# W7 R) r! ? f, f D& L" y determination that an adequate radar return is being ' S& |, G" J1 @4 n$ Qreceived from the aircraft being controlled. Charts 9 `2 p% i3 _" ddepicting minimum vectoring altitudes are normally6 H6 ]5 c1 B' g8 P/ K; I available only to the controllers and not to pilots. ) [3 U) P$ W7 G8 w" t$ X(Refer to AIM.)8 O3 l4 C7 m# `* l! Y1 k' A MINUTES‐IN‐TRAIL- A specified interval be‐* ^' Q1 t6 p6 V) [( _: | b tween aircraft expressed in time. This method would * ` @2 e1 W& j! o1 Imore likely be utilized regardless of altitude. 7 O; f) O7 o/ L) {3 W. g' qMIS(See METEOROLOGICAL IMPACT0 x6 L) K( x& n7 R+ ?. s J& N4 S STATEMENT.)' j6 v* ]2 ^$ S# a' { MISSED APPROACH-! K' w( j5 Q0 T5 H' b* v' K a. A maneuver conducted by a pilot when an/ w- H I, I2 e; K7 L3 ? instrument approach cannot be completed to a% O; I; k- e+ V( U! }: E landing. The route of flight and altitude are shown on ( o z {0 j' F" A( ^' Kinstrument approach procedure charts. A pilot( z! l" q4 Y% V8 K# K executing a missed approach prior to the Missed( b& M, Y$ G! ^: A1 Z8 }/ s9 E Approach Point (MAP) must continue along the final/ g" x6 q h) a; y approach to the MAP.; z6 ^5 [/ U* a# g, F% _: m b. A term used by the pilot to inform ATC that 2 H8 U6 O4 `" t( \. @1 {he/she is executing the missed approach.1 b% Q. E; _6 T9 u5 y, k: f c. At locations where ATC radar service is d% t/ K# V3 W' i0 Q6 _2 d9 M provided, the pilot should conform to radar vectors6 L3 R1 T+ P9 L9 R when provided by ATC in lieu of the published 9 I5 N B5 R4 Wmissed approach procedure.0 [8 g2 Z# R a; X* D1 | (See MISSED APPROACH POINT.)- [& B% M" S0 A8 c* f (Refer to AIM.)7 }3 m) F3 y- q6 T4 s6 k MISSED APPROACH POINT- A point prescribed/ n- ~: F: G: ^$ q. c; g. T; c in each instrument approach procedure at which a 6 s2 N7 k0 N6 l5 r4 T$ qmissed approach procedure shall be executed if the 3 _8 U$ V* Y; n" H7 qrequired visual reference does not exist.# y9 O6 m8 W+ U3 b, o2 j$ K4 R (See MISSED APPROACH.)$ ^0 `7 C. k1 y2 n" {- |4 v3 { (See SEGMENTS OF AN INSTRUMENT1 q( I/ v5 h7 F, m- U6 k+ p APPROACH PROCEDURE.) * o$ l0 `0 v& D3 T0 z% r5 zMISSED APPROACH PROCEDURE [ICAO]- The 9 s# `9 E5 x) i8 {9 D9 p8 v& w2 j, aprocedure to be followed if the approach cannot be/ p7 K, n) p/ ~" a5 ^ continued.' Q5 R' @1 U4 q! ]9 K; S MISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT # H' h( N! X; K# g0 r5 F/ yAPPROACH PROCEDURE.) 1 X0 P2 D0 x9 l- P& q5 hMLDI(See METER LIST DISPLAY INTERVAL.) $ Z! d1 V" m% YMLS(See MICROWAVE LANDING SYSTEM.) ( f* Y+ e8 q+ F: |# K- y2 nMLS CATEGORIESa. MLS Category I. An MLS approach procedure 4 M3 `5 E9 v k6 C {# Kwhich provides for an approach to a height above " z0 A3 ^# n5 ^1 i$ Etouchdown of not less than 200 feet and a runway - a0 M- D! z* V v: Hvisual range of not less than 1,800 feet.! v& V. K: }( Q1 H5 n1 Z7 k b. MLS Category II. Undefined until data gather‐ + w. y% e& n% e: z" R6 U( x# Ving/analysis completion.. i1 Q* |7 @& W" r: k7 }; s c. MLS Category III. Undefined until data + ?6 @% {$ e8 O% @gathering/analysis completion.' L. x9 C' y" q0 d3 u0 a k MM(See MIDDLE MARKER.): O8 u4 P! [; @; \" S1 g MNPS(See MINIMUM NAVIGATION PERFORMANCE. _7 C: v9 n2 _% k$ ~ SPECIFICATION.) # c+ s+ T7 K1 t9 |8 t% FMNPSA(See MINIMUM NAVIGATION PERFORMANCE- ! U0 g4 q% z4 C, t/ d3 t, CSPECIFICATION AIRSPACE.) 6 v3 e6 g3 a7 X% OMOA(See MILITARY OPERATIONS AREA.) $ I+ |% e( _& jMOCA(See MINIMUM OBSTRUCTION CLEARANCE- F6 i8 c& n, s- U- d0 T( E! N ALTITUDE.)) ^4 D! b7 M: F4 l MODE- The letter or number assigned to a specific " ~$ k* h/ e$ b: z1 ^pulse spacing of radio signals transmitted or received 3 U' Z6 i! e5 F/ Z1 E4 p7 ~: hby ground interrogator or airborne transponder$ d1 J2 r2 y( L$ w4 k5 v% b" ] components of the Air Traffic Control Radar Beacon . |* B2 j0 e. P* n! g1 Q- UPilot/Controller Glossary 2/14/08 - I: M$ t( E4 ^7 g/ `5 WPCG M-60 [7 A6 } n# L" y% U# ? System (ATCRBS). Mode A (military Mode 3) and* `0 H: H' w6 u7 D! J# @- d Mode C (altitude reporting) are used in air traffic5 D8 d% I: v( l9 ]2 I control.4 `* j' N9 x( ?% h) R (See INTERROGATOR.)/ D* }/ Y0 p8 |. l (See RADAR.) ( K5 d; `8 a+ D9 I(See TRANSPONDER.) 3 r! u! h: D. p6 g& E2 Q(See ICAO term MODE.)0 Z5 O6 v# l4 Y" T) W5 r2 ]0 p& _* ^: M (Refer to AIM.)4 h5 u- K; O# A! K, _+ \; U MODE (SSR MODE) [ICAO]- The letter or number& K: G, t) Y) g7 s3 b0 D assigned to a specific pulse spacing of the # c# r q3 n8 @8 E+ @0 U, Kinterrogation signals transmitted by an interrogator. / E) Q- ~6 Y: G; [8 _) sThere are 4 modes, A, B, C and D specified in Annex1 ]7 B( z- A& M 10, corresponding to four different interrogation2 [& f5 E' J1 H9 ^; O pulse spacings. # G: O+ m+ \% bMODE C INTRUDER ALERT- A function of ; g* I/ ?2 y, U7 M7 c7 qcertain air traffic control automated systems designed + r* h: c9 l9 m0 f5 t. Vto alert radar controllers to existing or pending0 i) K* ^6 w' a! I situations between a tracked target (known IFR or 9 y# z" t& h) H0 j% v4 VVFR aircraft) and an untracked target (unknown IFR . o' f1 g' z# Nor VFR aircraft) that requires immediate attention/ 3 D! ` h5 ]4 |action.& c* h, U9 o4 p* Q* v% p' ~* X# E (See CONFLICT ALERT.)

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MONITOR- (When used with communication 2 \/ Y# Z9 ?% m3 u) p1 xtransfer) listen on a specific frequency and stand by7 Y& ?8 F! I( b for instructions. Under normal circumstances do not% n) ~4 S: h0 A6 a7 h establish communications. & t/ b" i! U4 v( _! Z2 x) x6 vMONITOR ALERT (MA)- A function of the ETMS ( v& R4 F1 y* u. e# X$ Mthat provides traffic management personnel with a; i3 ?. P' }+ Y tool for predicting potential capacity problems in + }4 G) z% t( J3 e" F; Dindividual operational sectors. The MA is an , d1 i9 Q+ S3 f5 iindication that traffic management personnel need to ( s' C) S/ q; W4 x& [analyze a particular sector for actual activity and to% t& C+ `+ S6 _& l9 M0 p determine the required action(s), if any, needed to. y5 C: H; `9 v. A3 |- K control the demand. ! Q3 O# d$ ^/ _9 y. F; NMONITOR ALERT PARAMETER (MAP)- The7 h5 x! I' y+ d W' |+ } number designated for use in monitor alert* j/ S# M& s* }7 O. ` processing by the ETMS. The MAP is designated for + [5 q" a8 Q. [3 Geach operational sector for increments of 15 minutes. " m8 \( G6 v8 RMOSAIC/MULTI-SENSOR MODE- Accepts posi‐1 J& F! n* \8 z1 j- h$ g tional data from multiple radar or ADS-B sites. : e9 L$ ?5 p7 {* y( o# n+ R- h; TTargets are displayed from a single source within a6 M; l9 y5 E0 J. u: w9 n2 d radar sort box according to the hierarchy of the: \7 V4 G% g" j$ Y9 m, u" A3 T4 Z sources assigned. 6 \" ^9 @# k6 A: Y$ H m( l$ HMOVEMENT AREA- The runways, taxiways, and 2 ~3 y' W1 M2 ~- Kother areas of an airport/heliport which are utilized+ Z* S. W, d+ s1 M ? for taxiing/hover taxiing, air taxiing, takeoff, and $ k$ I% E. {: x$ a+ zlanding of aircraft, exclusive of loading ramps and 2 j6 U: Q3 E7 C5 Q* ^+ M$ [% f1 E- Oparking areas. At those airports/heliports with a ! ~& T' a" t( k$ U) Ptower, specific approval for entry onto the movement" z! a2 ?, f2 @! u$ h& e* D4 y# S area must be obtained from ATC. 8 E: t h5 y5 I% e# e(See ICAO term MOVEMENT AREA.). b3 Q/ h6 k$ A/ p+ d8 O3 x MOVEMENT AREA [ICAO]- That part of an" P# M# h" I2 g0 S* t; r aerodrome to be used for the takeoff, landing and ( l& V/ o6 s5 c6 T+ I4 vtaxiing of aircraft, consisting of the maneuvering area & l* ^# W. m+ c, h% `and the apron(s). ; _% O# c3 d$ _* c" ]MOVING TARGET INDICATOR- An electronic 0 y& |' l7 I8 m! L* L+ i+ D# c- Vdevice which will permit radar scope presentation1 |! y# N% C# i: ^" U3 ^ only from targets which are in motion. A partial 4 J _( N+ p! Y7 Z. Hremedy for ground clutter. ( J$ t& D, O2 LMRA(See MINIMUM RECEPTION ALTITUDE.) ) }4 M/ ]- H) A" y i, kMSA(See MINIMUM SAFE ALTITUDE.)6 V& J) b- R( y) a/ v0 q* v MSAW(See MINIMUM SAFE ALTITUDE WARNING.) `: e6 G! f, H; [ MTI(See MOVING TARGET INDICATOR.) 6 V' w+ s u F0 r' C/ {MTR(See MILITARY TRAINING ROUTES.)$ ~( T. F/ J4 Y: p, f9 ?, W& t, b MULTICOM- A mobile service not open to public 8 O" ]: @9 l! _correspondence used to provide communications ' m6 Q+ h2 c* `7 X- o2 R- J8 yessential to conduct the activities being performed by1 r Y6 K" O- }, r- @- N or directed from private aircraft. " R% g. e. |, HMULTIPLE RUNWAYS- The utilization of a 8 V' `: r l% v; Odedicated arrival runway(s) for departures and a - U" H) S, j6 g) Odedicated departure runway(s) for arrivals when , k4 I& I& o7 u$ C0 I1 kfeasible to reduce delays and enhance capacity.- x' C6 C2 a- n1 o. f* p MVA(See MINIMUM VECTORING ALTITUDE.)2 U+ U7 F g/ A G& ]9 w! ? Pilot/Controller Glossary 2/14/08+ V0 M, A& i8 F8 A PCG N-1% W# U" D: W4 O. J- ^ e9 r$ C N, i+ b" U. J" A8 d) V NAS(See NATIONAL AIRSPACE SYSTEM.) ; N& M. i- [' K1 O, }7 w, MNATIONAL AIRSPACE SYSTEM- The common 2 o) [- m( D# P. H E+ Ynetwork of U.S. airspace; air navigation facilities,! L3 f4 _' x% S, i/ Y/ l equipment and services, airports or landing areas; - P5 c2 L5 K2 S8 e3 R9 z0 ]aeronautical charts, information and services; rules, 9 t r/ Y7 i' z# m/ H. P7 N9 oregulations and procedures, technical information, ( D6 m0 u. e* B5 M; j7 Iand manpower and material. Included are system . d8 C) N$ G5 N4 y1 Qcomponents shared jointly with the military. 9 o0 q4 _8 F% \; R* VNATIONAL BEACON CODE ALLOCATION % O5 \/ J- r: ~$ }- BPLAN AIRSPACE- Airspace over United States/ F2 ]3 U0 V( o4 e territory located within the North American continent3 o# q# k4 u7 P between Canada and Mexico, including adjacent ! |1 L S {1 o' `7 D Xterritorial waters outward to about boundaries of . A8 w2 E b3 j2 Z( woceanic control areas (CTA)/Flight Information/ \" d3 t- T% Q6 b& `: `5 u5 u Regions (FIR). + B2 z- u' H( x: w; u(See FLIGHT INFORMATION REGION.) % o( R ^6 ?4 y- u9 g; a/ i u: MNATIONAL FLIGHT DATA CENTER- A facility in+ v9 m# U7 d* z" M, m* i6 t3 z! e0 y Washington D.C., established by FAA to operate a # w# Z X" d8 k- ]central aeronautical information service for the+ e4 w$ q0 R; e# c, g$ k I collection, validation, and dissemination of aeronau‐( d9 d8 C: K$ x6 M tical data in support of the activities of government, ) g5 d2 n) z& @9 D2 f3 A+ D* v% Hindustry, and the aviation community. The informa‐ & K Y1 z) y+ _" V( htion is published in the National Flight Data Digest. M W" B8 ~# x; ?, [(See NATIONAL FLIGHT DATA DIGEST.) , E. P. g0 ~$ q- o0 O. u N$ q' E% KNATIONAL FLIGHT DATA DIGEST- A daily % p( n7 A' B7 Q, ?: u f$ ^(except weekends and Federal holidays) publication2 m' h* }8 X8 l% c4 m& s% ^6 R& | i of flight information appropriate to aeronautical' R# @ x4 S8 m; V: a charts, aeronautical publications, Notices to Airmen, 9 o8 N8 l' M- H5 O3 b4 Q) bor other media serving the purpose of providing1 Q" A! ]: H8 g, ]4 V4 q operational flight data essential to safe and efficient1 L0 Y6 Y2 O2 [. D( b1 `4 h aircraft operations. 0 g: e: ^0 S3 X. w) eNATIONAL SEARCH AND RESCUE PLAN- An/ t( ^7 c- U5 [8 u$ z, J interagency agreement which provides for the # ?7 c( B/ l: E- b1 h0 _effective utilization of all available facilities in all 5 d1 W/ i% i5 T. c0 Atypes of search and rescue missions. 8 Y7 I5 c1 a/ e. I* q/ `NAVAID(See NAVIGATIONAL AID.) 2 N6 A9 z) M* K* GNAVAID CLASSES- VOR, VORTAC, and TACAN; R% L4 Q# g( O7 K aids are classed according to their operational use. - [4 Z% ]# P8 ^- G& q5 U2 E3 ^The three classes of NAVAIDs are: : n8 ?4 H/ y, U# R# G( ia. T- Terminal. - P6 z, f W- q. pb. L- Low altitude. 1 K: b r9 c( ?% c% A/ i0 Jc. H- High altitude. 3 V" ~/ _' O. H, \# T' cNote:The normal service range for T, L, and H class& B8 d: w* J! A& ` aids is found in the AIM. Certain operational 1 M6 a+ ]# x5 n& e K/ P( X h1 l, mrequirements make it necessary to use some of - y0 n* U6 X5 q6 B; A2 Rthese aids at greater service ranges than $ b: t* L6 D9 N8 q! Xspecified. Extended range is made possible 1 S7 g& B& y# ^. c9 T; Hthrough flight inspection determinations. Some7 ^5 V4 S4 w& s aids also have lesser service range due to location, ' d) C- l: ^8 R7 R( _terrain, frequency protection, etc. Restrictions to; u3 a" Y' m) [ U6 m. E" Q: [( J service range are listed in Airport/Facility2 y0 T$ z; Q, Y& T; Y/ N- C* O Directory. - u( ]" [' J; A% o8 L# w1 ?) J4 A2 K: ANAVIGABLE AIRSPACE- Airspace at and above+ i" g* V2 M% |3 O J+ L1 w- U the minimum flight altitudes prescribed in the CFRs + p1 }0 e$ s0 W6 z6 \, ~including airspace needed for safe takeoff and- d4 F& q0 }& c. N8 O& m% g landing.1 L1 ^& _: k2 x1 ?" n2 x (Refer to 14 CFR Part 91.)& v8 J/ a$ C0 k1 {5 L NAVIGATION REFERENCE SYSTEM (NRS)- . \6 o- h* O0 l% |! HThe NRS is a system of waypoints developed for use9 q- r8 z! B) {; d; Y G within the United States for flight planning and - R7 G2 U2 n8 k+ F) H! [6 xnavigation without reference to ground based8 f- h9 f \9 I# D/ w% y! K navigational aids. The NRS waypoints are located in o: B4 P3 v! b8 f/ g f) wa grid pattern along defined latitude and longitude + O4 B" Q; l7 v! Zlines. The initial use of the NRS will be in the high c: y |( E @3 X7 M! ], m$ }altitude environment in conjunction with the High1 n) X6 M$ z4 Q; _2 T Altitude Redesign initiative. The NRS waypoints are ]+ H& ?1 ?$ h* R; j g, [1 uintended for use by aircraft capable of point-to-point* Z2 ^& ?* ?3 A" T/ m navigation.% p* R G x) g$ ^* c: Y: m NAVIGATIONAL AID- Any visual or electronic - k9 e# Y# ^$ b e7 U2 j! jdevice airborne or on the surface which provides ' }; N4 [2 P a9 H7 p( K( \point‐to‐point guidance information or position data& T5 F! c- z! ?8 H4 } d4 k5 s to aircraft in flight. 0 i$ ~6 o" ?7 ]# M(See AIR NAVIGATION FACILITY.) ; \' ]8 W3 S/ W) ^' u& H' dNBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION - Z# \$ p# H0 I5 o4 b7 q2 V- w" wPLAN AIRSPACE.) % O! J$ m. ^7 y( l) ?' N7 {NDB(See NONDIRECTIONAL BEACON.) - Z1 J6 ~2 z7 r5 G; uNEGATIVE- “No,” or “permission not granted,” or 9 A8 z5 |6 B( k) ]1 G" K$ {; t“that is not correct.” / ?. y( b/ B' u$ mNEGATIVE CONTACT- Used by pilots to inform 6 ]* N8 q4 }( l. sATC that:& q0 T' S* s, `7 b3 D7 a- v( M a. reviously issued traffic is not in sight. It may ) G p# S4 I# K' [. t0 ^be followed by the pilot's request for the controller to6 \/ w7 c2 a% E' a1 B: E provide assistance in avoiding the traffic.# u& O9 z! ~ n2 S! X' Z2 k b. They were unable to contact ATC on a" E! `$ \1 i- q1 G# ~8 [* c particular frequency. * O/ j* e. m$ Q ?6 i: lPilot/Controller Glossary 2/14/08 / I6 C' c7 h1 ]' ^8 [- p) NPCG N-2 % j' O: `8 Z0 e0 s/ Z- Z; WNFDC(See NATIONAL FLIGHT DATA CENTER.)) c2 H" @ I& t0 z2 z! H: L NFDD(See NATIONAL FLIGHT DATA DIGEST.) + n; \# O4 w3 f6 D c" G% d# ^NIGHT- The time between the end of evening civil # }, B! @/ v( o3 Rtwilight and the beginning of morning civil twilight,1 t1 {- y% l3 O+ B4 {& T1 B as published in the American Air Almanac, converted" F4 `8 o8 h, G: N7 |$ F2 b$ z to local time.+ i& h% G- U2 e7 n) o2 ~5 X (See ICAO term NIGHT.) + F1 o* R( x* A* uNIGHT [ICAO]- The hours between the end of 7 [7 `* J: z+ p$ l: W0 i, ?evening civil twilight and the beginning of morning' C; @ w; Y, o civil twilight or such other period between sunset and' s0 g( |# o8 x6 `$ A( _! o2 d- F sunrise as may be specified by the appropriate : ]0 \; w4 V7 o0 vauthority. + V- M- `1 e1 z6 c& B3 S( h: kNote:Civil twilight ends in the evening when the- N! `0 ^" d% w5 G$ d center of the sun's disk is 6 degrees below the 3 D% S) O* l# v; Shorizon and begins in the morning when the center " X) x/ c& |5 r- b( Y( Y. dof the sun's disk is 6 degrees below the horizon.) H. |& y, r a- E NO GYRO APPROACH- A radar approach/vector 5 H+ K* I2 t% k$ I1 zprovided in case of a malfunctioning gyro‐compass, Z6 n0 S, s7 ^3 _ {6 @ or directional gyro. Instead of providing the pilot ' `. E6 F5 [9 w$ o+ U rwith headings to be flown, the controller observes the+ W7 T1 O+ c* ^ radar track and issues control instructions “turn 4 X% G, n+ B" j* q5 t, oright/left” or “stop turn” as appropriate." W o3 ]9 Y( Z( V4 J' ^% ] (Refer to AIM.) ! x3 u/ R7 A6 P1 SNO GYRO VECTOR(See NO GYRO APPROACH.) ; {) ]! |: \- D; V4 e. CNO TRANSGRESSION ZONE (NTZ)- The NTZ is " P- |& o% f1 N; L/ Za 2,000 foot wide zone, located equidistant between & ~/ V& Y/ z. K, ?- E6 kparallel runway final approach courses in which* V3 ?# L' R* ]3 i2 ^) t flight is not allowed. * Q1 F$ B, D4 [8 N8 R6 ^! D) HNONAPPROACH CONTROL TOWER- Author‐ 2 M) a, T! w6 o. ^izes aircraft to land or takeoff at the airport controlled $ n+ e& h4 a; H. c0 E$ e1 \by the tower or to transit the Class D airspace. The ! u; y3 I8 s* _2 pprimary function of a nonapproach control tower is" {* z! b9 t$ L9 `$ }# C2 x0 W the sequencing of aircraft in the traffic pattern and on $ c3 [1 v- `. Pthe landing area. Nonapproach control towers also) x0 R4 }; p+ w. U separate aircraft operating under instrument flight ! L' g! B) k: o! ~. I: Erules clearances from approach controls and centers.9 c2 p' D* g6 \# ]* G7 F They provide ground control services to aircraft, ! E% G2 R0 R9 {% d% z% G+ Nvehicles, personnel, and equipment on the airport( i; e- o8 h4 i0 X5 n& @( e2 T* @ movement area. , ]5 g3 u H1 _' ^$ h% LNONCOMMON ROUTE/PORTION- That segment , o+ X3 y% w# n1 P; K H$ S% yof a North American Route between the inland 1 C7 m3 B: c/ q1 ]0 `% { ynavigation facility and a designated North American + A9 t; R; W3 l$ \; c" Kterminal. * [7 T) g8 O# }4 c- PNONCOMPOSITE SEPARATION- Separation in ; A& s3 j8 w/ m/ k oaccordance with minima other than the composite - |3 B q& W ~5 X2 Kseparation minimum specified for the area con‐+ u) H+ y6 R0 j1 |* C cerned. / P5 ]& e2 u" \NONDIRECTIONAL BEACON- An L/MF or UHF & u" v* T y) [! Gradio beacon transmitting nondirectional signals8 }* V) C6 }# d whereby the pilot of an aircraft equipped with 6 U5 v" j" |6 y* n2 | Z6 _direction finding equipment can determine his/her # t0 L( S/ t+ Dbearing to or from the radio beacon and “home” on or f# a" q/ o5 O- H1 B$ K. mtrack to or from the station. When the radio beacon is & Q- m7 Q; l+ i7 P2 Ninstalled in conjunction with the Instrument Landing- G) n( R6 H4 S/ b System marker, it is normally called a Compass 2 r2 Z2 T* ~" T8 p& N" b. a$ ZLocator.: T" h0 e- N! E (See AUTOMATIC DIRECTION FINDER.)% q* V, t2 z" I2 @, M (See COMPASS LOCATOR.)

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