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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 Q n$ x, W8 u8 n8 T- U ing aircraft in a composite route system where, by " G! R' H) F' i; Q& b8 P+ N, G/ dmanagement of route and altitude assignments, a4 L" x+ K* C2 w& O! ] combination of half the lateral minimum specified for 7 h6 y4 j' ?( r4 E1 j4 r6 ~* qthe area concerned and half the vertical minimum is) b( w& f, E% g applied.% P' E8 z% N+ J6 s' j COMPULSORY REPORTING POINTS- Reporting ' X9 `0 p% ]% C7 o) b. W! R1 Y4 ~points which must be reported to ATC. They are2 k( c( Q$ j6 T+ e designated on aeronautical charts by solid triangles or+ V+ y t2 A! ~+ f: V4 V3 L8 C, ~ filed in a flight plan as fixes selected to define direct , D& m7 B, f: }6 q3 T croutes. These points are geographical locations! x2 Q, I, |% j4 g/ G which are defined by navigation aids/fixes. Pilots / h( U' Z* {4 E9 d# K e' A' rshould discontinue position reporting over compul‐0 J6 h( l3 ~6 _8 A sory reporting points when informed by ATC that 5 t. c& {& [! F9 i* ptheir aircraft is in “radar contact.” 9 b+ @$ x6 `' W- ]- U/ `( o, ?CONFLICT ALERT- A function of certain air traffic5 N( A1 @1 b+ V' n control automated systems designed to alert radar, Y* ^. `, F' Z: e' g controllers to existing or pending situations between 7 g% s6 [" R# D" s4 ztracked targets (known IFR or VFR aircraft) that 9 h0 l" F* `4 p. c5 s( m3 r# h, Erequire his/her immediate attention/action. . Q$ S: j2 [/ P1 F(See MODE C INTRUDER ALERT.)+ ]; }' u8 E9 f& s) P CONFLICT RESOLUTION- The resolution of3 I0 S% X: o* w( v8 ^% _" }& c potential conflictions between aircraft that are radar ' V: S' }8 L6 P6 l# ]identified and in communication with ATC by1 W1 J' A) ?# L) @: D ensuring that radar targets do not touch. Pertinent5 {7 g+ _) h/ [% b6 Y) }( ]( X0 X2 F traffic advisories shall be issued when this procedure 1 \- z l/ g$ h+ b; K7 wis applied.4 ` A+ o# ?. J7 W, u9 B Note:This procedure shall not be provided utilizing 0 P8 r4 b* ]- y0 qmosaic radar systems. 5 ]& f }1 c8 Y+ z# nCONFORMANCE- The condition established when M! n7 j W* C7 c. G an aircraft's actual position is within the conformance 3 z. Z5 K2 h8 ^' ~: q& e, m$ Hregion constructed around that aircraft at its position, - T/ C9 a8 \/ L. Saccording to the trajectory associated with the / l. c5 f" p* {& O' Q, Laircraft's Current Plan.3 \- _' f# c% y& j CONFORMANCE REGION- A volume, bounded# i2 `; D1 B1 e" b' v laterally, vertically, and longitudinally, within which* {1 d& O/ r9 E k5 N; C an aircraft must be at a given time in order to be in/ C+ u, q7 f6 m+ y, r" N/ Q conformance with the Current Plan Trajectory for that( F: X$ L" v1 n, i, O4 V8 q aircraft. At a given time, the conformance region is+ G- i9 u9 ~$ ]1 k, c2 A determined by the simultaneous application of the - \9 M: c6 G+ j: D+ nlateral, vertical, and longitudinal conformance ; h. ?; z" _+ Mbounds for the aircraft at the position defined by time% F' n2 b; v& O/ w' }. L and aircraft's trajectory. 8 K. ]) d3 ~) E, ]8 W" F4 lCONSOLAN- A low frequency, long‐distance 8 y5 l) e+ V- C L* B zNAVAID used principally for transoceanic naviga‐ " i% N4 Z3 t$ E- c3 Rtions.$ R6 C5 Q, t/ W' g+ u9 d+ g0 X CONTACTa. Establish communication with (followed by the 0 Y3 E1 Z8 q& p1 I' w" c: ename of the facility and, if appropriate, the frequency- @' ]5 T, N$ g. w3 |1 M$ T& T r to be used)." c! T r$ L6 _8 Y b. A flight condition wherein the pilot ascertains % f3 |; M' }1 othe attitude of his/her aircraft and navigates by visual 7 Y$ K2 M5 H9 l5 areference to the surface. 3 { t& {2 G Z+ T* [(See CONTACT APPROACH.) $ g# y7 U$ A0 x$ g; r# J3 B(See RADAR CONTACT.)) Z: c& w3 w5 m5 T2 O. } CONTACT APPROACH- An approach wherein an4 n( ~* V2 s$ U! j1 O/ M4 {3 g0 I aircraft on an IFR flight plan, having an air traffic0 n& ~0 y7 N9 W* w' P- v8 v control authorization, operating clear of clouds with 0 O1 a" r/ W$ O8 o- r7 c6 X/ Nat least 1 mile flight visibility and a reasonable 7 e* N9 {; Z+ ?2 Eexpectation of continuing to the destination airport in; [0 O# `! y! j& @# j/ g. K those conditions, may deviate from the instrument % {6 d( _" P! k. F( k0 f( B, e. O+ N: d4 uapproach procedure and proceed to the destination - \8 m5 V) c- i4 fairport by visual reference to the surface. This. N: \, V9 R4 \ approach will only be authorized when requested by1 U. O- F0 M* l+ } the pilot and the reported ground visibility at the 2 a0 E) w8 x8 K: kdestination airport is at least 1 statute mile. ( n6 l! d% b* C(Refer to AIM.)' i# {8 M- Q; I' I0 n& z CONTAMINATED RUNWAY- A runway is/ g3 [( O4 x: s! G" f+ T; E considered contaminated whenever standing water,2 S# M; [0 X3 W ice, snow, slush, frost in any form, heavy rubber, or * f& z# v8 o. Lother substances are present. A runway is contami‐ % ]( x e1 P2 t" P5 J$ p# rnated with respect to rubber deposits or other . e2 Y& W; }6 qfriction‐degrading substances when the average; V. m0 ^! @" R' [( _6 q! z' Z friction value for any 500‐foot segment of the runway+ d# f# ^: [$ F T) g5 {; w% n within the ALD fails below the recommended 1 v5 t3 p3 W: V0 T5 G2 L& d* w% Eminimum friction level and the average friction value : {6 ?0 j' Z* U2 c: Tin the adjacent 500‐foot segments falls below the ' M$ C: m. v% e' cmaintenance planning friction level. 3 X' j1 y- G, n7 D- PCONTERMINOUS U.S.- The 48 adjoining States# l6 _' Q. K! ?6 o7 A- s and the District of Columbia. ) V6 j3 \) U+ | g7 uPilot/Controller Glossary 2/14/08 - u' R5 u5 Z' o+ c2 qPCG C-6( x0 K& `. ^0 }" f! I5 {" u CONTINENTAL UNITED STATES- The 49 States& {' F3 ^, f; _* _2 ] located on the continent of North America and the8 V/ P& X0 O3 v2 |' y8 E! q/ n7 M District of Columbia. / y4 N) k5 {: l5 [CONTINUE- When used as a control instruction / p9 u+ v2 D5 N0 b5 C) Pshould be followed by another word or words) W; m0 v1 j: B& | clarifying what is expected of the pilot. Example:% X7 V! i% s+ j9 {9 t+ S “continue taxi,” “continue descent,” “continue 5 J, ~0 s' D0 O) iinbound,” etc./ z+ g0 E% ]* V CONTROL AREA [ICAO]- A controlled airspace " Q6 _, }1 O% E. Aextending upwards from a specified limit above the & c3 h8 m" L, D" y6 cearth.6 ? A G: E. [5 G8 x CONTROL SECTOR- An airspace area of defined + ^1 k& U' }$ b* a7 shorizontal and vertical dimensions for which a$ [2 x- \/ P) }5 s7 V5 m3 m controller or group of controllers has air traffic; j8 f6 Q7 d' F+ F$ S' c control responsibility, normally within an air route 7 t; E& d7 U4 ?9 p1 Ltraffic control center or an approach control facility. 2 A# K! ~8 `) c5 `Sectors are established based on predominant traffic6 x) ]; | p! p2 g- R. G flows, altitude strata, and controller workload./ A$ M, b% G5 q2 p2 v. n- Q3 p Pilot‐communications during operations within a7 E7 T9 x: G8 \ sector are normally maintained on discrete frequen‐- G2 g/ ~+ c7 z& @) y7 C cies assigned to the sector.- j9 C7 x2 d" V& W1 K (See DISCRETE FREQUENCY.)7 f0 K! w1 E# X. u2 w8 \6 s5 _ CONTROL SLASH- A radar beacon slash repre‐% t5 Z( I* }8 c9 B senting the actual position of the associated aircraft./ c" u$ v8 u6 o Normally, the control slash is the one closest to the/ y1 C: p: s R7 M' n interrogating radar beacon site. When ARTCC radar . |8 o0 i* U# z/ q/ u' D; _is operating in narrowband (digitized) mode, the7 g7 @* P7 `3 D, O6 j control slash is converted to a target symbol. q6 G7 J. D# c4 d8 u CONTROLLED AIR SPACE- An airspace of) h' e% R* b# `! ~ defined dimensions within which air traffic control4 R' A3 h% l8 c4 n service is provided to IFR flights and to VFR flights % G8 S! u" K* v rin accordance with the airspace classification.9 L7 A7 a; `4 \ E c$ l7 Z a. Controlled airspace is a generic term that covers, x0 A m7 u' Z4 c/ ^% O Class A, Class B, Class C, Class D, and Class E 0 [/ n5 f9 f: k5 b6 yairspace.6 o W2 S3 M+ F: x! A b. Controlled airspace is also that airspace within # x: n. ]! _; O) Lwhich all aircraft operators are subject to certain pilot + r9 M0 w, s& b- a! q- n+ ^qualifications, operating rules, and equipment ( K$ n/ C( U, }# \' H7 [5 h! rrequirem ents in 14 CFR Part 91 (for specific8 X$ }$ r2 n. z operating requirements, please refer to 14 CFR5 I7 T+ @! c6 }! R& l Part 91). For IFR operations in any class of controlled / B" O& S# F) b8 u3 qairspace, a pilot must file an IFR flight plan and * I" Y, j ~ R# N; b, ?4 \receive an appropriate ATC clearance. Each Class B, 2 ?5 ^8 Z; a8 f/ C8 h6 T9 jClass C, and Class D airspace area designated for an( H' g5 `3 I9 m; k% M; G" _ airport contains at least one primary airport around1 N4 J- g( B5 b5 Q; E9 k* r4 V which the airspace is designated (for specific7 M" ]5 j9 m0 ^! @ designations and descriptions of the airspace classes, 6 T5 J: V! ~6 }* T6 ?! tplease refer to 14 CFR Part 71).$ X0 R6 v) G. l+ G5 I4 u; { c. Controlled airspace in the United States is 1 z R. a7 E2 f" \designated as follows: & N5 ~9 R4 M: t: _- G' q) h! [1. CLASS A- Generally, that airspace from + i$ f z3 G, b$ e18,000 feet MSL up to and including FL 600, ) k" v. D4 U3 O, j1 D( p4 x* z. Y. k6 nincluding the airspace overlying the waters within 12. j: m8 O0 f5 q- b' R2 ]: @0 g nautical miles of the coast of the 48 contiguous States5 @% C+ T) k' }2 @# z+ D, L and Alaska. Unless otherwise authorized, all persons6 g! X5 [3 `3 i7 r- J: A2 h; S& e must operate their aircraft under IFR. 4 |# Z0 Q! s8 W+ a2. CLASS B- Generally, that airspace from the " ?4 L/ V& G; H& j6 lsurface to 10,000 feet MSL surrounding the nation's * T) \3 f$ K" ^7 Z4 P, F7 \busiest airports in terms of airport operations or $ Q! c2 D C7 b9 n/ {passenger enplanements. The configuration of each / u8 R+ v* H# Y H/ L$ N, d7 S/ B% \Class B airspace area is individually tailored and ; T% F) u7 r6 w; G' a5 e2 v0 |! lconsists of a surface area and two or more layers 0 x2 }% D5 w7 F% K5 G(some Class B airspaces areas resemble upside‐down! Y! Z# R* {* F- e- a7 `" d4 ^: {- G wedding cakes), and is designed to contain all( ]" @+ t* D; u9 u2 A published instrument procedures once an aircraft6 T" O# R" f' g# } enters the airspace. An ATC clearance is required for % H) a- L* H: }, gall aircraft to operate in the area, and all aircraft that 6 J1 M5 _$ b- }2 Y. O+ G, B8 ?are so cleared receive separation services within the8 S3 C* l# ?5 f" M8 j0 S2 ] airspace. The cloud clearance requirement for VFR + }4 k# z4 A+ J1 \( goperations is “clear of clouds.”& O7 J/ M# h. A; j9 p; G 3. CLASS C- Generally, that airspace from the0 M+ h4 ]8 N# x! \) {4 s0 |' I surface to 4,000 feet above the airport elevation. l6 x7 u; D8 ?+ `4 A8 y (charted in MSL) surrounding those airports that$ e. U! J6 l5 c: E$ D1 y# ^ have an operational control tower, are serviced by a $ [- E3 p- K1 l$ D+ }radar approach control, and that have a certain" f, O2 S1 ^- K" H& s number of IFR operations or passenger enplane‐ * K" m6 M9 a2 W; w$ Z) Gments. Although the configuration of each Class C9 G4 n7 g5 }0 v6 h area is individually tailored, the airspace usually+ l7 c% V# s8 \1 [5 y8 v consists of a surface area with a 5 nautical mile (NM) I( d3 u) h; ^8 E5 Q4 }6 Rradius, a circle with a 10NM radius that extends no 7 A( t" ?, ?& g4 ?8 o! j8 F+ c2 Ilower than 1,200 feet up to 4,000 feet above the& X5 B8 `! d1 G, j airport elevation and an outer area that is not charted.6 N, ]+ U/ w) j7 @+ J Each person must establish two‐way radio commu‐ 9 _; c0 S1 q" _& G+ j3 ynications with the ATC facility providing air traffic1 k/ A0 j, R' a services prior to entering the airspace and thereafter 5 r7 ^) W4 w( _+ r$ o' b) Emaintain those communications while within the% `# l. D. z _1 N' l$ d% C airspace. VFR aircraft are only separated from IFR3 D1 q0 ?& Q; h aircraft within the airspace. : f/ y2 M n# e" e; M& X7 K# |(See OUTER AREA.) ! L3 v7 n/ A* h5 p- L4. CLASS D- Generally, that airspace from the/ v5 x; k9 N- d: }% H/ U$ j surface to 2,500 feet above the airport elevation 9 J. {8 ]+ O/ n6 P(charted in MSL) surrounding those airports that 9 g0 u6 e8 |4 O& \- [* shave an operational control tower. The configuration % _9 f8 g! c& D! P$ N0 e* A; zof each Class D airspace area is individually tailored( z: Z* p% o) j E and when instrument procedures are published, the # S8 }3 g+ X$ hairspace will normally be designed to contain the' w' q* R- r ^* C1 j' O procedures. Arrival extensions for instrument2 w3 W( l4 F( k* ~& q approach procedures may be Class D or Class E U7 T5 d( k! s% P0 U* ?# P9 y Pilot/Controller Glossary 2/14/08 ( ^1 ?) ]+ C( ~- W5 b8 ~PCG C-71 Z# [& r) h I$ ]; ^% U& { airspace. Unless otherwise authorized, each person6 N8 I: K$ V; Y7 n( c5 Y! S/ L must establish two‐way radio communications with! M* ]# T. \$ l the ATC facility providing air traffic services prior to ! r: Y, l( ?. a# tentering the airspace and thereafter maintain those& A% C+ y( r* H/ U5 c2 a( p" N communications while in the airspace. No separation! t1 W' l4 c* H6 Y# C: D services are provided to VFR aircraft. 7 w* d0 t# z. {; t) ~' I5. CLASS E- Generally, if the airspace is not * i/ X2 L; q* r" o2 aClass A, Class B, Class C, or Class D, and it is; z1 E+ }+ B/ `: o5 T6 B controlled airspace, it is Class E airspace. Class E4 v J. _8 d {" W l airspace extends upward from either the surface or a& Z3 Y# `: C/ l2 Z* M8 K designated altitude to the overlying or adjacent $ [8 X( P* E/ X( Q# kcontrolled airspace. When designated as a surface; ^4 [- F% d: d6 `5 L area, the airspace will be configured to contain all , Q$ s# m" X6 }, Iinstrument procedures. Also in this class are Federal! j4 t% D6 z _& e/ z5 \ airways, airspace beginning at either 700 or 1,200$ { i* z* E1 n! }6 G feet AGL used to transition to/from the terminal or en ( J& @# V, u* c" r3 k R6 _route environment, en route domestic, and offshore t1 a# S# ^7 H" b# Z: F: o, K2 z airspace areas designated below 18,000 feet MSL.# v# V, ?* I! F% i8 O Unless designated at a lower altitude, Class E 3 E. K: ]' o2 G, Aairspace begins at 14,500 MSL over the United " T4 U, z; G& u' ] `4 m# U( FStates, including that airspace overlying the waters& ~* d o( e! s6 G within 12 nautical miles of the coast of the 48# y# ~: X Y4 @3 D1 m9 e& Q contiguous States and Alaska, up to, but not ' b& F. r) a+ g5 E. Q: _$ wincluding 18,000 feet MSL, and the airspace above. d3 |6 {/ ^2 @) o FL 600.& B) B: D9 i! t- o+ k$ T: X CONTROLLED AIRSPACE [ICAO]- An airspace- }/ Z0 S8 ?( Y( t% R+ ] of defined dimensions within which air traffic control % ^* z! \, t1 C. p( F' M% wservice is provided to IFR flights and to VFR flights" I" e$ l. J3 f# h in accordance with the airspace classification.& s0 Q2 L* K P; @% R7 K Note:Controlled airspace is a generic term which& e: V' j' D0 | C6 U% J. n covers ATS airspace Classes A, B, C, D, and E. / S5 d2 T1 V2 A7 d$ _2 d) vCONTROLLED TIME OF ARRIVAL- Arrival time 8 Y# ]- O# T9 ?3 g: r/ k" M1 Cassigned during a Traffic Management Program. This1 Z+ r1 E! G) O time may be modified due to adjustments or user 1 W, A ]0 J" G+ j" Q$ c3 {+ v2 k8 Ooptions.: v' t6 `; x, h& w3 @ `. s' X CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.)( b) K* y) Q7 d! E$ n CONTROLLER [ICAO]- A person authorized to( l5 |* e- r3 a3 l8 E provide air traffic control services./ Z4 @3 R1 e0 e' O. ~/ y7 m CONTROLLER PILOT DATA LINK COMMU‐ % P4 R1 Y8 U9 FNICATIONS (CPDLC)- A two-way digital very * c* [& K# E6 B; a: O! mhigh frequency (VHF) air/ground communications 3 u( ]' L9 a; Ssystem that conveys textual air traffic control 7 W. x5 Z3 @8 H: N/ N" W: umessages between controllers and pilots.# G8 A/ `! P( f CONVECTIVE SIGMET- A weather advisory 7 O* v8 C0 e u, t/ nconcerning convective weather significant to the- ~/ K9 z6 N b, _$ L1 {/ ~8 s1 y safety of all aircraft. Convective SIGMETs are issued & b6 W3 c' x- V6 a( y( g7 nfor tornadoes, lines of thunderstorms, embedded , ~$ n$ ]# x: Sthunderstorms of any intensity level, areas of ) `9 Z3 ?& h4 F w) Dthunderstorms greater than or equal to VIP level 4 , A% ]6 F# R3 {% m/ N( y- e2 `with an area coverage of 4 4 `" `7 V: k# ~$ p/10 (40%) or more, and hail! y; w% Z1 G8 w 3; P0 N2 _: e6 R" I/ y0 f. z7 g2 W- P /4 inch or greater. 5 F9 L: H# x2 l5 N4 a(See AIRMET.) 3 ~$ h9 m j# Y [- M7 t- }7 M(See AWW.) 4 b! ~, q2 X# Z( C: O( I# I+ y/ Q(See CWA.) 4 z6 v& R0 c: k( { @(See SIGMET.)5 |! j, y! Z7 M' t. q) s$ j. W! B/ z (Refer to AIM.) 0 \- } }* C5 T! C% x2 K Q ?8 TCONVECTIVE SIGNIFICANT METEOROLOG‐3 q! x. d' Q3 E/ _ ICAL INFORMATION(See CONVECTIVE SIGMET.)- P2 P) R7 a2 i0 O8 v; X COORDINATES- The intersection of lines of 0 X. T1 u3 Q' s4 freference, usually expressed in degrees/minutes/ 1 L) q) T" o9 i/ w& j& c! [0 ^" vseconds of latitude and longitude, used to determine " D7 s- {: [) `. Z2 Pposition or location.% M& W" H: p; A( v$ i COORDINATION FIX- The fix in relation to which, M: U8 W+ \, _+ T' j) L6 G+ R' ~6 a facilities will handoff, transfer control of an aircraft, $ A$ H- ]6 i' Xor coordinate flight progress data. For terminal 3 w7 z2 M( E) g. r/ }& O: y- efacilities, it may also serve as a clearance for arriving9 m8 r, b0 z; Q& A aircraft.2 E6 n9 z) _0 ~ U* s( ~ COPTER(See HELICOPTER.)5 {4 u" c6 H" |9 ` CORRECTION- An error has been made in the ) h. i; x2 @# |- ? c3 N6 j0 ~transmission and the correct version follows. 5 N* {7 c# |/ U4 ~COUPLED APPROACH- A coupled approach is an1 d2 Y+ h& n4 m9 k( A instrument approach performed by the aircraft$ c* l: h/ X& b8 ]8 P8 w autopilot which is receiving position information) ?4 E9 F8 \6 z _7 ^ and/or steering commands from onboard navigation. Q, L' _1 y9 V. Y equipment. In general, coupled nonprecision ap‐5 w* E6 q$ j+ ?7 E; r8 p! t proaches must be discontinued and flown manually) v: u8 K5 S2 o! m" ^8 A at altitudes lower than 50 feet below the minimum+ s- N/ o% N0 ~, \1 _# F- U descent altitude, and coupled precision approaches $ I2 X1 e1 r: {: Vmust be flown manually below 50 feet AGL. 5 m; j) N, P4 S) wNote:Coupled and autoland approaches are flown 3 a! ^( c, O5 g" M0 q! c" [in VFR and IFR. It is common for carriers to require1 [9 j' f3 g$ w; D8 j: l their crews to fly coupled approaches and autoland + `. V! Z) ]8 Z* r" y1 papproaches (if certified) when the weather0 H$ [+ e9 L, l conditions are less than approximately 4,000 RVR. ' K3 X$ Z: {9 N6 Q7 a8 y+ Q(See AUTOLAND APPROACH.) $ I; G% l( D4 A6 U' b# L' S/ [COURSEa. The intended direction of flight in the horizontal; J! U! r5 K4 s( f plane measured in degrees from north. * r5 }: @: a1 U& v" P+ F, z6 P4 Yb. The ILS localizer signal pattern usually 6 Q, b! e( s9 j1 U! R* }; \specified as the front course or the back course. 3 w$ `. ~8 V- c/ F/ x$ G0 DPilot/Controller Glossary 2/14/08 3 L, @: C! b& \PCG C-8, v4 m; w+ a) O% P6 Z9 [1 B1 e4 U2 U c. The intended track along a straight, curved, or 8 G. L7 b' W, R7 K. m- r* {. `segmented MLS path. 5 j; ?3 f( H( Y& S9 u(See BEARING.)% K9 Y/ k }4 {) S4 y5 j5 p2 ?% U (See INSTRUMENT LANDING SYSTEM.) . @) r5 g$ @) \- U6 O, ?(See MICROWAVE LANDING SYSTEM.) 3 E8 G( d1 w) e9 ]+ E8 G" n(See RADIAL.)$ m# O. B G1 H4 L CPDLC(See CONTROLLER PILOT DATA LINK" O6 i2 s7 ?9 `: h; J COMMUNICATIONS.)9 r, G. {# R j$ v6 G8 Q- k; | CPL [ICAO]-: ]6 _% Y5 D3 C4 X (See ICAO term CURRENT FLIGHT PLAN.) 6 \* _% ^/ ?' c. x3 T1 r( ZCRITICAL ENGINE- The engine which, upon& J7 }( U. e6 i0 w/ \8 t failure, would most adversely affect the performance ( b# P/ o" C9 C$ q, ` u nor handling qualities of an aircraft. - @; B% [* g. K' g% s! ACROSS (FIX) AT (ALTITUDE)- Used by ATC 0 Z4 ^2 d) z, d, q" Dwhen a specific altitude restriction at a specified fix 9 A# \8 M7 I/ l( _9 I( X: l0 P+ @) Eis required. - h: F3 l% n3 Z' y: fCROSS (FIX) AT OR ABOVE (ALTITUDE)- Used 8 Q* F9 h# s; p; t2 ]- p4 gby ATC when an altitude restriction at a specified fix 7 W8 s# r+ g! e _6 Z5 Qis required. It does not prohibit the aircraft from$ Q2 _& k3 ]$ }1 J9 Z& C8 J# T8 I crossing the fix at a higher altitude than specified;" a. p0 C2 j- l l8 m% r; O7 T$ | however, the higher altitude may not be one that will 3 h/ d# V r. y! w8 l0 Eviolate a succeeding altitude restriction or altitude , f# t3 V: ~; N. y/ T9 gassignment. # U! H9 J* b) q(See ALTITUDE RESTRICTION.) ! i2 c y7 I2 b) [$ y7 p" P(Refer to AIM.)4 M7 c7 \: I; d h( B CROSS (FIX) AT OR BELOW (ALTITUDE)- . y* l, b5 ?0 q B5 }4 rUsed by ATC when a maximum crossing altitude at( T; V5 a( H# B8 b a specific fix is required. It does not prohibit the 2 y3 t7 v. P1 }aircraft from crossing the fix at a lower altitude;# C1 v! U. X8 b7 w however, it must be at or above the minimum IFR, W* n' k: S+ g0 A9 }( [ altitude.# r* H: S0 N( o( J0 Y8 j (See ALTITUDE RESTRICTION.)/ D2 C7 A x$ w6 z5 m (See MINIMUM IFR ALTITUDES.)7 M! U. q3 K5 C8 W( o6 U (Refer to 14 CFR Part 91.)3 L B2 J: P" w' A CROSSWINDa. When used concerning the traffic pattern, the % E# `& p9 G& q: Tword means “crosswind leg.”; l6 I p. j% g. q! G (See TRAFFIC PATTERN.) 4 v9 M, U" k; t) f; yb. When used concerning wind conditions, the8 E' Z5 u6 P& M7 z, V3 | word means a wind not parallel to the runway or the ! i) k: E8 ~: m! t3 kpath of an aircraft. # E% ^5 r" O2 c% V4 U(See CROSSWIND COMPONENT.) " S# ?- c, Q. [' Z) ECROSSWIND COMPONENT- The wind compo‐( Q- U) m/ Q: c1 u+ ]2 C nent measured in knots at 90 degrees to the % O0 ^2 p9 x) G8 j0 t* }; E* blongitudinal axis of the runway.- ]3 r" T/ F, ?: H CRUISE- Used in an ATC clearance to authorize a 1 `. y& a& H2 v% G6 N7 D% apilot to conduct flight at any altitude from the 0 I: o( E# S1 z( J$ }, Nminimum IFR altitude up to and including the r6 q& @! x7 M( I0 J altitude specified in the clearance. The pilot may/ D! ?+ C" d5 H9 O# q2 O- A1 R" U level off at any intermediate altitude within this block ) a6 C; h. @' P. l, P. l: {/ `: ^2 qof airspace. Climb/descent within the block is to be * ?9 I6 |# d6 l; d) I j: \, ?1 imade at the discretion of the pilot. However, once the 8 \- y) T9 D/ q0 g! xpilot starts descent and verbally reports leaving an5 y" D, F. Q6 I, L; Q3 O altitude in the block, he/she may not return to that% a( Y! ]& J5 ^( `5 }" w altitude without additional ATC clearance. Further, it4 d4 r0 r# }4 C is approval for the pilot to proceed to and make an7 p O1 O& j s& }8 f approach at destination airport and can be used in $ u( S2 A) i7 Oconjunction with: 2 S! p4 l% E. J2 m, @# o) \a. An airport clearance limit at locations with a* N9 ?3 C# U5 @, l& A$ w$ R standard/special instrument approach procedure. The" Y) O9 Y2 {; e l& Q% l$ M CFRs require that if an instrument letdown to an. I* z' `* N& G$ V- o/ H4 g. X airport is necessary, the pilot shall make the letdown, r2 }8 P/ e' i. R8 F# ~$ j. b9 ?, W in accordance with a standard/special instrument $ ]" X- q% ~ D( dapproach procedure for that airport, or 7 d& B# c/ c( n8 c* kb. An airport clearance limit at locations that are ) d; S3 a1 m$ ?8 x* g9 W8 C0 Hwithin/below/outside controlled airspace and with‐ 4 _' V8 E- X4 b+ M1 k/ ]) o5 @6 l. ^out a standard/special instrument approach ) Z3 z+ R8 R$ _6 w$ ^procedure. Such a clearance is NOT AUTHORIZA‐ ; }' P7 l6 I) i" [3 F5 JTION for the pilot to descend under IFR conditions8 a2 g% G+ r; v9 j, |" w, Z6 J5 o below the applicable minimum IFR altitude nor does % F# E9 y+ v% F" R9 sit imply that ATC is exercising control over aircraft7 B, s" h. B5 @# q0 w8 l) ^ in Class G airspace; however, it provides a means for : x+ C3 t$ h2 Y2 J3 hthe aircraft to proceed to destination airport, descend, 3 |0 T/ [' {% y1 G9 O: b1 Q+ p/ land land in accordance with applicable CFRs 5 J g/ X* {. n3 P; egoverning VFR flight operations. Also, this provides8 Z7 ~2 ?: {) R search and rescue protection until such time as the! C4 X* i7 z- x IFR flight plan is closed.& i$ b7 m7 A/ y2 P (See INSTRUMENT APPROACH' l' V4 J! e& o: H; B! ? PROCEDURE.)* Q2 k# r) X( }8 W CRUISE CLIMB- A climb technique employed by / H1 B" D H5 n# N* Gaircraft, usually at a constant power setting, resulting, a% k6 ]6 p; u- K$ I5 {7 k% |6 v in an increase of altitude as the aircraft weight& x) F, d/ h2 I! M decreases. 8 Y) M# G/ U: P) }3 K) dCRUISING ALTITUDE- An altitude or flight level 3 f+ ?! P- J- \maintained during en route level flight. This is a5 a R# o( F" z( k: g/ I constant altitude and should not be confused with a6 |4 P7 x5 A1 F/ j4 I" C2 M8 u cruise clearance.6 Y" a2 }0 q1 m& j" l (See ALTITUDE.)+ m* S) o$ O+ J3 o% X& {5 Q1 Q& _ (See ICAO term CRUISING LEVEL.) " _; z. g+ N6 n' M7 {9 i8 ^CRUISING LEVEL(See CRUISING ALTITUDE.) & D$ d/ Q+ j* }9 ^5 W; `- t- B& t7 @9 uCRUISING LEVEL [ICAO]- A level maintained & a- E. L/ e4 {3 k1 L3 Zduring a significant portion of a flight. 3 x0 a5 [7 K sPilot/Controller Glossary 2/14/08; z. K5 H$ y' n' o/ X! c; R PCG C-9 1 r9 x" K, _& N7 Q( |CT MESSAGE- An EDCT time generated by the* x9 I& E8 m1 P/ `& ~' ` ATCSCC to regulate traffic at arrival airports. + A5 ]& ?* B. uNormally, a CT message is automatically transferred9 N) x( z2 {7 B6 F" E from the Traffic Management System computer to the: f$ L& s% M# ^% }* S% d( I0 F NAS en route computer and appears as an EDCT. In " L+ r7 L7 a8 q8 j5 [. X4 Wthe event of a communication failure between the$ }3 T; H6 |9 _ TMS and the NAS, the CT message can be manually 9 d& Y: N: Z7 f( a, dentered by the TMC at the en route facility. 3 A7 \+ S4 ~' D ECTA(See CONTROLLED TIME OF ARRIVAL.)1 s* z% {$ S+ V/ g1 q, W6 K (See ICAO term CONTROL AREA.)9 C) z8 {) v( z, N/ E$ m CTAF(See COMMON TRAFFIC ADVISORY : {6 F! t, [% u: aFREQUENCY.)% |, H& @. E: q6 G8 b$ v CTAS(See CENTER TRACON AUTOMATION W/ Q: j9 A4 ]0 j$ m) c' ^% M/ }$ x SYSTEM.) 7 ^2 }" T2 I. ?- [CTRD(See CERTIFIED TOWER RADAR DISPLAY.)! r( F% N9 p+ ^) ?0 O CURRENT FLIGHT PLAN [ICAO]- The flight 2 V) B) w& u' l' jplan, including changes, if any, brought about by & ?0 N u0 \7 l- f# i9 k) E2 v+ Esubsequent clearances. " t: H' c- T* i- E5 [: v/ x( KCURRENT PLAN- The ATC clearance the aircraft# a: s" Z6 v6 Q1 R* Q j+ z has received and is expected to fly. ; v0 C/ O0 R: t# zCVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE; r' x, O2 K2 V) V+ w" v6 [ APPROACH.)% G& \% S: |1 l$ t CWA(See CENTER WEATHER ADVISORY and7 p7 n v- y9 z WEATHER ADVISORY.)1 |: \+ i8 P0 M4 e Pilot/Controller Glossary 2/14/08 . J% {9 e0 Q9 l- |+ N- |PCG D-14 U( D, u& L# O D8 v g# w u$ w& ^" m D‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL5 D+ p, `) D/ J INFORMATION SERVICE.)) D2 L. _, A) r6 {1 V& R; L DA [ICAO]-' Q5 G8 W- E, z% |9 r( E (See ICAO Term DECISION + R" @ V& ]8 V) ^* Q7 yALTITUDE/DECISION HEIGHT.) % S. X& F9 c3 S( i8 zDAIR(See DIRECT ALTITUDE AND IDENTITY/ x9 Z- E( G1 | READOUT.) + F( `1 b! F8 r8 ]% u r6 GDANGER AREA [ICAO]- An airspace of defined2 N2 w( K! U7 M3 l) L dimensions within which activities dangerous to the( e' I1 z0 ~+ _" F: ]4 u( I flight of aircraft may exist at specified times.: N% h# F+ p, O1 j4 [7 P Note:The term “Danger Area” is not used in 9 F! ?4 q7 o- H3 hreference to areas within the United States or any 6 t4 m& i/ e, B$ e5 n$ c9 S2 Xof its possessions or territories. 8 L( E: U& y8 P) IDAS(See DELAY ASSIGNMENT.)5 ^" w9 x) S2 D- O" J DATA BLOCK(See ALPHANUMERIC DISPLAY.)+ h# V: S8 A1 K: K DEAD RECKONING- Dead reckoning, as applied9 Q- W- J5 H2 B9 x+ P to flying, is the navigation of an airplane solely by" U$ N( B7 `9 F means of computations based on airspeed, course,& L" p0 t% e9 @' N0 { heading, wind direction, and speed, groundspeed, n. G$ V/ w' H* {$ Z9 [4 uand elapsed time. 9 e8 \% }9 a8 X6 Q: y5 G/ BDECIS ION ALTITUDE/DECIS ION HEIGHT& G1 H# e+ P' c! b/ N2 q [ICAO]- A specified altitude or height (A/H) in the % Q/ R0 d5 z0 [( g3 D( Uprecision approach at which a missed approach must8 J. @0 x$ M, y4 j3 R/ O$ J. ]8 N, K; t be initiated if the required visual reference to* D' p+ ], U1 O& f4 K continue the approach has not been established. 3 Z. w0 q' }* H- BNote 1:Decision altitude [DA] is referenced to" \! q# X! \- X mean sea level [MSL] and decision height [DH] is6 u. ?+ J, E7 x; s referenced to the threshold elevation.2 K) `0 p) X- C Note 2:The required visual reference means that % P ?$ N$ \& M hsection of the visual aids or of the approach area, W2 J, d/ O7 ?* }. Q which should have been in view for sufficient time % G! v6 u+ e9 Z) i3 afor the pilot to have made an assessment of the9 ^+ N8 z, V- A aircraft position and rate of change of position, in ( [4 \- x% A; r& w! Brelation to the desired flight path.1 _% O0 d! O- F; @/ p2 ^ DECISION HEIGHT- With respect to the operation. H: R# K9 w H" C of aircraft, means the height at which a decision must' w- k1 O& ~4 k- C, G) l4 { be made during an ILS, MLS, or PAR instrument+ D2 _# ?; K c+ Q approach to either continue the approach or to execute . {# A0 ?$ A' ~/ A* x7 h; {9 ~a missed approach. : e& o4 f% n! M/ D# | i+ j- K7 H: |(See ICAO term DECISION 8 o& M' P( u2 Q) L m L+ L3 QALTITUDE/DECISION HEIGHT.) 4 b5 }' u9 @! v1 W, zDECODER- The device used to decipher signals . T6 _5 y1 P# T6 C3 Dreceived from ATCRBS transponders to effect their; \, ~" u9 @( p- C" s( Y display as select codes. ; ~8 N0 D# n, G3 ?6 S3 i! s(See CODES.)* |! ~3 l6 y# f (See RADAR.)# V, r3 ?) A- t* b3 R DEFENSE VIS UAL FLIGHT RULES- Rules 0 D5 N8 U# w9 j( m2 u7 G/ \( Japplicable to flights within an ADIZ conducted under ! g; g# |" T3 Uthe visual flight rules in 14 CFR Part 91. + L5 e- U$ v- }. ]9 n" x- Q(See AIR DEFENSE IDENTIFICATION ZONE.) ; m/ ]$ b7 x& K# b(Refer to 14 CFR Part 91.)! A1 s4 ?. l3 H' U! V% N; I (Refer to 14 CFR Part 99.). A' K) X3 e: A DELAY ASSIGNMENT (DAS)- Delays are distrib‐/ e+ n; i% I& J/ g. m uted to aircraft based on the traffic management. q1 s$ ]" y/ T& v program parameters. The delay assignment is! B$ A) C6 c/ J7 |4 C calculated in 15-minute increments and appears as a + ^ ~" r- `% Q0 Y7 m; j, Q7 S* Wtable in Enhanced Traffic Management System 9 E! t; w: b ~) I0 e% q' q+ J(ETMS). ; y# f: J: y' Q- P. RDELAY INDEFINITE (REASON IF KNOWN)' P" F" _/ ?% C EXPECT FURTHER CLEARANCE (TIME)- Used; N1 \5 _3 \! u8 d2 R) W+ g by ATC to inform a pilot when an accurate estimate7 h( `. n- z* S, e8 \3 Y& m of the delay time and the reason for the delay cannot 7 o5 k. b7 Y# a) rimmediately be determined; e.g., a disabled aircraft ) G& n- |3 [7 ]5 q6 g @on the runway, terminal or center area saturation,; p" i: l, W& {0 ~) W# n weather below landing minimums, etc. 2 ?: O, J) k" u9 d( |(See EXPECT FURTHER CLEARANCE (TIME).) 9 D: u# A# {2 QDELAY TIME- The amount of time that the arrival6 E( K: ?2 N. l G7 Z! a3 A must lose to cross the meter fix at the assigned meter - s8 o8 }0 X. q# `0 lfix time. This is the difference between ACLT and - |" Z* ]4 @0 b! ~$ \VTA. 7 w2 U) m- O9 K/ ?DEPARTURE CENTER- The ARTCC having n2 Z: D. P# F3 K6 ] jurisdiction for the airspace that generates a flight to 5 `0 [( Q$ {; k/ N' Nthe impacted airport.3 W4 e: F1 z6 M* E! I1 ? DEPARTURE CONTROL- A function of an4 w z' M$ b: x5 v0 D. z7 j approach control facility providing air traffic control. O/ g9 C2 _8 M$ }( v service for departing IFR and, under certain$ o# J+ G* A! @6 P- _; m4 {6 j conditions, VFR aircraft.0 E1 L- l. e- o' y7 q (See APPROACH CONTROL FACILITY.) 8 h: l0 q% j0 n& R! r" t(Refer to AIM.)4 R! n5 t8 B9 q( j9 i, _: b z DEPARTURE SEQUENCING PROGRAM- A # |# u, q+ V3 u m* m9 S4 [2 mprogram designed to assist in achieving a specified% q; Q% K- T5 l, i interval over a common point for departures. ) u8 L6 d ~! m0 U/ {5 Y# x% }Pilot/Controller Glossary 2/14/08 . H& a/ b* C; A9 a* WPCG D-2 2 w# W9 f) f. F: x, T/ E n( IDEPARTURE TIME- The time an aircraft becomes 0 m! e u9 `6 X! B! \6 O4 @airborne.+ p9 |8 v9 i9 k2 X. L' B DESCENT SPEED ADJUSTMENTS- Speed decel‐ 0 K# Z2 n; p- t# Heration calculations made to determine an accurate . y( b0 ?% w/ b/ UVTA. These calculations start at the transition point' `2 |) u# }- L3 m! x and use arrival speed segments to the vertex. 0 o( W# P. }# x# W& j* L( pDESIRED COURSEa. True- A predetermined desired course direction2 L o8 [( @8 d to be followed (measured in degrees from true north). ' ~3 A, L6 z3 c" Lb. Magnetic- A predetermined desired course/ L) |% K2 U! Z direction to be followed (measured in degrees from9 O3 x4 h! k; G local magnetic north). 0 [, k0 k0 ~4 I3 U. |$ rDESIRED TRACK- The planned or intended track ) r2 d7 a7 w) m0 b D& S) u5 |' ^2 `between two waypoints. It is measured in degrees 6 h8 f: O. k/ o& s( M% x" a/ x# Sfrom either magnetic or true north. The instantaneous 7 o+ o( V9 i2 ~0 a* j eangle may change from point to point along the great ) X- _3 g X: p" Q5 k% j8 p; Kcircle track between waypoints. 9 d7 `9 i7 L3 G& @" iDETRESFA (DISTRESS PHASE) [ICAO]- The 7 ]7 }6 ?4 ?% K/ W( M2 Kcode word used to designate an emergency phase: C/ _' H4 x3 P! f$ n" P wherein there is reasonable certainty that an aircraft ( W" P% ?9 H; M$ \+ v3 |and its occupants are threatened by grave and % { w+ v% Z# p; T1 D8 h7 }- Eimminent danger or require immediate assistance., V m1 Y- M J. P DEVIATIONSa. A departure from a current clearance, such as an - Y9 x Z7 r$ Z& ioff course maneuver to avoid weather or turbulence. + F( i3 S' q+ A( X x0 ub. Where specifically authorized in the CFRs and+ R* w2 V* j' \. b4 V requested by the pilot, ATC may permit pilots to6 [/ T2 _2 w" ]' a1 R" e deviate from certain regulations. + K. q8 |) |( K* Q, A$ j4 V(Refer to AIM.) 7 K* N, K& v. @! j+ B5 H1 \ N- B( DDF(See DIRECTION FINDER.) ! q+ Q- ]$ G4 A) q2 yDF APPROACH PROCEDURE- Used under ! k+ e8 A$ m. `' ?3 Kemergency conditions where another instrument2 Q6 `7 n" m6 | approach procedure cannot be executed. DF guidance, s- [9 n8 R4 C6 u K6 ^4 J5 a for an instrument approach is given by ATC facilities + N9 B7 Z. x' P9 l$ S I: Vwith DF capability. 1 P F" d/ i$ \! q; k: a(See DF GUIDANCE.): k3 v2 I( o; K% f2 e l (See DIRECTION FINDER.)+ }. a/ q; `5 [- ?! d$ h$ S/ b; X (Refer to AIM.)) d5 q. t1 e" ?) j. o! q9 s DF FIX- The geographical location of an aircraft 0 c( H; r& ^" R0 q! g7 d- vobtained by one or more direction finders. ' j& M' W0 a8 |(See DIRECTION FINDER.)" c& r, m$ R x; a- X/ i7 v" t# H DF GUIDANCE- Headings provided to aircraft by t9 {2 a; l1 m; c' afacilities equipped with direction finding equipment. * G4 n% @) r; P( @0 b# J+ `These headings, if followed, will lead the aircraft to / J% U0 W. [: F% E9 xa predetermined point such as the DF station or an' C/ O! y4 b% ~0 ~0 Y" | airport. DF guidance is given to aircraft in distress or . G1 B. c$ e$ H$ Yto other aircraft which request the service. Practice # Z) q1 a8 N) D2 \DF guidance is provided when workload permits. , s' _/ t! E! t K(See DIRECTION FINDER.)5 N. @' _1 X* V1 O. T5 f- W (See DF FIX.); C; N y7 {' j5 I" O( d' J" | (Refer to AIM.) 0 i& C7 b3 `4 H: v2 \6 }+ @6 lDF STEER(See DF GUIDANCE.) h9 S* f9 I, CDH(See DECISION HEIGHT.)0 @7 x) a/ Y5 F( T DH [ICAO]- ; `* L' O- i8 b$ ]( G$ e* i/ E" |(See ICAO Term DECISION ALTITUDE/ , l0 {# s) D3 H9 |0 KDECISION HEIGHT.); V- O( b6 m1 i: @ e DIGITAL‐AUTOMATIC TERMINAL INFORMA‐ 7 [: k/ O; W0 b! f* ITION SERVICE (D‐ATIS)- The service provides . A O! Y: Y7 i8 S; |/ gtext messages to aircraft, airlines, and other users " c7 T# B7 Q2 b% T6 houtside the standard reception range of conventional # ~4 m; v$ N nATIS via landline and data link communications to % B& |: M0 b4 D* wthe cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to1 D7 C; m; J- G9 d1 ]0 P* C8 I9 E all aircraft within range of existing transmitters. The 6 @0 i/ S+ c$ l& G5 O2 tTerm inal Data Link System (TDLS) D‐ATIS : c A0 D6 ]3 aapplication uses weather inputs from local automated 3 A1 Q8 O' L& P' P( U* [7 @- Yweather sources or manually entered meteorological 7 B7 l" Z H' p- Edata together with preprogrammed menus to provide5 l; E, @) z0 r5 D9 e5 P, t standard information to users. Airports with D‐ATIS3 h) L* o* A- f. y+ D! O capability are listed in the Airport/Facility Directory.% u" d) A# U" |; s9 b5 {. W- r DIGITAL TARGET- A computer-generated symbol 4 Y; U, {3 t5 I. E) f* C+ Z! Vrepresenting an aircraft's position, based on a primary4 R w% z! n5 f( ~! e return or radar beacon reply, shown on a digital 0 p& e3 @4 h2 Q8 t0 T; odisplay. ( P# R4 `% m: s6 ~, t8 A; l9 SDIGITAL TERMINAL AUTOMATION SYSTEM 6 U. D f' E' r) K(DTAS)- A system where digital radar and beacon : X3 X) K T# @; R) ?data is presented on digital displays and the0 L9 M+ R7 J: ^. |; G operational program monitors the system perfor‐ . ^5 {& n; W" T( z/ K5 nmance on a real-time basis.. ^) s4 }2 W: w. L9 I: Z/ H DIGITIZED TARGET- A computer-generated # ~3 ^4 j/ f- P; ~# lindication shown on an analog radar display resulting , X6 Z2 M8 E& y$ Afrom a primary radar return or a radar beacon reply. 1 k5 v( b W: i/ t& RDIRECT- Straight line flight between two naviga‐ ' h% |" l) d3 f' ]9 a- Stional aids, fixes, points, or any combination thereof. ( G% D( N) m7 z" [* j$ oWhen used by pilots in describing off‐airway routes,$ F/ N) G( m. S9 \7 @ points defining direct route segments become 2 S4 n: D* m8 n; D9 ]" [1 dcompulsory reporting points unless the aircraft is $ m: M" y1 l7 U5 C: T6 H: Q! V8 dunder radar contact.( m& ]$ c, T' w# i* w3 f DIRECT ALTITUDE AND IDENTITY READ‐1 }6 A( _7 B. z/ @% f& r OUT- The DAIR System is a modification to the3 t: l4 N* ?( Q0 a Pilot/Controller Glossary 2/14/08" s6 B+ H Z, }# \' x: o2 h PCG D-32 u( q; t7 o f8 Q' c3 E7 N! m AN/TPX‐42 Interrogator System. The Navy has two; H- b4 j8 g$ H' Z* O" C adaptations of the DAIR System‐Carrier Air Traffic 3 j7 M1 p7 d* m8 ?& I- pControl Direct Altitude and Identification Readout 1 G6 W7 Y' b' a& N( ?* j7 F; Y2 ySystem for Aircraft Carriers and Radar Air Traffic # @; A9 t. v( W+ v% F; LControl Facility Direct Altitude and Identity Readout- V% y- i; L: {: X( O0 w) } System for land‐based terminal operations. The& {5 d4 B# U% i* a/ M3 | DAIR detects, tracks, and predicts secondary radar 7 B# B& G9 P! \$ R' naircraft targets. Targets are displayed by means of% @% l: i3 k" T: Z, r1 P6 \) n1 c computer‐generated symbols and alphanumeric! p0 b# S. Q) B, K I8 D- d characters depicting flight identification, altitude,$ y, I* _/ i s- _- V5 {2 S ground speed, and flight plan data. The DAIR System ! @3 S4 S" Q yis capable of interfacing with ARTCCs., i& q) b/ Q2 q2 {! T' } DIRECTION FINDER- A radio receiver equipped0 m, o1 ~4 w) v% Q: Z8 d& ] with a directional sensing antenna used to take, \2 s" J4 H- d% c/ j6 _9 `* M bearings on a radio transmitter. Specialized radio( D) O- W4 _* t direction finders are used in aircraft as air navigation8 B, H! D! K& m aids. Others are ground‐based, primarily to obtain a / i/ n- m1 v- U" H" O“fix” on a pilot requesting orientation assistance or to: V \0 S- T* o, F locate downed aircraft. A location “fix” is established( A' D9 o% ^/ V by the intersection of two or more bearing lines* }" N3 @/ }. X* |. t plotted on a navigational chart using either two 7 ^1 T0 v" B' G" useparately located Direction Finders to obtain a fix on/ j4 L5 K% O, D6 C; B; O2 g" v: n# Z an aircraft or by a pilot plotting the bearing 6 [8 c" Z5 O5 k' M+ f _indications of his/her DF on two separately located 0 X6 p) j; p* U5 q T$ Bground‐based transmitters, both of which can be : d& w/ o* b q cidentified on his/her chart. UDFs receive signals in ! B( B6 ~5 ?/ }( D1 n4 u+ R) _( Ythe ultra high frequency radio broadcast band; VDFs0 `& d! I3 {2 q/ K! p( n in the very high frequency band; and UVDFs in both 8 R* n9 k" X+ f7 @5 |3 o5 ~- hbands. ATC provides DF service at those air traffic; S( g+ O* V3 @$ |9 i4 ~ control towers and flight service stations listed in the ! C1 ~6 `8 Z& MAirport/Facility Directory and the DOD FLIP IFR En' h+ S3 u/ K3 A0 ?! h5 L; v Route Supplement.5 d4 W* y( Q; \ (See DF FIX.) ; w' a4 X( h6 d8 Q( P: f(See DF GUIDANCE.); k* }, [0 v1 y n3 V DIRECTLY BEHIND- An aircraft is considered to9 s6 m+ d" Q% B" A be operating directly behind when it is following the # g* Q- R; r, ]# p/ O! oactual flight path of the lead aircraft over the surface # V( C6 B( \* [' A3 ~of the earth except when applying wake turbulence : ]2 `6 w; K" \" U0 W2 ^separation criteria.$ |& b# y, u0 c. l! O- o% A DISCRETE BEACON CODE(See DISCRETE CODE.) ! G2 z! I) K7 M: q _( ~DISCRETE CODE- As used in the Air Traffic ' Z* q$ E$ A* _' d+ gControl Radar Beacon System (ATCRBS), any one; d- p; _2 _- d- S! a of the 4096 selectable Mode 3/A aircraft transponder 9 h @2 D# U7 C* xcodes except those ending in zero zero; e.g., discrete ) s& w! c3 w8 _" g% s+ V- kcodes: 0010, 1201, 2317, 7777; nondiscrete codes:2 @8 k. A" I6 r1 c2 }% n 0100, 1200, 7700. Nondiscrete codes are normally: E: ]! Q% a: Y reserved for radar facilities that are not equipped with* |% T7 G8 X5 {. G9 U" o0 P discrete decoding capability and for other purposes c1 Z% K0 C" I3 Psuch as emergencies (7700), VFR aircraft (1200), etc. : ]" R+ o% ^2 {- w(See RADAR.)& g# r/ V7 C' c6 \9 W8 |. O (Refer to AIM.) * O& X) W/ ^/ E2 WDIS CRETE FREQUENCY- A separate radio ( r$ E p; C' x) M# q+ Jfrequency for use in direct pilot‐controller commu‐ ) P3 g& q# ~5 A+ T5 }9 nnications in air traffic control which reduces * \5 D1 Q& L) S/ S. ~ N, g6 R0 Zfrequency congestion by controlling the number of 5 M& J6 U" n! Faircraft operating on a particular frequency at one" r X; p3 f" F% A* w time. Discrete frequencies are normally designated 7 l- @/ ~2 f% \' D- Rfor each control sector in en route/terminal ATC7 r, r4 f' x# L1 z facilities. Discrete frequencies are listed in the3 M6 \1 h1 z, Q8 B. O9 l Airport/Facility Directory and the DOD FLIP IFR En 7 Q7 a8 y V# A5 q; o' vRoute Supplement.. M) N% b9 N! V7 u# X- j (See CONTROL SECTOR.) + V6 f: }2 e0 [' r0 bDISPLACED THRESHOLD- A threshold that is6 F8 P# y1 \. J. C1 F located at a point on the runway other than the! o5 ^: p. v. f! M designated beginning of the runway. ) J$ E+ f) J9 r/ g7 f% \(See THRESHOLD.): E8 M. g9 k* s" M: F (Refer to AIM.) 2 Q/ Q$ U. M% t4 c0 q0 l% RDISTANCE MEASURING EQUIPMENT- Equip‐; ?; ^8 Q5 _6 F ment (airborne and ground) used to measure, in- C2 V! N0 R& H4 n2 d2 W+ M nautical miles, the slant range distance of an aircraft ; q" L' Z2 n8 [1 h5 Q# pfrom the DME navigational aid. - p' E* D9 \3 b, ?4 X6 G( I: H(See MICROWAVE LANDING SYSTEM.)# \8 T" ]8 z4 q) } (See TACAN.)6 W2 Q Q$ X! M9 ~! H# Q# n4 W (See VORTAC.) & R" A* P0 r, `$ RDISTRESS- A condition of being threatened by - E: O, @, g/ r% [0 ~9 r0 I% gserious and/or imminent danger and of requiring. l- J, ?! H) H8 Z+ T: e7 g immediate assistance.9 F1 @- _, k; ?" ^ DIVE BRAKES(See SPEED BRAKES.)4 l9 P3 Q1 `- r( p! l DIVERSE VECTOR AREA- In a radar environ‐7 t/ d& T2 J& }. M) e ment, that area in which a prescribed departure route ]* [1 J1 W6 r+ L! Y* F. [" u is not required as the only suitable route to avoid % m' b Z0 ]7 U* G$ dobstacles. The area in which random radar vectors4 U* C3 s# \3 b" ^5 [) i0 e below the MVA/MIA, established in accordance with2 F- F. m1 f) \1 T the TERPS criteria for diverse departures, obstacles x; W: q- ]8 ~7 I7 A6 H# B; U1 vand terrain avoidance, may be issued to departing% I' r6 C' r: o9 s' f aircraft.1 Y; h8 N; Z) u; n, [9 n DIVERSION (DVRSN)- Flights that are required to" `7 t R `$ v0 s& i# \ land at other than their original destination for" t: l. A4 e5 z" ~% c: p. P reasons beyond the control of the pilot/company, e.g. 4 E+ |' A5 p |& y( A9 ^, v: N- cperiods of significant weather.- l8 r j6 _- ~& n5 { DME(See DISTANCE MEASURING EQUIPMENT.) 3 R% m& u) J3 M: j9 Z6 kPilot/Controller Glossary 2/14/08 . p; a* w2 Z4 H% ^7 o( Z7 T- i; i1 lPCG D-43 q- G; v+ {" w9 x' l DME FIX- A geographical position determined by / b; R* i& H! _- hreference to a navigational aid which provides . a" {% t; L% {( x hdistance and azimuth information. It is defined by a 6 i! ~: p% f. qspecific distance in nautical miles and a radial,5 S/ u* Q# n* r+ L# o# D' T azimuth, or course (i.e., localizer) in degrees ; j' {4 K- Z$ t5 I* Y' I2 ?magnetic from that aid.5 c. {- v1 L) W% k# d& E5 f (See DISTANCE MEASURING EQUIPMENT.) 1 Z9 ^' D4 _" {/ |/ N/ P% A(See FIX.), S6 `9 }# K. Z2 q6 S7 G (See MICROWAVE LANDING SYSTEM.) ; o' c `, r* SDME SEPARATION- Spacing of aircraft in terms of ( V+ U: O0 B: ~. Z0 Y9 jdistances (nautical miles) determined by reference to; c, u+ l' l6 k! H+ o' K4 p' p distance measuring equipment (DME).# G) H' Q( C! ] Q! [ (See DISTANCE MEASURING EQUIPMENT.) " G3 ?" Y5 N* N, BDOD FLIP- Department of Defense Flight Informa‐ " k( M# h/ Z7 t4 i3 N: Ztion Publications used for flight planning, en route, 9 g* y- x5 }& J$ L- Zand terminal operations. FLIP is produced by the8 ~" Z7 A" }" |* a: U National Imagery and Mapping Agency (NIMA) for) [4 M' J) s( c* b8 ?4 G6 T) m world‐wide use. United States Government Flight / M: A$ D0 `) C0 t# NInformation Publications (en route charts and' h( O3 q P( ] \! O3 a instrument approach procedure charts) are incorpo‐ 1 h( B- u) }8 x9 Hrated in DOD FLIP for use in the National Airspace ( x( D; G6 r: q2 M& w% LSystem (NAS).4 |. N/ j7 e8 C2 Q/ T! e DOMESTIC AIRSPACE- Airspace which overlies" N; O) _* p9 j the continental land mass of the United States plus * a9 D* q- V& e3 DHawaii and U.S. possessions. Domestic airspace3 A& ]+ i7 o6 v2 h, A5 x1 c extends to 12 miles offshore. & F+ P. k! h8 |/ u. q/ I. [; JDOWNBURST- A strong downdraft which induces . n+ [ z: i0 u ]# `+ Kan outburst of damaging winds on or near the ground. " o7 l. m* M/ U5 v( j) fDamaging winds, either straight or curved, are highly( D J+ h v9 N5 N divergent. The sizes of downbursts vary from 1/2/ g9 s$ ?/ z8 E" a) i$ o mile or less to more than 10 miles. An intense : X9 e+ {+ E4 V6 \downburst often causes widespread damage. Damag‐ 9 U9 V; y6 r4 ~ing winds, lasting 5 to 30 minutes, could reach speeds4 \3 l' q6 x" f as high as 120 knots.4 d2 y/ ?) I! G( C& b DOWNWIND LEG(See TRAFFIC PATTERN.)9 ?8 a- s; E% _4 S' o$ | DP(See INSTRUMENT DEPARTURE PROCEDURE.)2 x+ `* a! K1 A: o3 E+ I4 m DRAG CHUTE- A parachute device installed on 1 _1 Y3 ]7 P9 V% z" P, hcertain aircraft which is deployed on landing roll to8 ^) a) {" k5 v( w B5 S assist in deceleration of the aircraft.5 z& j. Z: x. O) { DSP(See DEPARTURE SEQUENCING PROGRAM.) / \9 ]& @4 o0 I; G4 f9 n% ~5 TDT(See DELAY TIME.)( q5 l" ^% B6 F DTAS(See DIGITAL TERMINAL AUTOMATION% T8 V& y2 m3 p8 C SYSTEM.); f1 }) _' d( S2 w0 T# N DUE REGARD- A phase of flight wherein an' w7 l; y5 X* V. R$ k; w, }' G aircraft commander of a State‐operated aircraft& f% j& l5 x J" I- j0 i assumes responsibility to separate his/her aircraft + A! r. W* s( n* |; ~3 ifrom all other aircraft. " V2 F6 W$ X( |: A(See also FAAO JO 7110.65, Para 1-2-1, WORD 0 U. r6 ^+ q. yMEANINGS.) 0 g% {. Q! O& t) fDUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY& n" U- ?+ z/ m! z/ x* a/ U h RUNWAY.) 2 E2 K& m& h. r$ \# W/ { [8 [" HDVA(See DIVERSE VECTOR AREA.) 6 w4 N9 ^( W$ KDVFR(See DEFENSE VISUAL FLIGHT RULES.)* ~; I! p! D7 v- i DVFR FLIGHT PLAN- A flight plan filed for a VFR8 d# @( A& H D6 U. {, r/ z aircraft which intends to operate in airspace within ' j) B! N" l! Rwhich the ready identification, location, and control# {- v- U: ^- y! c$ D of aircraft are required in the interest of national: V& m8 \( Q3 J* C+ S security., @! I& `# \( T' }: W( ^ DVRSN(See DIVERSION.) 4 x" b) L% N9 h. f( oDYNAMIC- Continuous review, evaluation, and / e1 P3 v% C. w, F0 G, d' R$ xchange to meet demands. 4 q' I; J$ m* e4 X4 H4 Z9 |DYNAMIC RESTRICTIONS- Those restrictions( I% w2 c- t6 X/ f imposed by the local facility on an “as needed” basis 6 Q( D' X: g) `7 cto manage unpredictable fluctuations in traffic : Q: o, j) V4 G1 z f5 i* Qdemands. * d' D( l% E. [Pilot/Controller Glossary 2/14/083 U; ?8 y$ J( B# } PCG E-1 1 t/ f: V( n6 x$ Y: p5 x& xE $ M5 K% p _8 F4 b3 i6 B+ tEAS(See EN ROUTE AUTOMATION SYSTEM.) 6 x: M) B2 F1 U; V% F8 x: HEDCT(See EXPECT DEPARTURE CLEARANCE% l2 _: }) T0 e( X5 B TIME.)% O5 ]( P2 E2 o0 G EFC(See EXPECT FURTHER CLEARANCE (TIME).); z. P: G! s, J ELT(See EMERGENCY LOCATOR TRANSMITTER.)2 N% g5 ?3 e' m% g# E. | EMERGENCY- A distress or an urgency condition.5 P3 y5 T) u. C+ K3 W. w EMERGENCY LOCATOR TRANSMITTER- A 8 ~4 {! H9 a1 Z& Oradio transmitter attached to the aircraft structure 6 A1 F1 S" e* j7 @& [which operates from its own power source on 3 A4 L5 J6 P' g. R1 U121.5 MHz and 243.0 MHz. It aids in locating ' j3 o, d5 n) k1 }1 l5 O( l$ @5 N4 x fdowned aircraft by radiating a downward sweeping- n& L4 Y) Z* o6 r audio tone, 2‐4 times per second. It is designed to! a" h X8 ]8 G5 c k function without human action after an accident. G& s, i$ p( w, m (Refer to 14 CFR Part 91.) : [) f6 D. p* a(Refer to AIM.)3 l( M: |: V5 J$ C. M+ T( t0 f E‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE : M" U; R' i$ c# O0 cWARNING.)7 m) n- \# I# i' X; g& z EN ROUTE AIR TRAFFIC CONTROL SER‐ ^+ U! e9 I1 |# t$ Q; SVICES- Air traffic control service provided aircraft; \4 \; O8 i* P, M) X on IFR flight plans, generally by centers, when these . U9 u/ d( l- N0 P J! D% Baircraft are operating between departure and % ~% ?4 v# i+ R: ddestination terminal areas. When equipment, capa‐ % i: x) {' u4 T+ ubilities, and controller workload permit, certain h3 t3 l, z6 c- L advisory/assistance services may be provided to VFR ' s7 C# I+ j' k; U7 gaircraft.! Y8 W& \. ?2 I$ M* x6 v1 M (See AIR ROUTE TRAFFIC CONTROL ( E% H/ F1 f+ H1 GCENTER.)* ^/ S3 O) G+ w8 Y# B (Refer to AIM.) 7 s8 S7 M) b0 i: u- z* k" _EN ROUTE AUTOMATION SYSTEM (EAS)- The ?2 e/ [& Q+ @- ^" L B complex integrated environment consisting of, C f$ t* A7 g1 O1 y4 w7 ` situation display systems, surveillance systems and ' i) C8 x- D* D+ W' W8 y0 V/ aflight data processing, remote devices, decision " Q( m. d* ~7 _1 _5 k# esupport tools, and the related communications 5 u5 V/ E5 B* p/ ]9 \equipment that form the heart of the automated IFR1 ?3 Y' |4 r/ U$ \* T air traffic control system. It interfaces with automated5 _/ X3 s" {4 W, ^+ W0 ^6 C6 m terminal systems and is used in the control of en route ! C1 K' l; {6 S+ y0 U& S- MIFR aircraft. 1 }" P2 W s, q4 G* f(Refer to AIM.) . J: E h8 j8 QEN ROUTE CHARTS(See AERONAUTICAL CHART.) + m# a$ C# p7 k1 Z8 p! NEN ROUTE DESCENT- Descent from the en route/ I" [+ e8 z2 ^$ P cruising altitude which takes place along the route of ' `' [0 \4 ~' vflight.( P2 [% N, ] A6 l EN ROUTE FLIGHT ADVISORY SERVICE- A/ b8 Y- o2 k- q: @( F3 q& B service specifically designed to provide, upon pilot+ Q! B+ k: G$ x, D request, timely weather information pertinent to 5 \ y1 i4 d" d; M: ~$ Uhis/her type of flight, intended route of flight, and / R7 i# |8 b9 Z% raltitude. The FSSs providing this service are listed in7 [ N8 Y$ g$ V/ D5 \6 O, v the Airport/Facility Directory. 6 T0 |* ?) T. S(See FLIGHT WATCH.) ; k+ `1 Q+ s$ n |# N! p(Refer to AIM.) 8 y! Z+ B1 ~; p; Z8 O9 c! F& ]2 U oEN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.) 1 x/ }& U8 l- ?( i# yEN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.)5 x$ O x$ [. r* l EN ROUTE MINIMUM SAFE ALTITUDE WARN‐ % U# D9 X* T# W N7 t! YING- A function of the EAS that aids the controller1 h: Q4 [: ^6 B8 a by providing an alert when a tracked aircraft is below" D. H: i' f; |7 a+ Z or predicted by the computer to go below a3 c, p: Q8 ~# f) e- V& a( p predetermined minimum IFR altitude (MIA). + O4 n9 l- f; [- HEN ROUTE SPACING PROGRAM (ESP)- A ) E0 N7 o/ E% S C9 bprogram designed to assist the exit sector in * J( h! S$ _2 s7 z Wachieving the required in‐trail spacing.$ \! t1 I, B, b: \ EN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a4 W* d7 m' q }7 G1 i1 B- l SID/STAR that connects to one or more en route % v2 g' ]0 O% X$ _airway/jet route. v8 k2 C0 N6 N& A5 ^7 ] b. RNAV STARs/SIDs. The portion of a STAR0 ?3 D( {1 L; m; m preceding the common route or point, or for a SID the! q- ]8 S% D. S8 y. @ portion following, that is coded for a specific en route ( L4 z: @: v5 s. f: |9 E1 ]fix, airway or jet route. ) \2 u) e" \4 hESP(See EN ROUTE SPACING PROGRAM.) / w4 N3 z0 d: U$ c! k+ bESTABLISHED-To be stable or fixed on a route,8 ?, c0 b* z+ ~# s, G* ~" l" p7 r; ^8 }! I route segment, altitude, heading, etc.0 f9 ?1 F5 x- a3 v9 r9 s J ESTIMATED ELAPSED TIME [IC AO]- The , g a- ]4 c" ^7 F& \estimated time required to proceed from one9 P6 s5 B4 T0 p. U. K& \) U( w significant point to another. 0 E5 U. ]% A' I0 v) f) {(See ICAO Term TOTAL ESTIMATED ELAPSED 3 E5 \. M3 X$ U% X) z) `8 S& UTIME.) 6 n; F6 ^. f0 N/ n! P/ C tPilot/Controller Glossary 2/14/08 8 ]( E7 q) q, q. h* a" R' QPCG E-2 % a3 s. |% c, Z2 GESTIMATED OFF‐BLOCK TIME [ICAO]- The + z) `- n: v3 d. restimated time at which the aircraft will commence; ?+ T# L9 I" A movement associated with departure. 9 T$ _9 W- ]* X h' Z$ H0 }7 JESTIMATED POSITION ERROR (EPE)- 2 V0 D) d' [1 \, J(See Required Navigation Performance)! `* N+ g) a" v* ~" \7 k Y ESTIMATED TIME OF ARRIVAL- The time the& o' Z# ^: ~! ^ flight is estimated to arrive at the gate (scheduled4 c9 U' L2 _8 I operators) or the actual runway on times for* K$ S1 @8 L" |. G) ~# U2 C nonscheduled operators. 6 w p0 G, n4 Q0 n6 G* P3 ] a* LESTIMATED TIME EN ROUTE- The estimated ' N) H% f- f4 @0 U: [" |$ Fflying time from departure point to destination& Q1 l2 ?% {" V6 J+ a- }+ a- q (lift‐off to touchdown). 1 |8 S4 m+ ?# @$ e1 _, H; N zETA(See ESTIMATED TIME OF ARRIVAL.)" @1 d4 j/ H+ x+ P }* f ETE(See ESTIMATED TIME EN ROUTE.) ; B0 C' E; V: g- z; x7 pEXECUTE MISSED APPROACH- Instructions ) W* I- x' ?' {$ rissued to a pilot making an instrument approach t7 K# z+ D: v which means continue inbound to the missed" t v( S/ c% f! p approach point and execute the missed approach* p# I. ^7 H, J/ R' ?% z4 Q3 L! e procedure as described on the Instrument Approach . \: o- i) O9 h) R. lProcedure Chart or as previously assigned by ATC. , b, s- A9 {3 y0 C# n# z( o; }/ rThe pilot may climb immediately to the altitude9 v: T3 O6 Q, e5 A, S specified in the missed approach procedure upon+ R7 ?1 [7 a) G% _: Z7 b$ U making a missed approach. No turns should be7 C0 u8 H, p# y& O% u- R initiated prior to reaching the missed approach point. R# G$ G! c( x2 a8 g When conducting an ASR or PAR approach, execute 3 g$ H1 n- E9 C3 Z) S2 O7 x+ Lthe assigned missed approach procedure immediately / H- Z0 V8 \6 v0 c% fupon receiving instructions to “execute missed; ]1 h# u9 t, R A( n, r0 A5 z approach.” j: v9 I* h5 o% C3 I' X/ ?: x. ?(Refer to AIM.) " _& S2 @4 e" c" ^% rEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used ' P% Z3 ~9 e' o# W& qunder certain conditions to provide a pilot with an " N, o* W, G3 u9 caltitude to be used in the event of two‐way4 t$ o" o2 s+ z' u communications failure. It also provides altitude }* k" K% E6 R i g1 o# I8 h x information to assist the pilot in planning. 1 L% M+ v" B! ?3 F(Refer to AIM.); Q" ]- _7 Y) ^( d0 w EXPECT DEPARTURE CLEARANCE TIME 5 G, C6 Q4 `( J6 K% h6 \(EDCT)- The runway release time assigned to an 9 R4 }. b5 F& V. u i" ~aircraft in a traffic management program and shown1 ?) ]9 u: l/ O2 j' w9 S4 F9 U on the flight progress strip as an EDCT.3 ~- g! q; W; C" Z (See GROUND DELAY PROGRAM.) ' K p% m4 h( g* a$ O/ uEXPECT FURTHER CLEARANCE (TIME)- The+ S; s" _8 q/ x, V3 ? time a pilot can expect to receive clearance beyond a# Q7 t) D9 H1 n9 q clearance limit. * M6 h9 b( m* y; b% r) YEXPECT FURTHER CLEARANCE VIA (AIR‐# G; w" b# X! O- g) N2 | r8 v7 | WAYS, ROUTES OR FIXES)- Used to inform a " k# D, ~9 V: z) g2 F( |* Upilot of the routing he/she can expect if any part of the7 z: S- S' x" b- U* l) X& |3 d# e route beyond a short range clearance limit differs * C, {: h( S8 h* T( }( n/ wfrom that filed. ^, ?* T. W9 N9 u7 A) z EXPEDITE- Used by ATC when prompt com‐ + j5 Y- L1 l* a, K& ]pliance is required to avoid the development of an1 t- ?( W6 z& h3 O+ k imminent situation. Expedite climb/descent normal‐4 t! A$ M0 G7 p9 k) T ly indicates to a pilot that the approximate best rate; l/ C2 J$ }/ r. G6 _+ H of climb/descent should be used without requiring an 4 S, o9 y$ D1 h# oexceptional change in aircraft handling characteris‐1 F* Q7 h' Q- ~5 w4 M( ] h, |8 W tics. 6 a5 C" J9 {0 c8 d# w( pPilot/Controller Glossary 2/14/08$ r3 c0 Q7 j l8 @9 Q) p4 i6 W PCG F-16 ~* T# X1 `6 o! s F - M. H) Q, H6 U% GFAF(See FINAL APPROACH FIX.)- n. p6 [$ |+ I+ s$ Y c% f FAST FILE- A system whereby a pilot files a flight 7 V8 n9 ~' z6 \0 xplan via telephone that is tape recorded and then q7 h' o" v" g# r) }1 U4 N% btranscribed for transmission to the appropriate air9 |5 ?. d0 d5 H traffic facility. Locations having a fast file capability 4 g9 k( a; @6 g1 t( j7 |are contained in the Airport/Facility Directory., G6 c% M$ z) w) B (Refer to AIM.)0 j7 `& ]8 E9 Y% a5 C# Z* N FAWP- Final Approach Waypoint& H! S' E- f# q0 h' z+ n FCLT(See FREEZE CALCULATED LANDING TIME.) / [& |! ]( ]- V, u% Z9 h2 u f' pFEATHERED PROPELLER- A propeller whose % u2 v" E L4 N/ f! f4 J, E- b% ]6 pblades have been rotated so that the leading and ; h8 L [* K" Vtrailing edges are nearly parallel with the aircraft * z. e' V. k0 L5 S' x( @+ }flight path to stop or minimize drag and engine0 Y1 F7 u# C% U, Y rotation. Normally used to indicate shutdown of a( @7 n+ Y) j, Y+ {+ D5 A reciprocating or turboprop engine due to malfunc‐, C6 w0 d2 u( I; S8 {9 `' a3 m tion.! S7 \7 j3 e" z) r5 \; t/ C FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.)1 `) L) G% C& b. e; | FEEDER FIX- The fix depicted on Instrument ) r0 o. h* o" A U7 bApproach Procedure Charts which establishes the ) h8 S! H! P6 r2 p+ nstarting point of the feeder route. & v* ?/ ]1 F7 T1 ^8 @4 T; ZFEEDER ROUTE- A route depicted on instrument ( Q, R# N- F4 J6 e* O. U- }( Uapproach procedure charts to designate routes for ; _+ Z- e8 J. K1 a0 \ ^5 g( i6 gaircraft to proceed from the en route structure to the + I x# C" b1 E/ l: _initial approach fix (IAF). " K# E7 L2 }3 F. ]* B9 S(See INSTRUMENT APPROACH; }% _% r, K/ y1 V4 M% r7 x PROCEDURE.) ' o4 ~9 G1 Q4 S9 m; P- {5 [FERRY FLIGHT- A flight for the purpose of:8 V. @- s$ C* j9 {9 P- o3 Y a. Returning an aircraft to base.* s, H+ Z5 w0 A; M( [ b. Delivering an aircraft from one location to 6 T, n" x T& _. Qanother.5 G5 w# f8 I( h" F c. Moving an aircraft to and from a maintenance2 R0 [. f) X: I2 }9 l$ w0 L base.- Ferry flights, under certain conditions, may be ; d2 G. B2 @6 Z: }" z4 mconducted under terms of a special flight permit./ V) j( z/ M" s2 L' ~4 } FIELD ELEVATION(See AIRPORT ELEVATION.) 2 N4 o9 X( U0 m2 ~! sFILED- Normally used in conjunction with flight- I) u# w: x9 c% y0 m8 J3 E- X$ n0 g plans, meaning a flight plan has been submitted to9 y% Y5 x' V: h1 w: Z0 C ATC. 0 u8 z4 J3 t' EFILED EN ROUTE DELAY- Any of the following8 w& Q. L- c V1 F4 g preplanned delays at points/areas along the route of4 R% X5 q3 q4 q1 M2 t# b flight which require special flight plan filing and % |+ Z5 i y' D+ f9 Q3 R% ghandling techniques.- ]2 h. L }- j$ O a. Terminal Area Delay. A delay within a terminal% Q8 K# s0 Q" a8 [ area for touch‐and‐go, low approach, or other% G( ^" @, K" |% K2 R5 i terminal area activity. 9 m# @/ ~2 S+ S V' Jb. Special Use Airspace Delay. A delay within a, Z' G; Q9 ?0 F# K$ V& W Military Operations Area, Restricted Area, Warning) x5 f# a3 Y$ x3 T( V1 h5 a& t Area, or ATC Assigned Airspace. : l! C' ^) @& o x* O6 Y T1 `0 Mc. Aerial Refueling Delay. A delay within an / M D* g9 l' q9 t1 F, K6 N3 j" \, D; FAerial Refueling Track or Anchor., H2 Z0 ^* |; n4 P' l FILED FLIGHT PLAN- The flight plan as filed with/ {8 {! @# D+ O* `# v& V5 b* Q. y% i/ }, c an ATS unit by the pilot or his/her designated- [% N' _: S# g& M ^. C representative without any subsequent changes or # I) X0 D1 _) b- v3 f" x7 j7 vclearances. , B% q( v* W) F6 d3 BFINAL- Commonly used to mean that an aircraft is 4 J! D2 ]: b4 J% i; ton the final approach course or is aligned with a 7 P' \: E1 @, Y- z4 v. I) q) xlanding area.. U, o5 b4 Y; Q. R. a$ x' j (See FINAL APPROACH COURSE.) 6 M' t. _& \3 l2 n. _- G(See FINAL APPROACH‐IFR.)6 L' q9 G+ b% f) r (See SEGMENTS OF AN INSTRUMENT; _+ z- B0 y( X J# J) d APPROACH PROCEDURE.)' ^# }& U, e0 ~& n; ^# R FINAL APPROACH [ICAO]- That part of an # Y% y6 f$ ~$ H- O: s! D% ]' a* Z0 T1 binstrument approach procedure which commences at$ ~. O/ b6 b! P the specified final approach fix or point, or where% I/ o. |* V! v! ]2 o8 L$ c7 r) F such a fix or point is not specified.+ J" k" b% G) [ a. At the end of the last procedure turn, base turn+ j' j, G6 L7 G1 ]7 y or inbound turn of a racetrack procedure, if specified;: o g' V/ o- u* N* L% T* ] or $ y( y, X6 p$ I8 sb. At the point of interception of the last track 5 s* W# j ?* a% Sspecified in the approach procedure; and ends at a" r) C$ Z. a* t) J/ } point in the vicinity of an aerodrome from which:% r2 x$ v0 c" B- E3 ` 1. A landing can be made; or5 ^7 [! ~, n" o8 `6 `. k: R( R 2. A missed approach procedure is initiated.9 s O* N# d" I% f. R4 r8 u FINAL APPROACH COURSE- A bearing/radial/( I/ y: ]+ Q" L; f, { track of an instrument approach leading to a runway1 }4 a( A# |3 v8 b; C or an extended runway centerline all without regard, S# _: F2 T- H- a to distance. ' W- v7 H' c- l C1 R. a3 u6 DFINAL APPROACH FIX- The fix from which the , @) B' w' D5 B# ofinal approach (IFR) to an airport is executed and ^5 I8 Z+ b6 |7 n which identifies the beginning of the final approach % D7 }7 N1 \5 `+ v& W3 R1 wsegment. It is designated on Government charts by: b3 A _" B+ ? the Maltese Cross symbol for nonprecision0 Z9 G0 {( D7 s k; C9 D Pilot/Controller Glossary 2/14/08 / g, O B. ^# i: ~6 ~PCG F-2; M/ [! R% ^ z1 E3 |* W approaches and the lightning bolt symbol for , i) T! e% T" D4 E: m* B/ v2 ^precision approaches; or when ATC directs a 9 b) a9 _( C9 @# f+ Ulower‐than‐published glideslope/path intercept alti‐ 7 \+ P- i" D* `- e( y q6 ^( Qtude, it is the resultant actual point of the4 N. |, W* Z' U glideslope/path intercept. 8 g1 e' b* j, |0 `0 [(See FINAL APPROACH POINT.)# F# C& h6 E0 x2 |2 { (See GLIDESLOPE INTERCEPT ALTITUDE.) 0 C" Q8 X$ ^4 ?8 O- a$ y& |(See SEGMENTS OF AN INSTRUMENT* _" |0 s2 V/ h! U1 w+ ? APPROACH PROCEDURE.)$ j5 A- W. |0 _# G FINAL APPROACH‐IFR- The flight path of an4 w# o9 m6 D8 O* B aircraft which is inbound to an airport on a final+ \* D6 ~( I+ f8 {! k- I" W instrument approach course, beginning at the final 1 E7 R) N) h1 @$ X, ?approach fix or point and extending to the airport or0 m0 Y( z, _) L! _7 H5 v. ]7 O( T$ J `' w the point where a circle‐to‐land maneuver or a missed0 s5 j' m7 w3 l3 @) a approach is executed. % T5 V* H4 s. I) l3 g' L2 F(See FINAL APPROACH COURSE.)8 S( ~9 u. I+ v( W: X0 [ (See FINAL APPROACH FIX.)/ L) B8 M( t6 }- J0 x5 Q (See FINAL APPROACH POINT.)4 Q9 D% j, u4 d (See SEGMENTS OF AN INSTRUMENT. t7 Z1 C/ l L; \" f/ N' n APPROACH PROCEDURE.)) v3 _, I% m+ U8 b (See ICAO term FINAL APPROACH.) , E5 x& g h9 I. lFINAL APPROACH POINT- The point, applicable Y- ?' P, }3 |3 f; c* }& Sonly to a nonprecision approach with no depicted ' g. a# V/ D5 EFAF (such as an on airport VOR), where the aircraft! q& O/ X6 q: [ c8 J9 J is established inbound on the final approach course. H0 a( m) _" H, \; ^ from the procedure turn and where the final approach( w! h6 a" q" U7 _ descent may be commenced. The FAP serves as the) Y9 d5 n2 `6 I+ Z1 U; d, Y FAF and identifies the beginning of the final ; E& G* r5 c! @approach segment. 5 X% S. @$ [) I# s(See FINAL APPROACH FIX.)# e4 |5 i8 S3 V- s3 p* [ (See SEGMENTS OF AN INSTRUMENT & k' B# L; A) Z ZAPPROACH PROCEDURE.) 8 b# g0 Y. {, @- z3 n) sFINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT : @# S# m. ]3 R; ~0 i7 ~# z, PAPPROACH PROCEDURE.)& G t4 b6 X0 ^ @ FINAL APPROACH SEGMENT [ICAO]- That0 q: h1 ^, v B5 F2 @ segment of an instrument approach procedure in 4 Y+ u# d% O( O, e/ }: V2 Kwhich alignment and descent for landing are ; N) B; b8 k/ G3 N5 Maccomplished.8 x1 k4 Z' w$ ~9 k" y) J FINAL CONTROLLER- The controller providing5 s' H2 q. V, e. t5 E$ [ information and final approach guidance during PAR9 B$ z- c( O) n$ [( m and ASR approaches utilizing radar equipment.- ^6 [& U' i# R# I! h2 G7 A (See RADAR APPROACH.) , v- B _. [6 F# B; e$ EFINAL GUARD SERVICE- A value added service & ~: d |, e: j! t/ h, _! Xprovided in conjunction with LAA/RAA only during _. l4 T: Z5 E8 V" Z$ e3 R5 Uperiods of significant and fast changing weather) j9 K& \8 g7 r% Y conditions that may affect landing and takeoff ; N! q& d9 p' p( w, O! ?. noperations. U% W- m9 F+ D+ s: K) y- ^1 CFINAL MONITOR AID- A high resolution color / K4 c3 ^# l i' Y! cdisplay that is equipped with the controller alert : k2 H( {% I( {, A5 |+ [, csystem hardware/software which is used in the ' U) X( r) }: e+ j: t" o1 f$ Q5 iprecision runway monitor (PRM) system. The ) ]6 V" n$ r4 c2 m n. x3 \+ fdisplay includes alert algorithms providing the target+ ]5 m7 q4 o/ w5 ^/ W; P8 N# Y" [4 ? predictors, a color change alert when a target& r0 i, o3 T4 a$ s! x penetrates or is predicted to penetrate the no2 d- ^" d; F# T& I& J( f2 @- T, X transgression zone (NTZ), a color change alert if the - v2 `6 s0 _' s8 @aircraft transponder becomes inoperative, synthe‐. c8 q: Y4 c+ i R sized voice alerts, digital mapping, and like features3 N4 p1 D- T# W. @4 W8 Q! b/ V contained in the PRM system.( y" ]4 ?# |& V# Z (See RADAR APPROACH.) 1 d2 @& W; ?3 Z; j+ g. o x5 ~* f. nFINAL MONITOR CONTROLLER- Air Traffic * t! M; ^9 ~2 cControl Specialist assigned to radar monitor the $ `1 |$ \% ?5 l9 q' o: _flight path of aircraft during simultaneous parallel+ ?! j2 i1 E7 H$ C and simultaneous close parallel ILS approach % B' w) F+ g3 ]6 |operations. Each runway is assigned a final monitor; I7 @6 g5 ?+ d8 a2 m+ S controller during simultaneous parallel and simulta‐ : n9 d/ x6 ^6 ~) A( f# Jneous close parallel ILS approaches. Final monitor ) p) [% c2 \6 |% Z* H8 p3 fcontrollers shall utilize the Precision Runway! |! ^! y) T; D. N# S0 z2 T7 ~. M Monitor (PRM) system during simultaneous close 5 r) y& y% w/ t1 i2 ^8 X8 Gparallel ILS approaches. 8 Y$ Z/ {& c2 xFIR(See FLIGHT INFORMATION REGION.) . a' h8 n* M4 w+ \2 R0 [/ }9 EFIRST TIER CENTER- The ARTCC immediately8 u5 K r0 F6 D* m% E5 l. y0 } adjacent to the impacted center.; C% Y% b; z0 { FIX- A geographical position determined by visual" w) a2 {1 M: g5 Y- { reference to the surface, by reference to one or more ! p; B+ F: [. S% |' W0 V$ uradio NAVAIDs, by celestial plotting, or by another 9 x$ Y! f7 }8 U E' ^navigational device.1 A: V; r. b+ Y8 s0 l, [ FIX BALANCING- A process whereby aircraft are" R3 O i5 s% B' z, V$ b evenly distributed over several available arrival fixes * u e4 p5 Y0 x/ f) D# b7 breducing delays and controller workload. , q9 G! \+ }0 a0 D) _, }0 v5 Q IFLAG- A warning device incorporated in certain # b$ f+ O7 h9 u7 p: g/ o" bairborne navigation and flight instruments indicating$ f$ k) _" E# j$ V' n' \: x+ \- M' N that:& k( s6 g" b. l* L1 ? a. Instruments are inoperative or otherwise not0 d- K5 q: f+ h6 h operating satisfactorily, or 2 | b0 q9 y |b. Signal strength or quality of the received signal 8 s. z3 Y8 F3 h4 W( X2 l5 efalls below acceptable values. ; t2 c; V9 a$ N- F7 a" q* P* ?! RFLAG ALARM(See FLAG.) 2 B/ P, ?. S& ^# k: pFLAMEOUT- An emergency condition caused by a 6 P* \7 X4 ?% ~+ uloss of engine power.1 d3 @4 J+ G: E' h9 U, S FLAMEOUT PATTERN- An approach normally 0 L, d% B& d1 c" B! s( i0 w& h% u9 fconducted by a single‐engine military aircraft( k& ~0 X, H$ T" b( u experiencing loss or anticipating loss of engine6 ?4 A. H: g8 n0 y% V: b; x8 l Pilot/Controller Glossary 2/14/08 ( J: F- r) h* T- o9 A8 @: K$ _8 KPCG F-3 : I @* m$ i1 V4 X, w+ xpower or control. The standard overhead approach: ?! s: H* j) P2 {( P starts at a relatively high altitude over a runway ) V' w2 W0 @9 S(“high key”) followed by a continuous 180 degree 5 n6 z5 p6 |& M+ q1 lturn to a high, wide position (“low key”) followed by8 v! f* y2 R! L5 Q: | x+ x. k a continuous 180 degree turn final. The standard6 I; a2 U2 n8 F1 M8 ?1 ? straight‐in pattern starts at a point that results in a 1 V" K) Q& ]7 Y9 f1 r9 f" fstraight‐in approach with a high rate of descent to the & B) X" N. \5 s$ f4 erunway. Flameout approaches terminate in the type" t+ D( o' c' Q* C approach requested by the pilot (normally fullstop). 6 O+ k$ C& C9 a4 H* f9 TFLIGHT CHECK- A call‐sign prefix used by FAA# S% \" j0 Q- }: ?- ~ aircraft engaged in flight inspection/certification of! W9 ^1 _. L4 t, E navigational aids and flight procedures. The word , u: f- m; s& k+ y2 Y' Z. y“recorded” may be added as a suffix; e.g., “Flight5 e! j, S0 S @* h Check 320 recorded” to indicate that an automated: n) ?1 Y3 \5 u& A, T* Q flight inspection is in progress in terminal areas. " R8 F1 y4 N/ u9 W1 ]* d( [( o; j- `(See FLIGHT INSPECTION.) . N7 ^ W" Y7 w: N) V+ _(Refer to AIM.)5 j5 y, g4 t) D( a9 i% B& O FLIGHT FOLLOWING(See TRAFFIC ADVISORIES.)1 A, X! d% ?, C2 u6 @ FLIGHT INFORMATION REGION- An airspace of8 f7 b# H# n1 n, U1 ~% m defined dimensions within which Flight Information 2 |: L# G. Z! }3 JService and Alerting Service are provided. ; ^9 e/ O/ l4 za. Flight Information Service. A service provided) A3 q% b: l9 A* Q1 z6 k. g) `( T6 ~ for the purpose of giving advice and information + p7 h' S8 ^" u/ e8 K% ~useful for the safe and efficient conduct of flights. ; C0 |- ^* k# cb. Alerting Service. A service provided to notify - U3 ]9 k# Q# m2 L9 G) n( z* t5 Aappropriate organizations regarding aircraft in need % s( O5 q# r4 D; iof search and rescue aid and to assist such6 X) d8 C8 B, o5 @) P% j: | organizations as required. " W7 i& h' B3 E8 W: m' MFLIGHT INFORMATION SERVICE- A service 1 K. {5 `+ c7 }, r% P; Fprovided for the purpose of giving advice and1 `' P/ }! y' _5 f" C information useful for the safe and efficient conduct' y$ v! z% D9 U& X! s& `1 \, O of flights.0 C# A" x8 c5 Q8 M! g FLIGHT INSPECTION- Inflight investigation and 5 ?' H5 a6 X/ N9 a; ]0 w* Jevaluation of a navigational aid to determine whether2 ]9 `# G7 n) h0 I; \$ s) k% P it meets established tolerances. 8 L$ W% c* [+ w(See FLIGHT CHECK.) * Q5 Y9 M: P$ ?(See NAVIGATIONAL AID.)2 ]2 H# ?- X2 z FLIGHT LEVEL- A level of constant atmospheric W: G; ~0 K0 H% `3 @) d% a* C% S0 `# k7 \pressure related to a reference datum of 29.92 inches ( I+ w3 S7 `- T7 Q1 B2 yof mercury. Each is stated in three digits that represent # K0 \/ t$ c9 Z/ n$ ^hundreds of feet. For example, flight level (FL) 2508 ?0 S" q1 c; l$ C represents a barometric altimeter indication of . A+ V- M3 `& t# I+ i1 }25,000 feet; FL 255, an indication of 25,500 feet. 6 q1 c. y' ?- k8 z \, c(See ICAO term FLIGHT LEVEL.) 4 `. T8 g- i/ H3 r3 @- [FLIGHT LEVEL [ICAO]- A surface of constant 1 Q2 {0 ]9 f% {9 |2 ` b6 Qatmospheric pressure which is related to a specific 1 E) E( ]4 n7 W9 v! g5 b9 apressure datum, 1013.2 hPa (1013.2 mb), and is5 v- k& `7 W6 E/ @; ? separated from other such surfaces by specific$ p! P. Z9 F/ u pressure intervals. " f( ?2 r4 J5 BNote 1:A pressure type altimeter calibrated in" H- m& v2 G2 ~& h j7 Q accordance with the standard atmosphere:" q( K) D1 O9 y, n! _( S0 w6 N8 D3 t; f a. When set to a QNH altimeter setting, will& `! C; V$ d/ o; @, g indicate altitude;9 g+ R8 }# q; z4 W b. When set to a QFE altimeter setting, will ( N6 U' r6 @% q( Oindicate height above the QFE reference datum; 6 n% S) W* T8 Pand5 r4 s5 u/ k4 y c. When set to a pressure of 1013.2 hPa , _# S; t4 _; X(1013.2 mb), may be used to indicate flight levels. , n. Z6 j+ C+ L* _2 rNote 2:The terms `height' and `altitude,' used in1 W. t: i {. R, C3 h+ @ Note 1 above, indicate altimetric rather than 1 K! T; g: ~5 h7 Y6 Ngeometric heights and altitudes.5 Z L9 _: E& P% V, ?: B+ Z; [. r FLIGHT LINE- A term used to describe the precise ; N7 m4 K1 C5 a1 C: ]3 h% ` k% Dmovement of a civil photogrammetric aircraft along; l* c8 X7 ]1 W3 | a predetermined course(s) at a predetermined altitude 5 m; n }- R/ bduring the actual photographic run.1 q- C! M* g# B5 a FLIGHT MANAGEMENT SYSTEMS- A comput‐+ s# l$ t! {( r1 M) I H: M" `. W er system that uses a large data base to allow routes+ a/ w: V( n8 {( j' \; Z/ T to be preprogrammed and fed into the system by6 i+ A% [) N4 J1 J- |% x2 E% L means of a data loader. The system is constantly # V- K: I2 Z. G$ @- Y# hupdated with respect to position accuracy by 0 e% b2 b" M* t! Ureference to conventional navigation aids. The: d6 U6 Y, L- c, ?( H3 } sophisticated program and its associated data base U7 W& K( i2 Ninsures that the most appropriate aids are automati‐ 6 Q8 L$ V3 P% e$ B$ o9 P) Ically selected during the information update cycle. 2 l4 v2 \/ B1 T; bFLIGHT MANAGEMENT SYSTEM PROCE‐# r' Y3 U3 W' B6 R! V* ^ DURE- An arrival, departure, or approach procedure" r I7 k6 o$ D, t1 M9 z) w `, ` developed for use by aircraft with a slant (/) E or slant: h! f5 k. D, O; H) K+ v (/) F equipment suffix. . b5 i4 Q/ i, H3 tFLIGHT PATH- A line, course, or track along which ) Z( l) z' ~& d) [ e) |an aircraft is flying or intended to be flown.( b, f" O/ U6 T" Q (See COURSE.)* }0 g$ _- p% s* ?# p0 F. K (See TRACK.) ' G: p' |- Z S; U& NFLIGHT PLAN- Specified information relating to - k8 V3 |* `7 P" Jthe intended flight of an aircraft that is filed orally or - M) v5 F( a S6 ^ @9 {. \1 k Tin writing with an FSS or an ATC facility.7 h1 }" N% c& b" Z# l. h1 g (See FAST FILE.) 5 i6 }6 u3 y9 e9 G4 X(See FILED.) : i3 ?: T: R! Y7 l: W' X(Refer to AIM.)1 b0 B2 e+ b7 N) p FLIGHT PLAN AREA- The geographical area$ h/ N9 _# i4 e" d- F& R4 M assigned by regional air traffic divisions to a flight8 O6 ?2 M$ Q7 R- W' r service station for the purpose of search and rescue' h5 I4 B8 S9 g; [) L+ b) a for VFR aircraft, issuance of NOTAMs, pilot 6 u! k. z! ?0 l! w) f- E. X% Pbriefing, in‐flight services, broadcast, emergency . Z4 u% Q2 N) w8 Z6 j! C0 Pservices, flight data processing, international opera‐4 @ K7 \6 K V; q tions, and aviation weather services. Three letter+ K0 l3 c6 u4 |. u6 E9 x# Z/ d9 W5 K7 x Pilot/Controller Glossary 2/14/08 ; a% R* J/ t k( q! r/ @# _PCG F-4" l$ R8 [( V6 ~: \ identifiers are assigned to every flight service station 3 E# V* B; w7 `; pand are annotated in AFDs and FAAO JO 7350.8, J) n4 ~/ A. o LOCATION IDENTIFIERS, as tie‐in facilities. 9 T: I3 o+ V; H(See FAST FILE.)* J7 m `" p- O) A( U$ N- b (See FILED.) ; ]( K" [' u( ~(Refer to AIM.) 7 ]. W" d; W8 k7 d* a! t; RFLIGHT RECORDER- A general term applied to4 L7 d1 K8 Y& Y. W4 [7 b any instrument or device that records information7 x3 F: s. Q1 Y, `9 @( ^5 l about the performance of an aircraft in flight or about. `: \% e$ y* P0 I, R) Y+ _ conditions encountered in flight. Flight recorders. J* \+ f- I9 V9 U may make records of airspeed, outside air ! {' `0 l# W" Gtemperature, vertical acceleration, engine RPM,$ H, Z) N$ e8 i( W8 q' T manifold pressure, and other pertinent variables for a " v/ h$ ^" y6 F6 w$ Ugiven flight. 7 }; ~3 w. _( m7 m, m" @, z(See ICAO term FLIGHT RECORDER.)9 O+ w8 }8 i- k R# Q1 l FLIGHT RECORDER [ICAO]- Any type of& Z6 E# E1 @, O3 B recorder installed in the aircraft for the purpose of- w4 H2 t# B% o4 d7 P1 E) o complementing accident/incident investigation.& y! J$ ^, [5 N, a5 D: ] Note:See Annex 6 Part I, for specifications relating& }: p' c8 L& Y$ ~- i5 w to flight recorders. 4 ~$ ~4 ^+ y' vFLIGHT SERVICE STATION- Air traffic facilities 7 B9 O5 { w6 `% V# n7 z* }which provide pilot briefing, en route communica‐/ [9 z' ~% o/ Z1 w' ^" @8 P7 l tions and VFR search and rescue services, assist lost! Y; T+ K7 M$ w( \5 ^ aircraft and aircraft in emergency situations, relay * G$ q' U% F4 Y+ }. m3 gATC clearances, originate Notices to Airmen, * W1 J! `+ y; abroadcast aviation weather and NAS information,0 H$ ?) Q2 v0 `1 m! f and receive and process IFR flight plans. In addition, 3 ?4 a+ Y: J: R6 L+ L3 zat selected locations, FSSs provide En Route Flight. \3 \8 C+ I3 R- d Advisory Service (Flight Watch), issue airport: }' E0 M, Z) j; i5 H i' d( s% W: b( | advisories, and advise Customs and Immigration of ! ]4 Y. @- k1 t `transborder flights. Selected Flight Service Stations; l {' U; U8 a in Alaska also provide TWEB recordings and take / _; b9 }2 P$ t3 E' O7 J/ rweather observations. " s4 g/ n. S6 t2 f(Refer to AIM.) + T# G/ b( t- C" B2 xFLIGHT STANDARDS DISTRICT OFFICE- An: k3 T1 M f. k9 j8 S1 |* U FAA field office serving an assigned geographical / ]. U% g# ]3 e! Yarea and staffed with Flight Standards personnel who) b( U) |' t1 ^& b; e9 H serve the aviation industry and the general public on; a) f! S, Y3 K. Q S, a. I! f matters relating to the certification and operation of" \! c% H x/ s0 N1 G1 Q: U1 Y air carrier and general aviation aircraft. Activities - _0 F) d3 z, }% w3 Minclude general surveillance of operational safety, % T% p) D/ @5 X. e% K5 wcertification of airmen and aircraft, accident# X' e& c1 w/ @ V9 ]- S. @ prevention, investigation, enforcement, etc. 0 W& T2 u) T9 ]& A! dFLIGHT TEST- A flight for the purpose of: V( n6 U7 U) z6 N, e+ Z/ q7 l a. Investigating the operation/flight characteris‐ - [3 E* m5 U9 Xtics of an aircraft or aircraft component.+ e8 d1 K# _; u; H& h- }0 Z r b. Evaluating an applicant for a pilot certificate or1 t @ B. u0 h6 C" S0 S1 o rating.$ z/ e. u, y, Q2 }( k% F H FLIGHT VISIBILITY(See VISIBILITY.)( ^4 a8 b% K9 k+ r" d/ v" } FLIGHT WATCH- A shortened term for use in 2 x* d7 {8 {! sair‐ground contacts to identify the flight service: L4 H, @0 e! y+ f station providing En Route Flight Advisory Service;- p( }* O/ r, j, s8 F Z4 J% i9 k e.g., “Oakland Flight Watch.”4 Z! t2 b! N" [" F7 G) B. s/ x (See EN ROUTE FLIGHT ADVISORY4 x9 z4 t* v/ Z o5 Z2 f7 v5 b SERVICE.) - T4 A, W' o; u! ^) S" U1 dFLIP(See DOD FLIP.)+ x# P* C. i `$ y# P8 _ FLY HEADING (DEGREES)- Informs the pilot of 7 l3 p; K$ l9 Bthe heading he/she should fly. The pilot may have to 4 G" U( n$ L' ^ ?1 ~turn to, or continue on, a specific compass direction $ S. L3 b$ {" _) win order to comply with the instructions. The pilot is" M5 ~0 h" m; d3 O Y5 n expected to turn in the shorter direction to the heading $ e6 P. i# b1 ]" g' E! O# {5 d: Wunless otherwise instructed by ATC., m$ V2 c8 }1 z, k ^9 J9 t g- y FLY‐BY WAYPOINT- A fly‐by waypoint requires % Z% l' X- O0 t& f* i" cthe use of turn anticipation to avoid overshoot of the* {! o! e* L% f8 i; h% V8 Z0 S next flight segment.2 R6 ~; u1 S. J+ G3 }3 h3 S$ {1 B$ |& \ FLY‐OVER WAYPOINT- A fly‐over waypoint( W" W0 i- }/ Q5 z2 j3 D precludes any turn until the waypoint is overflown% x- @- {: n I7 q3 u9 `7 R and is followed by an intercept maneuver of the next8 c6 J& u$ N6 p, } flight segment. 3 x# C' _5 u& x, n, ~6 u S; t: v. aFMA(See FINAL MONITOR AID.) 9 x* _# F2 W* a& Y& R9 i; KFMS(See FLIGHT MANAGEMENT SYSTEM.)/ t, ~% x( g8 T' V# p FMSP(See FLIGHT MANAGEMENT SYSTEM) F: g7 o* D9 M/ x6 j- W( k PROCEDURE.) : a) ^9 M+ u# S: K* _& M3 q- ZFORMATION FLIGHT- More than one aircraft, O' y2 o/ `7 T/ E which, by prior arrangement between the pilots,! _9 s1 H- P: P: \2 {1 B8 V0 H ?' j operate as a single aircraft with regard to navigation 5 N/ c7 g- |8 ^* j' l/ `& land position reporting. Separation between aircraft; I, }9 ?) ~# X1 S5 J within the formation is the responsibility of the flight/ C$ q$ ~) H3 W leader and the pilots of the other aircraft in the flight. A# \. ~4 Z* S& t5 o/ [ This includes transition periods when aircraft within9 M" B& _& r2 E" Z+ f the formation are maneuvering to attain separation + F% s. a) [+ Zfrom each other to effect individual control and( g2 X& u2 o+ L0 h during join‐up and breakaway., ` ^: \' D4 A0 G2 ]; H' H a. A standard form ation is one in which a; p* ~ a3 y7 V- [! S$ v proximity of no more than 1 mile laterally or# @3 w& Q- i+ L& E$ n- l longitudinally and within 100 feet vertically from the 1 r* q/ W9 y; l P4 s( ^: \: Y( H# A9 Pflight leader is maintained by each wingman. 4 Q7 i' \9 e% V3 k5 gb. Nonstandard formations are those operating W7 Z# F0 u: I! K$ z2 Q( Eunder any of the following conditions:2 E: p$ d* m8 Q Pilot/Controller Glossary 2/14/08 7 n8 Y' }! ~, X' nPCG F-52 z' S$ j% t- v: l- N3 C3 p 1. When the flight leader has requested and ATC* L3 A- ~+ t% B: e' h! p has approved other than standard form ation& G0 B5 z) h3 ^/ ]% e# ]4 @0 v dimensions. $ L/ ?7 n0 e& D2. When operating within an authorized altitude$ t: I1 ?( p% H3 f5 G0 z reservation (ALTRV) or under the provisions of a & g4 f1 Y2 ~9 F' ^( s/ hletter of agreement. : V3 Z. M. R# N3. When the operations are conducted in 5 I6 J% A$ U ~7 O' Tairspace specifically designed for a special activity.( M6 e3 f+ d( _" O- J (See ALTITUDE RESERVATION.) 8 _2 N- m0 v9 i P6 n(Refer to 14 CFR Part 91.)/ a7 B- v! w( }5 Z; ~+ v8 j FRC(See REQUEST FULL ROUTE CLEARANCE.) / @4 X6 ?8 k- ?) M( p, C* v$ Q) M" fFREEZE/FROZEN- Terms used in referring to ) D, W5 ?0 Y6 o: f4 S, Jarrivals which have been assigned ACLTs and to the 4 E0 L ~4 N) c' {! slists in which they are displayed. # ~* Y+ g& K1 D+ rFREEZE CALCULATED LANDING TIME- A % U4 \8 C% u2 r& f7 [4 ~dynamic parameter number of minutes prior to the& f- T# i0 G1 G4 Q meter fix calculated time of arrival for each aircraft $ m8 T8 a: u6 }' h& gwhen the TCLT is frozen and becomes an ACLT (i.e.,. F. D, \/ \( \* L' g the VTA is updated and consequently the TCLT is " w" w9 ?. W8 O, }- o3 Imodified as appropriate until FCLT minutes prior to . P4 _$ G- s8 ^+ C+ dmeter fix calculated time of arrival, at which time# h- R1 z' p8 b& k, ~ updating is suspended and an ACLT and a frozen ) t3 ^! Q: i$ q8 _% B9 g- P/ Cmeter fix crossing time (MFT) is assigned). 9 I- ?3 I0 r. y; s) _FREEZE HORIZON- The time or point at which an ' b( A/ g: C/ s8 C ~ _7 K7 zaircraft's STA becomes fixed and no longer fluctuates1 ]7 q4 F& u* y# | with each radar update. This setting insures a constant' y; R0 o" R8 U: l) B, j2 N- E time for each aircraft, necessary for the metering5 L3 _4 b, [3 Q/ X' ]8 [ controller to plan his/her delay technique. This, @7 D2 H! t) D1 v setting can be either in distance from the meter fix or5 u8 W2 ?; V+ d3 z% X- O" R a prescribed flying time to the meter fix.( Y0 I8 Q$ ^8 F) l6 h& e: s0 \ FREEZE SPEED PARAMETER- A speed adapted) S; _7 B$ Q) e2 r for each aircraft to determine fast and slow aircraft. ! F9 U6 ?4 S# JFast aircraft freeze on parameter FCLT and slow " Z) m; q H- ^aircraft freeze on parameter MLDI.' ?' S8 O& J; U+ Y. `: r FRICTION MEASUREMENT- A measurement of% E f9 Y4 P/ x( o the friction characteristics of the runway pavement E0 R) z- [+ j& ^# } ?) tsurface using continuous self‐watering friction& D& p# l" [4 r1 F% D" P" l3 Q measurement equipment in accordance with the+ h4 Q2 O, o, _1 v5 e$ V' Z4 F- e specifications, procedures and schedules contained C% @' J8 \3 m4 _2 r6 g in AC 150/5320-12, Measurement, Construction, # `+ n9 X; m* u7 c7 H3 Kand Maintenance of Skid Resistant Airport Pavement " d3 S* m) x3 }6 J, H' s; O. BSurfaces.( Q. K5 P9 ^5 P( I; S/ A7 w; z FSDO(See FLIGHT STANDARDS DISTRICT OFFICE.) 9 \; i9 I" A# ?3 J6 O9 g7 p3 X: yFSPD(See FREEZE SPEED PARAMETER.) - t. _0 N2 x. v2 t) D' R1 n$ sFSS(See FLIGHT SERVICE STATION.)% I- H& T8 g4 y! { FUEL DUMPING- Airborne release of usable fuel.2 P1 J7 A' ]: }0 _* @' a+ Q This does not include the dropping of fuel tanks.5 Q! v; t! d; a/ O (See JETTISONING OF EXTERNAL STORES.)" m! e- b0 h: G$ ~9 J8 q FUEL REMAINING- A phrase used by either pilots ( v+ a. H8 p/ Por controllers when relating to the fuel remaining on V8 m' ?* v9 t$ b/ x. q/ {7 H* Vboard until actual fuel exhaustion. When transmitting, [5 m: J7 i4 q6 l+ z1 {0 O7 c/ w such information in response to either a controller ; C# R# g4 J& q' F0 G1 S0 M& O, r2 o5 N: dquestion or pilot initiated cautionary advisory to air9 m( e$ [- P7 A traffic control, pilots will state the APPROXIMATE( A; b0 S# d0 Q) h+ s NUMBER OF MINUTES the flight can continue L; z: l) Z. b( v with the fuel remaining. All reserve fuel SHOULD* o8 d& t; @* m# u% N2 ~! A BE INCLUDED in the time stated, as should an % ~1 d* |% S0 [+ c' mallowance for established fuel gauge system error. # U l$ A2 W+ ]0 b2 kFUEL SIPHONING- Unintentional release of fuel$ w- z* l9 O8 U# D) L, s5 X% W, \ caused by overflow, puncture, loose cap, etc.* [0 X7 b, F# N: v) R# | FUEL VENTING(See FUEL SIPHONING.), x4 A8 \8 M g7 ? Pilot/Controller Glossary 2/14/081 y$ O0 a F( ^ PCG G-1* W0 P1 |6 ^. k- B S$ [1 C G

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GATE HOLD PROCEDURES- Procedures at * M& |4 P P9 q, H" x) ^2 iselected airports to hold aircraft at the gate or other / [+ o7 ^- I# [& Jground location whenever departure delays exceed or 2 p" V- |% ?* m. b- J5 ?are anticipated to exceed 15 minutes. The sequence 8 ^- K! s( N7 k5 Zfor departure will be maintained in accordance with 2 {" C2 e+ b. B9 [4 d R1 p Vinitial call‐up unless modified by flow control/ u# v6 y Y3 l# I L4 d) | restrictions. Pilots should monitor the ground) }5 \4 m: Y( v2 S$ i' Q control/clearance delivery frequency for engine 1 q$ b7 J9 D& [; ^& f9 F: Cstart/taxi advisories or new proposed start/taxi time 1 L& g/ q4 _- a9 Gif the delay changes.

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GBT(See GROUND-BASED TRANSCEIVER.)# D+ X$ a+ z* E' t! K GCA(See GROUND CONTROLLED APPROACH.) ) J& H& a7 D1 O7 J# H) Y7 E! q3 t% `GDP(See GROUND DELAY PROGRAM.) F- V+ F& Q. D$ i2 [ GENERAL AVIATION- That portion of civil: r$ a! t! R( s' J, L+ m aviation which encompasses all facets of aviation' a! O; J( o4 @, p except air carriers holding a certificate of public / ~+ x$ F- _: y% q: p2 O; Qconvenience and necessity from the Civil Aeronau‐ 7 p H( p% @) htics Board and large aircraft commercial operators.* m q; C i; H& A3 p (See ICAO term GENERAL AVIATION.) 9 G$ Z6 {9 g1 [3 R9 J" ?7 KGENERAL AVIATION [ICAO]- All civil aviation 2 \. f9 H/ J! P/ `operations other than scheduled air services and ' V* Q& l- M4 y. [' znonscheduled air transport operations for remunera‐) s+ |2 D2 P7 |- q" n$ r7 c/ V" @, m/ S tion or hire. : ]2 C2 G, M4 w# h' g9 OGEO MAP- The digitized map markings associated3 F" R) N% v7 y- \- c with the ASR‐9 Radar System.# R! u# r3 e. y# H GLIDEPATH(See GLIDESLOPE.)$ o7 ^8 x( u3 z' e/ ~" b' y GLIDEPATH [ICAO]- A descent profile determined5 e c% k4 I% f2 P: N, r: r* V for vertical guidance during a final approach. 2 P$ W, _( C! _3 f ^GLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.) , p8 C. `" \8 b: K) p3 v$ cGLIDESLOPE- Provides vertical guidance for# o7 f' j, {( {0 R aircraft during approach and landing. The glideslope/ 0 C6 f5 P4 Q5 w6 p* z5 g8 |& gglidepath is based on the following: ( L. c; O' g& g; v5 S' ~a. Electronic components emitting signals which 1 D; ?4 v+ j: L$ ]- Yprovide vertical guidance by reference to airborne2 Q k' x' h& O9 d instruments during instrument approaches such as& H, w: X. h0 l) s ILS/MLS, or) `8 j2 g( J1 h" u b. Visual ground aids, such as VASI, which 0 V- ?) u Q& qprovide vertical guidance for a VFR approach or for P2 I, B1 K2 `/ x' A the visual portion of an instrument approach and, x0 {- T; f3 F5 }, ]/ Y landing.' |& h/ N) ~; f6 X c. AR. Used by ATC to inform an aircraft making ; P' h6 D8 E/ r: sa PAR approach of its vertical position (elevation)7 B9 ?# x/ d7 v* h+ K relative to the descent profile. 1 P) y; p: G- w \7 }/ Q(See ICAO term GLIDEPATH.) , |& }& w- C1 S1 l5 w/ XGLIDESLOPE INTERCEPT ALTITUDE- The2 K4 L5 H3 v. k- L; s, B minimum altitude to intercept the glideslope/path on 3 [+ H5 Q2 F- H1 ra precision approach. The intersection of the + T7 I- e+ W! J. j2 s2 @( bpublished intercept altitude with the glideslope/path,7 q' s- k( w' u8 E designated on Government charts by the lightning" w! v; K- u' E; |+ i! _ bolt symbol, is the precision FAF; however, when the & j* L9 b$ x! g) u: c! k( sapproach chart shows an alternative lower glideslope - v! K$ }! A# mintercept altitude, and ATC directs a lower altitude,& j6 E9 e: r* S0 X5 k6 b. l* h7 I the resultant lower intercept position is then the FAF.* l& F- z% c4 ~1 V# H (See FINAL APPROACH FIX.) 9 _0 z0 L' D# F }5 i9 ~" a+ U9 i(See SEGMENTS OF AN INSTRUMENT m) N- ]5 J @0 Z APPROACH PROCEDURE.)7 J8 @: o) i u1 ]% x8 E6 R GLOBAL POSITIONING SYSTEM (GPS)- A' V! x+ u9 ~- S% l; [ space‐base radio positioning, navigation, and6 U& S( L2 w! W+ X) |3 W time‐transfer system. The system provides highly * t6 |+ _+ M% D0 V# g1 w3 paccurate position and velocity information, and8 m, k$ \: g0 [* T5 N precise time, on a continuous global basis, to an% `# q I x: `2 U* f# q6 b/ | unlimited number of properly equipped users. The ; K0 d) j( h- z& Y, V3 Hsystem is unaffected by weather, and provides a& {6 M6 ]4 g2 h8 S worldwide common grid reference system. The GPS8 C% D7 i2 F, L2 _7 k" D concept is predicated upon accurate and continuous : }3 U1 a* ^: p: Xknowledge of the spatial position of each satellite in ' E2 N8 p' L( e% gthe system with respect to time and distance from a. t+ ^0 \. t( ?/ c% K transmitting satellite to the user. The GPS receiver ' D% C! }5 h" q+ J+ G3 @1 fautomatically selects appropriate signals from the6 l7 @7 A9 \9 _: V7 a2 T satellites in view and translates these into three‐ 4 Q+ d& I# r; m4 e$ i2 c4 Qdimensional position, velocity, and time. System ! C& g3 }) i0 k' m: _accuracy for civil users is normally 100 meters # I: h. T' l- ^# p: Yhorizontally.. D8 |# i7 `9 e8 N& C A0 B5 H+ ] GO AHEAD- Proceed with your message. Not to be' J# a' x/ z1 n used for any other purpose. ( z3 m* j; [( y2 qGO AROUND- Instructions for a pilot to abandon$ I; Q7 O* G& R. Q2 ] his/her approach to landing. Additional instructions: {. ~) w u |: C: l0 ^9 \ may follow. Unless otherwise advised by ATC, a 9 E2 e1 V! o# `# B* R dVFR aircraft or an aircraft conducting visual - V, d6 E6 ?. A* w: q: R# Xapproach should overfly the runway while climbing Y8 p5 @( H# f2 R5 \& E to traffic pattern altitude and enter the traffic pattern$ P- ?5 H+ q( I; v" i via the crosswind leg. A pilot on an IFR flight plan2 U' c# G9 d; B Pilot/Controller Glossary 2/14/08 % I4 L9 N$ X4 Z& k7 S" ZPCG G-2! E! [% @- ` _4 X making an instrument approach should execute the % x7 S' V2 ^* w3 j, I& spublished missed approach procedure or proceed as ) M) y# Z$ ?$ P4 X% V! u6 Y( ^! Linstructed by ATC; e.g., “Go around” (additional 5 L, U7 ]; ^6 T8 X; binstructions if required). 8 ^2 J6 W( N% n. D; r(See LOW APPROACH.) 2 W' j. U2 V+ P$ T7 l(See MISSED APPROACH.) . Q v6 w1 _* \6 ~( R6 v, {GPD(See GRAPHIC PLAN DISPLAY.)2 m* i9 _4 d, z1 O8 b GPS(See GLOBAL POSITIONING SYSTEM.)* M* n/ d0 V& g3 i2 E* e) H8 y GRAPHIC PLAN DIS PLAY (GPD)- A view 9 C+ ]$ @& t' uavailable with URET that provides a graphic display ; Q) D1 a* V' e* O( Q' dof aircraft, traffic, and notification of predicted 3 H( T, b2 _! M+ w# k. x2 Kconflicts. Graphic routes for Current Plans and Trial6 i! N4 |7 @9 ?0 k Plans are displayed upon controller request. 2 ~* z* a3 N* ?9 g. A(See USER REQUEST EVALUATION TOOL.)3 l- z3 b+ }+ b0 a4 A GROUND-BASED TRANSCEIVER (GBT)- The! |- p' |$ F- Z) @4 y$ r1 q ground-based transmitter/receiver (transceiver) re‐ + j7 E& W2 Y$ l! I& jceives automatic dependent surveillance-broadcast2 R& _7 N L' l7 E( |( u7 x# y& [4 m- A* X messages, which are forwarded to an air traffic$ F; d* X v* c1 n: K9 W control facility for processing and display with other# E( n- p- s& `: X9 Q# e* R* A radar targets on the plan position indicator (radar + S4 f3 J l' R6 w) jdisplay). P7 ~& u- n* a8 o4 h4 ` (See AUTOMATIC DEPENDENT" B5 O: V6 K$ s; H8 C SURVEILLANCE‐BROADCAST.) / N5 i8 H5 [: Z% F+ l2 `GROUND CLUTTER- A pattern produced on the6 v) o6 |) {: j% E, j radar scope by ground returns which may degrade 1 l$ ~* |- e& Wother radar returns in the affected area. The effect of( u0 ]" Y4 n6 H5 c! ]# s# ?7 B ground clutter is minimized by the use of moving $ M, ?/ {0 R. h" K( ~target indicator (MTI) circuits in the radar equipment ; X% f! q- v' Z/ Gresulting in a radar presentation which displays only3 z* r1 Q8 K q7 Z3 o# \2 _ targets which are in motion. ; f" _9 E& v8 ?* E( x(See CLUTTER.)1 [( S: g" v4 W K: [0 \6 e1 c" p6 K GROUND COMMUNICATION OUTLET (GCO)- T$ u) z5 U W1 c$ IAn unstaffed, remotely controlled, ground/ground & E y7 h$ }7 o/ h, H/ acommunications facility. Pilots at uncontrolled. W/ s& b- h S3 `2 L airports may contact ATC and FSS via VHF to a5 T5 F9 k4 d2 u/ ?( m3 U telephone connection to obtain an instrument 4 x0 u; M" A$ y5 S( Wclearance or close a VFR or IFR flight plan. They may % Y: `1 z7 j0 ~4 S- W, ~! c+ I% ralso get an updated weather briefing prior to takeoff.& ]9 x8 A: h* x3 ^0 x Pilots will use four “key clicks” on the VHF radio to " D+ @# o& q R I3 mcontact the appropriate ATC facility or six “key( V! S$ K) N- J# k clicks” to contact the FSS. The GCO system is# }2 T/ [; ~/ X$ | intended to be used only on the ground. 3 v' o- W1 S$ v4 P- tGROUND CONTROLLED APPROACH- A radar L" J6 @& t H* ^4 N approach system operated from the ground by air 9 P" f, R5 C% o1 u0 Y Ltraffic control personnel transmitting instructions to 0 \+ I( v6 F% h8 K- G2 c' }the pilot by radio. The approach may be conducted- c; g% q3 } u) v6 C' P7 h* O with surveillance radar (ASR) only or with both 7 v9 X7 s3 w; O# ?; L* c1 g# hsurveillance and precision approach radar (PAR). 3 P+ {; J2 d! j9 m% ^9 R5 F" T3 TUsage of the term “GCA” by pilots is discouraged B: ~0 z3 w- U" o: D: ]4 [except when referring to a GCA facility. Pilots should / H, j' c* X; A+ g3 nspecifically request a “PAR” approach when a+ ~ s3 f' [/ g# v) p$ _+ K3 `8 J; j precision radar approach is desired or request an7 m: F7 ]! n& B" ] “ASR” or “surveillance” approach when a nonpreci‐ ( `* [1 d2 i2 Q1 t9 F1 T+ l0 [2 t. Ysion radar approach is desired.1 |) S, G- E B+ y$ x (See RADAR APPROACH.) ! K# h! X* ^* |& j4 CGROUND DELAY PROGRAM (GDP)- A traffic8 z! v6 F8 E) X/ B/ L management process administered by the ATCSCC; V K) ?3 ]6 B0 D( h, [ when aircraft are held on the ground. The purpose of" x, f4 J' I% D the program is to support the TM mission and limit ( |5 e" C8 z1 V% C% y0 w# l' [airborne holding. It is a flexible program and may be/ Y# N: I; e4 a& K8 f implemented in various forms depending upon the " E2 }% _- ^! f* ^) r3 R* pneeds of the AT system. Ground delay programs7 Q' ^( d: J$ S k2 ] provide for equitable assignment of delays to all ( D5 Z2 e5 T, k5 I" esystem users.0 y# Z7 H! Q, g' I GROUND SPEED- The speed of an aircraft relative ; i7 q5 o8 R: C) A# y2 qto the surface of the earth. ( v1 k9 F! c0 n F6 Y7 L0 c$ nGROUND STOP (GS)- The GS is a process that2 K0 o K$ V( e) U7 u requires aircraft that meet a specific criteria to remain 0 u3 y; W/ L9 ~8 i' P7 b% L) V1 \on the ground. The criteria may be airport specific," T* h y! O [ airspace specific, or equipment specific; for example, 8 O$ ~$ d7 b2 P" n7 C" L0 Sall departures to San Francisco, or all departures + F- X6 r% P N2 m6 V% Pentering Yorktown sector, or all Category I and II " x! x2 \2 K4 ?2 K. _7 F3 x H4 ^& Caircraft going to Charlotte. GSs normally occur with * x% b3 V* y! g. c6 |: z/ _" Glittle or no warning. " |: {7 d) U0 V* uGROUND VISIBILITY(See VISIBILITY.) % U( F" d, k, e6 wGS(See GROUND STOP.) " R5 o2 @1 m% S& H/ A: P( v, vPilot/Controller Glossary 2/14/08: B% d) Q% m6 ]& N1 `6 p' O PCG H-14 q7 X2 b; [: n3 m0 O H+ M, E! K! O1 o: a, M HAA(See HEIGHT ABOVE AIRPORT.)# s, e: e! m! T8 L; N8 q HAL(See HEIGHT ABOVE LANDING.)8 Y( }8 n, p5 [) m0 k4 F% E HANDOFF- An action taken to transfer the radar 1 _# ?6 j' \9 {+ }# yidentification of an aircraft from one controller to ! w2 z6 T1 m8 t6 g- [7 s( Yanother if the aircraft will enter the receiving ! R& l+ g1 L$ {controller's airspace and radio communications with q" I* O9 s( _8 B) J the aircraft will be transferred.3 V0 z2 c6 k: ^4 | HAR(See HIGH ALTITUDE REDESIGN.) ! |$ G* K, S/ _! X \0 [HAT(See HEIGHT ABOVE TOUCHDOWN.)+ f7 U; R* T% H2 c3 x, M HAVE NUMBERS- Used by pilots to inform ATC. o0 V$ r7 U4 Y2 j that they have received runway, wind, and altimeter9 d( j9 M3 z0 S( C! a6 Y information only. `. r* s% q0 F O! c HAZARDOUS INFLIGHT WEATHER ADVISO‐& b: Q" _- _: \: B% B( y, L0 q RY SERVICE- Continuous recorded hazardous! z$ I' z2 B/ R6 D$ n inflight weather forecasts broadcasted to airborne 5 h6 z# u- W# A( upilots over selected VOR outlets defined as an9 }$ J% P% \- ~ HIWAS BROADCAST AREA.- F2 {4 i* i% l HAZARDOUS WEATHER INFORMATION- 9 Y; l! k3 H& X/ oSummary of significant meteorological information& u6 t1 N1 x- Y" I* n! z1 O (SIGMET/WS), convective significant meteorologi‐ . V) E4 c2 z# y5 s( [4 y( hcal information (convective SIGMET/WST), urgent 8 A& i( R8 ^8 O& y# ypilot weather reports (urgent PIREP/UUA), center 6 p& A3 Z8 ?7 n7 [" @* @$ {weather advisories (CWA), airmen's meteorological t# W2 @6 f2 z1 b information (AIRMET/WA) and any other weather ) o4 J5 x) g1 o' O% M. v9 E& Isuch as isolated thunderstorms that are rapidly4 d/ k. P. h1 k, B1 C developing and increasing in intensity, or low: C, l6 F( r8 u/ ]: w8 K- ~ ceilings and visibilities that are becoming wide‐ 2 b. q ?/ u2 {spread which is considered significant and are not' p' [7 x: {- Y* A included in a current hazardous weather advisory.: U9 o. ~: ?6 u: ?* J$ N' ~; M+ N M3 h2 k HEAVY (AIRCRAFT)-6 i& }8 l: h: Y- o4 m (See AIRCRAFT CLASSES.) f5 e( c# g1 w, w, X9 Q HEIGHT ABOVE AIRPORT- The height of the " F* J K! J. ~; L+ `Minimum Descent Altitude above the published! Q3 b: H2 K6 f! Y6 n airport elevation. This is published in conjunction1 c# s Q4 e" P$ l% v5 [' j with circling minimums.' v1 e: ~4 u/ s2 V4 M0 s: K% M (See MINIMUM DESCENT ALTITUDE.) # t% @8 p1 h5 l/ L% M1 k( lHEIGHT ABOVE LANDING- The height above a ' T4 z7 Y: N1 Bdesignated helicopter landing area used for helicopter2 ?8 U6 @) [3 M. \ instrument approach procedures.* E! `# y' T2 V% `- b! [ Z" K (Refer to 14 CFR Part 97.)9 @- S+ F# ?) |' I: m- {$ n HEIGHT ABOVE TOUCHDOWN- The height of0 C1 P6 Y9 {1 }" H* ? the Decision Height or Minimum Descent Altitude 2 K) r& O( V( h) V: @6 V rabove the highest runway elevation in the touchdown 7 m" f& b( n# V. zzone (first 3,000 feet of the runway). HAT is 1 X1 K$ L' w( D* R8 x! Fpublished on instrument approach charts in conjunc‐ . A/ _! Y* H d8 w b, \1 r& ution with all straight‐in minimums. 2 E0 M' i: _/ x(See DECISION HEIGHT.)% [! i/ G. A) O! Z4 p (See MINIMUM DESCENT ALTITUDE.)9 }! G G* N# @' s6 e HELICOPTER- Rotorcraft that, for its horizontal . F& H [" X+ tmotion, depends principally on its engine‐driven ; _+ ]% U% n! k( w% ]rotors. 2 C! ]& O7 C1 U+ N: `, {(See ICAO term HELICOPTER.)

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HELICOPTER [ICAO]- A heavier‐than‐air aircraft: ^/ L& e- t$ X% i supported in flight chiefly by the reactions of the air % P+ c/ a _9 p$ B, ]) i: {on one or more power‐driven rotors on substantially + |0 r9 z9 P' Cvertical axes.0 L; ]+ [; P) ]4 Q! L HELIPAD- A small, designated area, usually with a# A1 ]. {1 N8 y7 \ prepared surface, on a heliport, airport, landing/take‐ 7 R/ Z7 k2 v% t& ~# ~- Soff area, apron/ramp, or movement area used for% M8 H9 ?5 S, M8 T- Z8 U5 Y, H takeoff, landing, or parking of helicopters. $ D# ]" _% o: Q2 ?- T) bHELIPORT- An area of land, water, or structure used 8 b0 M, X( l+ k2 ?or intended to be used for the landing and takeoff of ; G; q$ e, }/ \, M& L1 S9 [8 D1 Nhelicopters and includes its buildings and facilities if3 m# s* O* O; \- H. o9 T4 Z( \ any. 7 D7 J# s1 }5 f' l7 g" r$ }HELIPORT REFERENCE POINT (HRP)- The % d1 ~- B0 X7 W+ hgeographic center of a heliport.) @5 a2 C! y7 `4 w HERTZ- The standard radio equivalent of frequency! L ~( Z2 z- a' g/ V/ r9 @ in cycles per second of an electromagnetic wave. 9 ?! i6 F3 G [, t5 C! EKilohertz (kHz) is a frequency of one thousand cycles: U* y+ @9 N3 p& w( S4 V per second. Megahertz (MHz) is a frequency of one . G& S* D. A9 `9 umillion cycles per second. % }, b6 S- G7 {HF(See HIGH FREQUENCY.)' e( ]) r& w4 @4 L/ Y$ P4 F" ~8 `9 d% K HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.) ; l$ P& }2 t* V$ N- ?1 hHIGH ALTITUDE REDESIGN (HAR)- A level of - G+ P" O& j$ U$ O2 Onon-restrictive routing (NRR) service for aircraft0 x5 t. Y* x: {5 ?8 J that have all waypoints associated with the HAR) [: m' I0 B5 b( ^$ @0 D* K program in their flight management systems or 9 u1 W1 w' ]3 B" wRNAV equipage., ~3 G; w+ D; e9 l Pilot/Controller Glossary 2/14/08) z, A7 X2 V9 u+ X( b" A: v PCG H-29 t) \% U& E; \/ N# M" i0 M HIGH FREQUENCY- The frequency band between- Y. ~# p( a0 k( ~: U. ^4 c* D: s 3 and 30 MHz.% r! t1 q" v0 f( C (See HIGH FREQUENCY COMMUNICATIONS.)2 p6 B. s2 d( P' e HIGH FREQUENCY COMMUNICATIONS- High % A6 n5 X+ o( m M3 w \radio frequencies (HF) between 3 and 30 MHz used6 o8 t6 o1 t! d1 p( Y8 p for air‐to‐ground voice communication in overseas6 @; R/ l& q8 b0 `2 ` operations.- r& Y$ [3 g* N0 X6 ~) A/ l HIGH SPEED EXIT(See HIGH SPEED TAXIWAY.) 3 {* O8 X( q9 K* s7 L8 z+ \, bHIGH SPEED TAXIWAY- A long radius taxiway 2 B0 Z7 k# I [; C0 p* |/ ]designed and provided with lighting or marking to( e4 O) T" d: V0 U9 i$ g define the path of aircraft, traveling at high speed (up2 B B4 g! |, |7 N to 60 knots), from the runway center to a point on the 5 h& c$ q/ b+ {center of a taxiway. Also referred to as long radius4 Z6 |( B1 K. t% p* Q8 W exit or turn‐off taxiway. The high speed taxiway is/ O3 P1 h% X* n designed to expedite aircraft turning off the runway! W* j: A- d' v3 [ after landing, thus reducing runway occupancy time.1 Y _8 k/ X' e" L HIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.) " M) J) h* g2 I1 d+ S5 O. tHIWAS(See HAZARDOUS INFLIGHT WEATHER : s8 [ g8 f, Z$ G$ BADVISORY SERVICE.)" w' S1 N% m7 D# }; |. V; X HIWAS AREA(See HAZARDOUS INFLIGHT WEATHER) Z7 L2 r+ _" i ADVISORY SERVICE.)8 b2 c0 N$ G& j9 i8 G) E, w HIWAS BROADCAST AREA- A geographical area- ^2 S c) I( a$ {9 @' b, {( v1 V of responsibility including one or more HIWAS& F9 h8 L C! Z1 e0 ~7 n/ X9 R& J outlet areas assigned to an AFSS/FSS for hazardous 9 M* h y' h, @1 qweather advisory broadcasting. * t% ^0 u$ M! {8 S2 [1 d- tHIWAS OUTLET AREA- An area defined as a 150 8 J6 ?+ b( K, V: v" q6 VNM radius of a HIWAS outlet, expanded as necessary$ K0 U2 ?: k" d( Z to provide coverage. 5 M D2 R) {2 M! DHOLD FOR RELEASE- Used by ATC to delay an . h Y. u* P" e% E+ q- i$ z. saircraft for traffic management reasons; i.e., weather, ! |# S8 l# d; S/ Mtraffic volume, etc. Hold for release instructions+ _& G3 L n7 W (including departure delay information) are used to 5 n4 }4 U" p& H" winform a pilot or a controller (either directly or & k" Q ^! P2 Pthrough an authorized relay) that an IFR departure : p( ^% v$ b6 B4 `clearance is not valid until a release time or additional L7 Z |# y# l! @0 d0 ^4 Kinstructions have been received.* f0 C6 ~& t) K+ \" Z (See ICAO term HOLDING POINT.) R+ O* Q0 f& A- A# y* OHOLD IN LIEU OF PROCEDURE TURN- A hold + ^' S0 m5 r% S0 b3 P" Z% {. Z. h$ Pin lieu of procedure turn shall be established over a & K' F1 `/ q+ V" G3 q* v) |final or intermediate fix when an approach can be 2 a3 j' w, g. X6 xmade from a properly aligned holding pattern. The & p/ B0 Q# g, b) u) a7 F. _- {hold in lieu of procedure turn permits the pilot to. u8 l( b( h5 P* r6 v: |7 }* S7 n align with the final or intermediate segment of the , m6 m% q* C6 o |/ i( o9 C* d( Mapproach and/or descend in the holding pattern to an6 K6 t& ~# L {! w6 ^( B2 q6 t altitude that will permit a normal descent to the final7 H5 W0 o7 U, y# G% b4 Z8 w approach fix altitude. The hold in lieu of procedure/ O4 O) A0 ?3 p turn is a required maneuver (the same as a procedure 6 u" s$ g. p9 [+ x) T% i7 hturn) unless the aircraft is being radar vectored to the/ c# q5 r. X( h2 S" K* N1 K final approach course, when “NoPT” is shown on the ; ?1 i5 M i! ^( S0 X8 x' [approach chart, or when the pilot requests or the( `9 X1 Z8 j/ z6 s% \$ X9 X4 q! v controller advises the pilot to make a “straight-in” 7 L6 }0 J* ]& \' v! n+ W; lapproach. g7 K; ]0 e. o' J3 q6 uHOLD PROCEDURE- A predetermined maneuver# Y- J- `& c. d9 u, |( H' X which keeps aircraft within a specified airspace while# K- M; J) s3 [" K5 w7 T awaiting further clearance from air traffic control.3 [6 t" G5 L3 ?/ R w3 @1 ^ Also used during ground operations to keep aircraft% Q O, ^" V4 ?2 [ within a specified area or at a specified point while3 o8 o6 L1 E! x5 `0 n! f awaiting further clearance from air traffic control. 4 ~$ ^, i2 B, L [8 _0 L(See HOLDING FIX.)- J$ u/ w" x7 k8 v6 d3 O (Refer to AIM.) $ a! a% z8 ?! i" k+ aHOLDING FIX- A specified fix identifiable to a7 o3 D/ Y- E1 ]8 [ ] pilot by NAVAIDs or visual reference to the ground + k& X6 T; J( m: iused as a reference point in establishing and. I0 o% f; z" Q5 F# x, C* r maintaining the position of an aircraft while holding. & O2 P3 r6 B% n2 r- q" c(See FIX.) 3 w$ N- k: B! L a(See VISUAL HOLDING.)* D2 W- F9 i! } (Refer to AIM.) 7 w7 U/ g. b( Q& GHOLDING POINT [ICAO]- A specified location, " U8 C- p% [( `identified by visual or other means, in the vicinity of7 G6 h9 B, x0 j+ w4 } which the position of an aircraft in flight is 8 k8 k5 t8 M/ R6 `+ t6 Hmaintained in accordance with air traffic control 6 o+ }, S0 l4 ?clearances.* {. x6 M! g7 i0 j" @# m: Z) d5 L HOLDING PROCEDURE(See HOLD PROCEDURE.)) Z. {" V0 z0 ?; ]( f6 Y$ U9 }* o HOLD‐SHORT POINT- A point on the runway * P- d* l% {3 nbeyond which a landing aircraft with a LAHSO. ^: X( | X5 Q/ {+ \! d, W clearance is not authorized to proceed. This point/ `% a0 X5 x: m! R6 |3 t may be located prior to an intersecting runway,, W! s/ T+ h: y/ z taxiway, predetermined point, or approach/departure2 L, X4 y. r, q) ^# [, [1 ^1 l flight path./ Q' D& V0 g& T0 K" L1 R HOLD‐SHORT POSITION LIGHTS- Flashing v" [/ {3 n6 f6 |% u, iin‐pavement white lights located at specified # k4 q* I0 l- m0 v, xhold‐short points. a8 D" r4 Q2 qHOLD‐SHORT POSITION MARKING- The V, ~/ }/ ?( t) u$ q5 r! X' e; }painted runway marking located at the hold‐short2 D( n9 e F/ @3 A# |# B% q point on all LAHSO runways. 3 e! N9 H: M" S: eHOLD‐SHORT POSITION SIGNS- Red and white # Q. z* I, P7 ]( g# i$ Aholding position signs located alongside the& {1 t$ s4 P, @+ J hold‐short point.6 j: Z" ]6 M9 l$ o Pilot/Controller Glossary 2/14/08+ a2 o0 X3 z) g% D3 p PCG H-3 9 B. w! a0 q+ YHOMING- Flight toward a NAVAID, without5 {1 J% y8 R- m5 X correcting for wind, by adjusting the aircraft heading - x9 V" t! G o7 }; ]to maintain a relative bearing of zero degrees.+ l* m7 X+ N- R' N: _ (See BEARING.) ! G7 }$ Z( b2 a3 m(See ICAO term HOMING.) ( T; M7 \/ m% g1 tHOMING [ICAO]- The procedure of using the6 B5 P1 d; i; b direction‐finding equipment of one radio station with$ c* i) g) R) S ]- Q! M the emission of another radio station, where at least; A0 {8 D: S F5 _9 X one of the stations is mobile, and whereby the mobile $ N2 Z: c& P& Fstation proceeds continuously towards the other8 R2 `; ?0 L2 T4 c" d: N( T station. $ t: s" {- S% \( `6 MHOVER CHECK- Used to describe when a( A; M' n) _& K1 W5 U1 l+ z1 N helicopter/VTOL aircraft requires a stabilized hover * r' Q+ @7 h4 Gto conduct a performance/power check prior to hover # m( J1 _% v5 F: ^" p% H, j3 utaxi, air taxi, or takeoff. Altitude of the hover will- W1 ?, c* h- H2 Y2 y vary based on the purpose of the check. 7 P* v$ p# i: KHOVER TAXI- Used to describe a helicopter/VTOL * j0 o3 b& p/ X0 Y6 E5 A1 gaircraft movement conducted above the surface and; V5 n9 H- n8 z! \0 z, b% x5 S in ground effect at airspeeds less than approximately 9 N) T& N9 {' o4 z5 g20 knots. The actual height may vary, and some9 ?. ]* ]0 d) ~, A5 }" E helicopters may require hover taxi above 25 feet AGL9 Q/ d# c: E; c6 J to reduce ground effect turbulence or provide+ F; W- X6 K6 S clearance for cargo slingloads.( l, s$ E- ]; R) P( d (See AIR TAXI.) . z4 A/ I; `+ v: ?2 J9 p(See HOVER CHECK.)( W: t. x% d* V5 x) K' V (Refer to AIM.)2 [/ Q, x- I: m HOW DO YOU HEAR ME?- A question relating to; X+ r* G% \ _ the quality of the transmission or to determine how- R- J$ A6 C: p) w well the transmission is being received. 7 ?0 u5 ?5 J4 D% |! t7 [: S( [& CHZ(See HERTZ.) / |) B6 a5 F1 lPilot/Controller Glossary 2/14/08 0 y3 [/ Z; L; { `6 z/ v0 gPCG I-1% b. L: X4 O) F! ~0 ~ I 6 l/ ?, d0 p b/ \) D2 aI SAY AGAIN- The message will be repeated. 2 b4 m% Z. H, u3 c9 y" bIAF(See INITIAL APPROACH FIX.)- a" S, D, ?7 A- U* ? IAP(See INSTRUMENT APPROACH ' J5 T% b6 m, z& ~. }8 ]7 RPROCEDURE.)% p7 ~/ K M! e% {4 p: K( y7 \ IAWP- Initial Approach Waypoint% A4 f3 w, P- F2 h+ h9 k% A ICAO(See ICAO Term INTERNATIONAL CIVIL / `3 Z; c( v" [+ E7 G# n% K" iAVIATION ORGANIZATION.) , d# M( M. q( l& t% YICING- The accumulation of airframe ice. , ?9 l( B* C( \ qTypes of icing are:. W, M7 U# i5 N% e* a+ } a. Rime Ice- Rough, milky, opaque ice formed by 2 V }" z9 {4 }8 t7 V8 K. K) ?9 Kthe instantaneous freezing of small supercooled 6 V, G9 ^% T/ B) Bwater droplets.6 _/ i& F+ w0 Y3 W b. Clear Ice- A glossy, clear, or translucent ice: T# F0 z8 X9 M8 v1 ^3 O formed by the relatively slow freezing or large: h2 a+ E y6 s$ R" Q/ N supercooled water droplets. 5 T$ g. G# n: f6 B% Ic. Mixed- A mixture of clear ice and rime ice.6 `9 S8 x# Q/ P2 d Intensity of icing: / Z* C' C" ~' m: W/ C+ j& Y) o/ ya. Trace- Ice becomes perceptible. Rate of 2 l/ h/ C0 g2 [/ eaccumulation is slightly greater than the rate of7 ^2 |& A6 s2 P) C8 a8 P1 b) \& O sublimation. Deicing/anti‐icing equipment is not - I% M6 E- U x2 h! f) cutilized unless encountered for an extended period of ! o/ e* V4 K' Q! k! [% Rtime (over 1 hour). - T% ?; H; S0 fb. Light- The rate of accumulation may create a; V% J6 E+ s3 z, h; e& j problem if flight is prolonged in this environment+ v! Y1 S0 A% O3 f& V (over 1 hour). Occasional use of deicing/anti‐icing ^8 H1 g/ ?. n. L [ equipment removes/prevents accumulation. It does . r( e0 C1 O) t# Q5 }+ i+ H6 qnot present a problem if the deicing/anti‐icing 6 V6 g$ w; F8 y3 Nequipment is used.: r/ U4 a; D9 L3 v c. Moderate- The rate of accumulation is such that : x- _2 e4 c5 V _+ Aeven short encounters become potentially hazardous9 [/ K3 K7 g7 z4 ]" K0 ?3 O and use of deicing/anti‐icing equipment or flight. w' _: m9 A# G. c* y; u diversion is necessary. # n6 P/ N# g( x: Q! T0 U# ^$ Wd. Severe- The rate of accumulation is such that # d1 {2 @" a- u& Adeicing/anti‐icing equipment fails to reduce or1 q3 f! t7 X/ I. n control the hazard. Immediate flight diversion is " p) O, B9 G T# D/ nnecessary.2 H, k, l1 Z4 f0 X9 L5 Z6 |( f IDENT- A request for a pilot to activate the aircraft9 v* C6 d8 o( G1 l transponder identification feature. This will help the 8 ]4 z$ z9 P3 }. mcontroller to confirm an aircraft identity or to identify9 y; C3 i( L, ]% R% j$ R an aircraft. 6 ]# _, W5 o# i(Refer to AIM.) : \8 I2 H' D; ^$ L: q$ U+ dIDENT FEATURE- The special feature in the Air0 ?0 _0 e; W! ^ Traffic Control Radar Beacon System (ATCRBS)0 ^1 r( L4 H, }( f/ G- { equipment. It is used to immediately distinguish one! M& l8 Q7 m& B6 G; p: K& k displayed beacon target from other beacon targets.+ H8 x" N! a* h" a: r, q (See IDENT.) . ]; _2 w9 S1 U. F+ GIF(See INTERMEDIATE FIX.) ! v# B( W1 a) p |) a5 UIFIM(See INTERNATIONAL FLIGHT INFORMATION 3 r& Z6 C5 L+ W( r- ?0 Q, G4 Z9 CMANUAL.) j# t6 B# F( U5 _3 _IF NO TRANSMISSION RECEIVED FOR $ B' F8 l8 f y/ c0 s* E(TIME)- Used by ATC in radar approaches to prefix 2 [" ^' }* s9 P7 x2 tprocedures which should be followed by the pilot in ! l/ S$ y& t# Z, @; {- ~event of lost communications.' A- Z; f' C+ U& R! e (See LOST COMMUNICATIONS.) ' b4 ?+ {; [9 Y' E. iIFR(See INSTRUMENT FLIGHT RULES.) : o: b3 }9 q5 RIFR AIRCRAFT- An aircraft conducting flight in @* ?8 x1 f- p& ]4 y5 uaccordance with instrument flight rules." V- E6 p |& `' E, q# ?6 j IFR CONDITIONS- Weather conditions below the ( X3 X/ n# A6 `$ d- r& Y: Lminimum for flight under visual flight rules. 6 x! i. b; F6 i$ _(See INSTRUMENT METEOROLOGICAL2 A9 ~4 q* c& n& m! c CONDITIONS.)+ e9 e) ~1 ]- M. h( u IFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND X" `: m" I. ? I' {9 f5 r DEPARTURE PROCEDURES.) : Y, [+ n, q9 d" K. |(Refer to AIM.) 8 a: G4 v# \: g5 d* c$ |IFR FLIGHT(See IFR AIRCRAFT.); k) Q9 I" a4 @) [ IFR LANDING MINIMUMS(See LANDING MINIMUMS.) / ^, @& ]9 c6 v4 L" i+ a2 @IFR MILITARY TRAINING ROUTES (IR)- Routes ( k. f @7 |2 i0 X% S8 @used by the Department of Defense and associated5 }- h4 Z/ n2 ~5 n. K. O% C Reserve and Air Guard units for the purpose of 9 ]9 P- f. O" }2 y+ Nconducting low‐altitude navigation and tactical& o- `0 Q8 C4 p6 z training in both IFR and VFR weather conditions 7 W% {2 K) a. d/ b, S: Xbelow 10,000 feet MSL at airspeeds in excess of 250, ?* B& D8 q& Q knots IAS.1 M1 m; u1 i" a# d5 D* K' c7 l IFR TAKEOFF MINIMUMS AND DEPARTURE( W6 `- }( L9 X8 |0 D PROCEDURES- Title 14 Code of Federal! l4 h/ s9 Q. S3 V, V1 U% o Pilot/Controller Glossary 2/14/08 , V0 y1 m; c W# k, w* K6 {8 b3 dPCG I-2

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Regulations Part 91, prescribes standard takeoff rules/ a* U @. U* a% I/ [ for certain civil users. At some airports, obstructions 2 L3 [- l* W' d `6 v! D* Cor other factors require the establishm ent of * p0 I9 @$ Y6 P4 d+ hnonstandard takeoff minimums, departure proce‐ 0 ^/ R- { m! }, T7 Y/ V. H* ?dures, or both to assist pilots in avoiding obstacles9 D, C7 I5 V9 ~! l3 i during climb to the minimum en route altitude. Those' j2 i2 F$ g6 h) a5 G% J) o; M: b' b airports are listed in FAA/DOD Instrument Approach ) Z. t8 F9 ^8 DProcedures (IAPs) Charts under a section entitled3 p+ [& w" W" T' p “IFR Takeoff Minimums and Departure Procedures.” . a4 F& D# J$ E/ h) O' CThe FAA/DOD IAP chart legend illustrates the6 @3 P0 m, I; Q; U. W# o symbol used to alert the pilot to nonstandard takeoff % I" S6 q" @# jminimums and departure procedures. When depart‐ 5 u4 w) Q9 b% ~6 z1 A7 ling IFR from such airports or from any airports where; V# q- }+ a" C o5 X8 b there are no departure procedures, DPs, or ATC9 H& p0 T: y+ N" C, b. c( K facilities available, pilots should advise ATC of any - t' s6 I& _9 c' ~* K3 w2 edeparture limitations. Controllers may query a pilot5 H" \7 p, `% r to determine acceptable departure directions, turns, " n4 ^4 V( `9 S N* D8 f5 k, A' \or headings after takeoff. Pilots should be familiar ; z5 D/ B: ~, H4 L5 Bwith the departure procedures and must assure that ) q$ \( w& W: d( y4 L; F! h8 E' Ptheir aircraft can meet or exceed any specified climb , L% p) I& b: {9 ngradients. 7 D0 I: l7 |- _9 F' h/ lIF/IAWP- Intermediate Fix/Initial Approach Way‐ " a$ E0 L, u1 O1 `- {4 Y4 epoint. The waypoint where the final approach course# I# A7 a4 L$ g: x. n+ j of a T approach meets the crossbar of the T. When 5 W) v5 E( \ ]/ b; Edesignated (in conjunction with a TAA) this ) f" B# `/ q1 q3 s) O2 Uwaypoint will be used as an IAWP when approaching 4 c2 S! Y9 x' p* u0 ~2 Hthe airport from certain directions, and as an IFWP# V, t) v3 g1 b! L! H R3 T9 | when beginning the approach from another IAWP.) `( g0 y+ k( `! s: u/ s G# B8 u IFWP- Intermediate Fix Waypoint & Q3 _ i! ~ }( f! JILS(See INSTRUMENT LANDING SYSTEM.) + m* B2 T+ C2 p; n: M, r: DILS CATEGORIES- 1. ILS Category I. An ILS " D# i. D+ {. y- ]8 R- eapproach procedure which provides for approach to; ]+ }; _8 C; o' n a height above touchdown of not less than 200 feet0 ~$ L3 `/ P) P; G and with runway visual range of not less than 1,800* v6 {# e5 J6 u. ~) o+ i% C feet.- 2. ILS Category II. An ILS approach procedure * f. H% l' a( H# bwhich provides for approach to a height above) H( U* K4 h' {0 M touchdown of not less than 100 feet and with runway* H* a- o/ \3 t- F$ ]7 f$ Q visual range of not less than 1,200 feet.- 3. ILS$ X, Q1 o: W- Y1 |; f9 y Category III: / o% l. ?' e5 t5 |8 @a. IIIA.-An ILS approach procedure which) S! l- z8 }* `9 ~$ ?# B) K+ `2 ~ provides for approach without a decision height! O7 C0 X* m: k minimum and with runway visual range of not less& o) g0 E& l* l0 i+ x than 700 feet. G: y" \: y% i$ y% Cb. IIIB.-An ILS approach procedure which7 _, g; J) L0 t1 f! v6 p provides for approach without a decision height- r3 S, \7 N- m$ \8 O- [ minimum and with runway visual range of not less , r" V7 g; p4 }( k1 o9 Ythan 150 feet." A$ @+ U/ |, u/ `' g( e c. IIIC.-An ILS approach procedure which* c) X7 \1 y8 r! `: P. _1 K provides for approach without a decision height7 D: \" D( o0 z minimum and without runway visual range ; n- t/ n& J v fminimum. ; s3 i" Z0 K/ a% @" G/ ~ILS PRM APPROACH- An instrument landing L/ h; [, v. `5 m, L' s) rsystem (ILS) approach conducted to parallel runways F, u0 F% S N5 Fwhose extended centerlines are separated by less than % {. v% \+ k0 d2 T6 }4,300 feet and the parallel runways have a Precision+ A' k6 h( V1 |5 }. i# F& J- h+ k Runway Monitoring (PRM) system that permits; n- y. S! k& |, t simultaneous independent ILS approaches.3 v' Y- D1 C- u6 m4 X IM(See INNER MARKER.): ]3 a. e( T8 ~1 C IMC(See INSTRUMENT METEOROLOGICAL $ a3 M4 @; N4 \) K8 {CONDITIONS.)& F$ I, a6 n2 z7 G4 ~# V IMMEDIATELY- Used by ATC or pilots when such9 r6 `9 C" B ~) E' O$ Q# X. q0 o action compliance is required to avoid an imminent5 B% y9 U7 w" T) d0 h i situation.; ]2 i" o; ]- l' d INCERFA (Uncertainty Phase) [ICAO]- A situation / m5 w7 w# z+ k2 |wherein uncertainty exists as to the safety of an 2 Y# \( v) h$ g+ D8 t* Saircraft and its occupants. 5 }* ~: T) n# x7 O! m0 PINCREASE SPEED TO (SPEED)- 3 N6 R1 j* `& q, d8 X7 D: b" f(See SPEED ADJUSTMENT.)4 i2 G3 x+ J, k0 g3 D INERTIAL NAVIGATION SYSTEM- An RNAV+ Y& w$ r7 A$ f# G1 [* e7 R system which is a form of self‐contained navigation. 8 R) B+ _9 e" ^% |(See Area Navigation/RNAV.)- f1 c0 }! c( J& M% C6 E INFLIGHT REFUELING(See AERIAL REFUELING.)9 X& `1 t U6 d+ z( l! a) q! h INFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.) ' l/ s4 n. Q0 \; M+ NINFORMATION REQUEST- A request originated! K# s+ y2 _& q( i+ n" y# U9 k* B by an FSS for information concerning an overdue " H5 X# @- r3 G# u( XVFR aircraft.9 a( z, p6 s" L @5 [' o, ~+ I6 O' Q INITIAL APPROACH FIX- The fixes depicted on* p, X' @/ D1 y/ h. Q/ T& V instrument approach procedure charts that identify ( h2 n2 q7 j/ c. gthe beginning of the initial approach segment(s). . b" D j: A( [: W6 \5 P! a2 S: h. o(See FIX.) # G. c0 t: M2 w- ^: w(See SEGMENTS OF AN INSTRUMENT4 W; e1 U' E; O! w* ?6 e APPROACH PROCEDURE.)/ z3 I) H3 Y- b+ w; I, G' W# a' i- ~ INITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT & g6 W/ [- [2 T: w; T7 ]* FAPPROACH PROCEDURE.) a" p/ I( M0 @- O+ o6 }6 H INITIAL APPROACH SEGMENT [ICAO]- That $ k% ?( \ K0 ^segment of an instrument approach procedure 7 d& V6 o. Y0 N) G0 W, i# s* lbetween the initial approach fix and the intermediate 7 z E: d' {. X) ]+ X, l# Fapproach fix or, where applicable, the final approach $ [2 y/ j" k" S9 X' U& kfix or point. 3 j0 A( p8 T0 Q ]5 B# n4 sPilot/Controller Glossary 2/14/08# \; @% J' S, W PCG I-3 @/ q4 X+ O, T3 Z" q6 R+ l E1 K INLAND NAVIGATION FACILITY- A navigation / W p) q2 p* o R: W0 ]% A' }aid on a North American Route at which the common' n" v' B/ z0 r" f$ T+ T route and/or the noncommon route begins or ends.- a; m7 @) j4 q5 [% E1 I6 M! g INNER MARKER- A marker beacon used with an( q6 ^; }4 O* R+ R ILS (CAT II) precision approach located between the8 G$ z2 ]0 w6 y+ t V middle marker and the end of the ILS runway,1 k% o; K& k7 A* x( ] transmitting a radiation pattern keyed at six dots per* V- b% h' ^8 R; Y P/ u second and indicating to the pilot, both aurally and" j% ^0 V- c+ h visually, that he/she is at the designated decision/ V/ t& S& ?* B2 d7 X height (DH), normally 100 feet above the touchdown! C$ Q! K& W( a+ g; F$ _1 K6 M zone elevation, on the ILS CAT II approach. It also 7 i% ^. O! ]0 O: j( T# z( jmarks progress during a CAT III approach./ m0 V. g# p/ W% R( z: a (See INSTRUMENT LANDING SYSTEM.) Z# |5 e; A+ R$ D' b' A- Q4 s(Refer to AIM.) / J$ n% H2 ]% {$ a- r+ ^2 s9 @6 fINNER MARKER BEACON(See INNER MARKER.) " Z* {( D' [: H* N4 {INREQ(See INFORMATION REQUEST.) + k( p! Z4 j* z' N& BINS(See INERTIAL NAVIGATION SYSTEM.) ; K1 u4 B9 D3 m. @# R: iINSTRUMENT APPROACH(See INSTRUMENT APPROACH3 \ M- `* Z, L4 w3 \# C PROCEDURE.); f9 l: @/ X+ k4 ~. Y INSTRUMENT APPROACH PROCEDURE- A$ S" ]* x- F0 y! e/ s( k series of predetermined maneuvers for the orderly+ Q8 d3 J- q3 f- U0 ? transfer of an aircraft under instrument flight% R$ x( v5 u/ M {6 T$ r' ` k2 ~ conditions from the beginning of the initial approach % V+ d5 f; }: lto a landing or to a point from which a landing may 8 H5 E7 @; o- t) R/ ^* Rbe made visually. It is prescribed and approved for a 9 K6 I( y2 Y! b. ?+ mspecific airport by competent authority. + Y& ?% d; h) |5 S- Y; U. S(See SEGMENTS OF AN INSTRUMENT1 [# j) P. ~) v: x( C# { APPROACH PROCEDURE.)6 e: d. z/ N8 e- h6 s (Refer to 14 CFR Part 91.)# `& X+ l7 r5 O7 Y) y% _; r. l (Refer to AIM.) $ a f) V( l# l) N! g- J1 ja. U.S. civil standard instrument approach 0 W! Y2 P2 X8 `4 b& f) {" K; w+ dprocedures are approved by the FAA as prescribed* m9 X7 E2 N( n- ?( J under 14 CFR Part 97 and are available for public l2 o9 ~( Q( f% K, t& @use.% B2 u) Z2 h% i& H ]2 |( ^& a b. U.S. military standard instrument approach ) R, Q, U! N/ F1 k- `* g7 |7 M3 wprocedures are approved and published by the / p& C5 r, n3 C3 lDepartment of Defense.. o/ A; x9 P& K0 }2 K5 } c. Special instrument approach procedures are 3 x) W4 p# W# ?. b) S( A* d8 D/ B gapproved by the FAA for individual operators but are7 A1 z9 b1 z; `5 L not published in 14 CFR Part 97 for public use. ! i) [) I& A. L- H- b2 J2 ~+ C(See ICAO term INSTRUMENT APPROACH4 N- S& F4 U+ G, t- g7 ~* M PROCEDURE.) : P7 u, j% C! HINSTRUMENT APPROACH PROCEDURE 7 l) B; \ T% N- Y[ICAO]- A series of predetermined maneuvers by : x: T! c: T9 S0 y7 h7 hreference to flight instruments with specified) ?* P4 ~* e+ E protection from obstacles from the initial approach0 B& Q/ d; \' l/ I3 T+ p fix, or where applicable, from the beginning of a 2 x1 w/ s- ]" A$ Q+ N# J6 qdefined arrival route to a point from which a landing 6 `( m) \ m. y3 K1 O. Dcan be completed and thereafter, if a landing is not; E5 K8 t3 g Y completed, to a position at which holding or en route9 P' Z% P. S3 w* [5 o! Z obstacle clearance criteria apply.6 h& M. W; A0 Z) c3 C INSTRUMENT APPROACH PROCEDURES 1 h( ~# S( ?( x+ HCHARTS(See AERONAUTICAL CHART.) 9 M; A/ M. r( y6 s9 f! }( m$ [INSTRUMENT DEPARTURE PROCEDURE1 E0 O% y5 P3 g! |* d2 [' |% e (DP)- A preplanned instrument flight rule (IFR)) n1 a' Q; D- r1 t$ E3 e departure procedure published for pilot use, in' m9 s& h5 C2 {) m- b& c) k graphic or textual format, that provides obstruction1 z: R' ]9 [# ^! k2 g# l. _1 M2 } clearance from the terminal area to the appropriate en . e0 e/ {9 Q. s ~) U5 croute structure. There are two types of DP, Obstacle1 g6 A K0 {+ B: g7 V# ^ Departure Procedure (ODP), printed either textually5 x. b" B" s3 `8 i- e. z or graphically, and, Standard Instrument Departure5 `# X' b; y8 g3 h3 e (SID), which is always printed graphically. / [ ^: @" f6 [# Q' H9 X3 `(See IFR TAKEOFF MINIMUMS AND" B" f; v4 F+ |3 q: N DEPARTURE PROCEDURES.) F! p& A7 }1 x( y3 o V! b(See OBSTACLE DEPARTURE PROCEDURES.) 2 o/ c( Q% Q9 s. i) Z1 c(See STANDARD INSTRUMENT DEPARTURES.)% j. L7 y0 A/ i) R (Refer to AIM.)7 ^0 _* j4 N5 m9 _ INSTRUMENT DEPARTURE PROCEDURE (DP) ' r! I) z% K8 T$ F+ `) nCHARTS(See AERONAUTICAL CHART.) 4 o# o G" B2 p' i3 r2 g7 ^3 V x0 L! }. gINSTRUMENT FLIGHT RULES- Rules governing ' H& A$ \- {8 i4 {0 Z$ Athe procedures for conducting instrument flight. Also. K6 F; o6 k9 |& S% r a term used by pilots and controllers to indicate type % n9 Z9 o' _: O2 l# N3 y" L- Oof flight plan. % Q, `: y; U1 w(See INSTRUMENT METEOROLOGICAL 7 D# d* i) P8 i" z* k* o% [. {; nCONDITIONS.)0 F% L) N, d$ A3 W1 w (See VISUAL FLIGHT RULES.)" `: h; J/ I: _% o (See VISUAL METEOROLOGICAL $ G7 f r# S$ a- y$ ECONDITIONS.) $ v% R0 z( {2 T+ X3 U7 F( b(See ICAO term INSTRUMENT FLIGHT : q) W8 w0 F L0 E$ L/ }$ O' ZRULES.) . e# w. o. \! G6 H0 s(Refer to AIM.) 0 j' q* V6 s2 y2 pINSTRUMENT FLIGHT RULES [ICAO]- A set of8 j- ^" R9 p; |* @ rules governing the conduct of flight under 1 I- b3 a2 G m# ]0 [" @- I; }- y2 Ninstrument meteorological conditions.6 G# _0 F3 f! ^" ]$ c7 ^ INSTRUMENT LANDING SYSTEM- A precision 9 [" ]- h( \1 ?instrument approach system which normally consists2 R* R0 _1 r. b9 S& D4 S6 W) ] of the following electronic components and visual1 q6 _$ F. D9 r' d t$ E aids: 0 ~- `& f3 C. | e$ u0 e k$ L! uPilot/Controller Glossary 2/14/083 I( P" c3 I, t1 h) P* z PCG I-47 o2 |& D9 z4 D/ B* G8 s+ ^' Q. ` a. Localizer.) l0 j, E. l% h2 L, Z/ b. c$ o (See LOCALIZER.)4 V7 V0 G( s5 Z b. Glideslope. 4 T% i' `) T" P/ r(See GLIDESLOPE.) 1 `/ ]4 j9 H- N) F) k1 }$ Dc. Outer Marker. . \+ T# j9 l# S3 D$ y8 |6 P1 J" ?(See OUTER MARKER.)4 f4 A0 |4 n6 j0 x2 k# P' O d. Middle Marker.% R$ @% z, }! }2 P (See MIDDLE MARKER.)5 a8 m0 R$ f! m6 w$ n3 a4 } e. Approach Lights.4 p+ S. ~ t; `' F5 ` (See AIRPORT LIGHTING.) % A& Y2 Y8 V" Z0 e(Refer to 14 CFR Part 91.) ! ]4 b2 n. }1 K0 m% B+ Q5 [(Refer to AIM.) + V0 s; F5 M! ~! }INSTRUMENT METEOROLOGICAL CONDI‐ 4 d% R, a+ j/ e& ]) h8 MTIONS- Meteorological conditions expressed in 2 P- g4 E/ a* Y) ~terms of visibility, distance from cloud, and ceiling ) R% s: i( q: rless than the minima specified for visual meteorolog‐ , U2 _( N$ T7 W9 {9 i; d$ t- ?ical conditions.6 u" C0 V1 X" |3 O: l% A$ P8 l3 Y5 R (See INSTRUMENT FLIGHT RULES.) # G/ w) r2 h5 Q, ]0 f(See VISUAL FLIGHT RULES.)/ ]) i0 B6 D9 I, v, Z (See VISUAL METEOROLOGICAL. g" [3 u0 p. C) B* | CONDITIONS.) 3 N6 [# o; U& i, V! X N& E4 C7 eINSTRUMENT RUNWAY- A runway equipped : P! C( C7 u3 @+ D/ I* Uwith electronic and visual navigation aids for which6 R8 a" E6 r9 m4 t- j( t a precision or nonprecision approach procedure 0 R/ K$ f% f; t) Dhaving straight‐in landing minimums has been 4 R* U& X5 u( N4 N, tapproved./ ]4 ^0 [7 x+ h' R- b% O% l, P* q5 C (See ICAO term INSTRUMENT RUNWAY.) / V# ?. _, L5 Y- L6 @$ j2 YINSTRUMENT RUNWAY [ICAO]- One of the, q, r( H1 c/ c2 w& c following types of runways intended for the# |2 b3 f3 `* t$ ?, P operation of aircraft using instrument approach1 ~$ R5 s# d3 \+ m procedures: " j+ u/ o1 K6 s. \a. Nonprecision Approach Runway-An instru‐ 6 E* [0 l/ y8 |5 v7 G! u! Iment runway served by visual aids and a nonvisual 9 f% E1 m! e oaid providing at least directional guidance adequate% M& M9 ?+ v8 N R for a straight‐in approach. / A4 ^0 }% e h, Q5 D3 w+ Mb. recision Approach Runway, Category I-An , g# ~) P$ F* c4 _6 V7 z# [instrument runway served by ILS and visual aids, G6 B& ~- ?6 v intended for operations down to 60 m (200 feet)+ J- ]( a$ I/ L' j2 b decision height and down to an RVR of the order of- _# H, d4 R0 o! `4 K: o2 r 800 m. 2 f0 S# B; U' ~* V% j$ qc. recision Approach Runway, Category II-An* [/ x0 `1 p, h7 m7 n, w instrument runway served by ILS and visual aids ! |7 N' k) j. n9 H* Xintended for operations down to 30 m (100 feet) $ J8 n* J( O& i Ldecision height and down to an RVR of the order of ! l: R1 C2 l) x, q9 w) h1 a3 i& j0 S400 m.( Z* Y3 a! v& J0 U8 E4 [6 ~* N d. recision Approach Runway, Category III-An' D2 O0 i/ e7 [$ J: a) u instrument runway served by ILS to and along the6 \5 e3 W) ~$ V' a+ k P( c O5 C. a surface of the runway and: 9 z+ R7 X( O) H1 F/ ~% S. \. @1. Intended for operations down to an RVR of) e# k3 ? T N# W the order of 200 m (no decision height being 5 d& ]2 O c' ^ |# n; Japplicable) using visual aids during the final phase of ; n& D' m/ g0 A3 k& X! ^ H% qlanding; , Y1 ^) F/ h4 e2 f3 I: N2 e4 x2. Intended for operations down to an RVR of! X5 t3 X. x4 J( l2 t the order of 50 m (no decision height being* Y& N$ V% s2 `% W) c3 t; `. r. h applicable) using visual aids for taxiing; % ~3 S6 D& \7 W9 \* D1 H3. Intended for operations without reliance on$ R+ m* j$ P: @ visual reference for landing or taxiing.: B. {( J% B& V% X: h( {5 J5 | Note 1:See Annex 10 Volume I, Part I, Chapter 3,2 q+ Y- I* [' s7 {" H5 h6 m for related ILS specifications.2 G6 M/ M8 s9 ?, U) e3 a6 k Note 2:Visual aids need not necessarily be' O Q Z( d) V+ q- [% e3 G matched to the scale of nonvisual aids provided. + l) R) T& a- E! ?" N9 }$ @; l* iThe criterion for the selection of visual aids is the" [1 |& U6 B5 G# p conditions in which operations are intended to be ; A+ e9 P* Z! C' Tconducted.% I& v4 L8 J7 n% S* h- r/ M INTEGRITY- The ability of a system to provide: z- K9 }( W4 F% E2 g timely warnings to users when the system should not , J) ~1 @& O. |1 G& v( f6 Q6 ~+ Kbe used for navigation. " t1 _$ u# G) M0 m2 wINTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT 0 \" B/ m6 a' ~APPROACH PROCEDURE.)& k$ A; c8 L" m' W4 q0 y$ \1 P) X INTERMEDIATE APPROACH SEGMENT; A$ d ^& Q2 z0 f [ICAO]- That segment of an instrument approach0 u! y' @2 s+ j- G5 ~7 r procedure between either the intermediate approach / A" V/ e6 D( I4 Wfix and the final approach fix or point, or between the+ W3 n* f- x4 C, q$ {4 V# j. \- j5 Y end of a reversal, race track or dead reckoning track0 g2 H2 ?' E Q procedure and the final approach fix or point, as + x' h) d+ A% K' z: Iappropriate. 5 A9 v: Q. V9 F; K5 |INTERMEDIATE FIX- The fix that identifies the- I2 X9 s6 a, J7 ^* o. L! z3 B beginning of the intermediate approach segment of an 1 m: J1 m4 d4 ^1 j* V! ^, r linstrument approach procedure. The fix is not" m' m U; ?' u3 ^/ t# q6 ?, x normally identified on the instrument approach chart6 H5 {1 D7 q% O) C3 D as an intermediate fix (IF). ( Q9 w2 U8 y, J7 s. {1 ^(See SEGMENTS OF AN INSTRUMENT & L& ? J) c2 F7 NAPPROACH PROCEDURE.) ' C; H/ c+ Y& ~* }2 fINTERMEDIATE LANDING- On the rare occasion4 b7 l0 d# l5 t! h" i5 ~5 [8 } that this option is requested, it should be approved.! m3 s% S% w4 d8 L, N The departure center, however, must advise the6 E6 a& D0 M8 R/ k' c) s ATCSCC so that the appropriate delay is carried over " C& Y7 w8 g, i8 }and assigned at the interm ediate airport. An ' w! N3 N: ~9 t; mintermediate landing airport within the arrival center" t7 m/ G, D$ j+ M! h will not be accepted without coordination with and1 S+ y. T$ K3 ^; L6 b9 u the approval of the ATCSCC.; z: T X" Y, s( }- o INTERNATIONAL AIRPORT- Relating to interna‐4 [* ~" Y$ D/ A2 D tional flight, it means:' m1 X6 S i. E( } Pilot/Controller Glossary 2/14/08+ a) {' a, l9 y) y+ w: u+ ~ PCG I-5 ' q; R3 P4 L- a9 `% la. An airport of entry which has been designated( s3 C3 B v. I; T by the Secretary of Treasury or Commissioner of * p$ p! p1 v+ j# j+ BCustoms as an international airport for customs % ?1 v2 C% I* O1 R) k7 wservice. + y9 ?5 u7 n( K) J+ wb. A landing rights airport at which specific% D, I. C0 p7 T& @0 a permission to land must be obtained from customs ' N2 o% v- T6 v" lauthorities in advance of contemplated use.2 \/ G/ g0 V$ g! H+ q c. Airports designated under the Convention on! R3 e' R5 S! S+ x1 }: x International Civil Aviation as an airport for use by 2 m- x, c& p8 ^ Ginternational commercial air transport and/or interna‐ ( D7 P w4 R) G! Ctional general aviation.9 Q5 l7 y; f r' ~ (See ICAO term INTERNATIONAL AIRPORT.) $ J5 x) A4 ^ | u1 i' a(Refer to AIRPORT/FACILITY DIRECTORY.) 0 M1 u: N5 y9 y% K(Refer to IFIM.) ! I6 J( K" |1 M. Q c0 J) NINTERNATIONAL AIRPORT [ICAO]- Any airport# f, E: L t4 r, h0 c1 n designated by the Contracting State in whose7 x' k5 _: i6 i; A3 t, I territory it is situated as an airport of entry and # A9 g, h5 d9 B+ d( W# A2 j- q! \departure for international air traffic, where the0 G. G: j/ _8 z V( _1 b formalities incident to customs, immigration, public) r: G H" v/ U9 Q health, animal and plant quarantine and similar1 u# N( z1 _$ K. G procedures are carried out.8 U, H. ^3 m- p/ |; y2 W P INTERNATIONAL CIVIL AVIATION ORGA‐, a `6 E$ R# o7 t' ^# [/ Y NIZATION [ICAO]- A specialized agency of the + J# L' z! o5 YUnited Nations whose objective is to develop the# }; Q5 ]8 ` z/ F principles and techniques of international air . @" d6 W) p8 g- inavigation and to foster planning and development of 4 u% ?+ q" b" a, Rinternational civil air transport.; N4 r$ }2 A N& P7 f a. Regions include:/ a, ]2 ~! ~* A 1. African‐Indian Ocean Region 8 h3 t* B0 t) i( z& @5 ?: b' c2. Caribbean Region+ \6 T& M& ]) e9 _/ t 3. European Region : X1 h h3 U% a* D6 F4. Middle East/Asia Region, ?" C1 U8 ?# w+ E; W4 ~' i 5. North American Region : Q! d, W. C2 A5 Z v+ M7 i6. North Atlantic Region4 q O/ Y; z8 ?( p2 R0 Z* k 7. acific Region ; q2 [+ v" g& z$ N' e" C$ M8. South American Region( {% s. p/ ]# G3 u2 p. { INTERNATIONAL FLIGHT INFORMATION 8 ~% m! H1 y6 ]# M, N. WMANUAL- A publication designed primarily as a 4 d* C$ l0 {. @. ~: M1 M' }pilot's preflight planning guide for flights into 2 K" m0 z$ S+ x/ @" ~foreign airspace and for flights returning to the U.S.5 t$ X2 C [7 A+ P from foreign locations. " o$ N: x/ U2 s$ C9 vINTERROGATOR- The ground‐based surveillance 6 S B. k9 r! Qradar beacon transmitter‐receiver, which normally ( y( d( u' u* `) z0 y! w! P1 lscans in synchronism with a prim ary radar,( i( z0 A' m( l# V: f: P transmitting discrete radio signals which repetitious‐$ ]1 G+ g2 x6 e6 Y% i( O7 @ ly request all transponders on the mode being used to " L$ ]7 F5 L+ i$ _+ dreply. The replies received are mixed with the / X3 F W1 q$ yprimary radar returns and displayed on the same plan, \% p# s7 R4 G* |0 m0 q position indicator (radar scope). Also, applied to the : D ]$ L% w& g- n3 h* pairborne element of the TACAN/DME system. , J6 n3 J# ~! d' L# D/ h* L(See TRANSPONDER.) 0 t/ l% [$ s# p1 m0 \$ F(Refer to AIM.) ( N/ T# Y1 Q! ZINTERSECTING RUNWAYS- Two or more . H$ e* [0 C9 B8 r; nrunways which cross or meet within their lengths. # i$ g, y! Z- m" X3 O- c* Y(See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses, & p7 e% p+ D( k2 [ I+ a8 E2 s0 _4 y2 ?radials, or bearings of two or more navigational aids. . H; v" E1 S; n( V$ Q7 `9 Eb. Used to describe the point where two runways, 0 M2 @$ _& a) w5 Na runway and a taxiway, or two taxiways cross or ; R7 ~0 j8 Z: Xmeet.- {6 M; J7 C: n$ y6 T7 d INTERSECTION DEPARTURE- A departure from' K" Q/ ?- P7 F3 I! Z3 X! h any runway intersection except the end of the runway. 1 [0 P% V5 G4 M P0 x(See INTERSECTION.) - Q5 X6 @$ s$ \5 [INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.) ' D- A) ~9 M' cIR(See IFR MILITARY TRAINING ROUTES.)8 J, {2 U! X) x/ }! E; Y Pilot/Controller Glossary 2/14/08 ' B" y! J; z) H* v$ y% w* N# sPCG J-1 . j- O6 t$ p# O( R+ C2 a+ NJ

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发表于 2008-12-28 14:15:29 |只看该作者
JAMMING- Electronic or mechanical interference3 G8 u/ \8 f. f( r/ e which may disrupt the display of aircraft on radar or- E* P2 x- N- S' [: @ the transmission/reception of radio communications/6 | ?' L E0 a0 ]# U. @ navigation. 3 `: m4 \+ n9 B% T0 ?$ b( KJET BLAST- Jet engine exhaust (thrust stream , [1 C2 f9 V9 A! B6 i: O* wturbulence).0 ?) F& S/ `5 T* j1 C (See WAKE TURBULENCE.)& Z# [: q& @0 O2 c: f1 s) f JET ROUTE- A route designed to serve aircraft - i3 k" }. Z* {: _% w. U5 b+ Xoperations from 18,000 feet MSL up to and including 6 U# D. K6 l, hflight level 450. The routes are referred to as “J”8 v- c- d9 J( X9 C) p$ ?& ~ routes with numbering to identify the designated 0 `: o# o- J5 P4 A4 rroute; e.g., J105. 4 J0 A& O# L- |$ R, Y1 K1 R(See Class A AIRSPACE.)1 |3 R) g4 S0 l/ Y% ] (Refer to 14 CFR Part 71.). z" Y5 |1 ]8 [2 f/ z& ~% a. h JET STREAM- A migrating stream of high‐speed* k" d2 _9 x1 j& i winds present at high altitudes.1 t7 _2 ` t1 L1 ]( @& E, ] JETTISONING OF EXTERNAL STORES- Air‐7 x' x4 |4 _9 U2 o4 u- j borne release of external stores; e.g., tiptanks, 4 O: E4 D5 y# A' q1 l$ W! B& pordnance.. d! T+ M9 A9 ^1 n* S+ Z (See FUEL DUMPING.) ) e% S0 ~) y. C# s9 g _# N e: z/ f(Refer to 14 CFR Part 91.): `- ?) B& K2 _ ^8 i JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)" X8 L g. a1 j6 I4 s6 @# ~! ?. t Pilot/Controller Glossary 2/14/08 & P. p8 G. ]) X+ a8 N* sPCG K-1 * |* T$ ~) h+ u. b9 G8 N+ `" TK% A- n% _3 _- X) ?( W& ]/ w3 ?3 G KNOWN TRAFFIC- With respect to ATC clear‐+ @4 K% {* t) }; H% x) @8 O8 w- I ances, means aircraft whose altitude, position, and0 I" ]3 @: Q) }5 a i4 P; O! P intentions are known to ATC. 8 w) K0 j# A1 t3 S; g2 {6 |$ ZPilot/Controller Glossary 2/14/08 4 E3 \) Y5 A/ [PCG L-1 9 S7 G3 C' I+ I: H: NL4 t# D4 K! d; z$ i7 N LAA(See LOCAL AIRPORT ADVISORY.) 3 Y! o9 A7 r" iLAAS(See LOW ALTITUDE ALERT SYSTEM.); C1 r" V" T' t8 j; v" [4 Y LAHSO- An acronym for “Land and Hold Short 3 F u/ v' U, v0 BOperation.” These operations include landing and7 ~: Q& @- d+ V; y) I3 L holding short of an intersecting runway, a taxiway, a 3 S: y/ ~3 {) S/ Z0 xpredetermined point, or an approach/departure 8 G% [, _; @. W: Q/ l8 k, Eflightpath.. o5 E. u; t" s! B1 l& ` LAHSO‐DRY- Land and hold short operations on1 ?4 N* @. ^6 T0 q6 R$ J& K1 r" `) z runways that are dry.1 j% D: B; n) ` LAHSO‐WET- Land and hold short operations on ) h/ J3 g" M- ?% a7 l* ?: lrunways that are wet (but not contaminated). ! m, B* `+ [5 X: OLAND AND HOLD SHORT OPERATIONS -0 s7 W( l9 Z5 n" r Operations which include simultaneous takeoffs and ) h5 k$ s* u6 y' e T& B6 v2 c0 `landings and/or simultaneous landings when a # s3 n+ T7 y" H; K) H% e) V# Y- olanding aircraft is able and is instructed by the 7 A. M. x4 S0 l! s9 u$ H( l/ Ocontroller to hold‐short of the intersecting runway/3 q/ L; q& y' s5 j$ W" E$ | taxiway or designated hold‐short point. Pilots are( P' R1 m$ z; x7 B expected to promptly inform the controller if the hold* Q1 y5 R& p' S% i# { short clearance cannot be accepted. $ N$ u9 {2 n+ S- M! [0 M" ](See PARALLEL RUNWAYS.) `* _; B' e* {5 ~0 u(Refer to AIM.) 7 ~7 s; G N5 r" J. dLANDING AREA- Any locality either on land, , G4 \3 H8 f; C+ E8 @" @$ m+ t5 d8 {( ~water, or structures, including airports/heliports and+ J! t+ F" P3 g) o5 O intermediate landing fields, which is used, or ' i1 n. B2 p" n: ointended to be used, for the landing and takeoff of * Q& {3 g/ G' gaircraft whether or not facilities are provided for the/ q; [0 e8 D% d4 L' z8 J shelter, servicing, or for receiving or discharging L& x) y* O7 A: f7 M' M7 g6 ] passengers or cargo. $ b9 ~0 J3 u, q5 K# n8 P( a(See ICAO term LANDING AREA.)1 j4 D' }. l9 t" n3 o5 Q LANDING AREA [ICAO]- That part of a movement ; [" I$ d+ E! m; n9 @. X5 N7 f* jarea intended for the landing or take‐off of aircraft. & l' h" T9 t8 K, l& g8 p/ X( BLANDING DIRECTION INDICATOR- A device 8 Z; p' j) u: K) Q) W4 h8 P1 L7 cwhich visually indicates the direction in which& }. L q' z) |" S! ]& `& ]. A landings and takeoffs should be made. ( I) |' [) c7 ?" p: a! `/ U& f3 f(See TETRAHEDRON.)8 a- \' [" t* s9 [; s, A (Refer to AIM.) : G1 W3 J" c$ _1 W* J( m& rLANDING DISTANCE AVAILABLE [ICAO]- The! D3 L4 t/ T; r7 Q2 f length of runway which is declared available and ! F6 e0 S' z9 S( z, r: P1 nsuitable for the ground run of an aeroplane landing. 8 \0 p' T. c9 X7 S9 r* L) h) H5 ELANDING MINIMUMS- The minimum visibility$ ` l u6 s$ Q- y prescribed for landing a civil aircraft while using an - C/ B. x# H- |instrument approach procedure. The minimum # |& v7 h ^5 V% aapplies with other limitations set forth in 14 CFR 5 n8 `4 X- p6 d8 Y% xPart 91 with respect to the Minimum Descent 8 X4 S5 {2 q k& sAltitude (MDA) or Decision Height (DH) prescribed* H2 Y; Z6 k* ]- T in the instrument approach procedures as follows: 7 \; r2 t2 Y+ y6 {5 v- ]+ Ma. Straight‐in landing minimums. A statement of" p) v2 r" I' @, ~ MDA and visibility, or DH and visibility, required for % D( S, b6 E" v1 T/ la straight‐in landing on a specified runway, or " h4 C1 ?5 A" n; O6 Kb. Circling minimums. A statement of MDA and 4 K: n L$ K) [6 F! J3 ]9 Wvisibility required for the circle‐to‐land maneuver. 7 a" T% `+ y/ ~$ E7 G, vNote:Descent below the established MDA or DH is 5 b, |5 J/ c, t0 k' X2 ?7 }not authorized during an approach unless the% [: @. N5 | t6 J aircraft is in a position from which a normal . h# a* u/ p2 [. @approach to the runway of intended landing can be, A! p2 D& z9 A' L9 h3 `, w made and adequate visual reference to required - r9 s2 Q# y }: Z% ~' u+ _3 ?visual cues is maintained.2 O) r# q% L3 K" P/ P) ?. J (See CIRCLE‐TO‐LAND MANEUVER.) ( o/ x; T2 R! ?2 Z) {0 k) {(See DECISION HEIGHT.) 9 P) ~6 e: G- n(See INSTRUMENT APPROACH/ _, r: i2 {: n9 { PROCEDURE.)6 P4 _; I8 D+ e1 P! l: X( g (See MINIMUM DESCENT ALTITUDE.) $ B/ k; R5 B& v2 C5 c(See STRAIGHT‐IN LANDING.) ( N; E) N3 R. ^8 i, ?$ }(See VISIBILITY.); N( J' M# c% b: _! p (Refer to 14 CFR Part 91.)/ q0 @0 F; e( N) x, P LANDING ROLL- The distance from the point of - ~6 v. X E5 b+ |) c9 |touchdown to the point where the aircraft can be9 M) i2 b: h& N brought to a stop or exit the runway.4 o/ I U, q+ q1 M5 n3 k6 S LANDING SEQUENCE- The order in which * y' ]- j& r# d6 Q# A5 `! waircraft are positioned for landing. 3 E1 B% C" f% [(See APPROACH SEQUENCE.) - K, J1 H2 j4 S# d9 e' Q1 |LAST ASSIGNED ALTITUDE- The last altitude/ * T2 B3 `4 P, g' ?flight level assigned by ATC and acknowledged by 4 E2 @# f8 D7 Q" x+ x4 Uthe pilot. m6 j n# i# G J5 Y7 v, U8 c; D (See MAINTAIN.) ; G/ g+ e- \' j% N! N(Refer to 14 CFR Part 91.) * R ~5 q4 \. @" _9 |LATERAL NAVIGATION (LNAV)– A function of& j. ^4 o _/ K- c2 _3 \5 k0 c area navigation (RNAV) equipment which calculates, . h* t4 i* d8 W/ P1 u( |displays, and provides lateral guidance to a profile or) H) }" n. O/ w- Q1 S4 s* q path.+ J) M0 d g/ I LATERAL SEPARATION- The lateral spacing of+ |* T" m$ ]- k! G( _. r9 R aircraft at the same altitude by requiring operation on; Q$ R0 P+ F. ^" u X different routes or in different geographical locations.' @$ e# m6 E4 V3 y- c. P3 k (See SEPARATION.)0 w* W. y5 H. N: \5 N$ D6 p2 X/ e Pilot/Controller Glossary 2/14/08( Y& j8 F9 \+ j% I3 G6 e1 @% R2 p6 m PCG L-2( p4 h( @( Y# Q) h \/ H$ w3 x LDA(See LOCALIZER TYPE DIRECTIONAL AID.) 8 ?; F- }% o" h, \% ^' C& C3 }' _(See ICAO Term LANDING DISTANCE + Q/ F5 `" @9 L" fAVAILABLE.); G0 }, ?& u8 O0 ]; \ LF(See LOW FREQUENCY.) ; h& M+ q) |; z% `: WLIGHTED AIRPORT- An airport where runway and5 M+ i# \! V- ~ obstruction lighting is available.& E) D8 O, L. d- W7 b (See AIRPORT LIGHTING.)9 u' z5 f: ~+ A (Refer to AIM.)+ P! s/ ?& u, Z/ H8 y! t# b2 \' x LIGHT GUN- A handheld directional light signaling% }/ y$ n; T, J2 v/ J! x! U device which emits a brilliant narrow beam of white, 8 g* z# ^) k% A: v: D; ]6 J# rgreen, or red light as selected by the tower controller. ' z* ?: j1 `+ Y9 \The color and type of light transmitted can be used to9 H5 k2 m, |9 m, R, n& [2 X approve or disapprove anticipated pilot actions where $ U5 A _, m1 p0 z) x0 Gradio communication is not available. The light gun 3 x, J) E# w- Kis used for controlling traffic operating in the vicinity: |! C: N3 r5 `% V% P' y0 F t of the airport and on the airport movement area." m: g, ^& @* \ (Refer to AIM.) ?. Z% K1 Y/ s% D; CLOCAL AIRPORT ADVISORY (LAA)- A service 4 A) \6 O5 u: F( }/ W6 ^provided by facilities, which are located on the 5 s7 ]; @( l3 l5 Llanding airport, have a discrete ground-to-air7 G" _+ l: N. m2 Y0 I communication frequency or the tower frequency L* {2 x: R& X; ^8 `' ~ when the tower is closed, automated weather( F; h- E: c1 x. r' o' t3 z$ C/ N: ^ reporting with voice broadcasting, and a continuous 0 [" a& W9 G# w+ c$ a2 }ASOS/AWOS data display, other continuous direct : H9 e0 n1 U( W* p$ ]reading instruments, or manual observations avail‐( R6 n) X6 G) ~& | able to the specialist.% p5 v) Z3 O& f; w: y- F: K (See AIRPORT ADVISORY AREA.)* R) S. D& {8 D3 d9 E( M LOCAL TRAFFIC- Aircraft operating in the traffic, g, X# n( g' R- E7 k- [ pattern or within sight of the tower, or aircraft known ) e) \& ~* B* {; F( v% cto be departing or arriving from flight in local practice7 ^8 R: p a6 G, t/ N1 H areas, or aircraft executing practice instrument 7 i8 ]2 ]" N9 j; `7 q1 ~approaches at the airport. ' x* c+ V' a- K- ?* q(See TRAFFIC PATTERN.)% }; d2 K: }: V u( Z2 T LOCALIZER- The component of an ILS which & f" c1 G8 W5 h5 _( rprovides course guidance to the runway.6 G% \5 w/ N2 Q$ b% T! Z (See INSTRUMENT LANDING SYSTEM.) W/ M/ q* F; Q6 m, [6 T: T% H(See ICAO term LOCALIZER COURSE.) - V! _8 x) f7 E3 t(Refer to AIM.) 5 B. B0 e; |1 B( vLOCALIZER COURSE [ICAO]- The locus of ' N* T9 n/ F- Upoints, in any given horizontal plane, at which the' j% k- G" x" _1 M5 C2 w+ Y4 X DDM (difference in depth of modulation) is zero.9 i; m' f$ r5 W; c LOCALIZER OFFSET- An angular offset of the : p. V' g! ~9 j2 J9 {. o( Llocalizer from the runway extended centerline in a! q9 {; [" O- v' c' q: u0 S$ v direction away from the no transgression zone (NTZ) ; b8 s$ @8 f) ]: z5 l- lthat increases the normal operating zone (NOZ). ?) e+ g0 l. V r p width. An offset requires a 50 foot increase in DH and 2 g! m7 d# s! s* [# his not authorized for CAT II and CAT III approaches.' o# `' B' [) P8 O LOCALIZER TYPE DIRECTIONAL AID- A0 I& }, m3 f8 G' g" e. ? NAVAID used for nonprecision instrument ap‐) [: J! K" N2 f+ |5 p2 p8 @ proaches with utility and accuracy comparable to a4 I( W& E6 P( L2 v localizer but which is not a part of a complete ILS and; i( K3 o8 ]3 L0 \# b is not aligned with the runway. 0 X3 @8 j0 P: ]/ T7 I/ o" y(Refer to AIM.)) A% E( f3 Z- ^. r- f LOCALIZER USABLE DISTANCE- The maxi‐ , u: B. w* E9 Y3 y9 U8 Qmum distance from the localizer transmitter at a; s9 Z3 ^8 p# p9 P/ U) C$ m specified altitude, as verified by flight inspection, at 6 l8 ~/ V0 g/ p! w" k* G; z$ z: b4 [which reliable course information is continuously 8 v$ j( A# k) k1 sreceived. 2 ?7 _: c' u" y0 c) @(Refer to AIM.) 8 ?0 f- O7 W. \- q6 [! nLOCATOR [ICAO]- An LM/MF NDB used as an aid3 s' W& d }( g' ]: O to final approach.) A: j$ [- y* [2 o& h Note:A locator usually has an average radius of * E1 b/ t) m* j( |* srated coverage of between 18.5 and 46.3 km (10 0 m% o! n7 q. I0 t2 oand 25 NM). % E2 J( t9 y+ o/ T/ Y* GLONG RANGE NAVIGATION(See LORAN.) + M Z, \# w6 y7 ?LONGITUDINAL SEPARATION- The longitudi‐( w6 i4 Q- M) B& o7 G nal spacing of aircraft at the same altitude by a 2 ^: Q* k6 T0 F7 Gminimum distance expressed in units of time or & l5 i$ Q( V4 a1 \" }' ]miles. 6 F2 B# a: ]: K9 M6 G(See SEPARATION.) ! m5 X3 o+ H% [& Y; t! }( ?3 |(Refer to AIM.)* e H3 B2 L# n2 V* m LORAN- An electronic navigational system by 6 C, m, ]0 Z$ y2 y9 X" V* fwhich hyperbolic lines of position are determined by, p! x( O8 j+ x measuring the difference in the time of reception of 4 F( D6 T8 M2 t: ~synchronized pulse signals from two fixed transmit‐/ o6 T. s4 J) ?9 a, R7 H2 i4 Z, f ters. Loran A operates in the 1750‐1950 kHz) T4 f8 ~$ M4 z# H6 H1 t2 A frequency band. Loran C and D operate in the$ H+ j! E& O* t0 f' ?) F5 b 100‐110 kHz frequency band. # Z: P+ N+ |- h3 F Z7 ~8 K(Refer to AIM.) ; h4 {( Z& [) m6 z9 d0 v& WLOST COMMUNICATIONS- Loss of the ability to/ Y! O. n) j4 G communicate by radio. Aircraft are sometimes 5 ^" r$ K$ G. ?6 v5 \4 M2 e% creferred to as NORDO (No Radio). Standard pilot% b/ s) m9 K4 Y( s procedures are specified in 14 CFR Part 91. Radar) Z- V* W. |8 K2 w6 ^) k5 F/ W2 O controllers issue procedures for pilots to follow in the2 O+ X; ^0 G0 Q event of lost communications during a radar approach ; Q: v6 I9 D9 k' i3 P$ `9 qwhen weather reports indicate that an aircraft will ! {3 M5 M5 X; H$ ^likely encounter IFR weather conditions during the) N+ j0 s# ?4 W3 I+ @3 X6 R approach.# W' C! M2 j3 E* m+ Z9 j (Refer to 14 CFR Part 91.)1 q S: G: i& g! K4 U (Refer AIM.) 4 U! k6 `/ O3 z) f% S& vPilot/Controller Glossary 2/14/08* R) C, e/ b1 D4 W" w PCG L-3 ; ^( {" K' w8 ^$ ?! C8 Y4 gLOW ALTITUDE AIRWAY STRUCTURE- The 6 O4 v. K9 F5 ^+ bnetwork of airways serving aircraft operations up to& U' [# B) s4 y. R but not including 18,000 feet MSL.+ R. s0 t$ o: M8 X3 Y (See AIRWAY.)0 k" t# `& p F8 a0 g4 Z' R (Refer to AIM.) # x9 Y* E- z9 K# R" E9 D/ h" zLOW ALTITUDE ALERT, CHECK YOUR ALTI‐ ; L q3 `7 R+ e8 V3 a4 gTUDE IMMEDIATELY(See SAFETY ALERT.) # k0 B. }7 e4 A+ K: G$ ?6 B7 k' mLOW ALTITUDE ALERT SYSTEM- An auto‐! N$ c% q& q4 @7 [8 ]% O mated function of the TPX‐42 that alerts the . n9 f! O$ b. T$ `5 ]% c) Gcontroller when a Mode C transponder equipped3 c, L' I% H- s aircraft on an IFR flight plan is below a4 Y/ E$ m4 n2 F* b predetermined minimum safe altitude. If requested4 f4 A% d7 r& w" e$ | by the pilot, Low Altitude Alert System monitoring1 j' W W7 H5 `3 b2 L5 V) t is also available to VFR Mode C transponder , L: @2 V# U3 B. ^ Y% eequipped aircraft.( ?- z" d6 J, ]/ U4 X( m3 r LOW APPROACH- An approach over an airport or! T4 Z i/ f4 [ runway following an instrument approach or a VFR - A9 ^1 @! D0 o+ }& H7 }% {approach including the go‐around maneuver where 4 A, a6 g( b; ~the pilot intentionally does not make contact with the8 H* v5 x1 ?' `9 a- ]0 F runway. * Z/ u0 N, }5 y i* F" M(Refer to AIM.)( f* P7 p f# L, Z6 \0 ^; S LOW FREQUENCY- The frequency band between- b4 D' @) r+ ]. G- [" C 30 and 300 kHz. 8 x. a# S5 T' I9 K(Refer to AIM.) , Y, Z n7 u2 ]& Z+ NLPV- A type of approach with vertical guidance 8 f& Y0 p4 J) W(APV) based on WAAS, published on RNAV (GPS)( x& f; X* _ d: H8 n2 k approach charts. This procedure takes advantage of; R( E* u& A2 s- P; w7 A# k the precise lateral guidance available from WAAS.1 P1 X- `8 d' A" w9 G0 F The minima is published as a decision altitude (DA)./ ?' y: f7 y0 A3 M6 _2 l5 G Pilot/Controller Glossary 2/14/08& H' ^+ @! ~, O# }- M PCG M-1$ M) D2 R. S- I' s3 k M I+ R8 D" W2 v$ K& I( x MAA(See MAXIMUM AUTHORIZED ALTITUDE.) % L( }9 D5 |0 d9 O0 k% lMACH NUMBER- The ratio of true airspeed to the 9 Y" M* K# w4 I( Hspeed of sound; e.g., MACH .82, MACH 1.6.+ |( _. M0 F2 |, s" I# Y% n: p" d (See AIRSPEED.)! w7 b+ @* H( j: h9 E. @. x MACH TECHNIQUE [ICAO]- Describes a control ( `* u8 M5 J5 x2 s& _) o d* K9 y% j2 Btechnique used by air traffic control whereby turbojet% M. f: J& b/ e% K aircraft operating successively along suitable routes * d+ \+ y2 v' ? H- Eare cleared to maintain appropriate MACH numbers 5 N* t R X% zfor a relevant portion of the en route phase of flight. 0 Z% d7 |/ P0 OThe principle objective is to achieve improved3 I5 r0 ^# _7 `9 T: G utilization of the airspace and to ensure that+ o: Z# b) ^% ?" c4 K. l# b separation between successive aircraft does not : f' y1 `, E6 t# q3 m' \decrease below the established minima. / ?4 b- @' [1 qMAHWP- Missed Approach Holding Waypoint 7 H" M+ C% M& J4 p, O0 _1 y5 ]MAINTAINa. Concerning altitude/flight level, the term) w& C* v x, o6 A means to remain at the altitude/flight level specified. 8 @+ M. z$ Z9 b [The phrase “climb and” or “descend and” normally3 D, a! N2 L. H/ N5 ]5 h precedes “maintain” and the altitude assignment;7 X4 h& \% N. Y# i, t e.g., “descend and maintain 5,000.”/ j& ^: U6 ?8 [" H) V b. Concerning other ATC instructions, the term is / P" d" E; N4 ~" V6 rused in its literal sense; e.g., maintain VFR.! O+ j+ E4 H( S. }) A MAINTENANCE PLANNING FRICTION3 B$ N% }, m/ U, h5 K) u! g; c' E LEVEL- The friction level specified in/ l T {5 P; G; d AC 150/5320‐12, Measurement, Construction, and . p+ @( b0 [. w2 P( x) k: QMaintenance of Skid Resistant Airport Pavement ; `5 K8 J6 X3 k6 P7 n& ISurfaces, which represents the friction value below. M3 i1 W" F) F which the runway pavem ent surface rem ains+ V+ E! `0 S# M. N) u6 b acceptable for any category or class of aircraft ( g) G2 T2 r4 Q. O+ i0 J' ~operations but which is beginning to show signs of. C3 m* m' F$ h! ~3 T, s deterioration. This value will vary depending on the # ^3 t( {& t" o gparticular friction measurement equipment used.- @. A0 h1 s- H' N, E MAKE SHORT APPROACH- Used by ATC to * Q) s% B. B/ m4 q. @, `& F0 ?inform a pilot to alter his/her traffic pattern so as to ) p0 o: K$ p% Z1 hmake a short final approach. + }% m: d/ I) A8 y0 ^! h$ }(See TRAFFIC PATTERN.) $ f4 U! k/ j9 c5 @! x* w, v, OMAN PORTABLE AIR DEFENSE SYSTEMS5 @* i; @$ |/ E: A$ w) v (MANPADS)- MANPADS are lightweight, shoul‐ * @; s- f4 U. U7 q( eder-launched, missile systems used to bring down E* T) a, t3 w3 @( _- J aircraft and create mass casualties. The potential for0 R$ B/ v( z& ]( Q MANPADS use against airborne aircraft is real and4 N% B0 y0 p5 D3 z; J+ f- b requires familiarity with the subject. Terrorists+ a! u. n3 C9 x8 S7 V choose MANPADS because the weapons are low# Q5 O& i# P4 O5 S cost, highly mobile, require minimal set-up time, and + c* p/ R4 N2 O4 M$ nare easy to use and maintain. Although the weapons 1 [5 D0 m, q& z$ l& x* Fhave limited range, and their accuracy is affected by - j" u$ \% a# J: c rpoor visibility and adverse weather, they can be fired! n; [; J9 }6 I2 c* i6 m8 u3 _ from anywhere on land or from boats where there is ; T' M6 B; L# H; R. O; y3 q2 @9 |unrestricted visibility to the target. / Y" ^. {! g* {/ d; t0 c qMANDATORY ALTITUDE- An altitude depicted ( l% t/ _* O4 f, \1 p7 J0 Y& Mon an instrument Approach Procedure Chart4 y0 K9 c" R( g0 M8 } requiring the aircraft to maintain altitude at the5 }& O, U) h( m/ X depicted value. # D @' t' F$ P! q( mMANPADS(See MAN PORTABLE AIR DEFENSE, ^# R) k$ n# Q" c* m+ A SYSTEMS.)# Y; {" `, x* s. B$ e MAP(See MISSED APPROACH POINT.)) J$ W* j7 ~; m7 T% d4 s3 K MARKER BEACON- An electronic navigation( N) ] u4 A$ [; [ facility transmitting a 75 MHz vertical fan or % j! P1 m2 |% v) F6 dboneshaped radiation pattern. Marker beacons are # V) O& a2 c% E, [# Kidentified by their modulation frequency and keying; G& L6 ~( N' p7 d1 a code, and when received by compatible airborne 9 ]: Q: f: C6 A3 D0 B6 qequipment, indicate to the pilot, both aurally and- Q* ^8 q4 j( U0 a+ b a$ u visually, that he/she is passing over the facility. * l9 T) K8 I j* C+ _' j3 {- x(See INNER MARKER.) - k# c2 g8 a! m; c/ l5 ?(See MIDDLE MARKER.) 5 j9 [; y% } C2 ~5 d3 p: r(See OUTER MARKER.) + X9 r& Y3 T* I* i/ y4 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 ASSUMES9 O9 u+ L% o6 u RESPONSIBILITY FOR SEPARATION OF 4 L( ?2 h5 E5 GAIRCRAFT.)3 x& D5 U4 j- o5 o# P5 [3 L$ w7 G MAWP- Missed Approach Waypoint 8 v& Q4 N* z) l0 j6 g8 p# KMAXIMUM AUTHORIZED ALTITUDE- A pub‐ 4 Y. b( c7 H7 e+ \lished altitude representing the maximum usable: K% Z( \2 O3 q% K altitude or flight level for an airspace structure or 1 p* r* K9 i8 W8 F( mroute segment. It is the highest altitude on a Federal 8 m; G: A2 w' L& C& _$ p d6 fairway, jet route, area navigation low or high route, & `1 f) D# e, O' S5 Cor other direct route for which an MEA is designated! @+ c. X4 |5 {8 \+ o in 14 CFR Part 95 at which adequate reception of3 U# |" N( I9 M o: R9 ]7 A, V navigation aid signals is assured. ) j; s9 N W; z" E# e/ W* }MAYDAY- The international radiotelephony distress& @) g6 a; s# }$ Q signal. When repeated three times, it indicates 3 S( T9 C8 m- s; qPilot/Controller Glossary 2/14/08 # i B3 O" Q( x; Y# UPCG M-2 ) p! f5 H( k Y- x+ g" O% G4 u6 \! Kimminent and grave danger and that immediate ! d+ A0 V9 d6 sassistance is requested. * Z- M* `. h s9 @/ _- x(See PAN‐PAN.) 5 J8 O/ Q9 T/ C9 H(Refer to AIM.)5 u- u, j3 U2 w MCA(See MINIMUM CROSSING ALTITUDE.) ! ]& A* F C/ a0 [- ^/ VMDA(See MINIMUM DESCENT ALTITUDE.) ( X* W0 Y5 N9 c" XMEA(See MINIMUM EN ROUTE IFR ALTITUDE.)" h9 u" j6 b! `. q9 y7 g: j$ ? MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR5 x- i& Y, m$ X& q TRACKING SYSTEM.) # D0 g9 Z8 U- B& KMETEOROLOGICAL IMPACT STATEMENT-% H1 T1 X( R) ~/ _4 u An unscheduled planning forecast describing ( a. H; U5 `6 ?- J2 l8 qconditions expected to begin within 4 to 12 hours 7 e) _1 G% }/ h4 d! y o8 Hwhich may impact the flow of air traffic in a specific 1 p) b' q5 K2 S( X7 {& rcenter's (ARTCC) area. , @! c4 l) D+ b* {3 O% E6 EMETER FIX ARC- A semicircle, equidistant from : ^7 ?: X3 e3 j7 Z. na meter fix, usually in low altitude relatively close to # l5 u: L! n+ B. ~+ v$ C; v9 Xthe meter fix, used to help CTAS/HOST calculate a + y8 R1 L3 k* Z! \1 Ometer time, and determine appropriate sector meter . y- j0 t& g3 [/ S# [1 b# }. Ylist assignments for aircraft not on an established+ s: U, q+ Q: t. o: B arrival route or assigned a meter fix. " J8 g4 B7 `) r' R8 N; A+ W9 CMETER FIX TIME/SLOT TIME- A calculated time# p8 ~: E3 _+ D to depart the meter fix in order to cross the vertex at) W; {( G9 L7 g4 x- ` the ACLT. This time reflects descent speed " i* U, W7 Q" F, P- p vadjustment and any applicable time that must be ) g0 B( h* s' p v5 [ x+ _ _7 S fabsorbed prior to crossing the meter fix. - m, q/ P5 u. ?METER LIST(See ARRIVAL SECTOR ADVISORY LIST.)+ L( S' l5 c" J3 V& t METER LIST DISPLAY INTERVAL- A dynamic " V4 e" R! r1 {) O5 J; U9 rparameter which controls the number of minutes/ Q$ K% M K/ K3 z( L2 h2 R P/ E& p prior to the flight plan calculated time of arrival at the Y1 a( D3 B2 U meter fix for each aircraft, at which time the TCLT is + y; f, d! J( [, U/ [frozen and becomes an ACLT; i.e., the VTA is$ W" H& a, P7 _: [; \" F updated and consequently the TCLT modified as ; i2 C. h" |' t8 n/ T$ X: H: iappropriate until frozen at which time updating is & ?: r- C7 N9 P2 V4 r- ]suspended and an ACLT is assigned. When frozen, 9 G( b1 V. \# e( e8 Z. C$ Uthe flight entry is inserted into the arrival sector's ^& k/ ]: q1 ? meter list for display on the sector PVD/MDM. 0 u9 ~# r8 r, @6 j, s5 U8 AMLDI is used if filed true airspeed is less than or ! N0 |( U0 I" vequal to freeze speed parameters (FSPD).8 \, b* O: h( ~ METERING- A method of time‐regulating arrival/ `3 d! |) z5 ?* q1 n' B, n traffic flow into a terminal area so as not to exceed a 1 D6 ^" K/ i& i: `* Z) cpredetermined terminal acceptance rate.) s& Z! G. b8 V7 @. M) M METERING AIRPORTS- Airports adapted for* L) [0 T/ d% h3 Q5 A metering and for which optimum flight paths are 2 Q& }$ f. u6 M! i: ~6 k, `9 Edefined. A maximum of 15 airports may be adapted. f7 J4 a1 F3 i4 `METERING FIX- A fix along an established route 3 c0 ` u1 B0 j% e( [from over which aircraft will be metered prior to + H; s5 Z# V" J7 d; V9 qentering terminal airspace. Normally, this fix should* k6 L( j% v8 Q, f0 i4 W be established at a distance from the airport which) q) {; V- N5 o5 W will facilitate a profile descent 10,000 feet above ' ]0 x! R" \* [9 h6 cairport elevation (AAE) or above.* c# `( f- `! y3 t1 L METERING POSITION(S )- Adapted PVDs/ ( R' K1 d7 P0 U2 GMDMs and associated “D” positions eligible for- x7 s2 M3 k6 n) r7 a2 C display of a metering position list. A maximum of6 p( Z5 M5 s; i" d3 b. u& o. A four PVDs/MDMs may be adapted. - s' z4 P( @( U& @METERING POSITION LIST- An ordered list of 7 |) p3 X! p# y: ]* kdata on arrivals for a selected metering airport0 e( U/ {& \- ^) v displayed on a metering position PVD/MDM.# k5 [' S7 E3 E% z MFT(See METER FIX TIME/SLOT TIME.) # b0 ~1 K5 K7 u% _* H0 MMHA(See MINIMUM HOLDING ALTITUDE.) 8 l$ u+ n6 j' M1 {+ M! HMIA(See MINIMUM IFR ALTITUDES.)5 c0 p; _6 C# v9 e MICROBURST- A small downburst with outbursts + q# ]9 P0 @$ m( \of damaging winds extending 2.5 miles or less. In3 H4 n- U1 D4 l* M0 x. m } spite of its small horizontal scale, an intense1 Q; M5 J9 Q' s& f7 i: e( p microburst could induce wind speeds as high as 150 ' C7 X, s- n$ e& i& F: oknots; U6 U s& p- c4 q8 V0 Z (Refer to AIM.) # z& B9 g5 t) L/ ~! g7 a. ^) tMIC RO‐EN ROUTE AUTOMATED RADAR $ A) S% R1 Y. t! {8 v% s% dTRACKING SYSTEM (MEARTS)- An automated 2 [& j3 [; ^/ m$ mradar and radar beacon tracking system capable of ' E' F3 p u3 @* M3 [employing both short‐range (ASR) and long‐range % v; u3 C4 Z: ^2 n& o. E(ARSR) radars. This microcomputer driven system " D/ A7 D. b: u- D1 y: cprovides improved tracking, continuous data record‐ ' ]1 ? P) Z( c+ hing, and use of full digital radar displays./ p) O& {- U" Y$ O MICROWAVE LANDING SYSTEM- A precision $ t! G" f K! s$ zinstrument approach system operating in the , L5 s) H8 i+ ~3 M5 Amicrowave spectrum which normally consists of the 7 D6 ?5 N: y1 Ffollowing components:; F. h% i; [' r9 w0 o# Q* p+ | a. Azimuth Station. 8 U7 V a: b6 i9 j; Ub. Elevation Station. : z& |1 k* d) A& Y' y+ x$ Nc. recision Distance Measuring Equipment.* M/ f% |0 V1 i' Z T/ z (See MLS CATEGORIES.) ' w5 s7 O K5 Q% Q6 R+ i. \2 `" FMID RVR(See VISIBILITY.) ) `- E' y+ a% ^, \) S) j/ K- z0 VMIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.) 7 T+ F( A. |2 [+ QPilot/Controller Glossary 2/14/08 : x! u/ y, D! y( ~) ^7 z; NPCG M-3 4 W, n. ~( O5 Q7 gMIDDLE MARKER- A marker beacon that defines - j+ d+ ~! {. D' ~* ?$ |9 Ha point along the glideslope of an ILS normally E3 ^# h4 K6 S/ }$ H3 G located at or near the point of decision height (ILS : T9 o/ E) I( ^9 n& m6 H# ICategory I). It is keyed to transmit alternate dots and 7 ~' U" f0 W- B" Fdashes, with the alternate dots and dashes keyed at the6 C5 N6 k4 ]- ]0 P4 M! ? rate of 95 dot/dash combinations per minute on a & S, |" s3 I j; @1300 Hz tone, which is received aurally and visually ! K( S( u7 p, C9 Z4 r" Z% yby compatible airborne equipment. & @3 y& N5 z6 E$ j, U, M0 P(See INSTRUMENT LANDING SYSTEM.) : U I0 t1 }. \3 D, m(See MARKER BEACON.). m8 X. B- V) i9 w' a (Refer to AIM.) I& A: _+ h3 i; G MILES‐IN‐TRAIL- A specified distance between 5 [3 F6 Z Y3 w, z! M3 r* J. Daircraft, normally, in the same stratum associated% n7 I+ H, Y" l$ |4 N ]; x/ ] with the same destination or route of flight. Q* X% f# I% ~, [/ V3 a( b8 wMILITARY AUTHORITY ASSUMES RESPONSI‐ / Y: [6 s6 T: e6 b8 ]$ g# UBILITY FOR SEPARATION OF AIRCRAFT- A( T; x, H. @$ p. A condition whereby the military services involved 3 @0 g9 b# L: n7 Wassume responsibility for separation between. i0 _& z- J3 |0 a participating military aircraft in the ATC system. It is 0 U% {1 o: ~6 T: Fused only for required IFR operations which are 7 c+ \3 l' O5 v& G8 M/ n2 c/ [specified in letters of agreement or other appropriate1 C2 b/ h1 N9 j4 t0 y FAA or military documents. / [0 o! d4 G0 w6 @! v+ n* aMILITARY LANDING ZONE- A landing strip used9 p9 w& H) H, C1 @* ?: y8 B" | exclusively by the military for training. A military 6 v+ T7 l0 ]! K1 j2 Y8 Blanding zone does not carry a runway designation. + Z0 ~* L: \4 T& N5 `MILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.) 8 m" o2 M5 [- h2 n$ t; BMILITARY TRAINING ROUTES- Airspace of' ^ {& ~8 D8 V. _% R defined vertical and lateral dimensions established; Z; L4 g8 {$ Z) L& T% B' I for the conduct of military flight training at airspeeds- x6 p2 D% _, l2 e; | ? in excess of 250 knots IAS. 9 Z/ R$ w' `- A, H' [(See IFR MILITARY TRAINING ROUTES.) % c2 E% M% N( p' r1 h! X(See VFR MILITARY TRAINING ROUTES.) 0 V, t& h% l) s: iMINIMA(See MINIMUMS.) 6 e& ^2 V3 r8 v% a4 c7 O+ ZMINIMUM CROSSING ALTITUDE- The lowest! Q3 q% G# T$ `! ^7 _4 c altitude at certain fixes at which an aircraft must cross8 m4 I8 j8 x% u. ~" u when proceeding in the direction of a higher 2 N H1 b5 H i0 Z& a4 [minimum en route IFR altitude (MEA).- L' {5 C6 l! ~4 Y6 @ (See MINIMUM EN ROUTE IFR ALTITUDE.)6 { Q0 r3 n* J( e, u e$ b! A MINIMUM DESCENT ALTITUDE- The lowest; m4 V+ T8 _4 _$ \ altitude, expressed in feet above mean sea level, to5 k% J! H9 I/ L1 {, k) O which descent is authorized on final approach or" I8 s2 n/ p; S during circle‐to‐land maneuvering in execution of a 7 }6 e3 Q* u8 r0 G, w1 {8 }standard instrument approach procedure where no2 C. k" y; N% y& ~" ^7 M2 o electronic glideslope is provided. $ e; X# f0 H1 e2 N; p' z" ](See NONPRECISION APPROACH- q% g# X! Z3 `! n d; P PROCEDURE.)- N7 C* L1 U/ h9 S2 @# X/ D: \/ s MINIMUM EN ROUTE IFR ALTITUDE (MEA)-& J L4 Z1 O" y9 A: I/ ? The lowest published altitude between radio fixes ! W' b! J6 g% Fwhich assures acceptable navigational signal cover‐+ S- J: Q$ f) _! O age and meets obstacle clearance requirements 2 X" x3 ?$ D |9 }& W' n$ ^) gbetween those fixes. The MEA prescribed for a3 B& o. D& `6 {) V! ^0 r Federal airway or segment thereof, area navigation , ]' L" e0 A+ s I0 wlow or high route, or other direct route applies to the 6 D1 d$ t2 d. ~9 A* K, Sentire width of the airway, segment, or route between ; J& G* x( f5 f% s% A% E. qthe radio fixes defining the airway, segment, or route. ; }9 a. _7 k4 R& G& b/ j; u+ m(Refer to 14 CFR Part 91.) & f" Q9 E A, N(Refer to 14 CFR Part 95.)- L5 _! ^1 S2 l" q6 g: H, S (Refer to AIM.) 8 ?5 y: i ]* f. EMINIMUM FRICTION LEVEL- The friction level9 } e7 C2 E: e7 V# `; e specified in AC 150/5320‐12, Measurem ent, $ w8 u+ P( t2 ^$ Y9 F) ~Construction, and Maintenance of Skid Resistant' O8 Y* [8 B8 U% E; l( ^ Airport Pavement Surfaces, that represents the . i% J$ R) n* l7 n7 W; lminimum recommended wet pavement surface5 u2 ?! u0 [. c" y% F. U2 ? friction value for any turbojet aircraft engaged in ; F" s9 J( g5 l3 z6 ^/ ELAHSO. This value will vary with the particular% `" b: n, L! @ friction measurement equipment used. ( W/ o0 n: P# \' a: lMINIMUM FUEL- Indicates that an aircraft's fuel6 v# V( c! `& O. d supply has reached a state where, upon reaching the 1 W" p9 p5 q$ v' Q7 B" bdestination, it can accept little or no delay. This is not . `% U3 ] g9 E" Z; e; Qan emergency situation but merely indicates an \2 @- l8 Q" X, W% M) D- [# `emergency situation is possible should any undue $ o( C# j( [4 K3 K# t9 t8 X, Ndelay occur." X% X) u9 I2 I0 g; } (Refer to AIM.)& Q3 u/ e8 E9 B MINIMUM HOLDING ALTITUDE- The lowest& I( q5 }9 F& C, L! U. q8 _ altitude prescribed for a holding pattern which% Q0 c* \+ r9 v, A assures navigational signal coverage, communica‐ 5 b6 s9 ]4 f9 L, U+ rtions, and meets obstacle clearance requirements.' [( ?$ e( W2 a+ T MINIMUM IFR ALTITUDES (MIA)- Minimum$ R [3 J4 n+ m L- q$ G altitudes for IFR operations as prescribed in 14 CFR" X O6 X& f& T7 v; ^- |. }2 C/ k Part 91. These altitudes are published on aeronautical: y$ ^8 B9 X+ I& B* T, q8 b1 y- L charts and prescribed in 14 CFR Part 95 for airways ( ^/ F/ H4 s) A l3 X! Eand routes, and in 14 CFR Part 97 for standard: j8 h7 U: o1 q% l' d instrument approach procedures. If no applicable / O# Q) x: G" B0 u8 m* Fminimum altitude is prescribed in 14 CFR Part 95 or / y9 l* H. G! J7 y# t9 h9 e14 CFR Part 97, the following minimum IFR0 E+ _; ?+ e- _ u+ P6 D altitude applies:: V7 W% @6 Z& K Q a. In designated mountainous areas, 2,000 feet , s* K0 d: {- ?/ F/ L3 y, Qabove the highest obstacle within a horizontal: N; |( Y2 r6 |" S# h/ \3 s- m distance of 4 nautical miles from the course to be; O' ?1 x) O. ?8 e1 t+ f8 O! C flown; or 6 `) k6 K, g1 J+ vPilot/Controller Glossary 2/14/081 A; Y- F6 ^- v8 f" J PCG M-4 4 F! K9 L0 z1 P$ _b. Other than mountainous areas, 1,000 feet above% i8 d+ `0 J9 |! `# U the highest obstacle within a horizontal distance of 4 4 L* k4 Y4 B" s' y. w$ s. r* P enautical miles from the course to be flown; or* ~( @3 h' s' B: r c. As otherwise authorized by the Administrator" S7 S) U* p# i4 T5 x8 w6 e9 ~ or assigned by ATC.! B S' _ w) p8 y# j( N% Q: O! d (See MINIMUM CROSSING ALTITUDE.)5 ?% X( \% k: O+ }$ g (See MINIMUM EN ROUTE IFR ALTITUDE.)0 J! B9 l! V% X( X2 `, m4 m (See MINIMUM OBSTRUCTION CLEARANCE / n! W" x) V' c$ FALTITUDE.)2 J9 L1 u% Q, a (See MINIMUM SAFE ALTITUDE.)' x5 w+ z( V; U& N, E$ C (See MINIMUM VECTORING ALTITUDE.)5 L4 |# f& G3 P4 J (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' Q8 t$ ~" W. P. x$ B' W" U# Y SPECIFICATION- A set of standards which require g V$ X9 u# p& u' T& naircraft to have a minimum navigation performance , B- K% m3 P% z( R5 L: K! A$ j) hcapability in order to operate in MNPS designated % U2 R3 Z6 @5 `7 L8 C, Vairspace. In addition, aircraft must be certified by$ T1 t$ o7 W4 f" V/ |* ]" ~ their State of Registry for MNPS operation.* W x$ H. c/ ~2 n# a' R MINIMUM NAVIGATION PERFORMANCE 8 ~0 V5 R& {9 f4 M- c0 TSPECIFICATION AIRSPACE- Designated airspace% d( E5 }; M0 |" J) f in which MNPS procedures are applied between p4 J: j1 K6 P# i$ D; jMNPS certified and equipped aircraft. Under certain * A! T& d$ }: B3 O4 [conditions, non‐MNPS aircraft can operate in% \1 d$ j$ I8 Y! A2 k MNPSA. However, standard oceanic separation : E* N( N( T2 K; ~% g, Z5 Rminima is provided between the non‐MNPS aircraft * R- S0 i' o6 u1 jand other traffic. Currently, the only designated7 d) X/ ] k# a- G MNPSA is described as follows: $ k2 t$ Y, N A3 m6 ~% `a. Between FL 285 and FL 420; * n# D/ S) {. r% ~( E1 k ]" ob. Between latitudes 27N and the North Pole;4 {$ |2 {+ P6 ?* q: D5 G c. In the east, the eastern boundaries of the CTAs" ]+ A3 E/ {$ L0 X/ n Santa Maria Oceanic, Shanwick Oceanic, and& p) v5 X' d3 Z6 A: L: s) x Reykjavik; 8 d* i' E1 `) a; Y Cd. In the west, the western boundaries of CTAs+ U' y6 H8 s. ?" _$ q4 I Reykjavik and Gander Oceanic and New York : Q" C& X+ T' z2 i# l, | |Oceanic excluding the area west of 60W and south' Q3 k! G, J& M9 j of 3830'N.& T6 o6 q1 O( f/ ^/ g MINIMUM OBSTRUCTION CLEARANCE ALTI‐0 O1 P5 _7 j# z4 p TUDE (MOCA)- The lowest published altitude in! M* j0 \) F: M4 }: v/ y effect between radio fixes on VOR airways, , u( |3 m5 q9 b8 \+ i. c# n- Soff‐airway routes, or route segments which meets# j7 G7 ^4 e4 v3 K; P obstacle clearance requirements for the entire route* J$ o: w9 t V, {, F% P# F) } segment and which assures acceptable navigational 2 d& X7 R% X8 r$ ~( r: x1 usignal coverage only within 25 statute (22 nautical) 4 P; M0 d. B; D! imiles of a VOR.- [, B! L6 p @; u' T (Refer to 14 CFR Part 91.)3 P7 o& W4 F1 l2 { (Refer to 14 CFR Part 95.)! \0 S$ _# H& @2 Y6 t MINIMUM RECEPTION ALTITUDE- The lowest * A2 a7 R: u) [$ q7 K. m) m, valtitude at which an intersection can be determined. ( f& h; Z% c5 f* X D4 }4 I(Refer to 14 CFR Part 95.) ! a: ^7 N/ m% x$ S7 R. S! BMINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR ! ~ z6 H& J W) `! oPart 91 for various aircraft operations.7 M+ f0 g8 O' I- g b. Altitudes depicted on approach charts which& T# j# Y/ m8 i provide at least 1,000 feet of obstacle clearance for& @7 B7 [5 j5 O! y emergency use within a specified distance from the 3 k3 y& X' m- r' d2 L& ^. E% ]1 knavigation facility upon which a procedure is + }1 x$ X; P3 k8 _' r' F! R4 u$ _predicated. These altitudes will be identified as! ?2 D& w/ e8 k/ r Minimum Sector Altitudes or Emergency Safe5 ?* e$ x, Q5 ?! l6 C Altitudes and are established as follows: ; k/ L0 D/ H- E+ r' M; X1. Minimum Sector Altitudes. Altitudes de‐ * Q3 s' u R! F E% bpicted on approach charts which provide at least% B" U: i& o c0 P 1,000 feet of obstacle clearance within a 25‐mile4 J: ^! g* i+ P5 f% v! m radius of the navigation facility upon which the: w$ z9 N# X5 z. R procedure is predicated. Sectors depicted on * N: {6 u6 T+ C# }) M. b2 Napproach charts must be at least 90 degrees in scope.3 M1 Q9 q) ~4 W These altitudes are for emergency use only and do not3 ~, _# u3 P; m6 g% ] necessarily assure acceptable navigational signal0 N. ~& K+ J5 R7 z- V% q coverage. ' M) j5 `$ Z8 K" A* R7 F(See ICAO term Minimum Sector Altitude.) 9 F8 A M# f v8 |2. Emergency Safe Altitudes. Altitudes de‐* r" V. f. g1 R+ p& L, |. P5 M picted on approach charts which provide at least9 ?5 b3 ~# J `7 t 1,000 feet of obstacle clearance in nonmountainous4 o% ?1 M" ?6 f$ c' u areas and 2,000 feet of obstacle clearance in : | w4 _, R$ R: K3 Z! Udesignated mountainous areas within a 100‐mile 7 {. ?0 ~+ m0 ~- v. t, q9 jradius of the navigation facility upon which the ; E {9 C( a9 k6 K5 N8 o$ J/ K: sprocedure is predicated and normally used only in& D' P3 }% w4 [) H [9 v military procedures. These altitudes are identified on / ?$ ^! p2 Y8 ~- Z; ppublished procedures as “Emergency Safe Alti‐( M& K& S: l. X3 n tudes.” 5 M* n2 O" F( tMINIMUM SAFE ALTITUDE WARNING- A+ C! p J# h0 A' U: X& ^, O8 @# N- R function of the ARTS III computer that aids the 3 g! \8 h7 i( ]( v8 v6 ^1 y; _% Z7 jcontroller by alerting him/her when a tracked Mode# q1 q! w3 J. d Q, H C equipped aircraft is below or is predicted by the, S( b+ E4 m1 a) U computer to go below a predetermined minimum safe1 s+ C% B% i, @: | altitude.0 Z" D6 U* C1 g% z, i" X9 @* N9 G (Refer to AIM.) ' E+ {0 l% H/ I! F% K! {MINIMUM SECTOR ALTITUDE [ICAO]- The " v2 e8 d; w# ~, clowest altitude which may be used under emergency1 S0 i y7 v! p. q. U conditions which will provide a minimum clearance w- C% J5 ~( m* F- D. S of 300 m (1,000 feet) above all obstacles located in( u9 [) c2 {) ?4 N an area contained within a sector of a circle of 46 km5 l( S& F' i: Y) `. ^ (25 NM) radius centered on a radio aid to navigation.5 k; F/ e, ]' M5 o& I2 T MINIMUMS- Weather condition requirements 0 U8 }3 h/ \8 gestablished for a particular operation or type of 9 V2 K' i' k* c8 RPilot/Controller Glossary 2/14/08/ _: h$ \0 R& }2 u; Y$ x2 F PCG M-5: h/ F: B" p1 O. P( ] B- f4 h0 J operation; e.g., IFR takeoff or landing, alternate% h; L: N& M) R; K/ N6 q/ a airport for IFR flight plans, VFR flight, etc.. X# Z0 j3 m( r: p. ` (See IFR CONDITIONS.)% r# u- p9 u% T6 J4 i; f (See IFR TAKEOFF MINIMUMS AND $ z7 a3 _6 A7 [0 Y" HDEPARTURE PROCEDURES.)" h U3 Z6 g$ D. {2 k; } S+ t (See LANDING MINIMUMS.) 8 A$ F; | r1 y# G(See VFR CONDITIONS.): A0 F" w- }9 R9 R: c3 U. ^! l (Refer to 14 CFR Part 91.)1 X5 k* }, `; { (Refer to AIM.) 8 G. {* g9 ?0 G( @" L6 X* KMINIMUM VECTORING ALTITUDE (MVA)- 1 N$ w8 [# e0 d1 h6 }' o4 IThe lowest MSL altitude at which an IFR aircraft will d" f2 P- x E2 l, v* C. Nbe vectored by a radar controller, except as otherwise }1 A9 O4 E7 f: U+ W8 W& m authorized for radar approaches, departures, and ) y. a6 U/ d" n6 I- Zmissed approaches. The altitude meets IFR obstacle ; C6 ~+ ~+ G7 G, J" I/ Lclearance criteria. It may be lower than the published0 m* E5 b* g: L- S4 L- z MEA along an airway or J‐route segment. It may be* l4 P+ L+ c& m1 F9 V( P4 _9 f utilized for radar vectoring only upon the controller's* i1 }6 v0 M; Q, l1 ]1 P' O1 b determination that an adequate radar return is being , D+ K* F$ e" v/ L) d) B8 m/ dreceived from the aircraft being controlled. Charts ) ?& q. |) u( l/ ^8 w/ Hdepicting minimum vectoring altitudes are normally3 N3 d) w! S0 A5 } available only to the controllers and not to pilots.; Z2 P( K4 N) z1 D4 }5 O (Refer to AIM.)3 G7 l1 [' N7 x3 D7 z MINUTES‐IN‐TRAIL- A specified interval be‐; s8 `. B& {& H; Z8 h tween aircraft expressed in time. This method would1 n7 q$ M$ }3 D4 ~6 j more likely be utilized regardless of altitude.9 M: `* J+ C9 Y* F- s5 W" V8 C MIS(See METEOROLOGICAL IMPACT , a$ g, T' u% n! D: {STATEMENT.) * i1 f) o" S( }. AMISSED APPROACH- ; n7 F" j% p/ _& Ea. A maneuver conducted by a pilot when an! n/ `6 W* f. _3 H, P6 T instrument approach cannot be completed to a& L. I8 t0 c. S2 D. o landing. The route of flight and altitude are shown on! G) \, r: Y' b0 B9 I instrument approach procedure charts. A pilot 8 ~' Y( p! A. p! mexecuting a missed approach prior to the Missed / K* h* ~" ?' n0 c0 wApproach Point (MAP) must continue along the final ) K5 E% {, t' W1 F+ C6 iapproach to the MAP. + s& k, i. I' S$ `; |' _b. A term used by the pilot to inform ATC that+ X3 A# t4 Z9 E2 D he/she is executing the missed approach.' K- F, u' C$ y& B9 q c. At locations where ATC radar service is u& H+ J7 \- U1 |1 Z0 a1 f provided, the pilot should conform to radar vectors4 }3 j7 i6 `/ \; k2 Y: | when provided by ATC in lieu of the published ' M& a, \, n0 _; s2 imissed approach procedure.1 I# U- J& u; y- R5 |/ V (See MISSED APPROACH POINT.)7 _9 Q7 c0 f+ d6 f. b8 u+ [ (Refer to AIM.) 5 c+ v" |& Z. r, WMISSED APPROACH POINT- A point prescribed% ]0 b+ ?6 c% ` in each instrument approach procedure at which a& K9 J% {, {, f% P# a/ H& }2 S# v4 e missed approach procedure shall be executed if the & n# ~6 g! c8 x: zrequired visual reference does not exist.' i: d! k9 R& z/ X% F4 c, z (See MISSED APPROACH.) - k' `$ J6 F3 ?) |( `; L(See SEGMENTS OF AN INSTRUMENT # @3 j! v+ _" d, B- X1 w* RAPPROACH PROCEDURE.)0 K$ h& v! P1 U- n; s MISSED APPROACH PROCEDURE [ICAO]- The$ _% D; r1 E5 t7 a0 ]1 L procedure to be followed if the approach cannot be * n2 v+ J( r D& Dcontinued. _6 t5 V$ N( Y/ B3 e MISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT0 `; A* j5 e( K3 m1 V+ D APPROACH PROCEDURE.)2 c, ?3 ]( [% e! w$ J MLDI(See METER LIST DISPLAY INTERVAL.) : H: @0 O; R- i7 K& U! uMLS(See MICROWAVE LANDING SYSTEM.) - N4 z/ d) w+ U" W9 t$ rMLS CATEGORIESa. MLS Category I. An MLS approach procedure% L' B% v f0 d- O which provides for an approach to a height above . c0 K) r3 h: T3 c/ A* Ntouchdown of not less than 200 feet and a runway/ F$ r. ?, J* }, g( o! D visual range of not less than 1,800 feet. 0 Y6 z5 O$ o# a8 q& Mb. MLS Category II. Undefined until data gather‐ m9 c/ O4 Q1 X: r1 m' J' _- aing/analysis completion.4 U1 L% B4 U; {$ j) Q/ x( X. l c. MLS Category III. Undefined until data4 U3 H/ t. T' o: b- N. j( ^+ i gathering/analysis completion. 7 J) P) w$ v5 q2 I, GMM(See MIDDLE MARKER.) ) c% V* x2 `8 ^7 MMNPS(See MINIMUM NAVIGATION PERFORMANCE3 n) M2 k2 u* Z$ u$ }( b SPECIFICATION.) , q' ?2 q6 a# ]. X9 G% WMNPSA(See MINIMUM NAVIGATION PERFORMANCE-. B0 o- e$ T9 d% h SPECIFICATION AIRSPACE.)/ E) Q& {) Y& k3 F. m+ Q; E) W MOA(See MILITARY OPERATIONS AREA.)9 d3 Z+ B! v/ I8 T MOCA(See MINIMUM OBSTRUCTION CLEARANCE ( ? Y+ K o& M( t0 o5 kALTITUDE.) / ^$ z2 U7 O$ n/ a: IMODE- The letter or number assigned to a specific5 {$ F4 L: [7 \* K9 D pulse spacing of radio signals transmitted or received ( @0 ~2 |5 }! W7 E M' u+ |2 I' Dby ground interrogator or airborne transponder : @; {" S: S- l% n2 x bcomponents of the Air Traffic Control Radar Beacon , K z1 X! q Z0 ]# S9 k( P0 uPilot/Controller Glossary 2/14/084 d) P$ b, A: L5 I' Y PCG M-6 * F4 F. {+ v8 Q( G% YSystem (ATCRBS). Mode A (military Mode 3) and' Y" |, N" [0 R' A8 }& ` Mode C (altitude reporting) are used in air traffic3 m3 @* s& w' q' g4 W control.: g* c9 l4 ` u/ N* @$ V (See INTERROGATOR.) " g. e" k, y6 e) t' b( _, b(See RADAR.) ) j+ q- t1 w# g) W7 K, _8 P3 t(See TRANSPONDER.) & k9 S: c4 K, E& D4 U(See ICAO term MODE.) 1 a7 [5 w8 Y0 p( _8 [! e" Y4 b* ?(Refer to AIM.) : f9 i" n* ~6 c0 z1 H5 R; aMODE (SSR MODE) [ICAO]- The letter or number- M& W& x- c: R' v; Q assigned to a specific pulse spacing of the 6 T, k H8 x' Zinterrogation signals transmitted by an interrogator. : d; F4 |- V# ^8 O) u9 JThere are 4 modes, A, B, C and D specified in Annex# F6 ]% J9 M$ _ 10, corresponding to four different interrogation ; v$ G+ h1 L S: v; X$ v; gpulse spacings.3 R# K; Z! F8 _1 B" y- \2 j MODE C INTRUDER ALERT- A function of7 b W; s2 [; l" d& [" z certain air traffic control automated systems designed & ]9 p ]- H0 u; @( \1 S9 eto alert radar controllers to existing or pending 2 O$ u3 t! U9 `' a0 b% i, gsituations between a tracked target (known IFR or! R, z4 I8 j, a/ l VFR aircraft) and an untracked target (unknown IFR8 C. H% }; I* D or VFR aircraft) that requires immediate attention/* ~9 ^4 {4 o& K- q8 o action.* ^" k J" G: k1 v5 h5 v- k (See CONFLICT ALERT.)

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MONITOR- (When used with communication ! B! ^6 `; d) P! Htransfer) listen on a specific frequency and stand by$ |5 }9 k! {) |: N for instructions. Under normal circumstances do not % ?& D% h: |* e F/ ~ H3 h3 e" D5 Oestablish communications. : w5 V$ M/ y; H: MMONITOR ALERT (MA)- A function of the ETMS 6 G' x6 B! t# a: `: z7 y: R9 [that provides traffic management personnel with a ) f; P/ P" t, u+ ?% h8 i/ p3 {tool for predicting potential capacity problems in. j6 \, y0 l' v* u0 o" _ individual operational sectors. The MA is an; U* e4 h& s' Z( o indication that traffic management personnel need to1 S" b. k. g2 C4 f analyze a particular sector for actual activity and to- i, D) b X9 `0 ~ determine the required action(s), if any, needed to# \0 q7 O8 P" v! ?9 a control the demand.4 a, g2 u* y! K# r+ X5 q2 j MONITOR ALERT PARAMETER (MAP)- The ( t2 l8 K1 c. W3 o3 T" X% knumber designated for use in monitor alert. u# k. g2 _+ T7 ~ processing by the ETMS. The MAP is designated for * s: B& `1 D1 C6 V! q1 B' ~each operational sector for increments of 15 minutes. & Q2 Z9 J/ F# FMOSAIC/MULTI-SENSOR MODE- Accepts posi‐0 ^+ g6 P" `& _ tional data from multiple radar or ADS-B sites.! m2 _) y7 l( c Targets are displayed from a single source within a) k/ H; a+ z4 i- M2 S9 q radar sort box according to the hierarchy of the . C; Q* N8 X' f- msources assigned. $ _1 V2 ? T- H6 c8 n+ S& ?MOVEMENT AREA- The runways, taxiways, and5 H/ Z# C- H+ F; J6 H2 | other areas of an airport/heliport which are utilized ; A9 o) N9 [2 k8 m! y5 s; J' |for taxiing/hover taxiing, air taxiing, takeoff, and: m* P8 ~" r& h- I- H landing of aircraft, exclusive of loading ramps and " b0 B) V; v8 P. m' Nparking areas. At those airports/heliports with a 0 {1 Y" ~' b% e9 i6 r( ?2 u# utower, specific approval for entry onto the movement # j1 b. p U* J3 M- T. Parea must be obtained from ATC./ a! v7 q: n K! f& a) [ (See ICAO term MOVEMENT AREA.) ' I1 a. V2 u6 |MOVEMENT AREA [ICAO]- That part of an % i; v- f# O3 }7 |' [! S- y Caerodrome to be used for the takeoff, landing and4 x" T N' m- h5 u5 A taxiing of aircraft, consisting of the maneuvering area " B' }3 B$ z+ Y' c9 sand the apron(s). " I M* V4 n4 f. q) F% qMOVING TARGET INDICATOR- An electronic & y6 c9 A* w( e. k0 i. D# mdevice which will permit radar scope presentation# p5 k' c1 p- _2 n& y4 R7 N only from targets which are in motion. A partial2 ?! B. X* k: G; J# H0 A. Z+ | remedy for ground clutter. * [6 u1 A$ ^/ t1 e; U6 u1 m3 Q7 lMRA(See MINIMUM RECEPTION ALTITUDE.) , H' W( _/ h- X5 p ~6 ^3 _7 LMSA(See MINIMUM SAFE ALTITUDE.) % g. R3 z: \% e+ o; ]/ h$ oMSAW(See MINIMUM SAFE ALTITUDE WARNING.)3 j% p: L1 M! \. \" h MTI(See MOVING TARGET INDICATOR.) ) B- O' t. O- V# _MTR(See MILITARY TRAINING ROUTES.) 8 h9 b8 |7 x) k \' FMULTICOM- A mobile service not open to public/ {3 p& z' V) ~6 y! T correspondence used to provide communications 3 ~) w7 o1 k z" d8 {/ H4 k' Sessential to conduct the activities being performed by# c! @4 e- ~. Z" [; A/ A or directed from private aircraft. " m( I. T! E' G% \! gMULTIPLE RUNWAYS- The utilization of a7 z& C7 x _1 }$ a dedicated arrival runway(s) for departures and a 1 \. k$ F- q; }% c7 Zdedicated departure runway(s) for arrivals when 6 @% a+ u+ a' D6 s# i0 W# i7 ]feasible to reduce delays and enhance capacity.) P* t. r! X8 r MVA(See MINIMUM VECTORING ALTITUDE.) 1 J/ w8 ?3 B/ b0 @) [Pilot/Controller Glossary 2/14/081 s6 L* i5 E1 M0 N& C PCG N-1 ' I( T( L# m1 e7 gN1 V5 Y3 T5 g4 `$ O& V NAS(See NATIONAL AIRSPACE SYSTEM.)% Y" ^2 m o9 H. q4 X$ @& h5 e. @; | NATIONAL AIRSPACE SYSTEM- The common) c/ z! {- l+ K, V1 e7 d network of U.S. airspace; air navigation facilities,! _1 `4 U0 P8 z0 }1 q4 \3 J equipment and services, airports or landing areas; & z D0 }! [6 Q, F3 Aaeronautical charts, information and services; rules, , k, ~3 M: b) O6 i! a: O' mregulations and procedures, technical information, C. J1 e2 Q% t+ E/ s1 Q; [ and manpower and material. Included are system( M8 u! ~! M9 G components shared jointly with the military. 5 \. d* E1 ]6 U! F0 J# {3 V1 HNATIONAL BEACON CODE ALLOCATION * W; I# K5 q2 jPLAN AIRSPACE- Airspace over United States Z1 c3 v9 W3 O9 y& w- f# c* cterritory located within the North American continent6 j( x2 T- z9 W7 \5 e5 M( l; Q between Canada and Mexico, including adjacent 0 B" z2 M6 I; Zterritorial waters outward to about boundaries of $ M& A& z1 t/ \) K, eoceanic control areas (CTA)/Flight Information 5 y5 e! Z% w! K. ERegions (FIR). & w) J2 Q& H6 @% R( ?( s Z(See FLIGHT INFORMATION REGION.) 3 S& k7 U5 }0 v3 S$ e! p" kNATIONAL FLIGHT DATA CENTER- A facility in 5 Z4 M6 T) P* ]* z* K$ KWashington D.C., established by FAA to operate a 7 I9 \% [4 x1 P/ [9 rcentral aeronautical information service for the' ^% _- S4 d( `7 M2 b& g collection, validation, and dissemination of aeronau‐ 7 r$ k7 }3 O" _tical data in support of the activities of government, 6 ^3 r4 J& v2 Jindustry, and the aviation community. The informa‐* I6 A, E# j! `) A# K tion is published in the National Flight Data Digest. ; D) H" J& ? a1 O, S" v- h% d(See NATIONAL FLIGHT DATA DIGEST.) . J( _4 Q3 P% F" xNATIONAL FLIGHT DATA DIGEST- A daily ! f2 e( Y, V" I0 m: I: R4 O6 g" a(except weekends and Federal holidays) publication9 s$ U' s7 w& t$ a5 M/ ^2 q0 _ of flight information appropriate to aeronautical/ g9 i4 @, b+ ^# z1 Y charts, aeronautical publications, Notices to Airmen, 4 S% J U" F0 z/ | ~or other media serving the purpose of providing 7 u4 k. X4 n4 M) H( o) ~operational flight data essential to safe and efficient1 W; v3 E- ~& ^. Y- m aircraft operations.3 Z' Y0 N* z2 N; x( |/ v) E X/ `' C NATIONAL SEARCH AND RESCUE PLAN- An% g o" w( [2 ]( D interagency agreement which provides for the 9 F: D9 _2 ?% e2 n( v- K8 `effective utilization of all available facilities in all3 R+ F& `3 Q8 n/ a types of search and rescue missions.- _. u8 Q! S+ S: F/ k7 R8 I NAVAID(See NAVIGATIONAL AID.) 9 I2 @8 K$ O7 J1 u) m; ANAVAID CLASSES- VOR, VORTAC, and TACAN+ \: a6 P( F* o aids are classed according to their operational use. 1 [2 _ m+ _. o5 t: H+ {The three classes of NAVAIDs are: / G; q1 C: ?8 ?) J/ o+ Y Ha. T- Terminal.( x z2 T% _; G b. L- Low altitude.! H! W# v0 k' \! J0 K/ u3 Y r c. H- High altitude.6 b8 l; J" z: d9 \ Note:The normal service range for T, L, and H class' Y8 e! b6 ?- `* x7 M" M aids is found in the AIM. Certain operational' N9 `/ Q* ?; h5 S, C! I5 | requirements make it necessary to use some of " z! G# v; L# x4 i# `( Bthese aids at greater service ranges than + }7 f8 B( c1 B" A1 d' Yspecified. Extended range is made possible 7 @3 V3 v* h: a2 P: ^through flight inspection determinations. Some1 U$ [8 X4 ?- P4 l0 x aids also have lesser service range due to location,& Z7 e6 _/ D6 `% r" x terrain, frequency protection, etc. Restrictions to ' {0 v, Q0 @, a$ x$ a. [" iservice range are listed in Airport/Facility + p7 c7 o8 }; k' m" s! ?% u( wDirectory. ( U% x6 o3 f0 ^" \1 d: ENAVIGABLE AIRSPACE- Airspace at and above1 q2 u# X0 r3 v9 Y& j1 C the minimum flight altitudes prescribed in the CFRs( B; Z9 J. n* {# A+ { including airspace needed for safe takeoff and2 @0 y( }9 T% {( z) B: m6 _ landing.4 V( C }6 c; H4 ] (Refer to 14 CFR Part 91.) 6 W3 N6 X7 r* I- U2 C0 xNAVIGATION REFERENCE SYSTEM (NRS)-6 I) \: g! j4 }/ c The NRS is a system of waypoints developed for use" j( [6 W! M4 u# z2 m" E1 O: { within the United States for flight planning and , Q( n* }3 S) @8 @2 wnavigation without reference to ground based 1 f1 N4 b6 I J" s' ~* X$ G* pnavigational aids. The NRS waypoints are located in6 N& }: B( _ A8 p! l5 h/ G a grid pattern along defined latitude and longitude 0 @! E) _5 D/ Qlines. The initial use of the NRS will be in the high ; n# t$ i( g( s0 m9 j9 P( haltitude environment in conjunction with the High . g& d [2 O5 D) K, `9 sAltitude Redesign initiative. The NRS waypoints are+ T) ~' c) { c. k- N2 X intended for use by aircraft capable of point-to-point ) D+ O- I& [- q& Y/ X" Mnavigation.7 y+ S" R8 f( C3 n NAVIGATIONAL AID- Any visual or electronic % y* [+ i) V' I' ~# z7 [& H4 `5 Idevice airborne or on the surface which provides$ ~( |% A1 ~' A2 q [/ P0 w point‐to‐point guidance information or position data6 a7 }- J0 B; z to aircraft in flight. ' S2 B2 t/ F2 U/ m(See AIR NAVIGATION FACILITY.) ) R* d2 m1 F5 Z T9 C# e4 J) [NBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION 7 S) R& T! `% v) X* s/ U' uPLAN AIRSPACE.) & H0 F. a' @) ~+ ]NDB(See NONDIRECTIONAL BEACON.) . D0 w% G4 |$ d# oNEGATIVE- “No,” or “permission not granted,” or 8 c x) B4 l d$ r6 }( W“that is not correct.” ( U0 w* M. [2 [3 tNEGATIVE CONTACT- Used by pilots to inform ! ~! c) S( b+ Z( M8 P3 {1 q% A: t$ cATC that: & P8 p& e; L2 J; ~& ?/ C6 W* Y% ca. reviously issued traffic is not in sight. It may5 O, R2 Y! i# K2 n1 Y5 Y. f be followed by the pilot's request for the controller to! ]' o. v* i, y# ~+ v provide assistance in avoiding the traffic.1 k) V+ b6 ~! i- D7 l) L; ^ b. They were unable to contact ATC on a0 T" I% [: s# F7 C& j+ T( I' H particular frequency. + [) K. t0 J) l& P6 E- RPilot/Controller Glossary 2/14/08& y4 z [! F. C: t& J, E+ @* r PCG N-2 8 z. e; G+ E [- J; S r4 z& \NFDC(See NATIONAL FLIGHT DATA CENTER.)1 y* m( p8 z' J9 m) s NFDD(See NATIONAL FLIGHT DATA DIGEST.) - p- s7 `! R o9 l0 Q% L8 W3 NNIGHT- The time between the end of evening civil- m, {4 @1 l: r* u twilight and the beginning of morning civil twilight, 1 `* H) ^% ?. d) a3 M& Q& pas published in the American Air Almanac, converted 2 S$ a, A, H4 m/ ?3 ]; Oto local time.2 L X# a' q1 w+ O. d5 }# x (See ICAO term NIGHT.) ( C4 ^; y; i8 l# ANIGHT [ICAO]- The hours between the end of ' V- m) E; Q& ~evening civil twilight and the beginning of morning & v. Y' n3 Q$ Pcivil twilight or such other period between sunset and 4 y$ t( Z: f+ [) ?; l8 ysunrise as may be specified by the appropriate2 G9 D# l* }) n0 F; p/ B! { authority. 1 {: z) J) |* e6 bNote:Civil twilight ends in the evening when the ; ^6 C3 g) ?' k. ~& mcenter of the sun's disk is 6 degrees below the ) h1 a8 m, h; o' O4 I+ b) ~8 whorizon and begins in the morning when the center u( n/ Z- ?* ^+ u8 R. eof the sun's disk is 6 degrees below the horizon. + ?' i# V b$ c8 |2 C1 | }NO GYRO APPROACH- A radar approach/vector1 t6 ]; L z! B8 d& O provided in case of a malfunctioning gyro‐compass% F# a. G1 C; ~. g- L or directional gyro. Instead of providing the pilot, c" O1 O6 m+ k' q( d with headings to be flown, the controller observes the ) r$ c6 Z/ B' z. z4 \/ ~2 ?# pradar track and issues control instructions “turn 4 w8 V; @2 T9 k5 N1 F, X" o$ kright/left” or “stop turn” as appropriate. 4 m& A8 j% \7 G# j* ?(Refer to AIM.) ) k% p: T$ R, p2 R7 D) B5 C! |6 BNO GYRO VECTOR(See NO GYRO APPROACH.). l& C6 O( C5 a$ f$ `: S NO TRANSGRESSION ZONE (NTZ)- The NTZ is) B4 x: q X* k/ y a 2,000 foot wide zone, located equidistant between! B' @0 t3 m b* ? parallel runway final approach courses in which& X) B! Q; f8 a# { f7 b9 N3 N flight is not allowed.8 F6 n; |3 Y) ? NONAPPROACH CONTROL TOWER- Author‐ / c& x! ^" t' y: y# W8 Q- |izes aircraft to land or takeoff at the airport controlled7 G# H* }& ?$ d8 T# `0 ` by the tower or to transit the Class D airspace. The8 G! s9 H& |: s- j1 c! ~0 y primary function of a nonapproach control tower is ) q6 W! V! h/ q2 }the sequencing of aircraft in the traffic pattern and on6 K' a9 x) r1 l# I- Q the landing area. Nonapproach control towers also 0 B3 e& G/ h; B+ l; Lseparate aircraft operating under instrument flight- y" _. l( i$ |. m* _4 n+ l/ F rules clearances from approach controls and centers.* A& d- b& q% N/ V' ]# K k9 ^ They provide ground control services to aircraft,6 c7 j, y/ q" P, v: w) P8 X vehicles, personnel, and equipment on the airport " m0 |4 H# w5 m" n2 X8 tmovement area.$ z6 Y4 d& _5 } g7 q/ } NONCOMMON ROUTE/PORTION- That segment # z; y) u0 `$ i9 b, l$ ]+ M* |# Wof a North American Route between the inland " k) T2 u& z& f( p8 K8 `; jnavigation facility and a designated North American , J7 V% |1 o0 Vterminal. 9 A) @3 [( P5 \, o0 O' w% oNONCOMPOSITE SEPARATION- Separation in2 ?% [) r( H# p: \ accordance with minima other than the composite$ J) Q! r9 ?7 J separation minimum specified for the area con‐3 `0 [1 Z& I) F( M. W cerned. 1 p3 W4 H8 G4 ~# Z- }0 U3 hNONDIRECTIONAL BEACON- An L/MF or UHF* G, q T! }/ n; C) ^& [ radio beacon transmitting nondirectional signals / y9 K0 d8 a9 h) _; }whereby the pilot of an aircraft equipped with5 H" K# n# W: {0 M, s' }# M direction finding equipment can determine his/her 5 o6 n! f! L9 F+ s2 E3 ?, g5 obearing to or from the radio beacon and “home” on or! O3 ]" t, F! S b: e, q1 [ D+ p track to or from the station. When the radio beacon is 4 v6 Y, Q% B$ H- ?( ~! u! G. `installed in conjunction with the Instrument Landing + Z: c5 y; N6 J+ C8 q. W7 Q; n+ YSystem marker, it is normally called a Compass ' F O" w: i3 G. w' rLocator. B$ j7 b5 a0 ] (See AUTOMATIC DIRECTION FINDER.) E6 K4 ]7 N" d# w. a2 k3 T4 i (See COMPASS LOCATOR.)

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