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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‐: \" i* M. a6 V- q ing aircraft in a composite route system where, by 7 `% C% b2 b$ Jmanagement of route and altitude assignments, a : K& ^8 N. A, _4 dcombination of half the lateral minimum specified for* s8 E( K/ C1 E; c2 F7 s the area concerned and half the vertical minimum is 3 h/ a9 c) N# J( X* m/ }% @4 g; tapplied. , X6 |' ]8 E- \( ~( S# C* E7 [* fCOMPULSORY REPORTING POINTS- Reporting : n% I( Y6 L# Rpoints which must be reported to ATC. They are : [% i/ ?; I# |% j+ qdesignated on aeronautical charts by solid triangles or: h8 I: Q' j, B5 j" ^* x* J filed in a flight plan as fixes selected to define direct1 d5 o' A2 B: A8 g3 F3 m9 m8 H routes. These points are geographical locations . V% E& z% A8 r5 Mwhich are defined by navigation aids/fixes. Pilots 7 r1 i9 n# }- e; A: H$ ]should discontinue position reporting over compul‐& b5 {. i" \/ R8 Y+ U8 \4 ` }* p sory reporting points when informed by ATC that) o6 X" V5 @4 f& U) Y their aircraft is in “radar contact.”* K% U+ m# \/ \# `9 I( D3 C CONFLICT ALERT- A function of certain air traffic ( Y7 B A0 j7 u: g3 B3 Y8 ` dcontrol automated systems designed to alert radar! j/ M3 }; r7 L$ z6 | controllers to existing or pending situations between7 V9 m) o8 b( o: V4 z ^& [, I7 _. L tracked targets (known IFR or VFR aircraft) that7 E8 x% D7 u$ E3 j require his/her immediate attention/action. ! K% J0 M2 L$ S1 k& k: m(See MODE C INTRUDER ALERT.) 0 U4 X9 }/ k7 S+ x3 W: _CONFLICT RESOLUTION- The resolution of ; z! g5 i( Y9 K! v' Jpotential conflictions between aircraft that are radar + k" m2 j; W3 }" xidentified and in communication with ATC by3 S: `* j0 E2 W% \& T* d+ r) `0 j ensuring that radar targets do not touch. Pertinent; y/ H# |. c1 l+ U8 m8 o' ? traffic advisories shall be issued when this procedure 4 m' F6 p( v6 B/ B) Ais applied.$ c& H+ T& y3 J$ z% ^4 i Note:This procedure shall not be provided utilizing6 H) C( u9 m2 C mosaic radar systems.# ~0 s: g# B* l$ o: l) C: ? CONFORMANCE- The condition established when5 {, o. R$ O: h" t# s an aircraft's actual position is within the conformance ; S5 M7 e" {$ t0 |) F! X1 F) uregion constructed around that aircraft at its position, $ ?7 W- Z) z$ t, L$ caccording to the trajectory associated with the" m# v" }+ y ]) D$ M, O5 M2 K aircraft's Current Plan.; C8 S' a2 O: i4 y/ |( `, ], G CONFORMANCE REGION- A volume, bounded# i" k% X& n. F/ P: u$ R laterally, vertically, and longitudinally, within which- ~( L' F! [: }0 T8 m an aircraft must be at a given time in order to be in ( u4 Z! u$ u1 D }+ yconformance with the Current Plan Trajectory for that . {: r- }2 h9 A1 x/ X6 `( Oaircraft. At a given time, the conformance region is # q" V$ c& ^& {: K, T: Kdetermined by the simultaneous application of the , o8 e" c' n$ ]lateral, vertical, and longitudinal conformance - h6 l. ]* ?0 v0 Obounds for the aircraft at the position defined by time : K% ~; u( m' i6 Jand aircraft's trajectory. 2 J' b* Q. s0 TCONSOLAN- A low frequency, long‐distance 0 u: \; V3 f' n" H. JNAVAID used principally for transoceanic naviga‐8 r0 b* P. J/ X8 a2 T, v6 O tions. 9 C( n' o x" Z7 b+ ICONTACTa. Establish communication with (followed by the1 s4 [) p8 Q9 W2 R$ x name of the facility and, if appropriate, the frequency# J& g: f( j5 ]: r to be used).7 \; ?. j/ P1 I( J b. A flight condition wherein the pilot ascertains! p% w* ^$ z* h the attitude of his/her aircraft and navigates by visual / j0 q% {' ?5 Q# Hreference to the surface.3 m$ y8 s. N! K, [) k (See CONTACT APPROACH.) 7 ^. W! q' b& |, n' h1 J(See RADAR CONTACT.) 1 H9 h/ d/ H: U2 i# m% k5 \" k: ~CONTACT APPROACH- An approach wherein an + _: G {9 S \- ^+ waircraft on an IFR flight plan, having an air traffic& Q4 Y: Z5 c+ B control authorization, operating clear of clouds with0 g+ V7 O, P* I) o0 _' \" o at least 1 mile flight visibility and a reasonable $ H Z( w2 e3 X6 aexpectation of continuing to the destination airport in6 s* S$ ~9 T$ `4 f* r d those conditions, may deviate from the instrument ! [* R5 @0 ~, f! r" k1 b! K' r qapproach procedure and proceed to the destination9 @+ Y8 z& z/ ]$ Y airport by visual reference to the surface. This N4 O) S, J' happroach will only be authorized when requested by 1 V; B. {. Y- \( x3 G. Mthe pilot and the reported ground visibility at the 2 ?' e) Q( B2 ?/ p" Sdestination airport is at least 1 statute mile. 3 C3 F$ L8 h! K$ C" `(Refer to AIM.) " G5 h5 P) I& d& |2 HCONTAMINATED RUNWAY- A runway is! @' Q5 o% J1 l- m- @9 V' m8 j- K7 H! t k considered contaminated whenever standing water,+ { {6 B5 j$ e6 n; B2 i ice, snow, slush, frost in any form, heavy rubber, or ( B* b9 r5 y' Q0 |other substances are present. A runway is contami‐ * i8 m3 C* M9 n# u; Onated with respect to rubber deposits or other/ \4 R& h3 T1 k: y" {" e friction‐degrading substances when the average 5 B% q/ w9 K5 R7 wfriction value for any 500‐foot segment of the runway+ q! g& Y4 w/ n" I2 } within the ALD fails below the recommended d0 ]/ l+ c- J, `7 _) xminimum friction level and the average friction value % n1 E5 P" w$ K" R6 uin the adjacent 500‐foot segments falls below the2 g$ I: |5 t% l% e$ A maintenance planning friction level." D: G! L7 }! \ CONTERMINOUS U.S.- The 48 adjoining States / B& D, H- w2 U+ t8 \6 gand the District of Columbia.* i' n5 h' W" Q1 W7 b Pilot/Controller Glossary 2/14/08 . }; h, H7 F( {PCG C-6, W* t+ E8 G, y* O' H7 p CONTINENTAL UNITED STATES- The 49 States4 {) \+ N" q" | located on the continent of North America and the) Y% t2 n( f6 l) J! E District of Columbia.9 \7 O6 |# A O; f9 H CONTINUE- When used as a control instruction 9 @) l) q4 M6 g" ` B) ashould be followed by another word or words- H3 M* j X; g clarifying what is expected of the pilot. Example:( b3 Q, ?' M% L4 } “continue taxi,” “continue descent,” “continue 9 r& ]2 Y3 L7 F% f: Jinbound,” etc. 4 R6 i3 W) w3 K1 l; _CONTROL AREA [ICAO]- A controlled airspace 3 Z1 B/ `. y) f6 hextending upwards from a specified limit above the+ }; b" |1 g7 y. `/ o' f earth.- ?5 l# p8 Y7 g! S! C* ~ CONTROL SECTOR- An airspace area of defined % ]; H9 g' b. W8 K8 ~5 ~horizontal and vertical dimensions for which a # k2 j/ l/ ]6 i" z+ Tcontroller or group of controllers has air traffic* U* H. {4 F* u K( r& B2 r- u control responsibility, normally within an air route# D4 v) H. B( ` traffic control center or an approach control facility., c; }: N6 `8 l1 l1 K) y Sectors are established based on predominant traffic 5 K' f8 f1 s+ _. p" a- x% Wflows, altitude strata, and controller workload. 3 w `4 R7 T _0 cPilot‐communications during operations within a. u! n3 _! @' ^! x- ` sector are normally maintained on discrete frequen‐ 9 H; y; d# k/ s4 N( [$ ] H' j4 ccies assigned to the sector.. R; \) \* B* q8 y' W: A }" a2 G (See DISCRETE FREQUENCY.), M. W8 K& a9 p7 y0 F$ r CONTROL SLASH- A radar beacon slash repre‐) v7 |2 [- G- x senting the actual position of the associated aircraft. 6 `8 S8 v6 j: i) [! nNormally, the control slash is the one closest to the* w$ {9 Y7 |( L! f: @. U interrogating radar beacon site. When ARTCC radar0 @% A' f) ?8 ^- `& Q( q is operating in narrowband (digitized) mode, the6 | s' {( P7 [8 [ control slash is converted to a target symbol.; o$ U/ X$ ~1 l/ S' F; w) M CONTROLLED AIR SPACE- An airspace of0 l; |" P9 B2 @$ j" U defined dimensions within which air traffic control( [- t" z! G6 |/ w service is provided to IFR flights and to VFR flights , m7 d$ ~6 |8 f- qin accordance with the airspace classification.$ J' [6 a) h1 y! S" e1 U/ d a. Controlled airspace is a generic term that covers- `3 g2 D; ^, E5 F Class A, Class B, Class C, Class D, and Class E/ V2 R' s1 s# \7 I+ X) ` airspace. 8 l# N" h7 |! U1 [0 Ub. Controlled airspace is also that airspace within : Y7 J2 c9 Y5 G" vwhich all aircraft operators are subject to certain pilot* V8 H9 o8 B8 Y qualifications, operating rules, and equipment) i" s- R+ w, }, o* o requirem ents in 14 CFR Part 91 (for specific 5 d; ?& y( b' Q& H( Eoperating requirements, please refer to 14 CFR ( B4 e& d+ x9 }% MPart 91). For IFR operations in any class of controlled 9 k1 n. u' u2 k, C: f, ]airspace, a pilot must file an IFR flight plan and 9 \; ?. R; [. T* T5 U4 \receive an appropriate ATC clearance. Each Class B,5 W; v3 M- D' W9 ^: |! z Class C, and Class D airspace area designated for an- s4 d7 n4 B$ g K1 y airport contains at least one primary airport around 0 c7 ^4 b6 O( d/ |which the airspace is designated (for specific + i2 }$ s) C% ]4 g7 M: p8 sdesignations and descriptions of the airspace classes,$ A g. O4 H1 ~, }- v+ q9 J please refer to 14 CFR Part 71).2 ]& _, {" K1 ]9 W# y9 r7 I, l, p- p7 } c. Controlled airspace in the United States is2 X% Z+ ?, h) u' o, Q! @: j designated as follows:9 [$ ?7 I$ ?; s5 }& M0 @8 f 1. CLASS A- Generally, that airspace from, L9 i& E! N9 q. N; y 18,000 feet MSL up to and including FL 600,* K, |, {+ R$ }( |( l2 d" W! i including the airspace overlying the waters within 12+ B6 V1 Z3 a/ x" K" T5 y6 e% i9 q; E nautical miles of the coast of the 48 contiguous States , ` E- e# r, t. e6 land Alaska. Unless otherwise authorized, all persons m& D3 I Y! e must operate their aircraft under IFR. : Y, y( b+ x; |0 N; K! y2. CLASS B- Generally, that airspace from the. U4 C5 o! o" a$ U/ a$ f! n surface to 10,000 feet MSL surrounding the nation's, n/ }, `' e: ]+ x" h, [ busiest airports in terms of airport operations or! P/ L" f5 z' c# o C. a8 ^, O0 E passenger enplanements. The configuration of each+ w' n8 ?. `1 b. B Class B airspace area is individually tailored and* j! O2 O0 O: J' C" }+ n( S- C consists of a surface area and two or more layers 0 S+ _: y. v+ ?4 E# h- t& T" @(some Class B airspaces areas resemble upside‐down% H: B+ V2 K" N: g wedding cakes), and is designed to contain all8 u; G( N# }8 g% y# z/ d published instrument procedures once an aircraft 9 A9 j3 U. |( X9 x' denters the airspace. An ATC clearance is required for% X# L; ~+ j* L4 x all aircraft to operate in the area, and all aircraft that + i! @ L, q# _. _, Eare so cleared receive separation services within the - K+ m4 X, ]0 m" N! N4 [airspace. The cloud clearance requirement for VFR4 U) r9 Y9 N4 [9 [3 r operations is “clear of clouds.” $ E6 U/ y5 S4 E, t, p3. CLASS C- Generally, that airspace from the* R: a& P& t1 _7 g! y2 H surface to 4,000 feet above the airport elevation" g+ o. n" b; m8 T/ | (charted in MSL) surrounding those airports that 1 e- u) l4 v5 x3 j' {3 q! P8 A, ^have an operational control tower, are serviced by a/ V- H& E6 o2 v% |: n: n radar approach control, and that have a certain / K$ K6 k" x+ G4 Unumber of IFR operations or passenger enplane‐- q6 [$ y( ~: n2 g7 e ments. Although the configuration of each Class C 9 ~/ h+ X* F ~8 `area is individually tailored, the airspace usually & d. b/ o& [5 c1 n7 E, S, M! m- pconsists of a surface area with a 5 nautical mile (NM) * q) t$ N9 W1 U& Rradius, a circle with a 10NM radius that extends no$ w1 m) @5 d3 u0 s* E6 D lower than 1,200 feet up to 4,000 feet above the - T- M( P& {8 _0 S" _9 zairport elevation and an outer area that is not charted. 9 a4 Y+ N) v1 v% TEach person must establish two‐way radio commu‐* K3 F$ ^- M9 c. E5 R- q nications with the ATC facility providing air traffic # ~! S' R E) y: \: a' uservices prior to entering the airspace and thereafter " T3 g7 D6 L. U! E+ l1 }2 L4 cmaintain those communications while within the' j# l x" S2 P; @ airspace. VFR aircraft are only separated from IFR/ @& s6 Y4 H3 q( b( q aircraft within the airspace.7 ?2 ?0 m! j) V# X (See OUTER AREA.) , P: G9 u( V" e0 L7 [2 G; ~0 E# J' @$ ~4. CLASS D- Generally, that airspace from the$ H0 K" m2 U+ g7 @1 @4 A3 G( I0 ^ surface to 2,500 feet above the airport elevation3 ]2 ?+ U, K* B% j/ ~/ k (charted in MSL) surrounding those airports that3 z0 \# f0 h( p% @4 @' s have an operational control tower. The configuration # g) B, p" x3 j3 w! ~& Gof each Class D airspace area is individually tailored( y G& W6 c1 r$ X# Y and when instrument procedures are published, the+ e' ` `/ ` o5 J4 v& J/ e airspace will normally be designed to contain the- N* W3 ?+ B; n/ W: t: R0 e procedures. Arrival extensions for instrument 0 j# y1 S9 v- h4 Y! j8 g9 ?approach procedures may be Class D or Class E0 N% u" q4 |( H Pilot/Controller Glossary 2/14/08 W+ y+ v( q# V2 x: j$ t# oPCG C-79 i1 O3 A! l& Y+ f airspace. Unless otherwise authorized, each person/ c$ d# P" w: @. e9 g must establish two‐way radio communications with0 D" N6 o9 i, [+ O1 n the ATC facility providing air traffic services prior to$ R. ~" O1 F e4 H$ S4 ]7 Z' G+ n* k) K entering the airspace and thereafter maintain those( @& l! J# D' F: l communications while in the airspace. No separation j; X. y' V- j# L" j! q services are provided to VFR aircraft. 1 ?9 X4 ^4 i: y7 v1 b5. CLASS E- Generally, if the airspace is not [: }2 f% v, S& lClass A, Class B, Class C, or Class D, and it is: K6 A0 ~1 f& Z! |( Y4 r0 e: s controlled airspace, it is Class E airspace. Class E , N( e( t" U; a4 A. E1 ^# ^airspace extends upward from either the surface or a / K( e: N8 j. x- V1 N( c- s! |designated altitude to the overlying or adjacent$ e% b8 t" K4 u; m7 i% p$ O! W6 Q controlled airspace. When designated as a surface & _7 d. Q; z; ]8 M6 \5 rarea, the airspace will be configured to contain all : N9 l7 Y, d9 Y+ m- Z6 s0 e. ~instrument procedures. Also in this class are Federal 9 k; N ?" ?0 A$ q; x' U$ {airways, airspace beginning at either 700 or 1,200) f) f) h# J+ a% G) d% d9 \6 _ feet AGL used to transition to/from the terminal or en 0 A1 b" L/ [! c' \3 ~+ proute environment, en route domestic, and offshore - x1 \' l. L- D" s) K+ yairspace areas designated below 18,000 feet MSL.( U3 m# K: Y" |: L# a% }0 H* m4 V Unless designated at a lower altitude, Class E6 T1 ?( g- f/ D: W6 ~' n airspace begins at 14,500 MSL over the United 4 q- M0 V% a, h' Z; r! MStates, including that airspace overlying the waters " V. O# S( D: U( |within 12 nautical miles of the coast of the 48. P* |0 ^' W) V1 Y( x9 Q contiguous States and Alaska, up to, but not2 U2 P6 S6 T; D1 h l% B6 G ~ including 18,000 feet MSL, and the airspace above' o* u6 _5 D y! n8 ?7 T. m FL 600. - Z9 {0 S% L( u$ e9 w7 `CONTROLLED AIRSPACE [ICAO]- An airspace. P- [# Q/ O% u% f1 D# b( X2 p5 h' S1 I of defined dimensions within which air traffic control : p5 o& }3 M5 v5 N' X, w2 mservice is provided to IFR flights and to VFR flights 0 l( f/ F' M% u8 _) y3 oin accordance with the airspace classification. 8 z1 y4 L3 ]7 u$ BNote:Controlled airspace is a generic term which # s3 ?9 C% \/ O! \covers ATS airspace Classes A, B, C, D, and E.! s. ^2 l" T) d; x- a. [6 y0 m CONTROLLED TIME OF ARRIVAL- Arrival time* j' W7 [$ h: F3 [" R" C& M assigned during a Traffic Management Program. This6 A2 l1 f2 M( S/ @ time may be modified due to adjustments or user& s( D$ _, m4 v options. $ j5 _8 F9 z t7 L2 L6 ~% ?8 P" qCONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.) 9 W7 P8 g, j: s5 eCONTROLLER [ICAO]- A person authorized to ' z G0 _& V5 [% @5 _2 Lprovide air traffic control services.% J, [# t7 u4 q; U% r. b0 C1 z CONTROLLER PILOT DATA LINK COMMU‐3 Q7 M6 X+ P- Z: i: m8 a& O6 y NICATIONS (CPDLC)- A two-way digital very5 _3 h. O0 G J. { high frequency (VHF) air/ground communications& j5 E% g7 |: i7 w; V( q system that conveys textual air traffic control ) r; f7 t+ k( q+ umessages between controllers and pilots. 9 i: f) B- s8 [, r! T. @CONVECTIVE SIGMET- A weather advisory: t/ i. c7 J1 v, } concerning convective weather significant to the 7 Z5 T0 W4 Q! V# V8 }, `7 Dsafety of all aircraft. Convective SIGMETs are issued. R6 P) X2 q! ^. T9 y; H" S for tornadoes, lines of thunderstorms, embedded* K0 l1 m. R! y thunderstorms of any intensity level, areas of 3 o$ V" X* K$ B, }* Vthunderstorms greater than or equal to VIP level 4! k6 d: [( n' p5 S" A. z! V with an area coverage of 40 t: \& |* E$ L% E7 n$ |" d/ Z /10 (40%) or more, and hail 9 U* i( C* w3 q: }: ~3( N% M& w2 g/ X" x Z. g n /4 inch or greater. : x5 {" K/ i0 v(See AIRMET.) / |6 l( v, c, {* K(See AWW.) ' ?0 @% Q9 Q2 N& w ~(See CWA.)! k4 F! [! n" h7 \( j: E (See SIGMET.)1 G7 L2 b& W; t3 f6 I (Refer to AIM.) # F' {+ Q9 t4 }* q/ R( Z" B: hCONVECTIVE SIGNIFICANT METEOROLOG‐ 2 I4 j ?* _9 h6 y. U( R' u' CICAL INFORMATION(See CONVECTIVE SIGMET.)# K" I) s& P/ x7 ?8 o/ J8 Y( V COORDINATES- The intersection of lines of , N* c$ y0 Z8 a( \; y6 C" s; dreference, usually expressed in degrees/minutes/( k* f. l+ F' s seconds of latitude and longitude, used to determine& s3 a8 @7 l: V4 }0 p4 Z5 @' @ position or location.( N Y7 U0 z' f1 W z COORDINATION FIX- The fix in relation to which! q" P/ r: C0 A( w3 [/ u facilities will handoff, transfer control of an aircraft,+ B5 m" [+ |6 U5 M' O or coordinate flight progress data. For terminal 8 W8 D9 }2 V& Z3 @- Efacilities, it may also serve as a clearance for arriving 5 Z+ c8 d5 {, k- b4 j; daircraft. # E7 j; Z {7 A# yCOPTER(See HELICOPTER.) L# b4 a% U7 RCORRECTION- An error has been made in the : A a0 [: l7 Jtransmission and the correct version follows.3 t2 h; b$ ?3 t% I COUPLED APPROACH- A coupled approach is an i+ j0 R+ g( [+ E: _, Rinstrument approach performed by the aircraft ( c) K- k# X4 v3 lautopilot which is receiving position information * |7 r# j* g" R+ d3 \and/or steering commands from onboard navigation0 u! O' r, O/ ^ equipment. In general, coupled nonprecision ap‐ ! v% `4 v# `% r! j1 tproaches must be discontinued and flown manually & x9 X1 i$ G# K5 K) Dat altitudes lower than 50 feet below the minimum / b3 t. w1 Z, n- P ~& S$ Wdescent altitude, and coupled precision approaches) v2 j% p1 L+ b3 L must be flown manually below 50 feet AGL.2 W8 T5 d0 B2 e4 |7 J, l# c' B( l Note:Coupled and autoland approaches are flown & U, X! h; e6 G+ F2 ]in VFR and IFR. It is common for carriers to require 2 |# l% c A" ]( @; ctheir crews to fly coupled approaches and autoland % S& V, u* }, r* b$ papproaches (if certified) when the weather e$ z1 `) b+ ~3 x% [conditions are less than approximately 4,000 RVR.3 N! H! L+ \) h" A1 Z t0 G3 {3 K (See AUTOLAND APPROACH.) * h( z% ~3 I! }# d) ]8 W: k, x- JCOURSEa. The intended direction of flight in the horizontal7 E; g( R9 ^0 b5 S# k3 | plane measured in degrees from north. 1 {) N2 e0 P6 [- x6 ]b. The ILS localizer signal pattern usually 0 x2 a7 `7 o! G4 D$ A+ v1 Wspecified as the front course or the back course.3 U( M2 N9 }5 v# g9 g ~5 d Pilot/Controller Glossary 2/14/08) Z" {! ]2 `3 S2 l( r8 z7 \ PCG C-8 , c9 l2 I4 V7 b& z7 l7 hc. The intended track along a straight, curved, or k& z# s& w( ]+ G( f segmented MLS path. - ~8 g, _: k! q) Q(See BEARING.)% \, W Z6 I- [$ V7 n (See INSTRUMENT LANDING SYSTEM.) ) q Y% p: B# X4 L( V(See MICROWAVE LANDING SYSTEM.)0 N* h n( e& E, l3 ^3 r (See RADIAL.) 5 g2 J6 ^) j3 P! P1 c" [. eCPDLC(See CONTROLLER PILOT DATA LINK ) P& f/ o$ P zCOMMUNICATIONS.) , U9 ?( w3 a- i5 Z. [CPL [ICAO]- 0 \* _ p& E( W$ `/ X5 ?& \" l" T8 c9 r(See ICAO term CURRENT FLIGHT PLAN.)$ M4 |5 j7 `: T0 f CRITICAL ENGINE- The engine which, upon 4 P- I' h8 j: v1 }3 b2 t( Nfailure, would most adversely affect the performance $ j* g! B6 Z0 O8 x! L5 Jor handling qualities of an aircraft.5 c" o, X7 I5 Q' S CROSS (FIX) AT (ALTITUDE)- Used by ATC - `0 `3 ]9 P% {# D! E6 `, F5 o4 r' Xwhen a specific altitude restriction at a specified fix! @8 {' O+ }0 v is required.1 Y- T2 ^3 S4 d; V p( \' r CROSS (FIX) AT OR ABOVE (ALTITUDE)- Used, {# L4 q& J5 p2 [( R! ~: ? by ATC when an altitude restriction at a specified fix / a$ X, l( {3 y8 vis required. It does not prohibit the aircraft from9 K& O; g+ b) S4 C$ ] crossing the fix at a higher altitude than specified; ) c# @: s; \4 W4 Dhowever, the higher altitude may not be one that will9 h5 n+ t" E$ I6 E violate a succeeding altitude restriction or altitude r, ~* s8 U: zassignment. 6 x) ?- M/ t% p: D# r(See ALTITUDE RESTRICTION.)( W! f# Z, `) Q' s2 ~ (Refer to AIM.)* T) h2 J7 ?3 r$ G. x3 Z CROSS (FIX) AT OR BELOW (ALTITUDE)- / [( A+ b, B4 k; lUsed by ATC when a maximum crossing altitude at 5 `9 d0 q! F" |5 i- }: Ra specific fix is required. It does not prohibit the 0 \0 E ?' ?% f( Y0 Vaircraft from crossing the fix at a lower altitude; / E, ^- w$ X$ W4 t- Q fhowever, it must be at or above the minimum IFR4 w1 P0 B [$ C/ U altitude.7 x4 F* Q1 z) D( k' g* e (See ALTITUDE RESTRICTION.) - ` d. [9 y* U; y. g5 r(See MINIMUM IFR ALTITUDES.) Y# i Y% e7 \+ I (Refer to 14 CFR Part 91.)" ^: _! K- w/ N CROSSWINDa. When used concerning the traffic pattern, the # i0 d. S# @5 ?. G( v) ^- Y) `word means “crosswind leg.” % V- E( F4 z: u- z(See TRAFFIC PATTERN.)0 O, Y4 ], D. Q7 d% { b. When used concerning wind conditions, the" V" \* t- N/ Z' l4 y* q R word means a wind not parallel to the runway or the2 a; i- j: O5 `9 u8 ? path of an aircraft.$ m2 e! k: K# ^. ^: J# j" j (See CROSSWIND COMPONENT.) % N+ C. }0 Z$ U+ S3 q- xCROSSWIND COMPONENT- The wind compo‐: g& c( s5 i3 ~5 l nent measured in knots at 90 degrees to the & X0 P2 t2 x% i& P- Glongitudinal axis of the runway. 3 h& B) R7 S" O5 UCRUISE- Used in an ATC clearance to authorize a2 v' G6 t, d4 i7 b) T7 V! r9 ^1 r pilot to conduct flight at any altitude from the " l3 W) k# q$ A& c- K: Kminimum IFR altitude up to and including the * |( d! W, q5 x. raltitude specified in the clearance. The pilot may9 d( s' }7 U7 ]; c' _- Q level off at any intermediate altitude within this block 8 e# j8 u+ U' f. k# n o; r7 rof airspace. Climb/descent within the block is to be 9 X; a8 `& O! p* J2 j# Qmade at the discretion of the pilot. However, once the5 R9 e- r! z0 y3 j pilot starts descent and verbally reports leaving an, r2 P2 [% k, w- t3 u altitude in the block, he/she may not return to that0 G+ W6 ^2 Q8 k& N: A altitude without additional ATC clearance. Further, it : t; Z! i1 o1 n; J% u8 Mis approval for the pilot to proceed to and make an$ I( A4 }4 A0 C- } V approach at destination airport and can be used in: M( K- @5 r0 t% R conjunction with:: }$ ?' y8 o1 n) h) @ a. An airport clearance limit at locations with a6 {/ r P) n7 m" t0 p p standard/special instrument approach procedure. The ) W7 a# _, ?- pCFRs require that if an instrument letdown to an$ n0 n8 E& y0 J0 b airport is necessary, the pilot shall make the letdown+ \0 O9 |: |: n: ]+ i0 t, T in accordance with a standard/special instrument . W& Y: c5 f0 K/ J) g+ mapproach procedure for that airport, or . ?; h; j8 G1 W+ H+ W( Nb. An airport clearance limit at locations that are v- w+ t6 D; k% M within/below/outside controlled airspace and with‐ $ ?# S. g) v: M5 Nout a standard/special instrument approach b% g, \, m7 z4 }procedure. Such a clearance is NOT AUTHORIZA‐/ @5 i! s+ @# h9 T8 _7 W5 } L TION for the pilot to descend under IFR conditions# T6 ~' s, ]6 _) s+ W# N! R below the applicable minimum IFR altitude nor does9 {) N9 F y! i3 F8 Z0 V- N it imply that ATC is exercising control over aircraft ! J$ l: _# w' z! g) Ein Class G airspace; however, it provides a means for$ d- u/ }. U0 C2 @. {% z. i. j the aircraft to proceed to destination airport, descend, Z/ q% m9 T- m: j0 f: Band land in accordance with applicable CFRs; l: I2 z/ P# X9 k governing VFR flight operations. Also, this provides9 P7 D: s% c3 _9 S# U2 k4 Z: Z search and rescue protection until such time as the 2 B$ e3 k* X1 N: P) p DIFR flight plan is closed. # W0 k! f: E! z0 |(See INSTRUMENT APPROACH * r8 O: Q$ S* f" p3 K3 z6 k$ a8 MPROCEDURE.) ; H; u+ t# y8 g$ ^! n9 y9 nCRUISE CLIMB- A climb technique employed by 1 r- U0 R4 T g) m6 F: _: T( }. @) R( laircraft, usually at a constant power setting, resulting - h# ?: H: ]( b4 G/ o+ V- @/ Yin an increase of altitude as the aircraft weight" C( ^9 r; U& l3 @ decreases. 1 J' A: w2 a( P5 ^$ Z$ ?CRUISING ALTITUDE- An altitude or flight level8 Z3 z" |9 a6 _) ~. g maintained during en route level flight. This is a1 ^' v) S# T9 Y; o& ? constant altitude and should not be confused with a3 R8 a9 ?' u0 q3 p; K; P8 I cruise clearance. ]* x) L$ L7 C- h) ]. F; j (See ALTITUDE.) - Q' r* ]! n/ R(See ICAO term CRUISING LEVEL.) ~ i& a, K+ R4 H( b CRUISING LEVEL(See CRUISING ALTITUDE.)& Q4 B( j& R( u) a. j CRUISING LEVEL [ICAO]- A level maintained# k: B i5 N7 M" | during a significant portion of a flight.4 W) @$ { Y& Y# q, i0 l% e Pilot/Controller Glossary 2/14/08 : |* H8 C+ \- pPCG C-9 r* f0 v0 t) L# t CT MESSAGE- An EDCT time generated by the ) ?2 J2 q) } z0 S9 |( R1 vATCSCC to regulate traffic at arrival airports.* O4 a: S; v h% p Normally, a CT message is automatically transferred. c: X( V$ j; A from the Traffic Management System computer to the/ C6 `' a% E, I& O: `. O5 L NAS en route computer and appears as an EDCT. In ( [, c) A, Q5 Q4 h8 j! Sthe event of a communication failure between the' {- c- S/ t U" e7 L0 J TMS and the NAS, the CT message can be manually$ q5 r5 z1 D+ C6 j) b entered by the TMC at the en route facility. $ G0 w* x4 L6 l# O8 t* \# ^CTA(See CONTROLLED TIME OF ARRIVAL.) g, M6 H* K8 S4 p/ u/ U(See ICAO term CONTROL AREA.)) j. z. v, B' Q: B CTAF(See COMMON TRAFFIC ADVISORY8 r/ {6 `% p6 |+ w FREQUENCY.) 5 v+ B7 P5 {8 b" |. b! {, iCTAS(See CENTER TRACON AUTOMATION3 [+ B7 f7 j$ G2 T7 Z% `) t SYSTEM.) / [* _7 P5 `6 O6 ZCTRD(See CERTIFIED TOWER RADAR DISPLAY.)& P# R1 S8 B$ F) c( `# L$ c CURRENT FLIGHT PLAN [ICAO]- The flight ; }5 f! E6 q; [4 yplan, including changes, if any, brought about by, m/ [9 t/ e' O: [ subsequent clearances.% R) A# V; {0 J5 V( o; y7 @8 {2 G CURRENT PLAN- The ATC clearance the aircraft ' C7 Z5 q- I5 p& Qhas received and is expected to fly. : j/ V" W* b, Z T# LCVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE : X/ p( U/ F' f% W8 x+ FAPPROACH.), F+ ~: G+ D% |* a8 _/ O! Q9 m. g6 @ CWA(See CENTER WEATHER ADVISORY and' Y6 y2 z" T7 b7 s3 w5 t# e WEATHER ADVISORY.) , W7 }. l3 w4 EPilot/Controller Glossary 2/14/08 : ^* c* O& B/ W: HPCG D-18 { Z6 w9 Y/ Q; c8 h) n' J D " ]% S6 N/ z5 r* O& v5 K* xD‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL 5 U" ]; C4 y5 s ]INFORMATION SERVICE.) - X. d$ n3 c7 ~7 A( d+ i& Y1 bDA [ICAO]-1 _ w5 Y# a1 d1 g (See ICAO Term DECISION ) h! Q% k3 R9 ^: n0 ^' ?ALTITUDE/DECISION HEIGHT.) & ?- k) T7 s; {. nDAIR(See DIRECT ALTITUDE AND IDENTITY $ ]- P$ o2 w. t" qREADOUT.)6 | J# ]3 T7 u" L) G) Q0 l DANGER AREA [ICAO]- An airspace of defined 5 c, R/ I# K, ~+ n, v0 _" odimensions within which activities dangerous to the 5 v. O$ G5 y' _" r6 P9 J+ i6 iflight of aircraft may exist at specified times.2 d; v+ P: E% M; G Z4 ~8 B Note:The term “Danger Area” is not used in 8 V8 d1 I9 ^! N. j* Zreference to areas within the United States or any 2 s% I+ e& y) tof its possessions or territories./ S* p+ E% t8 k DAS(See DELAY ASSIGNMENT.)9 m8 i! H8 k: o% @$ D DATA BLOCK(See ALPHANUMERIC DISPLAY.) g( V4 a) y; k6 }* N! F: d$ A0 qDEAD RECKONING- Dead reckoning, as applied % U1 i; G; B; G6 M- B1 w! Z3 fto flying, is the navigation of an airplane solely by) P& M5 U& B+ p& Z means of computations based on airspeed, course, & X: p. f: ~( J( c3 d0 k# uheading, wind direction, and speed, groundspeed, " s5 k% m- \; ~9 ?; x' ^and elapsed time. 1 w& r8 g) Q, \% [2 A4 WDECIS ION ALTITUDE/DECIS ION HEIGHT" }- @1 \2 |, z [ICAO]- A specified altitude or height (A/H) in the/ U- o- a7 D8 r! ^ precision approach at which a missed approach must 7 t3 `* i" V5 M& B: ?' |be initiated if the required visual reference to/ r! s& o4 U3 \; T6 ~( h; J continue the approach has not been established. 3 }2 o* I' A9 \. f& o) ~% t- ENote 1:Decision altitude [DA] is referenced to % Y, I4 a7 _( k, H( Cmean sea level [MSL] and decision height [DH] is 1 }& P) \9 w" I+ Ereferenced to the threshold elevation. ! u; d1 x4 X6 a+ ~ D( y# fNote 2:The required visual reference means that% t ^* H# C, e section of the visual aids or of the approach area * W& {4 _ s9 U# Zwhich should have been in view for sufficient time3 R/ {1 {- F: a; ^+ k7 { for the pilot to have made an assessment of the/ y2 T' }, x6 D. ^5 a aircraft position and rate of change of position, in0 t. ]9 C/ Q7 X2 y relation to the desired flight path.8 Y! J7 _6 A% t N" p DECISION HEIGHT- With respect to the operation : g) d+ p; Y& o7 N- t4 K( E" S0 `of aircraft, means the height at which a decision must! P- q; h) I7 j# J, e) z be made during an ILS, MLS, or PAR instrument ) B1 {+ d5 Q& L# }4 Q& Z) ~approach to either continue the approach or to execute% k3 }# A a* B. u a missed approach.6 I# ~" ^+ v n$ Y" G$ v2 }6 ~ (See ICAO term DECISION 8 w# V/ O6 y$ I, oALTITUDE/DECISION HEIGHT.) 7 V* t1 E. F% g/ h6 ^DECODER- The device used to decipher signals . L" Z" z k. x: \3 Q+ k& \0 [received from ATCRBS transponders to effect their , I9 p0 c8 y- q8 w D) K# Ndisplay as select codes.; i4 S* c# K8 v+ L/ u (See CODES.) l3 n3 p Y: p0 X( |% | (See RADAR.) H$ A4 L1 S' `, i4 \1 s% a& L DEFENSE VIS UAL FLIGHT RULES- Rules1 S' |& J' R9 _/ _ applicable to flights within an ADIZ conducted under6 v. Q$ `% y! `& j# j the visual flight rules in 14 CFR Part 91.; ]3 p" @1 \/ g0 y. i (See AIR DEFENSE IDENTIFICATION ZONE.)( y' w1 n8 I9 N4 ` (Refer to 14 CFR Part 91.) % l7 t' L# A1 T4 D% W" l(Refer to 14 CFR Part 99.)& h2 \2 r5 @2 G& r! x3 _) R DELAY ASSIGNMENT (DAS)- Delays are distrib‐ ( T' r( s. q: `7 h$ euted to aircraft based on the traffic management( v% K( h* i. t* x program parameters. The delay assignment is6 Q0 {7 g% ?! v5 v0 t calculated in 15-minute increments and appears as a& U. |0 ~5 D5 q table in Enhanced Traffic Management System O/ m6 o- i* B. g C; W: j+ J(ETMS).0 O8 O4 k/ A- G1 N DELAY INDEFINITE (REASON IF KNOWN) % ]8 W, v3 B) k' QEXPECT FURTHER CLEARANCE (TIME)- Used" Q/ [9 `7 p! {, Q2 W) d9 `& w by ATC to inform a pilot when an accurate estimate 6 p$ L5 _, e% I; oof the delay time and the reason for the delay cannot4 w' S# k1 G O" l5 M' _4 k( T immediately be determined; e.g., a disabled aircraft2 t& X* `- ^1 c' V0 _; C on the runway, terminal or center area saturation, 7 D. `) {3 x. R# z$ Fweather below landing minimums, etc.: a7 W5 R% Y8 `5 D8 X: D- t (See EXPECT FURTHER CLEARANCE (TIME).) ; [) n/ h0 n+ Q; u' MDELAY TIME- The amount of time that the arrival& c" C) ^8 G" \- h4 `# P3 E; w must lose to cross the meter fix at the assigned meter 0 x# a, g% n' N' }- C9 @fix time. This is the difference between ACLT and/ u/ Y9 C" h4 Y4 o* L2 b VTA.3 x1 E+ \* u/ x0 i" r! C7 n DEPARTURE CENTER- The ARTCC having 9 S. J6 u& v; R" K" mjurisdiction for the airspace that generates a flight to 3 o' O3 V7 | t/ l% |. fthe impacted airport./ M% }4 Q" E/ n DEPARTURE CONTROL- A function of an 6 `& n4 c$ N K: Bapproach control facility providing air traffic control1 ~# h1 k% w' r2 w# } service for departing IFR and, under certain 5 d, ]& O( U, Tconditions, VFR aircraft.* S2 p1 D+ o5 ~+ F (See APPROACH CONTROL FACILITY.) z# w8 h3 z ]/ D, M3 s6 N(Refer to AIM.). _7 d6 m+ @) ^' I. l DEPARTURE SEQUENCING PROGRAM- A % M8 t% Q$ ]' k# ^; u% V5 K( xprogram designed to assist in achieving a specified( Q0 d+ g* M' x interval over a common point for departures.- Q8 s9 _1 Q- R. q' u: t Pilot/Controller Glossary 2/14/08& H$ S7 `& C' z" x, } PCG D-2. \; e; p& a, M [7 M/ U( H! y DEPARTURE TIME- The time an aircraft becomes8 g. u5 N9 @! F$ S/ I8 q t airborne. 8 o1 C1 {; ]2 j7 f# r9 ]DESCENT SPEED ADJUSTMENTS- Speed decel‐9 v/ o+ ]# H; l0 R7 Z1 p eration calculations made to determine an accurate+ n% a i( k0 t3 |0 f% D VTA. These calculations start at the transition point M) d! K- l+ n, M, @: l. H4 B' Q and use arrival speed segments to the vertex." h" _/ t5 Z9 `1 c0 B1 M7 a DESIRED COURSEa. True- A predetermined desired course direction S4 w B" L7 v! w9 hto be followed (measured in degrees from true north).$ s$ p2 |3 m1 P3 a/ [# k, }( x+ G b. Magnetic- A predetermined desired course ( G/ }7 r. K1 I- c/ i. t" F" Xdirection to be followed (measured in degrees from4 j) t& x, T+ Y! |' E6 }7 @ \ local magnetic north).1 q, i0 K: L- f- P2 f( Z# V! M2 _ DESIRED TRACK- The planned or intended track$ H9 t) L5 Q9 \0 c6 w+ Y% P0 _ between two waypoints. It is measured in degrees. q( L' }$ {+ y( Q7 I( v% u from either magnetic or true north. The instantaneous ( L9 w5 ^: Q6 [' x0 iangle may change from point to point along the great7 G) ]% T7 i9 I9 ~ circle track between waypoints., I5 H; Z% C: u& M" Q0 ` DETRESFA (DISTRESS PHASE) [ICAO]- The( q$ N$ W* J, W$ z( }4 y2 } code word used to designate an emergency phase 8 t& F g8 T+ v5 t" T: |8 qwherein there is reasonable certainty that an aircraft " A7 s0 \ I3 qand its occupants are threatened by grave and " q* R0 m; j S/ uimminent danger or require immediate assistance. # L' P& `9 _% z+ [+ lDEVIATIONSa. A departure from a current clearance, such as an # f, i/ A" q9 [% [- h; c" joff course maneuver to avoid weather or turbulence. . p% n, h+ U3 D. w3 @- ]+ Vb. Where specifically authorized in the CFRs and7 I' [, a8 M, I! z9 L/ [: ` requested by the pilot, ATC may permit pilots to* Q6 V3 k' @0 e W/ z- C deviate from certain regulations. $ a) }1 f& `8 E(Refer to AIM.)+ a: }5 Y0 @+ @ DF(See DIRECTION FINDER.)# l5 F2 U T$ i# `1 Y/ G DF APPROACH PROCEDURE- Used under, V- P: y3 v. c: W* N emergency conditions where another instrument* V1 r- Y' c3 K. G1 F approach procedure cannot be executed. DF guidance % S q" {: [% x% Q$ l! {for an instrument approach is given by ATC facilities$ B- a$ ~8 J7 l7 t5 ] with DF capability. , X) X: Y* ]5 d" o4 Y(See DF GUIDANCE.) Q9 T2 A5 ~. n0 p% A/ N. z6 O (See DIRECTION FINDER.) / q0 w( h! ` M+ Z2 V(Refer to AIM.)% T! e& N2 M% P+ Y& f, K1 ]/ p: K DF FIX- The geographical location of an aircraft 4 {) D, G+ Y4 W: g3 oobtained by one or more direction finders. ! K$ D1 T) Q/ ^7 {' i2 h' w(See DIRECTION FINDER.); |* ]! f I* g5 N( J" |# y: P/ s- q DF GUIDANCE- Headings provided to aircraft by 5 x1 P4 T) u. ^/ d, [+ |facilities equipped with direction finding equipment. " e+ Q- @9 O% |3 e: ~" b% R$ QThese headings, if followed, will lead the aircraft to 8 y$ c- M8 t, o, |8 f$ i/ Ca predetermined point such as the DF station or an / s; [* l& w) L Iairport. DF guidance is given to aircraft in distress or1 N. |3 s2 Q2 \, K5 h& `) H to other aircraft which request the service. Practice7 a. E6 K5 Q2 `. d" i6 f3 n- N6 e DF guidance is provided when workload permits.9 W( E; t6 B1 c0 z) } (See DIRECTION FINDER.), {7 [# `4 G) s0 v4 q( D" \: U | (See DF FIX.) # l4 u5 Y1 B9 S5 j(Refer to AIM.): D6 [- G* K6 t; ?3 {5 @ DF STEER(See DF GUIDANCE.) # R' [, q0 M- }% T: _DH(See DECISION HEIGHT.) 5 z) ?; K1 k. {8 xDH [ICAO]-4 u+ m- U. p. J$ }; W0 F8 r (See ICAO Term DECISION ALTITUDE/ $ U, @: `- @& O6 UDECISION HEIGHT.) " l% d" d( D2 R' ]6 A( lDIGITAL‐AUTOMATIC TERMINAL INFORMA‐ , K/ B! Q5 T2 g1 J) q! [) z+ @TION SERVICE (D‐ATIS)- The service provides : W! R @4 c# k8 E5 r: Y, w3 Ltext messages to aircraft, airlines, and other users1 k8 S) c3 i' k x+ U) e# T+ T- ] outside the standard reception range of conventional # e3 o+ @2 x( b4 r+ gATIS via landline and data link communications to9 R, [- N; j6 i2 u the cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to1 M* w! l" _* F4 V$ R all aircraft within range of existing transmitters. The " M) W9 ~' k6 L0 m( qTerm inal Data Link System (TDLS) D‐ATIS ( |# M- B1 F9 Zapplication uses weather inputs from local automated: r2 i d0 I7 b% K( X# B9 O4 A weather sources or manually entered meteorological) }3 u G4 T% d( y5 \; \- } data together with preprogrammed menus to provide ; g" s1 `2 e1 L% |7 h8 m5 O) xstandard information to users. Airports with D‐ATIS @( c/ G2 D& _8 P& ycapability are listed in the Airport/Facility Directory.! y" i: Y" x2 N DIGITAL TARGET- A computer-generated symbol% d( \- i1 q* R0 Q! u& q/ M# | representing an aircraft's position, based on a primary; _0 h2 ]- Z0 N! Y' x return or radar beacon reply, shown on a digital/ n" p: Z& c v. A$ Y' x display., }( u" ^, `7 J* s DIGITAL TERMINAL AUTOMATION SYSTEM" D& S( R' ^/ i# @ q# o (DTAS)- A system where digital radar and beacon* |; G, ?9 Z' [$ Z4 I data is presented on digital displays and the X1 B0 F }6 M0 v* qoperational program monitors the system perfor‐' R. M; D1 h% O* W5 k4 U Z mance on a real-time basis.8 M# S& E2 n" R( W6 \8 h: Y DIGITIZED TARGET- A computer-generated $ u) j3 ]! ^3 l6 F, j8 }indication shown on an analog radar display resulting 8 w9 L- @2 L% r. {+ ~from a primary radar return or a radar beacon reply.# L Y- A! p5 y, }: Q DIRECT- Straight line flight between two naviga‐ R4 B ]7 I8 Y+ Q: I$ d2 Q* A tional aids, fixes, points, or any combination thereof.+ L0 B: y; G8 A8 ]8 o When used by pilots in describing off‐airway routes,( [" v9 Z9 c& }; @' D points defining direct route segments become2 X" p7 ?. J( ?& C% j. v5 r compulsory reporting points unless the aircraft is* H- E3 P% D/ H; s9 q3 K7 J1 n, s under radar contact.0 |+ M' H5 i2 z- n1 Z' O' O DIRECT ALTITUDE AND IDENTITY READ‐ 0 e1 d' R* l& k2 k6 V" WOUT- The DAIR System is a modification to the 6 r% Q; P/ y2 l4 ?Pilot/Controller Glossary 2/14/08/ l: Z/ |: c/ O PCG D-3 \* a; |* B& [0 q; h, [) Q f AN/TPX‐42 Interrogator System. The Navy has two . E; S1 p1 P8 m' A& G: z. @adaptations of the DAIR System‐Carrier Air Traffic$ u( h" P% ?9 V Control Direct Altitude and Identification Readout / v/ A _0 n- aSystem for Aircraft Carriers and Radar Air Traffic / ?* e# g8 I7 Y: W& WControl Facility Direct Altitude and Identity Readout 6 \3 d( U9 H0 Q, B, O( W0 ISystem for land‐based terminal operations. The9 t6 K" ^6 t- S& ?8 R1 k8 N/ k DAIR detects, tracks, and predicts secondary radar 2 P) j i6 I% Q# U! v9 Kaircraft targets. Targets are displayed by means of ' n) i |& G, e# V. J. kcomputer‐generated symbols and alphanumeric / j/ |2 k6 @6 O: p9 e, y% Ccharacters depicting flight identification, altitude, 2 i( b- F: o# c3 pground speed, and flight plan data. The DAIR System( M; l) Q! z U% v4 B; W( R is capable of interfacing with ARTCCs. ; |4 {) I% a$ G0 eDIRECTION FINDER- A radio receiver equipped 4 ?, k9 U/ `/ \with a directional sensing antenna used to take . j+ A+ {1 z2 dbearings on a radio transmitter. Specialized radio ! x1 r5 M) y5 T- f+ Z! Fdirection finders are used in aircraft as air navigation# i$ a4 e/ f) b' ~: e2 x aids. Others are ground‐based, primarily to obtain a ; L( s/ s( c) [+ v0 i" A“fix” on a pilot requesting orientation assistance or to& X' }& e. q: S! s; G1 G' c locate downed aircraft. A location “fix” is established . y: M2 J: j+ d2 p1 @! @* Lby the intersection of two or more bearing lines / F( p' J0 c, k8 N2 u4 X3 cplotted on a navigational chart using either two+ H9 a( N4 D& r2 t' k' e separately located Direction Finders to obtain a fix on ) A4 B$ I- P* yan aircraft or by a pilot plotting the bearing & M ?) u$ ^0 @" s$ j9 P' J2 }6 Iindications of his/her DF on two separately located+ B: I7 R/ E) [ ground‐based transmitters, both of which can be 7 W1 G% S2 z; i. m# N, ?7 Gidentified on his/her chart. UDFs receive signals in 6 K( e( f3 v/ q) Gthe ultra high frequency radio broadcast band; VDFs : n9 c% s) m7 z8 z v# Zin the very high frequency band; and UVDFs in both ; `' s7 B6 ~0 y. h& Z3 Mbands. ATC provides DF service at those air traffic0 o& K9 G2 C, X0 j9 L; F control towers and flight service stations listed in the& p- M6 k0 R: y/ l Airport/Facility Directory and the DOD FLIP IFR En 5 e; j2 s! l- V, pRoute Supplement. : T2 H5 F& z& t+ a' y(See DF FIX.)7 }+ R/ o8 \+ g7 Y4 v (See DF GUIDANCE.)- J. O/ ?( N/ z2 v DIRECTLY BEHIND- An aircraft is considered to5 \0 _( F' I3 B# v- b9 f( q4 W% o3 C be operating directly behind when it is following the q! \3 V4 L1 m. R$ I% ?actual flight path of the lead aircraft over the surface ( T) f S. g+ B0 X/ a2 [! ~9 S7 ?of the earth except when applying wake turbulence 3 f5 y9 b' F0 W i$ dseparation criteria. ( M8 j7 Y8 Y! U5 a: X2 ADISCRETE BEACON CODE(See DISCRETE CODE.) ; d' D6 D [& S- a8 O/ ~3 xDISCRETE CODE- As used in the Air Traffic 5 J" p8 ?8 q* _. l$ hControl Radar Beacon System (ATCRBS), any one , y8 h% t9 k. ~7 n: J. eof the 4096 selectable Mode 3/A aircraft transponder$ @# {2 Q+ [# v7 _3 p% C" i# P codes except those ending in zero zero; e.g., discrete ) ^( S2 }) F0 o) |' l9 R9 gcodes: 0010, 1201, 2317, 7777; nondiscrete codes: 8 w- {( z6 x; I0 Q( h( u5 n0100, 1200, 7700. Nondiscrete codes are normally v) w$ p W. ^ reserved for radar facilities that are not equipped with % Y7 {! C, ~) w- Q( Wdiscrete decoding capability and for other purposes* ~( t5 b& ` R! `6 S such as emergencies (7700), VFR aircraft (1200), etc. ) D+ @, c4 M2 s: ^(See RADAR.)0 p. h" e1 |9 [: K" a+ Z (Refer to AIM.)9 p8 r) ^3 w% l DIS CRETE FREQUENCY- A separate radio1 A! B8 W+ L* p" h9 Q; e3 h* p frequency for use in direct pilot‐controller commu‐1 B) o5 u+ `2 H4 l8 _ s nications in air traffic control which reduces ^4 |2 B0 K1 c8 m+ rfrequency congestion by controlling the number of + U4 j6 c+ g) C& `aircraft operating on a particular frequency at one * G$ q8 O$ r5 A" F; {* ^time. Discrete frequencies are normally designated; Z" o; M& U: J; N2 d4 W for each control sector in en route/terminal ATC , o S6 k1 Z% x1 dfacilities. Discrete frequencies are listed in the; \$ G! G' h) p( X Airport/Facility Directory and the DOD FLIP IFR En l* H5 f! y$ p3 MRoute Supplement. j8 q! H9 T9 {(See CONTROL SECTOR.)+ ]/ s6 V3 X# L% ^+ O: q) Z& |9 f# X DISPLACED THRESHOLD- A threshold that is ; P9 W* x! |9 X5 F9 hlocated at a point on the runway other than the* K+ }# v9 ?! S4 E, s7 U, ` designated beginning of the runway. ; m7 P: W3 U. o+ d J- [6 \(See THRESHOLD.)" ^5 [$ ]+ S9 j/ G& a (Refer to AIM.)+ u0 E5 P9 R+ w$ w- t( }" N& T5 M DISTANCE MEASURING EQUIPMENT- Equip‐/ h. n' i2 B* R( H ment (airborne and ground) used to measure, in " o* z3 ^& l! n; nnautical miles, the slant range distance of an aircraft+ ]/ g3 b3 r1 A( M3 I W from the DME navigational aid./ G$ }( y+ }! x8 _, E/ ]6 g (See MICROWAVE LANDING SYSTEM.) ! i8 q/ f5 P+ ?: H0 ^: J7 c(See TACAN.)+ h: K! y V$ I1 L) n5 w. s (See VORTAC.) D& M$ w- y' H2 n. T% d( VDISTRESS- A condition of being threatened by+ D- c( O* W$ l% V serious and/or imminent danger and of requiring6 r1 ]7 Y0 @% ?- H9 t) O8 | immediate assistance.5 w8 ?3 Q) A8 [. ]7 \1 b8 R DIVE BRAKES(See SPEED BRAKES.)! d( y( g: Z6 m/ j* ^ DIVERSE VECTOR AREA- In a radar environ‐ - Z) A. S5 }+ b) k: i1 n0 A5 cment, that area in which a prescribed departure route 6 P: b. F e& J* Q9 Zis not required as the only suitable route to avoid* N+ @3 r' n+ k3 I C obstacles. The area in which random radar vectors4 a: R: X( k+ F, G- G' h( I below the MVA/MIA, established in accordance with8 z1 |3 n' p& f& O. [" J. m+ | the TERPS criteria for diverse departures, obstacles @: P. d4 w8 O5 J( c and terrain avoidance, may be issued to departing) h% A: l" O" b7 D( N aircraft. . t/ T6 w2 Q L3 E8 g. xDIVERSION (DVRSN)- Flights that are required to 2 Q2 i6 s5 @$ Q) a. [9 X fland at other than their original destination for 7 [" y8 J3 v; ?- h) x; n: Preasons beyond the control of the pilot/company, e.g.. p/ I+ M3 b: ~ periods of significant weather. ) b$ I4 h' }9 y. z$ sDME(See DISTANCE MEASURING EQUIPMENT.) 0 _, ]* Q+ Q n2 yPilot/Controller Glossary 2/14/08 4 f4 e( \; g/ g% Z* H$ jPCG D-4( N# d0 U% M- _# ~- Z; O DME FIX- A geographical position determined by( Y1 T4 l+ l8 _9 M; M5 `7 U reference to a navigational aid which provides; z4 ]7 J: O" r distance and azimuth information. It is defined by a6 ~2 v( W* ]& p7 @& F5 l specific distance in nautical miles and a radial,0 q. X4 d% l- l& n9 i3 a" v azimuth, or course (i.e., localizer) in degrees& o+ @0 G; A$ }; ]% C0 t) a magnetic from that aid. 7 K' s# W" v% A5 u: b(See DISTANCE MEASURING EQUIPMENT.) M+ d( r; e9 f9 d& `" q m, G* f% | (See FIX.) ; A. q3 n1 D7 b) U4 z8 e(See MICROWAVE LANDING SYSTEM.) ) Y O3 V% X3 t! CDME SEPARATION- Spacing of aircraft in terms of7 T" j" p4 \! s8 m8 |4 C% Y distances (nautical miles) determined by reference to - Y; H! p2 j( l8 p! edistance measuring equipment (DME).) v. H6 R- Z- t (See DISTANCE MEASURING EQUIPMENT.) 6 o; y& ~5 \% ? t8 Q/ K; rDOD FLIP- Department of Defense Flight Informa‐ . \& C3 }0 h. P7 ?% @# xtion Publications used for flight planning, en route,6 ~! o! e' V) x; c* P) p: R9 `; ~( p0 e and terminal operations. FLIP is produced by the $ ~5 ^5 E8 U. _% U9 P e. iNational Imagery and Mapping Agency (NIMA) for& M$ i- F2 S# r0 ^) n( A; |# X world‐wide use. United States Government Flight 7 J& _4 [ Y3 `% R( j: r8 ^Information Publications (en route charts and4 ]- Y; m! V) l instrument approach procedure charts) are incorpo‐3 d x" k5 p. g: n N. m. d2 G3 H; y$ O rated in DOD FLIP for use in the National Airspace - H8 \7 }9 y% n, L4 W- u/ rSystem (NAS). $ Q1 c3 Q( R( i* }# y9 ZDOMESTIC AIRSPACE- Airspace which overlies) A, E3 [% [; w, J$ F3 v# i* _5 e the continental land mass of the United States plus . }1 _" [8 f. Q' |$ I2 EHawaii and U.S. possessions. Domestic airspace1 f* `3 }0 q& \( z% p extends to 12 miles offshore.2 k. q2 A) Z: S" G, k% ]% o DOWNBURST- A strong downdraft which induces$ \+ y1 q9 h" s. w7 r+ L4 F an outburst of damaging winds on or near the ground.6 p* c0 Q/ }! g( h2 M& @ Damaging winds, either straight or curved, are highly% G; [! Z9 }$ p( U divergent. The sizes of downbursts vary from 1/2 1 r# f! T% ~ @9 L' v! Emile or less to more than 10 miles. An intense7 m7 i/ X0 v. A3 N" ~ downburst often causes widespread damage. Damag‐+ h7 V5 z6 H* |5 f1 Y) H ing winds, lasting 5 to 30 minutes, could reach speeds( P* }! P0 C7 t as high as 120 knots.% s& H: O! M8 E7 Z DOWNWIND LEG(See TRAFFIC PATTERN.) : ?3 ]* A3 u* j7 w* n) [& RDP(See INSTRUMENT DEPARTURE PROCEDURE.) ^5 \3 x* U1 v6 x& C0 ~ DRAG CHUTE- A parachute device installed on* F! s; ?$ D" j! j! J6 A' w a) t certain aircraft which is deployed on landing roll to, P, `) Y4 c0 m4 m7 }2 }! O @ assist in deceleration of the aircraft.) n. W* J/ ]& N' O8 | A. R1 b DSP(See DEPARTURE SEQUENCING PROGRAM.) 6 d0 x2 T: C7 q" B I. a4 l5 |DT(See DELAY TIME.): k" F$ @; Q6 b, c. Y m& @ DTAS(See DIGITAL TERMINAL AUTOMATION $ i6 a, j( g$ c. c: G2 L |SYSTEM.) ( l8 A. {8 n7 EDUE REGARD- A phase of flight wherein an; U- O1 ^ j C, s& A2 s: I" V aircraft commander of a State‐operated aircraft4 `- w. Z) j1 ?6 Q assumes responsibility to separate his/her aircraft : |/ Q/ W- ~" m1 a6 Ifrom all other aircraft.* f. G6 ~4 X% Q2 y9 ? (See also FAAO JO 7110.65, Para 1-2-1, WORD 0 ^ Q+ y+ {+ q) v6 @4 ?! F* S1 d) rMEANINGS.)! H* E. S/ \" ^& `# `3 j DUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY( ]5 m5 Z7 ?: \4 s, h6 Z RUNWAY.)7 B: v# U( t9 T4 M% Z/ N DVA(See DIVERSE VECTOR AREA.) ; D. T" y: I/ [5 ]1 MDVFR(See DEFENSE VISUAL FLIGHT RULES.)& E m. W) @, U' J: X DVFR FLIGHT PLAN- A flight plan filed for a VFR ! ~8 U9 m# X c. E9 H! o% U# j) ^9 }aircraft which intends to operate in airspace within# T8 z# a" _. v which the ready identification, location, and control0 q [2 F# V' @ x$ K of aircraft are required in the interest of national ' R s/ _2 k+ t$ {security. + n+ \. ?. x0 E0 p& x2 S' pDVRSN(See DIVERSION.) $ D9 D+ d6 g+ M/ m9 c$ S; g3 ^% }DYNAMIC- Continuous review, evaluation, and , [/ e) f$ t/ uchange to meet demands.2 |4 R/ j7 F8 Y5 W/ m/ v DYNAMIC RESTRICTIONS- Those restrictions9 X- f$ h) v( {1 k' C2 M imposed by the local facility on an “as needed” basis! k: g: n6 _6 Z4 G7 O# q3 | to manage unpredictable fluctuations in traffic : G+ Q; y" k8 r4 K" U6 ]( idemands. 0 U# c- m- g( `/ W& D2 s* v9 ?* nPilot/Controller Glossary 2/14/08 , T$ C- F6 w+ u7 h% T0 ZPCG E-13 ^8 _8 o0 a% [) \ E 8 ~+ `4 C [* J, G2 g- CEAS(See EN ROUTE AUTOMATION SYSTEM.)% K/ {/ H( v' ^, w" m$ w% z7 F EDCT(See EXPECT DEPARTURE CLEARANCE 0 i$ N! K( o# }& r5 Q! Q+ YTIME.) 5 h: I _8 j; y; A3 P8 z/ aEFC(See EXPECT FURTHER CLEARANCE (TIME).) " S0 U# }4 F! X2 Q0 C9 |/ uELT(See EMERGENCY LOCATOR TRANSMITTER.) : }$ ~. R$ |+ A& {1 AEMERGENCY- A distress or an urgency condition.1 T' l1 a, Z! q% r. @. { EMERGENCY LOCATOR TRANSMITTER- A / ?- V! S3 e; E4 D: K1 H0 `radio transmitter attached to the aircraft structure& [ A5 j/ ^: k* v# N3 X which operates from its own power source on 7 ?" \3 [( w* j0 U# I* C. c121.5 MHz and 243.0 MHz. It aids in locating " P8 N. v2 X6 i+ cdowned aircraft by radiating a downward sweeping; h* R3 U/ R/ I audio tone, 2‐4 times per second. It is designed to ' A+ q% z6 S8 M* P8 Q( q5 cfunction without human action after an accident.9 ~6 Y, T% [( o& r7 N: o (Refer to 14 CFR Part 91.) ' M! N$ V# y" v+ `(Refer to AIM.)- X' A! r) k# Z& U. L E‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE # }# E( p. T4 [# j2 h. O. r6 i3 _WARNING.) # F1 h$ N. X# b* jEN ROUTE AIR TRAFFIC CONTROL SER‐7 A* c7 `: @ z1 v7 U VICES- Air traffic control service provided aircraft 0 t. ^$ Y, z% ^2 O0 x4 T. L5 Jon IFR flight plans, generally by centers, when these! g7 ^9 G1 K& F" k% E$ G aircraft are operating between departure and: ~: O. ?2 H" l; e% G# N destination terminal areas. When equipment, capa‐ / n3 p [* B+ x; i7 X7 A2 }bilities, and controller workload permit, certain! D8 T) A) ]8 _ advisory/assistance services may be provided to VFR Q7 p' \7 L. a8 D. }aircraft. , ?4 y$ v$ k5 K" ]1 W1 M" S, @( E6 K(See AIR ROUTE TRAFFIC CONTROL2 A: R9 u9 T- g t1 Z9 \ CENTER.): A9 h1 u; G- z0 M (Refer to AIM.) 6 h0 T' q3 L; T- E9 BEN ROUTE AUTOMATION SYSTEM (EAS)- The $ d6 X& e. S+ u6 Z# j, l! Gcomplex integrated environment consisting of 6 }) z+ l) { h+ O" z! c1 D) R% Asituation display systems, surveillance systems and 9 R/ I/ \, H# C& bflight data processing, remote devices, decision: k/ b" n- w2 y1 A/ W: N) h; i support tools, and the related communications7 A- [1 K+ q( ^9 o# @! Z equipment that form the heart of the automated IFR 6 d# {) w4 T5 S* ^+ B5 I+ c tair traffic control system. It interfaces with automated8 c$ _1 Z7 t5 L terminal systems and is used in the control of en route / j9 j/ P; C" }8 |5 `& K/ OIFR aircraft. & Q) ?1 B* n# U4 v/ n3 ?(Refer to AIM.)! {: b" |+ B" v( S EN ROUTE CHARTS(See AERONAUTICAL CHART.) a2 v. f! }; o; P2 F% B/ @ EN ROUTE DESCENT- Descent from the en route9 R$ L3 o2 K& e4 F9 U' N cruising altitude which takes place along the route of t" k) s" x- K9 G& l9 H" Xflight. % S0 V* N# z. \8 {: P2 p- _4 l$ @6 BEN ROUTE FLIGHT ADVISORY SERVICE- A5 c/ N) X4 U" J service specifically designed to provide, upon pilot * e, {) K9 T Y+ T( X6 p$ @request, timely weather information pertinent to+ P/ `: K3 i: ` his/her type of flight, intended route of flight, and9 L# o0 B; O r( G, O o8 i altitude. The FSSs providing this service are listed in- j: T D2 r) [7 N i the Airport/Facility Directory. + j, z) [' I% ]3 W6 x(See FLIGHT WATCH.)" u5 A1 ^' P0 B: Q (Refer to AIM.)( J# {! k2 {- Z" `3 V EN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.)( t0 d0 w |$ c* @3 t EN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.) 8 [; G( o, {" C/ }; cEN ROUTE MINIMUM SAFE ALTITUDE WARN‐8 M! ?9 C3 `0 i. k2 t1 j% l ING- A function of the EAS that aids the controller: h, P/ Y; J$ r0 d by providing an alert when a tracked aircraft is below5 H0 S6 j' C) `' {5 Z! M/ T or predicted by the computer to go below a1 x2 z. j+ [4 d- W0 A predetermined minimum IFR altitude (MIA).: c8 t% A! i! U9 h+ Q$ r0 X EN ROUTE SPACING PROGRAM (ESP)- A0 M) B w- r. Z! ~4 g program designed to assist the exit sector in, z9 e1 M. ?" |8 g# ?9 H! O" p* B$ k1 b achieving the required in‐trail spacing. , F/ R+ l" \1 `EN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a" H" W8 |: D, L* K/ N SID/STAR that connects to one or more en route 0 J/ P' x r& i7 V, R- D, nairway/jet route. ( U2 D) F: O1 Jb. RNAV STARs/SIDs. The portion of a STAR8 c9 ^' m$ d( f% u$ i' |* S$ M# g preceding the common route or point, or for a SID the( H2 X3 V. q) A1 s, A+ _) ` portion following, that is coded for a specific en route 9 i2 l- b' d1 e0 Bfix, airway or jet route.% z" j' S. t+ n4 @" G0 l } ESP(See EN ROUTE SPACING PROGRAM.) 5 v* K# q) |8 _ESTABLISHED-To be stable or fixed on a route, 1 }- m- a, m/ k/ e4 c7 ?route segment, altitude, heading, etc. ) h9 h/ h, ?7 JESTIMATED ELAPSED TIME [IC AO]- The / F* w' m, w8 ^$ [estimated time required to proceed from one 2 y1 @( |0 \$ k9 Lsignificant point to another. 1 B+ S( M+ N4 D(See ICAO Term TOTAL ESTIMATED ELAPSED 5 i) y1 a4 |2 N' ^& d& M: w5 D% HTIME.) + O+ _0 A3 V) |( N5 D' C5 C2 Q3 KPilot/Controller Glossary 2/14/08$ u7 I0 M2 I+ Y; ~% i8 n e$ O0 B PCG E-2 / c8 }* B+ X( gESTIMATED OFF‐BLOCK TIME [ICAO]- The * M, S" A) V' @; u% \; Festimated time at which the aircraft will commence( \4 E; w! c) @( C movement associated with departure.2 |; r1 s, a3 B; P4 p* C; U ESTIMATED POSITION ERROR (EPE)-, P3 q6 F, F( | m% m& C& x (See Required Navigation Performance)5 q8 W, L! U+ n: @- f" Q2 f" @ ESTIMATED TIME OF ARRIVAL- The time the , W( W" m3 O* X" Eflight is estimated to arrive at the gate (scheduled 4 [, d9 B/ c' ioperators) or the actual runway on times for6 p# O5 W3 o$ F. e/ I! P nonscheduled operators.4 G2 f0 k6 e. L ESTIMATED TIME EN ROUTE- The estimated! i2 i! t" H) ~9 D9 L4 @7 f flying time from departure point to destination, V1 R2 ^; @$ i6 X' N (lift‐off to touchdown). {' x* e6 B a% l ETA(See ESTIMATED TIME OF ARRIVAL.) ' j/ Y+ _( ^; ~, b# r( pETE(See ESTIMATED TIME EN ROUTE.) $ ]/ h, l& ?4 i- r/ e6 o2 G; jEXECUTE MISSED APPROACH- Instructions* X' w- U! t% l0 ?4 p issued to a pilot making an instrument approach ; v( C# H- _0 J/ n3 t6 f6 Zwhich means continue inbound to the missed/ D5 n, N: g, ^' G8 ]0 G approach point and execute the missed approach - t9 B& f- i% {, X& @& h5 I+ [procedure as described on the Instrument Approach ; q% E1 P8 v" L/ F+ O& C kProcedure Chart or as previously assigned by ATC. ; u" v/ t3 |& T, O3 LThe pilot may climb immediately to the altitude. M- e" b4 z2 e3 G( M* L9 P; R4 _ specified in the missed approach procedure upon3 r* Y/ F+ M, k" j# n making a missed approach. No turns should be V( {' v4 F3 a- R. ] initiated prior to reaching the missed approach point. ( j8 ^* g" g" T X6 N6 S2 b# _When conducting an ASR or PAR approach, execute : W' ]) [5 a2 R0 [( c7 Athe assigned missed approach procedure immediately4 n+ [: G1 [; K3 t3 W upon receiving instructions to “execute missed 6 a. K$ X5 P: [7 F9 ]6 Vapproach.” J9 J+ V, H2 Q6 @' e; i5 m(Refer to AIM.) ( G8 Q" |% }, v( m$ k& [1 O# lEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used# ~4 A6 [7 f `+ X; P! A# d under certain conditions to provide a pilot with an; e, s9 l* t) F. E, \+ S0 C" A# m altitude to be used in the event of two‐way , x' |! x+ v, S4 g7 ~: l7 D. i' xcommunications failure. It also provides altitude; v6 G% V' u% I* q; b information to assist the pilot in planning. ! D' L+ d) o; M' s(Refer to AIM.), j6 b' h+ F$ E5 U) x: A( W' A EXPECT DEPARTURE CLEARANCE TIME! o: q1 V/ G% @2 e6 E (EDCT)- The runway release time assigned to an" d9 F5 [, w( v3 I; T2 k; z) k aircraft in a traffic management program and shown+ U) d; y) \# h5 u on the flight progress strip as an EDCT.1 a/ Y' |# g3 v7 p3 o9 Q5 f (See GROUND DELAY PROGRAM.)( x; h! u! N9 m; \' ~5 o! m% x1 D4 e, ` EXPECT FURTHER CLEARANCE (TIME)- The" K" i* Z# F% b+ _7 d# A time a pilot can expect to receive clearance beyond a ; f1 t2 F( f" hclearance limit. 3 n2 J( o; a pEXPECT FURTHER CLEARANCE VIA (AIR‐# l/ Y2 w# T! Y: ]9 @ WAYS, ROUTES OR FIXES)- Used to inform a% y3 \# ?% N3 p/ P$ D' w6 v pilot of the routing he/she can expect if any part of the # @" t; I2 c" U6 aroute beyond a short range clearance limit differs- [7 Y5 F0 @ F from that filed.8 R) e; O6 _ {1 a EXPEDITE- Used by ATC when prompt com‐# k" o0 V/ Z; ^ z pliance is required to avoid the development of an 7 Y$ Z P9 o& Gimminent situation. Expedite climb/descent normal‐ & C" o+ S% r6 Y/ }$ a. _! i/ g5 Xly indicates to a pilot that the approximate best rate & Q% i8 y3 R/ U* ^5 `& Xof climb/descent should be used without requiring an4 ~- r" |! q' Z- `6 V& h exceptional change in aircraft handling characteris‐ + u8 j# s( ?2 W3 Itics. 8 I: B ^) Z5 ]# RPilot/Controller Glossary 2/14/08 4 [5 D, v4 e! a dPCG F-1+ ] z1 L7 V5 G8 P/ w- Y8 y' y F% ^) D6 N- X' s- R; r A FAF(See FINAL APPROACH FIX.) 3 z [( \# c+ ]( B% l5 LFAST FILE- A system whereby a pilot files a flight& r* W: a' W. [ plan via telephone that is tape recorded and then0 L6 c; I7 H$ S transcribed for transmission to the appropriate air / O$ W, i9 U7 V$ U0 otraffic facility. Locations having a fast file capability 3 p: o+ S) Y6 [9 z; \- hare contained in the Airport/Facility Directory. ( V8 q$ H: w9 o3 _: [; ^0 q' R(Refer to AIM.)" s8 ^8 M0 V, H9 x FAWP- Final Approach Waypoint* M% `5 r% x5 Y; G# { FCLT(See FREEZE CALCULATED LANDING TIME.) ' E5 V9 P7 U) s1 ~! e' IFEATHERED PROPELLER- A propeller whose 8 x/ [& @; w- H4 @+ ^blades have been rotated so that the leading and5 \) b1 c! F, ~( {$ M2 p trailing edges are nearly parallel with the aircraft9 w+ Y4 D; o- A8 T flight path to stop or minimize drag and engine8 @3 u6 l" g; J' A' } rotation. Normally used to indicate shutdown of a % {& A3 Y+ }; S7 ?reciprocating or turboprop engine due to malfunc‐7 d2 n3 R* k2 Z2 k& U" I4 ] tion.+ _" b& i/ T T( \ FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.) 6 j7 o% |% P& W- ~8 H" @8 E" uFEEDER FIX- The fix depicted on Instrument) T7 |! s5 c* X3 P Approach Procedure Charts which establishes the , v/ h6 j3 q8 h& t! P Kstarting point of the feeder route. ( N' \8 G1 X7 E0 Q8 X6 F- e* zFEEDER ROUTE- A route depicted on instrument 1 K; n3 I j$ P/ oapproach procedure charts to designate routes for ' w2 K% f& A$ L0 Q" yaircraft to proceed from the en route structure to the- A1 H; M& ~4 S/ t initial approach fix (IAF). ) ?: F! U* c- U(See INSTRUMENT APPROACH 0 i4 V' N, m0 L7 OPROCEDURE.) # L+ h; R1 B7 J& @/ j" `! S5 \FERRY FLIGHT- A flight for the purpose of: ) h' f; U5 Q$ e9 p8 @, w. Ia. Returning an aircraft to base.) S% a& c+ v+ F& E2 }$ b/ W b. Delivering an aircraft from one location to! Z5 {2 C4 h+ ?( I- |/ ? another.* q) Z8 b. E2 A' r; @% ^/ y! } c. Moving an aircraft to and from a maintenance) @# V! n$ s! l& s" y base.- Ferry flights, under certain conditions, may be- A# \1 i8 D( E! n$ B, \ conducted under terms of a special flight permit. $ k0 }+ Z8 H7 k5 \! `, s/ q4 _FIELD ELEVATION(See AIRPORT ELEVATION.)" e0 f" V- X4 n$ b1 v FILED- Normally used in conjunction with flight 0 Q4 t% Q ~6 ]& ~plans, meaning a flight plan has been submitted to 2 ]# f; @# l& yATC. 6 Y1 ?7 s# q; tFILED EN ROUTE DELAY- Any of the following ' l& V% D, k# d. D$ }preplanned delays at points/areas along the route of1 K' [; n# N: F' c' c; E% O/ h flight which require special flight plan filing and! e# |) @2 ~9 E2 \. q: a handling techniques. 7 ?$ e1 g4 D' g- f. s& Ua. Terminal Area Delay. A delay within a terminal ' ~8 t/ E) V; [+ f% r$ i" a9 Y P+ marea for touch‐and‐go, low approach, or other6 C/ I! d3 O6 n+ G terminal area activity.- ?6 D0 N+ o& a* y* Q b. Special Use Airspace Delay. A delay within a ' [' p2 {- B w3 ]7 j/ WMilitary Operations Area, Restricted Area, Warning % k- n( k7 U5 nArea, or ATC Assigned Airspace. - y: K) h, u4 \3 ~6 Nc. Aerial Refueling Delay. A delay within an # P4 Q* A) h& c: ^; N1 p& [) iAerial Refueling Track or Anchor.: m( [+ t1 U$ f b" g: t, j9 Q FILED FLIGHT PLAN- The flight plan as filed with . O5 l9 d" m; kan ATS unit by the pilot or his/her designated0 S2 f+ E, u* V J1 ^, ~4 j representative without any subsequent changes or/ H3 a/ [ J* a) T' _ clearances. 9 p, ^3 F% w6 R6 x; V UFINAL- Commonly used to mean that an aircraft is ' J+ ^! |& w6 _/ @on the final approach course or is aligned with a * s/ ?% p |- y# D3 Ilanding area. , V9 P! p0 \- n g, `- y7 C" {(See FINAL APPROACH COURSE.)1 `# n4 k2 b) r+ Y* @ (See FINAL APPROACH‐IFR.) 8 n9 `, Q7 [$ J$ d" {$ p6 b" j% z(See SEGMENTS OF AN INSTRUMENT/ E6 w6 ~) j) F) R: E APPROACH PROCEDURE.) " w5 X2 T. s# _, d* lFINAL APPROACH [ICAO]- That part of an 2 K: z& H' n' G& X* P* Y2 qinstrument approach procedure which commences at4 U" o9 n$ \. g. k the specified final approach fix or point, or where1 C6 u2 {( P# Q4 J8 | such a fix or point is not specified.2 M# w2 r. S, Z+ l! U a. At the end of the last procedure turn, base turn ! ^6 i9 w( F6 I& q9 gor inbound turn of a racetrack procedure, if specified;2 s: n5 \- T8 d, v* h or : @ s+ c" Z/ y1 h2 vb. At the point of interception of the last track ; I8 t3 g' `) [1 o( q& @specified in the approach procedure; and ends at a " S& S# Z9 D7 F6 }2 R; S' ppoint in the vicinity of an aerodrome from which: 9 M: M3 |- @$ x7 M# e4 r5 ~1. A landing can be made; or + g- a5 Q5 @5 ]$ u. D: T2. A missed approach procedure is initiated.% Z+ E5 K8 Q' X2 {* H5 \1 c1 M FINAL APPROACH COURSE- A bearing/radial/ 7 s; ]# B j$ P1 e* utrack of an instrument approach leading to a runway$ E0 f7 W& t: X/ H6 g or an extended runway centerline all without regard# G! H0 N- w3 @% t, r6 v to distance. 3 v# u2 \) R F8 IFINAL APPROACH FIX- The fix from which the 6 b( G' J. D' O' r( ^final approach (IFR) to an airport is executed and 4 O! [* K; l. Hwhich identifies the beginning of the final approach$ ?# s6 I5 M1 v. g5 y1 N segment. It is designated on Government charts by $ H1 W8 l) N$ M# q- Uthe Maltese Cross symbol for nonprecision1 S. a* f0 t F, b. @. a Pilot/Controller Glossary 2/14/089 Z) X; c# }1 ]+ C PCG F-2; O7 ?; t1 b- u* I approaches and the lightning bolt symbol for ' o* `2 n$ h P& {. pprecision approaches; or when ATC directs a & r4 i% Z0 E+ n8 B% plower‐than‐published glideslope/path intercept alti‐& q9 Q; D8 b# ]! o7 e tude, it is the resultant actual point of the $ E' L7 h1 g, i: k ~- O( U& p! W' N, Wglideslope/path intercept. ' N% V& @0 G* H& x(See FINAL APPROACH POINT.) - F; O9 Y0 e. h+ l/ u: J(See GLIDESLOPE INTERCEPT ALTITUDE.) $ w1 d* d5 Q" e3 Z1 Y(See SEGMENTS OF AN INSTRUMENT! @% i( C' ^* B; E APPROACH PROCEDURE.) " x! S3 d1 f8 m( c# A% F- NFINAL APPROACH‐IFR- The flight path of an 4 H, k& J; g; @8 s4 Caircraft which is inbound to an airport on a final6 `# P/ M. ^+ r& E7 c0 n9 ^9 Q instrument approach course, beginning at the final 5 @. u$ d8 ^9 z6 ^, S7 eapproach fix or point and extending to the airport or" p/ i/ w' e% D4 u) H" t, H the point where a circle‐to‐land maneuver or a missed( j* j1 J1 E; _* Q approach is executed.. C C# T2 s2 N2 u' |- M9 H (See FINAL APPROACH COURSE.) ; t4 x$ Y& S. A(See FINAL APPROACH FIX.) 2 w* W6 ?1 k$ ?: C3 m1 n+ W& t(See FINAL APPROACH POINT.)) h7 K1 n+ W8 V8 L# ~2 C$ l (See SEGMENTS OF AN INSTRUMENT9 e9 N6 t' o+ s" k# o APPROACH PROCEDURE.)* D( w" A9 b# y+ K9 T/ K B: B (See ICAO term FINAL APPROACH.)/ z/ w& b" ^+ R }3 G FINAL APPROACH POINT- The point, applicable' S, T0 z. w* _8 B1 p only to a nonprecision approach with no depicted2 v" d% {1 N9 L6 K0 n FAF (such as an on airport VOR), where the aircraft2 _: |9 a2 [! z" H+ j: V. e/ W is established inbound on the final approach course ; o* C: c0 J- _- B" P& S9 F7 d3 ~ lfrom the procedure turn and where the final approach! A$ S) A* S: h: k0 E descent may be commenced. The FAP serves as the ! e" k# y, V, o8 k; ^! K$ aFAF and identifies the beginning of the final - ~+ i/ i# J5 ]1 l8 `approach segment.4 L- P6 B/ r1 a6 | (See FINAL APPROACH FIX.) / F# U) P+ x! j) z(See SEGMENTS OF AN INSTRUMENT 5 Y1 n$ H, v, O; ?APPROACH PROCEDURE.), Y' ]: q0 B8 U2 m FINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT/ x5 e4 t0 k5 x0 H9 [7 d APPROACH PROCEDURE.) 1 m7 H1 E9 q+ ~- o7 lFINAL APPROACH SEGMENT [ICAO]- That 6 w3 Y b) h, Q- ]& ^, ^8 qsegment of an instrument approach procedure in4 G- M% \5 D/ {; E0 J which alignment and descent for landing are$ ^! a4 ^! x @) c8 e, A+ a& E accomplished.7 v& L( i. F& G2 [$ _ FINAL CONTROLLER- The controller providing3 f7 j$ d, Y! G2 l3 N0 H; K; z- V) i information and final approach guidance during PAR " M+ w8 S. y. F9 F- R3 tand ASR approaches utilizing radar equipment.; Q$ D4 y! O9 e# h# f (See RADAR APPROACH.)3 T2 ^5 H+ g8 T8 K4 C2 z FINAL GUARD SERVICE- A value added service6 L1 x/ Z1 ?% d+ c( ~7 y provided in conjunction with LAA/RAA only during/ a3 H3 F8 s% z' J: e periods of significant and fast changing weather( [+ T. B' i' w/ t, A2 t conditions that may affect landing and takeoff' X- ^! y8 f0 F4 W/ D operations. " z( W; _) D, W$ R5 [& N3 iFINAL MONITOR AID- A high resolution color $ W) P7 R& I3 w' z. ]display that is equipped with the controller alert ) u; {) A: C1 j" Usystem hardware/software which is used in the # F) g% Y* c# {# m/ \; zprecision runway monitor (PRM) system. The- o( t O) [/ h9 U# s) Q display includes alert algorithms providing the target( a3 c, D" |3 E0 O% a0 h predictors, a color change alert when a target ' `$ R5 E0 u* e7 P1 g; Dpenetrates or is predicted to penetrate the no . l0 Q- ?, L6 c$ Q' `' T7 |6 rtransgression zone (NTZ), a color change alert if the" K* T w0 ^( t8 e. G! b aircraft transponder becomes inoperative, synthe‐6 e6 I9 x& d: |' `/ K/ ?3 ] sized voice alerts, digital mapping, and like features ( h g9 @+ K' E8 c( {4 H Tcontained in the PRM system./ K3 o* J/ t+ W2 e1 E (See RADAR APPROACH.) % T( w& \3 X; }7 T, N8 l& d/ x9 mFINAL MONITOR CONTROLLER- Air Traffic 2 l" n, g$ |, W: T: ]" {: ^3 D* ]Control Specialist assigned to radar monitor the # o5 r1 k9 c: x, o+ l$ B1 Mflight path of aircraft during simultaneous parallel$ I- j+ z0 }. j; t. c' O and simultaneous close parallel ILS approach / k; s8 n# R8 E! _5 o4 Boperations. Each runway is assigned a final monitor 4 ]: s9 ^9 h% @: @9 L8 L* Kcontroller during simultaneous parallel and simulta‐) q1 ~, R& C: O5 [* Q! v" h neous close parallel ILS approaches. Final monitor * s5 X, j3 p5 K' P9 N5 w, Pcontrollers shall utilize the Precision Runway Y3 F- _ R* X( q8 ?: zMonitor (PRM) system during simultaneous close 6 c% k9 ]; R! Y1 p' k% vparallel ILS approaches.& s; F: j, i. m" ~4 N4 M FIR(See FLIGHT INFORMATION REGION.)$ n8 t% f$ z; ?; @ FIRST TIER CENTER- The ARTCC immediately$ S8 i, `/ B: @4 D# |( P$ s( O adjacent to the impacted center.8 b* J0 n5 `6 N u3 d, G FIX- A geographical position determined by visual ) Y7 [1 F6 K$ S' Areference to the surface, by reference to one or more3 T8 Q H. Y* \ radio NAVAIDs, by celestial plotting, or by another0 B0 B' b/ O% M' o; j+ p4 J* s; } navigational device. 5 I" u M" _7 V9 FFIX BALANCING- A process whereby aircraft are ! A( S6 s7 _$ ievenly distributed over several available arrival fixes ) d, T: Q0 I3 l. f7 _reducing delays and controller workload. + K. A4 q& \4 H( `5 CFLAG- A warning device incorporated in certain! V" e- Q& ^. B7 n airborne navigation and flight instruments indicating' X6 `- d; m6 A, Q8 j that:( X" Y7 k! ]! p2 a& g5 X a. Instruments are inoperative or otherwise not 1 b; G1 y; p5 R& j1 y: ?operating satisfactorily, or$ {. A: [1 m2 T7 j" g3 [4 N: K. N2 j b. Signal strength or quality of the received signal 1 w) W! Y; _2 e$ gfalls below acceptable values.' V; ]7 z V. N+ N FLAG ALARM(See FLAG.)) A/ U2 b8 N6 M, _ FLAMEOUT- An emergency condition caused by a6 D/ l+ B0 k1 j) g* F loss of engine power. , C! k \! Q; R2 C% e; d9 A* }FLAMEOUT PATTERN- An approach normally 2 x# a2 A' r- N3 bconducted by a single‐engine military aircraft' N: n5 U# ]( O8 k9 z( l% K experiencing loss or anticipating loss of engine! T% F- E6 K- I4 Z2 K0 J Pilot/Controller Glossary 2/14/08 7 K u5 c- q8 SPCG F-3 : s8 H1 N! j l( _7 @$ G! U( [power or control. The standard overhead approach ' F/ c Q5 d# e( W# Dstarts at a relatively high altitude over a runway 7 D+ i0 T0 s7 K8 Z" n% o/ V4 ?(“high key”) followed by a continuous 180 degree! q* \% o, X2 X" r turn to a high, wide position (“low key”) followed by" x3 R, \) h. n! X a continuous 180 degree turn final. The standard# ]" A( ]1 l* Z( U straight‐in pattern starts at a point that results in a+ l" U+ M& T, v9 { K* \) \3 j straight‐in approach with a high rate of descent to the" }% d0 W; s4 ?5 \4 o( ^2 B runway. Flameout approaches terminate in the type ! W. {* X" l( F4 c Sapproach requested by the pilot (normally fullstop).+ O9 O# B9 a* P% ^% [ FLIGHT CHECK- A call‐sign prefix used by FAA& h1 ]( t; X4 W0 U8 `+ A6 E1 g, m aircraft engaged in flight inspection/certification of+ P0 O" y. t; ?7 l) T% ] navigational aids and flight procedures. The word 2 X: |9 E9 ?; i“recorded” may be added as a suffix; e.g., “Flight : E1 S4 {/ `6 E# ~& z4 TCheck 320 recorded” to indicate that an automated , h1 W) v6 b* H' m( O6 D( kflight inspection is in progress in terminal areas. m5 f+ ]* E8 l# n' [: r (See FLIGHT INSPECTION.)+ }. P5 K3 k/ Y, r (Refer to AIM.) 5 c! _- w) w: C0 \. \9 DFLIGHT FOLLOWING(See TRAFFIC ADVISORIES.) ) Y. [- r$ N1 h$ t2 z0 v+ _FLIGHT INFORMATION REGION- An airspace of / N5 x; H2 i9 w1 j. t! A. ^defined dimensions within which Flight Information + d4 X7 V0 m/ d' d4 u/ U( @, PService and Alerting Service are provided.9 S$ W; S. ^3 f# ~1 w a. Flight Information Service. A service provided' [" u2 P# a+ { \+ v3 a for the purpose of giving advice and information 8 N! p2 M( d# }' D- T! Guseful for the safe and efficient conduct of flights. + Y$ b2 i- \9 R' p2 kb. Alerting Service. A service provided to notify 8 A2 t0 |5 A1 ~appropriate organizations regarding aircraft in need. l3 {" [9 n2 y1 F of search and rescue aid and to assist such $ u& o% E; a5 [4 o Rorganizations as required. 9 j& u1 \% e+ v1 L! tFLIGHT INFORMATION SERVICE- A service 0 y2 |/ T6 ?+ L4 n2 A8 Z9 jprovided for the purpose of giving advice and 3 p# L& E- |5 z- Oinformation useful for the safe and efficient conduct ( A, S0 ~( h% L4 e9 T+ m ]of flights. ( i L! U* }- k+ H k* J0 ?$ ^FLIGHT INSPECTION- Inflight investigation and4 J) j7 ^+ _. Q4 S: ` evaluation of a navigational aid to determine whether+ T1 K5 [* n' }% S9 ]/ v1 T it meets established tolerances. ( V. C: y b: b- `: j' U(See FLIGHT CHECK.) ) ^4 K/ F+ y, i* G5 w(See NAVIGATIONAL AID.)9 e, t1 y2 G) M! \5 U1 D8 f FLIGHT LEVEL- A level of constant atmospheric 0 s4 x" D l; \, G4 G( e8 {2 T0 U' Z1 W( ^pressure related to a reference datum of 29.92 inches * P. Y8 W7 p5 C4 t1 V" X5 Dof mercury. Each is stated in three digits that represent 2 l) ^/ Z0 j: C$ g8 O% Ihundreds of feet. For example, flight level (FL) 250 7 ]5 a) C* I$ ^" }) |represents a barometric altimeter indication of$ m% m6 }- J0 Q: X' E% R' u O; f8 Z 25,000 feet; FL 255, an indication of 25,500 feet. * @) ?2 I9 h7 k4 Z! d4 G6 s(See ICAO term FLIGHT LEVEL.)* R; }) ?" m7 e# F/ k5 M% H( Z FLIGHT LEVEL [ICAO]- A surface of constant, S7 @. [4 f1 u; g# a& W8 R+ j atmospheric pressure which is related to a specific # d. F' E+ l* p6 Ypressure datum, 1013.2 hPa (1013.2 mb), and is4 P6 r* Z* W+ s) P2 `1 G7 O; W separated from other such surfaces by specific : {% ]- ?. O" `& d5 ]3 X- ^pressure intervals. 9 G' l# A: B/ z# {) P: A0 A2 \7 o( t5 @Note 1:A pressure type altimeter calibrated in5 T5 b1 o3 ?# o+ m: N* R" S accordance with the standard atmosphere: 4 Z( V) \% p: x$ fa. When set to a QNH altimeter setting, will $ f! d7 m9 n3 p* n, W9 V) Rindicate altitude;) ?9 g5 P4 M. p& E" Q; r b. When set to a QFE altimeter setting, will ) ~. Z* p/ ?: c9 }! qindicate height above the QFE reference datum;" b1 Z6 b$ f' o and) y+ j% Z# j' X0 O& a' v) D c. When set to a pressure of 1013.2 hPa4 q' h1 _+ C2 F3 a5 c (1013.2 mb), may be used to indicate flight levels.6 b0 Y# m2 c. \$ d Note 2:The terms `height' and `altitude,' used in6 n5 y* b1 O, ]5 |6 ~# h Note 1 above, indicate altimetric rather than. T$ h- T" x4 y% { geometric heights and altitudes. 7 C/ [0 O& R2 uFLIGHT LINE- A term used to describe the precise, v& K! M/ K, h movement of a civil photogrammetric aircraft along! _3 x: i% z& D! M( a a predetermined course(s) at a predetermined altitude! \% L% T6 F/ \6 n+ `3 } during the actual photographic run. 6 l C0 z) L1 Z+ mFLIGHT MANAGEMENT SYSTEMS- A comput‐ 3 B! ~, U& q, }3 R: s( }& ?er system that uses a large data base to allow routes # C2 i6 j. K& ^' c- I9 H ^ j" bto be preprogrammed and fed into the system by: Y' m0 B/ P+ V1 J5 }! `0 u! j means of a data loader. The system is constantly, F( U0 R. `/ ^; ?' W updated with respect to position accuracy by& b8 N' n! c+ ~( G/ O3 d reference to conventional navigation aids. The2 U7 d; C- W$ |7 i; I |/ K' d2 u sophisticated program and its associated data base & ^* u& h; Z( v8 winsures that the most appropriate aids are automati‐ ' I( v- ?, J& B, jcally selected during the information update cycle.( _. p! @4 |! P# z, S; Z FLIGHT MANAGEMENT SYSTEM PROCE‐! W& e( S1 u- H% G' S DURE- An arrival, departure, or approach procedure% W5 J* _! g; r' d# M developed for use by aircraft with a slant (/) E or slant$ \4 ^+ R* \. @3 ^3 U9 T (/) F equipment suffix.$ r2 |* U% W, E FLIGHT PATH- A line, course, or track along which 8 s* T' f4 T3 J& v" }an aircraft is flying or intended to be flown. # R/ @' G$ L# a$ @( j' y$ u(See COURSE.) , ~. W* S9 }* J' A0 W+ K T9 q% d(See TRACK.)2 ]2 v% b0 N {9 A5 @8 X FLIGHT PLAN- Specified information relating to5 s4 O* ~2 r4 M+ q7 M" i+ | the intended flight of an aircraft that is filed orally or % f- i* N1 F. O/ F* U( Pin writing with an FSS or an ATC facility.$ G3 z/ y) b4 @* ^# G (See FAST FILE.)7 x7 B( Y- H. o! r4 T- a& T (See FILED.)7 L. U7 q L+ I( }: Y6 w (Refer to AIM.)7 s) p# r- _) Z3 y FLIGHT PLAN AREA- The geographical area8 W3 v9 {1 c) R+ ~ assigned by regional air traffic divisions to a flight ) |( V. E3 R2 U: f' \, p5 Hservice station for the purpose of search and rescue/ k: O% n$ T% R1 q! V" q& A2 C for VFR aircraft, issuance of NOTAMs, pilot * E7 P( s2 J3 Q- `+ J4 ~briefing, in‐flight services, broadcast, emergency/ b7 L1 F2 L& D3 p g services, flight data processing, international opera‐% Y( }, \( ^! i- V8 A tions, and aviation weather services. Three letter Y w4 X& Z ^3 z Pilot/Controller Glossary 2/14/08+ i4 ]6 R2 X) x, N4 x& p PCG F-4' g5 f c9 f1 n+ ` [" u T identifiers are assigned to every flight service station 3 g$ C( k7 L9 W' S7 c; Zand are annotated in AFDs and FAAO JO 7350.8, - k7 }. N/ x$ O {; H7 {6 BLOCATION IDENTIFIERS, as tie‐in facilities.: L4 N$ N3 [/ {4 A' p7 V& A (See FAST FILE.)4 O( u" x7 `" h (See FILED.) 4 l& \0 o) p6 O) L( h7 f+ M( ~(Refer to AIM.)8 ~; N( p& S; i/ _6 U& Y FLIGHT RECORDER- A general term applied to % |1 T, }% b! M+ vany instrument or device that records information! E' ~# c( H( G. ]) \* n+ b about the performance of an aircraft in flight or about : ~ P! X1 ^' R- k+ E5 _4 ?! Kconditions encountered in flight. Flight recorders $ j; `2 }6 P8 [# k; B Xmay make records of airspeed, outside air% D" F: J1 x. h8 i g temperature, vertical acceleration, engine RPM, 2 k5 g/ c1 J5 V) z8 ^+ V( Gmanifold pressure, and other pertinent variables for a7 ~; _! z3 O. b8 g* d: a& K' t" _! B given flight.; E" d5 x, R7 E' L4 @) M; V; W) y; @ (See ICAO term FLIGHT RECORDER.) 2 e. G1 R( z y5 B, @# }FLIGHT RECORDER [ICAO]- Any type of3 m" C1 C/ D! O K+ J7 c! H recorder installed in the aircraft for the purpose of ; O( t9 s8 _) [3 z+ E$ Ecomplementing accident/incident investigation. * L: `* G4 |) r! l( eNote:See Annex 6 Part I, for specifications relating% `$ [ c, \9 ?2 o# J# v0 E to flight recorders. 4 Q9 Y, {6 O4 a/ hFLIGHT SERVICE STATION- Air traffic facilities p* O' a( I+ [ G' ^ which provide pilot briefing, en route communica‐ G. O! O9 C' }& R4 Mtions and VFR search and rescue services, assist lost% _0 A" ?8 }- {3 z# t& I+ N aircraft and aircraft in emergency situations, relay 3 {* c- ?3 Y" e) @; JATC clearances, originate Notices to Airmen, & N8 k, f# d" ?2 v; h, lbroadcast aviation weather and NAS information,: v/ D" P+ P1 e. h% N and receive and process IFR flight plans. In addition,! l# s% V, N, |* b# ^ at selected locations, FSSs provide En Route Flight2 z5 q# E5 i3 k0 m; l; t9 Y" T# q Advisory Service (Flight Watch), issue airport: u3 h. X( M) Z" P9 U; ]( G advisories, and advise Customs and Immigration of: l' N" U3 a% `+ F9 C# M* s transborder flights. Selected Flight Service Stations ) i5 f& U) p- ]+ nin Alaska also provide TWEB recordings and take- N# ?' T) g5 d6 ?3 G( Q" y, R weather observations. ! ^1 K7 i3 c4 D+ B(Refer to AIM.) - ?. a- B8 _1 j9 \# }6 w% {1 c$ BFLIGHT STANDARDS DISTRICT OFFICE- An. e B4 z* c7 o7 J/ o0 t FAA field office serving an assigned geographical& W4 I! Y- l) `: t; c T area and staffed with Flight Standards personnel who 2 D* T, r/ d7 r: j0 u4 Userve the aviation industry and the general public on; `' Z6 t( P; E, Q matters relating to the certification and operation of$ Y8 H3 h9 {3 m/ f air carrier and general aviation aircraft. Activities 9 _- |3 d' @& P/ F* A T! _# Hinclude general surveillance of operational safety, , P0 j5 B0 }8 B! M( I7 ~% R: B; lcertification of airmen and aircraft, accident 1 M* q& s3 j( [& aprevention, investigation, enforcement, etc.. b( |+ T% t5 H* o* S% f$ p FLIGHT TEST- A flight for the purpose of:1 V) @: a' }2 E6 i; b a. Investigating the operation/flight characteris‐3 a: I6 q9 h, Q% a tics of an aircraft or aircraft component. 2 i- X# o; ~/ p& }# m: q' Gb. Evaluating an applicant for a pilot certificate or8 l" f9 _8 h8 N% E$ ^ rating. ( {7 V' w7 L& Z6 c& Z* jFLIGHT VISIBILITY(See VISIBILITY.)' r$ B4 y' m2 {0 ^- v FLIGHT WATCH- A shortened term for use in - [& C9 v3 A: N/ o/ eair‐ground contacts to identify the flight service O4 d7 l3 w. @ station providing En Route Flight Advisory Service; r/ {* l- b8 L- L% re.g., “Oakland Flight Watch.”2 U6 [" f- f/ ]) {% W( ]. N: C (See EN ROUTE FLIGHT ADVISORY 3 a7 A' R6 x7 ] Q S5 V2 ^SERVICE.) , `5 C* }0 Y5 x; Y7 JFLIP(See DOD FLIP.), w- D8 I4 \" \0 r' J FLY HEADING (DEGREES)- Informs the pilot of 7 d& g+ P/ A- |the heading he/she should fly. The pilot may have to & X3 D. x2 H% U" G1 B, Pturn to, or continue on, a specific compass direction& p* ~5 n3 I1 G ?! K: n/ j in order to comply with the instructions. The pilot is 3 r: S2 F. W' r; nexpected to turn in the shorter direction to the heading ; D2 K J5 T0 [* U% M+ c$ o9 Munless otherwise instructed by ATC. ( N* d3 t, D$ O. _3 AFLY‐BY WAYPOINT- A fly‐by waypoint requires ! O. t3 r7 t' x D8 Q& \# i. i/ mthe use of turn anticipation to avoid overshoot of the$ l' C6 A" T+ H+ j' t next flight segment., \( _3 \8 Z C* }% l5 {$ g% o+ I FLY‐OVER WAYPOINT- A fly‐over waypoint5 X* [1 ^7 L+ D; d- k* O; ^$ a precludes any turn until the waypoint is overflown0 J; o& U% A3 h# L- C. f4 x$ a1 v and is followed by an intercept maneuver of the next ' B' j- v! h& `0 ]( A8 B7 M. Nflight segment.* N. y. E& T4 Z& P FMA(See FINAL MONITOR AID.)8 K( e* P. A. c) e3 V FMS(See FLIGHT MANAGEMENT SYSTEM.)* r) V+ h# P- Z9 C& U0 t FMSP(See FLIGHT MANAGEMENT SYSTEM" @8 X9 m2 C0 c( k PROCEDURE.) 9 A2 @* [: u2 M9 I' H' [ ]FORMATION FLIGHT- More than one aircraft 9 C; g* _3 `- p3 ewhich, by prior arrangement between the pilots,6 a; e% o1 Q1 J( }1 v6 Y K operate as a single aircraft with regard to navigation 3 ?% W, ]; _: Q$ M$ wand position reporting. Separation between aircraft& y: |# S; f6 s! V; y; b1 S$ _" y within the formation is the responsibility of the flight# Y0 h- s, f# g ^. e6 x9 K leader and the pilots of the other aircraft in the flight. K6 Q6 h4 C. n. U6 sThis includes transition periods when aircraft within ! [, e4 Z( |+ r- \3 {, ?the formation are maneuvering to attain separation 5 g: k- `- u5 tfrom each other to effect individual control and # a( R# p+ q% T% L) eduring join‐up and breakaway. ; f. ?9 X/ q9 t! H, Aa. A standard form ation is one in which a * T7 }* Q# F0 m: qproximity of no more than 1 mile laterally or, F5 L8 W9 i2 P6 j' c! {) C longitudinally and within 100 feet vertically from the ! |: e# x2 K2 D, v. x @flight leader is maintained by each wingman. - [: C/ m/ E4 e2 [$ o9 ab. Nonstandard formations are those operating& ^! [; P9 ]: I% Z" _5 K# T+ ] under any of the following conditions:, y) A1 {: B) J5 ]; y. U5 t9 I u1 d Pilot/Controller Glossary 2/14/08 " p, v Q1 J8 l6 Z5 k' D3 KPCG F-5 . @4 m& p) E! {4 i( l+ d* n% C1. When the flight leader has requested and ATC- Q8 v3 }% R: a" p5 q5 `. }) v has approved other than standard form ation ) q# l1 ^+ b% I. Y# odimensions.: M1 e6 p- E A) }; Z 2. When operating within an authorized altitude, W6 ^7 U1 Y) y \( ?1 \0 ]! h+ V reservation (ALTRV) or under the provisions of a8 D7 F8 _1 F" L* D' v letter of agreement.3 Y) P: z) v, j2 L 3. When the operations are conducted in - l( r, D& w p' p- gairspace specifically designed for a special activity. 1 `2 ^# f, T) ^7 b6 g(See ALTITUDE RESERVATION.): W1 @5 W2 t; O; w) X2 ~ (Refer to 14 CFR Part 91.)* _3 E! ~+ ]2 k# w" Z, [* x5 p FRC(See REQUEST FULL ROUTE CLEARANCE.)1 a" k7 p( W2 ~8 g FREEZE/FROZEN- Terms used in referring to) \( v& K7 v4 i) z/ g# Y$ A1 | arrivals which have been assigned ACLTs and to the + i, @7 A) C, o& r: [lists in which they are displayed. 8 n" U N' [' c A2 Z/ Y7 mFREEZE CALCULATED LANDING TIME- A 4 s5 m; t; m" a9 e' kdynamic parameter number of minutes prior to the 2 _& |/ @( Z) n$ |* ~meter fix calculated time of arrival for each aircraft& i0 k4 N1 o$ A/ Y7 \5 \ p; W when the TCLT is frozen and becomes an ACLT (i.e., - L4 E# I9 u8 z9 e, Sthe VTA is updated and consequently the TCLT is: q, V& l* L( z1 p6 P2 s" u7 { modified as appropriate until FCLT minutes prior to " B) M$ b f$ _+ I' h, h0 R6 Fmeter fix calculated time of arrival, at which time 0 Z( F; H3 @1 {3 mupdating is suspended and an ACLT and a frozen $ Q+ K( Z/ x, J: gmeter fix crossing time (MFT) is assigned). 6 D3 h6 } r5 s+ G lFREEZE HORIZON- The time or point at which an; U; y. K6 F& s+ t4 _ aircraft's STA becomes fixed and no longer fluctuates% E3 T- U4 b0 k+ t F( H with each radar update. This setting insures a constant( p2 t0 Q/ J: \, q6 z/ r time for each aircraft, necessary for the metering 3 k; D7 _" J0 X5 ]controller to plan his/her delay technique. This " ~9 o9 r6 ?4 W$ W9 s9 Esetting can be either in distance from the meter fix or( L; G$ }" v- [3 U; [ a prescribed flying time to the meter fix.4 j; R2 _' \5 l5 O% P# K$ Y' T z$ u, H FREEZE SPEED PARAMETER- A speed adapted& X1 F$ A6 P3 v3 H. W) I. p8 Y for each aircraft to determine fast and slow aircraft. * ]( Z$ K% O, _/ IFast aircraft freeze on parameter FCLT and slow) w* W* \0 d' ]' b& W5 x aircraft freeze on parameter MLDI. 9 J* P! O! C4 n1 U" k% s! u$ {FRICTION MEASUREMENT- A measurement of ; y2 j6 |1 j2 wthe friction characteristics of the runway pavement - F7 y# D/ w. t' `surface using continuous self‐watering friction ! }0 M9 {4 k7 V/ M5 Fmeasurement equipment in accordance with the & K7 p+ p+ t# |specifications, procedures and schedules contained 6 Q) I( m4 Y3 E8 H& X/ e; u+ min AC 150/5320-12, Measurement, Construction,( } g; A1 }; S3 K" ^ and Maintenance of Skid Resistant Airport Pavement( L9 T- J3 b$ S( w+ Z Surfaces.9 G' H$ i1 N u" N: q+ ^ FSDO(See FLIGHT STANDARDS DISTRICT OFFICE.)% D2 d) X7 f- d; N7 q FSPD(See FREEZE SPEED PARAMETER.) : G. Z* p& |. n2 l5 g! ~FSS(See FLIGHT SERVICE STATION.) / D. m( f8 Q- l+ v) m4 g5 ZFUEL DUMPING- Airborne release of usable fuel. ) {% ~* Z) m% O- \, x0 {2 j Z# Y( VThis does not include the dropping of fuel tanks.- u0 L6 T P% u) O7 G (See JETTISONING OF EXTERNAL STORES.) 7 D. C g: N6 w) r* d7 eFUEL REMAINING- A phrase used by either pilots + H% I) c+ x( O% s1 m1 Ior controllers when relating to the fuel remaining on4 n: m4 Z9 X* r' D% y$ E0 |& r1 X board until actual fuel exhaustion. When transmitting 6 q; v1 ~) r/ W1 osuch information in response to either a controller+ T5 }& w: X9 x; R W6 e8 z question or pilot initiated cautionary advisory to air 7 \' C7 N. r- ttraffic control, pilots will state the APPROXIMATE0 \3 n( i$ i( O' b& G NUMBER OF MINUTES the flight can continue& J( ]# X4 t& e$ M4 p% f with the fuel remaining. All reserve fuel SHOULD+ o0 ^0 ?1 [' k( a P BE INCLUDED in the time stated, as should an ? K& N( u. }8 o7 p$ gallowance for established fuel gauge system error. ! s% I7 I/ v' G, n2 ]" W0 ZFUEL SIPHONING- Unintentional release of fuel " d2 Z) I2 H" U, ~6 _" scaused by overflow, puncture, loose cap, etc. , T/ U0 \0 j& lFUEL VENTING(See FUEL SIPHONING.)" U6 H/ N$ c& N/ p" \; W Pilot/Controller Glossary 2/14/08' G0 r s) P+ j" V8 I! O PCG G-19 x( h4 G6 S! B- X& W G

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发表于 2008-12-28 14:13:18 |只看该作者
GATE HOLD PROCEDURES- Procedures at- r; @" k H! Z" n" N1 z3 @5 J- I selected airports to hold aircraft at the gate or other . v ^: `6 Q2 s. D2 Xground location whenever departure delays exceed or% v9 `+ T- `9 v are anticipated to exceed 15 minutes. The sequence " {) V( b' P! N! J/ C7 [for departure will be maintained in accordance with ( A) A8 s: A) }7 Q/ r# Pinitial call‐up unless modified by flow control8 Q% h" s+ \/ l( t! `( Q: R% R restrictions. Pilots should monitor the ground% v: u; G$ E6 x- `* J# f5 z. a* l control/clearance delivery frequency for engine8 p" o' ?( M9 X6 k start/taxi advisories or new proposed start/taxi time; j1 s1 |& A% K$ T9 B, G( p if the delay changes.

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发表于 2008-12-28 14:14:19 |只看该作者
GBT(See GROUND-BASED TRANSCEIVER.)% ]7 d* V v+ `" ~ j# z* ^ GCA(See GROUND CONTROLLED APPROACH.) " m. f8 @4 {- ?1 I* [ }; P+ s4 @GDP(See GROUND DELAY PROGRAM.) 6 f$ G' G5 I! Q/ L8 LGENERAL AVIATION- That portion of civil. \; K; H$ @+ I+ c h1 M aviation which encompasses all facets of aviation4 m3 f0 c6 }+ ?: T4 Q y except air carriers holding a certificate of public8 l4 N8 Q7 @$ } convenience and necessity from the Civil Aeronau‐$ X* X' o" D* u8 s! ~$ \ tics Board and large aircraft commercial operators.# `5 z5 [5 j9 t: y" E2 H (See ICAO term GENERAL AVIATION.). |: z* n: m9 o+ r GENERAL AVIATION [ICAO]- All civil aviation4 C7 P9 B$ F- v9 N& i! W/ Z" W operations other than scheduled air services and 4 M3 l4 |. Z- _4 Q: anonscheduled air transport operations for remunera‐ % G: G3 \2 U @5 ition or hire. 8 r; `) O" s2 zGEO MAP- The digitized map markings associated 3 ^8 |+ b8 C: P$ `( A9 I5 K3 W fwith the ASR‐9 Radar System.: V5 B% u2 \6 {/ V9 t( k8 E2 l9 }3 m( C; u GLIDEPATH(See GLIDESLOPE.)* }# d L: X; _: W; a1 k. ? GLIDEPATH [ICAO]- A descent profile determined 0 w2 J! f+ s3 g% [for vertical guidance during a final approach. 1 ^" A, K% y5 T7 v: {! ^GLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.) 4 ?) E( `) V5 s0 w+ ~5 hGLIDESLOPE- Provides vertical guidance for 7 h' ]: R) Z1 t# S gaircraft during approach and landing. The glideslope/ ' A* y, Y# v: }5 q9 c7 R) iglidepath is based on the following: 2 [. X5 E* s" x( @9 D" Ya. Electronic components emitting signals which 6 k7 y2 g' Q/ H4 P$ wprovide vertical guidance by reference to airborne " u1 T, D& G4 w2 O5 h ~- @instruments during instrument approaches such as ' V1 l8 B1 |8 n$ S3 v+ KILS/MLS, or 1 H! j" f, j/ Db. Visual ground aids, such as VASI, which5 ]8 W |0 h, c! Q5 I8 z, a3 ^ provide vertical guidance for a VFR approach or for( @* A, b; y ~) f; o* R4 ~9 | the visual portion of an instrument approach and5 J Z. A4 t: f8 a landing. ' Q: o, Q; l% E6 Y5 Ac. AR. Used by ATC to inform an aircraft making 5 ^/ p% N' t' y- F1 y0 xa PAR approach of its vertical position (elevation) 3 B0 y$ T# c% c. D, y7 Irelative to the descent profile." W' s. Z3 g# a! G (See ICAO term GLIDEPATH.) & Q1 I0 k! {% K" S) a* V. n& dGLIDESLOPE INTERCEPT ALTITUDE- The6 w6 s& E2 ` x minimum altitude to intercept the glideslope/path on # ~/ e( ~8 _+ e A1 ba precision approach. The intersection of the* I" X8 |0 s+ `$ J) m published intercept altitude with the glideslope/path,$ Y0 j& }3 e+ |% m/ Q. K) K designated on Government charts by the lightning : v2 p% Q* c0 \0 d" B/ d6 Ibolt symbol, is the precision FAF; however, when the ( V1 u* }( V" u3 N3 Z: k4 Fapproach chart shows an alternative lower glideslope+ T5 i) \0 `0 ?+ A2 k6 e: \5 k! [ intercept altitude, and ATC directs a lower altitude,) B, ^, n- l5 L+ S$ U the resultant lower intercept position is then the FAF. : F7 K- ]0 l0 e' q(See FINAL APPROACH FIX.)- Q! Y7 I0 ]& P3 m (See SEGMENTS OF AN INSTRUMENT" b. A0 ?8 W+ n APPROACH PROCEDURE.) ) R8 y$ V5 g# B8 F( ?GLOBAL POSITIONING SYSTEM (GPS)- A9 u# D7 e! F# o space‐base radio positioning, navigation, and3 J# l7 U2 G+ }1 E/ J+ Z time‐transfer system. The system provides highly/ ]7 _' |% `7 g2 i accurate position and velocity information, and" n, N/ D+ D- b2 S' T' }% E4 g precise time, on a continuous global basis, to an# S9 J" i, |3 K. z2 V* @) l unlimited number of properly equipped users. The , U6 u5 V5 |$ ^& ~7 P6 Q6 n7 ^system is unaffected by weather, and provides a 5 z( }( h C" {( Wworldwide common grid reference system. The GPS 7 F6 Y1 I7 J7 i! w/ R( vconcept is predicated upon accurate and continuous " b* v# [5 h9 f" nknowledge of the spatial position of each satellite in % k" l( x+ t Xthe system with respect to time and distance from a' S6 e M, M2 L. U( B: p- k transmitting satellite to the user. The GPS receiver , n: O$ @- u3 t/ c# v1 R4 p9 N vautomatically selects appropriate signals from the* i' W# Y( k3 T, n- i satellites in view and translates these into three‐: k2 u3 m! n( N0 |8 I dimensional position, velocity, and time. System& y2 w9 a0 J' A/ ^8 f accuracy for civil users is normally 100 meters! R: c+ i" V3 D+ q. }% m1 _8 h# J' \ horizontally.9 [+ r7 I, ~/ e g% j GO AHEAD- Proceed with your message. Not to be 6 ^4 O/ Z# n2 Hused for any other purpose. 4 g; |2 d8 c! F1 [# `, F2 gGO AROUND- Instructions for a pilot to abandon/ q. M* ]1 K) b ~: o; G8 ] his/her approach to landing. Additional instructions * `, F* |4 N) {- T3 b+ X) Q7 X @may follow. Unless otherwise advised by ATC, a6 y V! x$ Z7 e; n9 u VFR aircraft or an aircraft conducting visual) ?$ \3 q, `: V8 {) }0 d- g approach should overfly the runway while climbing. K; n/ X8 @& |6 b3 w) v# y" ] to traffic pattern altitude and enter the traffic pattern 0 r$ m7 Z! K1 nvia the crosswind leg. A pilot on an IFR flight plan $ c7 b9 b+ }2 e0 @9 OPilot/Controller Glossary 2/14/08- A9 Y/ d! H; x) x8 ?0 Y$ l3 P PCG G-23 K- @9 ~. Z, y% A making an instrument approach should execute the7 S; }7 A: `) l Q- ?' o/ f published missed approach procedure or proceed as" n2 t' B: G) @6 j; n3 { instructed by ATC; e.g., “Go around” (additional * v6 R! d* L* r+ c7 cinstructions if required).2 n% g, i5 i' n (See LOW APPROACH.)( _! L1 @0 N$ r# U (See MISSED APPROACH.)" \% |- t6 o; w% [# e X GPD(See GRAPHIC PLAN DISPLAY.) 7 @; |6 d6 x0 L/ i0 t7 cGPS(See GLOBAL POSITIONING SYSTEM.) 9 Y6 _. P6 A8 ~% D' X. T5 h8 WGRAPHIC PLAN DIS PLAY (GPD)- A view ; { Q! ?8 K6 B5 |) x, y! s- Vavailable with URET that provides a graphic display 2 o3 @2 Q* s! }1 ?8 m) F. Zof aircraft, traffic, and notification of predicted 0 n5 E B A- d! c6 R( g! econflicts. Graphic routes for Current Plans and Trial / ~* A& c6 d+ PPlans are displayed upon controller request. 7 X3 Q+ J9 M9 [( i1 r0 k, a(See USER REQUEST EVALUATION TOOL.) % } B n" n4 k& t4 F4 e" ~% ^GROUND-BASED TRANSCEIVER (GBT)- The 2 f$ d- B# ]) Jground-based transmitter/receiver (transceiver) re‐ / |2 J. n% B s% z# B# ^" Cceives automatic dependent surveillance-broadcast. J+ u9 K2 B# c7 V7 [ messages, which are forwarded to an air traffic3 ~/ \$ u' [1 B2 F) w1 e" z/ d; @' M control facility for processing and display with other ) b+ z+ z& O6 O* d8 `radar targets on the plan position indicator (radar% J" [& ~( ]5 K0 z- | display).% V# ~9 |+ B$ {0 G7 y$ K (See AUTOMATIC DEPENDENT( I" Q& V5 v8 W8 B8 `6 y6 G SURVEILLANCE‐BROADCAST.) ) h0 c% _' r! M6 z( X$ aGROUND CLUTTER- A pattern produced on the % f% b' e$ Y. W+ G8 O3 X' vradar scope by ground returns which may degrade * o( O9 T `5 ^1 I6 F, Wother radar returns in the affected area. The effect of7 r; ]" k, ^$ Z8 [ ground clutter is minimized by the use of moving ( _" [" |* B, c- E; x; atarget indicator (MTI) circuits in the radar equipment# |0 j P! N$ V resulting in a radar presentation which displays only - w" d i" T# Y7 ytargets which are in motion.* n% I; z: n" B- V9 w2 ^8 b4 ~ (See CLUTTER.) E$ H( W* ?) E5 v: w GROUND COMMUNICATION OUTLET (GCO)- , v7 P% h. @8 Q# M4 Z. H' f: H- QAn unstaffed, remotely controlled, ground/ground ; B# r( q: D+ `$ h; E, [/ {. icommunications facility. Pilots at uncontrolled9 c+ q+ ^! R/ E: p" O airports may contact ATC and FSS via VHF to a " S j- o6 _ l6 K( L- c* s6 B9 ~! Ttelephone connection to obtain an instrument . T/ Q8 h$ A( tclearance or close a VFR or IFR flight plan. They may: o8 ~* h. x0 x% f also get an updated weather briefing prior to takeoff. + D% O- t& k% p, n5 E, Z) b4 h* BPilots will use four “key clicks” on the VHF radio to " _0 ~' ?6 R2 a# O$ ~7 Econtact the appropriate ATC facility or six “key) B/ I5 N4 o# t6 S clicks” to contact the FSS. The GCO system is e+ x# |5 o8 }intended to be used only on the ground. $ l- t3 i# }) W! _7 L8 E) CGROUND CONTROLLED APPROACH- A radar; C6 _% p/ o8 N6 X' \. t, ?$ ^ approach system operated from the ground by air+ [& L" Z2 q6 l7 I G traffic control personnel transmitting instructions to 9 _! t; b7 M) d0 L6 t2 lthe pilot by radio. The approach may be conducted* w4 Q! Y( v- n5 q, s8 y7 | with surveillance radar (ASR) only or with both ( }3 h- Q7 U! t# u( zsurveillance and precision approach radar (PAR). 8 w4 @) I' t- m( G5 N( |# EUsage of the term “GCA” by pilots is discouraged* |9 u7 l1 N6 `( {; I except when referring to a GCA facility. Pilots should % f$ t3 c# E/ v5 o8 ~; `specifically request a “PAR” approach when a ( m1 l+ O2 n! xprecision radar approach is desired or request an ( b/ m& j: O4 K) }“ASR” or “surveillance” approach when a nonpreci‐ l8 P! x0 G) u" ^$ \" p$ Nsion radar approach is desired. 0 u3 e+ W; ~0 b$ t! k) T. |(See RADAR APPROACH.) 0 c& D* q! }* ^8 R' A6 cGROUND DELAY PROGRAM (GDP)- A traffic 8 u% H) w0 O6 C2 A T0 T7 \management process administered by the ATCSCC;# q* n d k$ C: F( I! E a7 y when aircraft are held on the ground. The purpose of3 z, R% y' w* f3 T8 N9 Z! E4 z the program is to support the TM mission and limit ; Y% H6 d' A7 d0 E$ i: [airborne holding. It is a flexible program and may be; b! a- [ D8 E( H: f! J& A implemented in various forms depending upon the1 p9 l* s i; S/ S needs of the AT system. Ground delay programs 8 n8 Y1 v& ^6 b7 Jprovide for equitable assignment of delays to all$ n: ?" c( U. v" W9 }* J& z0 V system users. " e' z l: m& I: C, ]: N, s+ iGROUND SPEED- The speed of an aircraft relative 5 c) {' v- a3 g# F& ?to the surface of the earth. " p' ~, K7 K& `- I; |4 FGROUND STOP (GS)- The GS is a process that7 ^: S x/ Q) z# r% a# x8 [7 E4 y% ? requires aircraft that meet a specific criteria to remain, k1 X$ t0 F( b, ^( V5 L on the ground. The criteria may be airport specific, ! O' z* e7 M4 d* O2 l4 ~+ Pairspace specific, or equipment specific; for example, ) v- g) Z" J7 I$ u9 U2 yall departures to San Francisco, or all departures : [( g! @# Q# L& ?: M8 Qentering Yorktown sector, or all Category I and II # F M. J! A3 W/ c0 N7 ?aircraft going to Charlotte. GSs normally occur with 7 g+ p; c' g8 H9 q3 ?0 n, d+ Q9 Flittle or no warning.4 V% z7 R8 z$ t C GROUND VISIBILITY(See VISIBILITY.)$ G7 {3 M& M3 {- ] GS(See GROUND STOP.)7 F+ X0 \8 L6 ~" w( T Pilot/Controller Glossary 2/14/08 ! Q+ f& o) G; f+ u" } f9 X! `PCG H-15 a% @) o" S8 g9 l3 p H ' L# p4 M X0 c. ?HAA(See HEIGHT ABOVE AIRPORT.) & }9 r. q2 P6 `! lHAL(See HEIGHT ABOVE LANDING.)% K) Z6 l9 F& k# @$ E/ E HANDOFF- An action taken to transfer the radar $ T- e1 e4 r3 F6 [+ }identification of an aircraft from one controller to 6 t# d9 V( w' D' `/ O/ E; yanother if the aircraft will enter the receiving v% Q- V' i2 _& w( x ~ d3 ]6 [ controller's airspace and radio communications with $ C3 k; n! V Wthe aircraft will be transferred. 0 x2 G, x9 k" i* q+ U# M3 JHAR(See HIGH ALTITUDE REDESIGN.) . T8 e! y; F1 C/ b, l# J) v3 KHAT(See HEIGHT ABOVE TOUCHDOWN.)) X) u7 _4 Q+ `& @8 I2 C8 r( O8 h HAVE NUMBERS- Used by pilots to inform ATC. T0 ]8 E% J* K, D0 x% U that they have received runway, wind, and altimeter! [1 u# B$ N( y- r; b6 d information only.2 L2 x$ X+ w i1 V* ?, d& ~ HAZARDOUS INFLIGHT WEATHER ADVISO‐+ z, }0 W5 R/ I2 W8 l. S9 k RY SERVICE- Continuous recorded hazardous 1 `& {( u2 U6 w6 T6 P- ^$ Ninflight weather forecasts broadcasted to airborne 0 T; A- w! {/ ]* c8 b4 Vpilots over selected VOR outlets defined as an; [; W' k9 f5 K( F( i; T HIWAS BROADCAST AREA.2 Q% B& ~# G" V- \1 G0 G* I* u HAZARDOUS WEATHER INFORMATION- . F) `# p1 ?0 l1 d! U: g2 _Summary of significant meteorological information ) `) C2 |8 |. k, ^, W: L: f1 w(SIGMET/WS), convective significant meteorologi‐ % z y$ p- O/ @% k8 I2 v0 dcal information (convective SIGMET/WST), urgent ' @+ A. {2 j+ m% npilot weather reports (urgent PIREP/UUA), center . t m& ^) d' \, oweather advisories (CWA), airmen's meteorological( p9 h$ `8 G C- X, Q information (AIRMET/WA) and any other weather ! T3 C: [6 Q i# B& U0 }, I* P* Lsuch as isolated thunderstorms that are rapidly) R1 d- J: T0 z developing and increasing in intensity, or low 0 b z" _6 {# E" [' S z+ wceilings and visibilities that are becoming wide‐7 m, V9 r! E/ @) S spread which is considered significant and are not , k s& f) n; s4 |included in a current hazardous weather advisory.3 [9 l* V/ _& q8 E% v HEAVY (AIRCRAFT)-# }9 o. M8 h6 y% j6 q1 V" r (See AIRCRAFT CLASSES.) . U7 M1 M+ s% O; c) nHEIGHT ABOVE AIRPORT- The height of the( V% c: n( i0 b9 F4 z( @ Minimum Descent Altitude above the published0 L& N6 H% c4 A' o9 M airport elevation. This is published in conjunction9 [, P+ ]: o! |0 K4 @ with circling minimums. ( u0 {; P, `2 B( T* r6 \1 m% u(See MINIMUM DESCENT ALTITUDE.)" ~8 i1 `8 `! \# [+ p HEIGHT ABOVE LANDING- The height above a8 z" M' t2 r0 h5 S3 g. o designated helicopter landing area used for helicopter. L4 l8 r# R8 l0 c instrument approach procedures.) D8 }1 v" r% l5 o9 \ (Refer to 14 CFR Part 97.) ! q5 R8 |# r6 y/ UHEIGHT ABOVE TOUCHDOWN- The height of % t9 [# r- ^$ K, x. w7 V8 ]0 Ithe Decision Height or Minimum Descent Altitude# K2 G; N' C3 }. k# ^/ c above the highest runway elevation in the touchdown1 N: }9 z/ O* r" y0 i: I: v zone (first 3,000 feet of the runway). HAT is5 f( |$ S- A" f6 e5 t published on instrument approach charts in conjunc‐ @6 y3 b; i, f) Mtion with all straight‐in minimums. 1 m0 i& T8 n3 t(See DECISION HEIGHT.) " P* O7 y/ i& M7 H5 ~$ ^4 H(See MINIMUM DESCENT ALTITUDE.)! H+ q" e1 S F* q; ` HELICOPTER- Rotorcraft that, for its horizontal, Q" k6 a* O, \9 I: C motion, depends principally on its engine‐driven + ?* J* s; e$ q5 s/ Y nrotors.' e) ]9 }: v2 f) F$ x& s (See ICAO term HELICOPTER.)

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发表于 2008-12-28 14:14:39 |只看该作者
HELICOPTER [ICAO]- A heavier‐than‐air aircraft$ y7 y1 i- ^% [1 G supported in flight chiefly by the reactions of the air2 B$ M4 ^' z' I( a+ W" H2 J& r on one or more power‐driven rotors on substantially " g2 E9 g; Y6 q; [3 H% H+ h& ?3 n4 `vertical axes. & K% U1 l- U5 E6 c+ {8 RHELIPAD- A small, designated area, usually with a + m% d7 A4 w# f8 oprepared surface, on a heliport, airport, landing/take‐6 c' T3 S# F* E off area, apron/ramp, or movement area used for& N0 x- H W' F0 f% P takeoff, landing, or parking of helicopters.. v0 C7 {- N' j5 q m5 o: e* n" U HELIPORT- An area of land, water, or structure used . L9 y# u& g. }or intended to be used for the landing and takeoff of % |1 N/ O7 q* }4 J% {5 Z2 I6 vhelicopters and includes its buildings and facilities if # c0 N# L Q a6 \0 T1 j. ]any. 6 F( p' M, R' _HELIPORT REFERENCE POINT (HRP)- The . T( B. w+ L) Y7 r ~geographic center of a heliport. 9 o( S' i% |% p0 ^$ D" JHERTZ- The standard radio equivalent of frequency , b' O& w% M- s$ gin cycles per second of an electromagnetic wave.. W5 b4 i7 ~% l8 Z Kilohertz (kHz) is a frequency of one thousand cycles 6 B l; Q2 j+ Sper second. Megahertz (MHz) is a frequency of one , b+ F# d$ P3 Y2 g$ v; zmillion cycles per second. # W9 J- ?' o4 L0 y) T v0 FHF(See HIGH FREQUENCY.)7 X/ h i0 v) W3 b( g HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.) . k& a) J5 E4 j+ _HIGH ALTITUDE REDESIGN (HAR)- A level of2 N7 Y% M% | ?' J% j non-restrictive routing (NRR) service for aircraft 1 W X- e1 a* l( Q! }that have all waypoints associated with the HAR / T% R+ F2 L% [program in their flight management systems or! z/ y6 r: U; k$ g+ A" i RNAV equipage.' N# k% Q8 |% c Pilot/Controller Glossary 2/14/08 * X; q6 {0 i5 w0 t( t" aPCG H-2' n# A; A5 T2 `. z HIGH FREQUENCY- The frequency band between ( j8 _2 o) |* g9 r3 and 30 MHz. / U% z9 M8 p0 s6 }(See HIGH FREQUENCY COMMUNICATIONS.) 0 B7 i# l+ c' SHIGH FREQUENCY COMMUNICATIONS- High " [3 |" n8 s3 Y( G4 |, Iradio frequencies (HF) between 3 and 30 MHz used $ O" _8 |, }8 m6 }% M$ e: J2 qfor air‐to‐ground voice communication in overseas. H; \+ Y. E b* P" n1 ]+ K operations.1 J+ c. G! B, w. n7 [ HIGH SPEED EXIT(See HIGH SPEED TAXIWAY.) , L0 ?! P- N) O, j, ~HIGH SPEED TAXIWAY- A long radius taxiway0 k. X) O7 J% W. q, p designed and provided with lighting or marking to' w6 r- V3 O. h7 @5 v( w+ f. } define the path of aircraft, traveling at high speed (up 4 c4 M( B2 @. U: B* E! Pto 60 knots), from the runway center to a point on the, \3 H+ l, T/ l( a9 L' Y center of a taxiway. Also referred to as long radius0 ~8 A8 Y l) I% B, H: w% Y$ X; S exit or turn‐off taxiway. The high speed taxiway is 1 [ j* K# t9 ^designed to expedite aircraft turning off the runway , [% `8 L( n/ Safter landing, thus reducing runway occupancy time.7 |/ q8 V/ L3 S& ]1 N HIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.) 7 z$ g$ y3 i% o a0 D2 dHIWAS(See HAZARDOUS INFLIGHT WEATHER& M8 `- \( j" s& { ADVISORY SERVICE.) - L: {) B+ m; dHIWAS AREA(See HAZARDOUS INFLIGHT WEATHER t8 s% Y7 _; K ADVISORY SERVICE.) % J( g0 A& b1 j+ ]: T4 w0 rHIWAS BROADCAST AREA- A geographical area' |1 }" K I# m+ [$ v, v of responsibility including one or more HIWAS/ C- G3 k% r. H5 I- L8 G3 S) \ outlet areas assigned to an AFSS/FSS for hazardous / k- y, Y' @% sweather advisory broadcasting. 3 G. O8 i8 A+ C+ {' RHIWAS OUTLET AREA- An area defined as a 150- x4 K2 [# b; O: Z8 \; h* y* P NM radius of a HIWAS outlet, expanded as necessary ! l4 u1 L% d6 a+ ~7 ?- V$ ]: h$ Hto provide coverage.* }/ L# ?. e; e3 M HOLD FOR RELEASE- Used by ATC to delay an 6 T% @7 r( b3 |/ L- @aircraft for traffic management reasons; i.e., weather, ; G# z4 {5 H% V& l" }$ ztraffic volume, etc. Hold for release instructions * G$ o& ^# z: p(including departure delay information) are used to # j: q$ B# `: B0 Q. e/ P5 v% winform a pilot or a controller (either directly or ) u! o! L4 J n- x9 wthrough an authorized relay) that an IFR departure$ u; J) g g( L' I) y* V4 C" K, o1 h+ v clearance is not valid until a release time or additional / |! {, F/ @$ ?# B7 c, Cinstructions have been received.# U& C8 O. T( m" B: [ (See ICAO term HOLDING POINT.) 5 T% P9 s) Y- J( \! N4 m) qHOLD IN LIEU OF PROCEDURE TURN- A hold M6 N V3 A3 v* T/ O8 @in lieu of procedure turn shall be established over a4 W+ m* |8 H6 t2 n, L" N5 n final or intermediate fix when an approach can be1 [. K1 w- h9 B* K2 r made from a properly aligned holding pattern. The- X" A7 ~9 Q/ d+ V5 L hold in lieu of procedure turn permits the pilot to / v& J5 e2 q' G& salign with the final or intermediate segment of the 9 `1 ]% Z7 Z6 X% H) }1 bapproach and/or descend in the holding pattern to an" l/ G# ~/ m3 m altitude that will permit a normal descent to the final " W% v* |- D0 n, vapproach fix altitude. The hold in lieu of procedure# U3 _7 g" h# } E W turn is a required maneuver (the same as a procedure 6 l( T! _( J- Y) I' C/ |+ jturn) unless the aircraft is being radar vectored to the 3 A9 J( K- J$ W2 @final approach course, when “NoPT” is shown on the. x; J0 {4 J8 X7 t6 N approach chart, or when the pilot requests or the " W/ m& o2 w( _, N& L1 Mcontroller advises the pilot to make a “straight-in” / ~* m/ J9 Y* d: ^' s Japproach. 2 `8 K6 k" G2 h- G2 LHOLD PROCEDURE- A predetermined maneuver 9 a/ M b& ^3 u: A9 ^which keeps aircraft within a specified airspace while! p. K+ v* v0 ]# E awaiting further clearance from air traffic control. 3 |& z. |+ P2 l4 I' H% uAlso used during ground operations to keep aircraft+ Q$ F, v& [' T' }. E. F& C) D within a specified area or at a specified point while / `5 \- k c8 @. s6 W* F8 sawaiting further clearance from air traffic control.0 O: h0 ]$ h4 I l1 q+ \ (See HOLDING FIX.) % L' ~- A8 s- |5 L6 A% F(Refer to AIM.) $ v2 _- c1 J6 L9 j; [- w+ X4 I: w ZHOLDING FIX- A specified fix identifiable to a- Q( _+ y9 r$ P+ @: n pilot by NAVAIDs or visual reference to the ground: B6 R6 I3 V' B; ^5 r used as a reference point in establishing and : i$ w$ F) ?% [; O }maintaining the position of an aircraft while holding. 2 K+ ~* A7 I7 i" c3 c' h(See FIX.) % c0 _! V! ^8 X1 F x(See VISUAL HOLDING.) ; b3 n( g) {/ k0 G* K, u0 c' n(Refer to AIM.)8 s! n! W" T: g4 L: N HOLDING POINT [ICAO]- A specified location,: @: t# u3 A; m: g. C Y identified by visual or other means, in the vicinity of6 x! P: A4 w" n' h4 s; Y which the position of an aircraft in flight is) J. Z0 h: o1 {8 S. i maintained in accordance with air traffic control , S- F0 J) K" m9 ?clearances./ v5 z, U5 X( R" v2 l$ L HOLDING PROCEDURE(See HOLD PROCEDURE.); I U4 ~. R9 e0 _ ` HOLD‐SHORT POINT- A point on the runway9 R, K! Z2 _8 _ J, f3 f& h3 A beyond which a landing aircraft with a LAHSO* T9 I0 V# A- F$ L8 s" e3 U clearance is not authorized to proceed. This point - I9 S) n- J( y$ B& A1 I4 V. t' C: jmay be located prior to an intersecting runway, % k# Q; E3 w/ D8 b2 q7 _$ G3 c2 rtaxiway, predetermined point, or approach/departure8 w6 C9 Y, X; M9 ^* Y( D) U flight path. : w: B# L& X: WHOLD‐SHORT POSITION LIGHTS- Flashing: i) P& g5 O% B in‐pavement white lights located at specified; M, C4 B% |: z hold‐short points. 5 I: r& @5 h/ H g3 G/ zHOLD‐SHORT POSITION MARKING- The& j2 w& h2 u! c+ V3 Z6 Y painted runway marking located at the hold‐short4 H% l5 a2 L' ^! K& j& a+ | point on all LAHSO runways. & L0 F* j" z; g" D4 M0 S8 wHOLD‐SHORT POSITION SIGNS- Red and white 3 m3 Z3 U( x& h- vholding position signs located alongside the " [6 P T) C# C3 i" `0 Ihold‐short point.+ ~5 K8 l; M/ d$ z% r" M Pilot/Controller Glossary 2/14/08: O% Y& t) p+ } PCG H-3 % t2 c3 r, w# E9 a. s, VHOMING- Flight toward a NAVAID, without / i' o% ]( O: l* k. _; xcorrecting for wind, by adjusting the aircraft heading+ `/ h! S3 D7 b) P) i: w4 [1 _& \ to maintain a relative bearing of zero degrees. # f. M( |! G: i, d& p4 M. S% U(See BEARING.) 2 W) r6 ]+ ^# q" T1 r(See ICAO term HOMING.)# l" _6 O& [4 b0 S HOMING [ICAO]- The procedure of using the: j( A+ B- E6 m direction‐finding equipment of one radio station with5 o* g5 T2 d; }: D& E! m( i) H the emission of another radio station, where at least ! P7 t) W9 `2 B9 Sone of the stations is mobile, and whereby the mobile $ z5 n; P! U1 _1 z4 [station proceeds continuously towards the other ) s4 h7 k6 l. s6 i" j2 e- bstation.; m* }; y4 y# s& ^7 A0 f5 L HOVER CHECK- Used to describe when a/ W- x8 Q0 c( b( G6 |4 a- l2 M# W helicopter/VTOL aircraft requires a stabilized hover % H0 w4 \7 Y: v, N6 Vto conduct a performance/power check prior to hover / `. e" R# Q+ I# Rtaxi, air taxi, or takeoff. Altitude of the hover will . v- n! [6 G; T! fvary based on the purpose of the check.* j6 D' y- v2 K$ U; \8 c3 |9 | HOVER TAXI- Used to describe a helicopter/VTOL $ g$ G# |# ]% @- Paircraft movement conducted above the surface and* p5 W6 F' l2 x) P in ground effect at airspeeds less than approximately! Q: S( T. a. d+ _ 20 knots. The actual height may vary, and some% C5 n. r) \. |; v, b2 }) C' L3 A4 R) _ helicopters may require hover taxi above 25 feet AGL [$ b- X$ U% N5 ?- w. O i- T) Dto reduce ground effect turbulence or provide ( C* A% l p9 u5 sclearance for cargo slingloads. % E! n5 R6 w$ [0 h K R(See AIR TAXI.); s/ g4 L5 J/ L+ u9 Q5 r (See HOVER CHECK.)6 ~& M+ q, X W9 U3 B (Refer to AIM.) ( Y# B% z3 S* U2 HHOW DO YOU HEAR ME?- A question relating to; i u4 x5 [$ ? the quality of the transmission or to determine how) U; J6 y5 e) X, r) f: h: O well the transmission is being received. 5 g) k- [, x2 THZ(See HERTZ.)& M# G0 b. I0 v, N* D Pilot/Controller Glossary 2/14/08! u6 g! F9 c& t PCG I-18 O( q% I" g+ l/ ]1 G* x; @5 j I ' [7 G5 b5 I$ Q* W! ]/ M4 V6 kI SAY AGAIN- The message will be repeated.2 |8 a4 M; R4 _& J IAF(See INITIAL APPROACH FIX.) 8 x4 J q# f3 q' U% {IAP(See INSTRUMENT APPROACH' z$ h* B w# |( b! d; N1 B9 h+ z& q PROCEDURE.) 2 E& t: {( A. t; K/ xIAWP- Initial Approach Waypoint% z3 R. @% z0 h ICAO(See ICAO Term INTERNATIONAL CIVIL ; n5 F2 C7 j$ d# w4 L: ?AVIATION ORGANIZATION.) 6 F" D s" H \; nICING- The accumulation of airframe ice./ R0 p# x. _& {5 q4 d. L) ~1 V Types of icing are:- b' c; }! s! J% s6 ] u a. Rime Ice- Rough, milky, opaque ice formed by 3 ?$ m- }1 q8 L3 K$ zthe instantaneous freezing of small supercooled 4 s. ]% T# Y6 F% Zwater droplets.$ {9 [6 `* o$ i b. Clear Ice- A glossy, clear, or translucent ice ! ~* F* }$ j% k. bformed by the relatively slow freezing or large / K$ |- z5 x1 _supercooled water droplets.& p% N$ D* u; Y- E, E% Y8 p8 P c. Mixed- A mixture of clear ice and rime ice.# n R' ~$ w; K' k Intensity of icing:$ [0 A( @( I0 f5 Z! w0 F a. Trace- Ice becomes perceptible. Rate of ; ~7 M: L1 l( a1 ?3 d+ p4 Laccumulation is slightly greater than the rate of * F& Z: B0 W) D6 ]( c# a4 }sublimation. Deicing/anti‐icing equipment is not % K: g* M0 F, p: T0 v( \# wutilized unless encountered for an extended period of8 _& H0 v" A7 R$ L time (over 1 hour).$ q! {4 D* ]8 b: V b. Light- The rate of accumulation may create a 2 d& D0 Z. E: s' mproblem if flight is prolonged in this environment : C3 m$ T# S4 Z- o% D, L+ W(over 1 hour). Occasional use of deicing/anti‐icing - G1 U! y: y: e( F* e! kequipment removes/prevents accumulation. It does! r# z v: \5 ^7 {( M0 U not present a problem if the deicing/anti‐icing1 n# U. e1 m3 T# C' ` t equipment is used.: G$ m6 a* [: Z. D c. Moderate- The rate of accumulation is such that 3 H/ N% g) Y: { Neven short encounters become potentially hazardous, O- N, l1 |8 W [. V: W and use of deicing/anti‐icing equipment or flight , k' w* h; d- B; W" I, b0 c# ydiversion is necessary.+ ~1 c8 s+ c7 |' P' | d. Severe- The rate of accumulation is such that ! D; t" _* K1 a- s8 v" `deicing/anti‐icing equipment fails to reduce or* K" N1 ~0 F9 \% F control the hazard. Immediate flight diversion is & f* V8 {2 y$ Q& z- ?, Dnecessary.( _ B- x N5 Q' B IDENT- A request for a pilot to activate the aircraft 0 @& I+ j$ F2 I& R/ {transponder identification feature. This will help the a) ]: {) u& ] I7 k2 v1 rcontroller to confirm an aircraft identity or to identify( G, O" i$ ~ o" t an aircraft.# J" e+ I& v/ F1 q6 z$ e- j (Refer to AIM.) 0 e. W( ]7 s- p4 Y3 LIDENT FEATURE- The special feature in the Air * o v1 ^* p0 u+ w) nTraffic Control Radar Beacon System (ATCRBS)+ N+ U* G; N. ?0 u' j equipment. It is used to immediately distinguish one $ Y/ X0 t( [; F5 u8 X0 w- U! qdisplayed beacon target from other beacon targets. / p& ]$ p8 a, d. C6 B0 n. s9 x(See IDENT.)* a' x( Y2 F$ K J0 i9 [ IF(See INTERMEDIATE FIX.) 3 ]* S; `. a% S( a$ k* ]IFIM(See INTERNATIONAL FLIGHT INFORMATION ) n1 m- g( U7 s9 L9 U; |MANUAL.) ( N* W9 y" |8 xIF NO TRANSMISSION RECEIVED FOR" ?9 E; j4 Z& b9 [ (TIME)- Used by ATC in radar approaches to prefix / D% ~/ l4 e) i( \2 f2 Iprocedures which should be followed by the pilot in. g, z8 W/ \0 E0 G# U G* X event of lost communications.0 g1 i) t% q* n! c) Y- {5 T5 v$ {3 \+ H (See LOST COMMUNICATIONS.) 3 [, P" y) ^' L' S/ DIFR(See INSTRUMENT FLIGHT RULES.)3 b2 W. ^1 g5 s$ n! ~! G. x IFR AIRCRAFT- An aircraft conducting flight in u( N! }2 K) D$ y0 A* @ X accordance with instrument flight rules. + P" ]2 g- z1 JIFR CONDITIONS- Weather conditions below the$ D/ L9 ~% p8 o* b minimum for flight under visual flight rules. ! [( c1 ?, K0 P4 c% j! b4 [(See INSTRUMENT METEOROLOGICAL . M- J1 {% V8 M! W8 ^& J* oCONDITIONS.)6 [! D% H. \3 L* q1 ~ IFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND7 ^- k9 `# ^5 S7 H7 L+ X2 J DEPARTURE PROCEDURES.): A8 o, Q- d; W0 C% z8 m (Refer to AIM.)' ^/ y- y, g/ {0 I! u IFR FLIGHT(See IFR AIRCRAFT.)4 S Z( D! |, s* F1 D$ A IFR LANDING MINIMUMS(See LANDING MINIMUMS.)% x9 p! ?( Y; k IFR MILITARY TRAINING ROUTES (IR)- Routes B3 l9 _( E$ a0 s$ |1 e8 N used by the Department of Defense and associated 7 v; |1 z) m6 f/ `Reserve and Air Guard units for the purpose of ( g B+ E" d- Z8 l6 q1 Cconducting low‐altitude navigation and tactical 6 ?0 N' A6 I" @' J; V% i5 Ztraining in both IFR and VFR weather conditions4 O( M/ V) b' g/ ^6 Z below 10,000 feet MSL at airspeeds in excess of 2507 Y4 r! `( o8 P/ g knots IAS., k% ~9 e, \$ J8 l; Y' G) A3 f IFR TAKEOFF MINIMUMS AND DEPARTURE1 R1 ^, ?) ~- g: d. U; A! R! c PROCEDURES- Title 14 Code of Federal + ]3 r3 r, `8 M1 TPilot/Controller Glossary 2/14/08 $ L5 H* s; {0 J: ?2 }PCG I-2

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发表于 2008-12-28 14:14:55 |只看该作者
Regulations Part 91, prescribes standard takeoff rules: X T; e' i4 a& J1 S for certain civil users. At some airports, obstructions- s4 C2 i$ Y( I" A or other factors require the establishm ent of7 `$ m3 T$ s7 ]# q1 p nonstandard takeoff minimums, departure proce‐ 5 |# I9 i8 P! k+ ?9 \9 ndures, or both to assist pilots in avoiding obstacles j7 Z0 t3 S$ Aduring climb to the minimum en route altitude. Those ' k& i5 J+ a: E- kairports are listed in FAA/DOD Instrument Approach: O1 m/ j6 J: c+ f2 Z Procedures (IAPs) Charts under a section entitled7 v( S! j8 n6 c( a. ] “IFR Takeoff Minimums and Departure Procedures.”: s: R2 U A: ~" V3 t/ g: I The FAA/DOD IAP chart legend illustrates the & b4 V, }! o: \7 u ]1 q& Ksymbol used to alert the pilot to nonstandard takeoff. t/ D6 ^$ P; F* @ minimums and departure procedures. When depart‐ ' ?# F3 G1 h C+ P4 J' q4 Hing IFR from such airports or from any airports where 7 @/ _9 |/ D: a& t3 P, Pthere are no departure procedures, DPs, or ATC " ]7 r9 P: K0 ^9 Rfacilities available, pilots should advise ATC of any _7 U M* W% r& I+ s% M% xdeparture limitations. Controllers may query a pilot ]7 q/ U F+ X- _, b' Ito determine acceptable departure directions, turns, R- Y* D5 j6 J* F1 u! V& `or headings after takeoff. Pilots should be familiar % ]6 `4 _/ p/ Awith the departure procedures and must assure that$ [5 U) H" T5 O: Y their aircraft can meet or exceed any specified climb, P2 {& H* [3 E1 t* e/ D gradients.8 I, ^3 T5 @3 a4 _0 y E/ Q# Q# W IF/IAWP- Intermediate Fix/Initial Approach Way‐ 4 B2 }1 g& Y' t6 h0 |point. The waypoint where the final approach course 4 c- m: n r8 i: Y5 q: k" Y$ y& Wof a T approach meets the crossbar of the T. When - z/ G1 a# V8 z! s9 x% Jdesignated (in conjunction with a TAA) this 5 C3 }- M4 w$ w+ Q" h4 S: Rwaypoint will be used as an IAWP when approaching9 m" F* W3 r1 k! b- N' e the airport from certain directions, and as an IFWP / ^2 N/ G" }6 Y9 T: E2 D( m9 Xwhen beginning the approach from another IAWP. 1 U g; m$ o! l! j S6 iIFWP- Intermediate Fix Waypoint3 s2 {2 x% Z6 q% k# r* x6 |- l. L ILS(See INSTRUMENT LANDING SYSTEM.) . s* _1 ^! E# V1 ^; B5 mILS CATEGORIES- 1. ILS Category I. An ILS ! c# S* E' h5 V% R6 D! I. _6 Y1 Wapproach procedure which provides for approach to3 K0 I3 r, B$ t8 e; t5 D a height above touchdown of not less than 200 feet / E& t+ v7 o3 c1 band with runway visual range of not less than 1,800 : g. M Q5 e4 e% V5 h4 G0 Y2 jfeet.- 2. ILS Category II. An ILS approach procedure# W: [( g: Z& X* ?' c0 A/ m( c! P which provides for approach to a height above' | D) @# @# H touchdown of not less than 100 feet and with runway * U; K+ `9 e6 {visual range of not less than 1,200 feet.- 3. ILS( V6 k8 Z" a6 s6 G* } Category III:. W: d) O1 H- W, N' }$ j. t a. IIIA.-An ILS approach procedure which 8 [4 R# ^5 r$ m* ~# I3 ^; u2 oprovides for approach without a decision height & ^' x6 m7 q* z" L0 Mminimum and with runway visual range of not less& R4 K+ M8 v; z7 X, a2 s+ Q w, | than 700 feet. ) I7 m) @! \% e- K; y3 c3 ab. IIIB.-An ILS approach procedure which2 u8 s7 }1 M* m [" z provides for approach without a decision height# ~9 c* Y( ]4 n5 j minimum and with runway visual range of not less$ i4 m* {0 Z$ A* J5 y than 150 feet. . {0 Y. V% A) d8 j; hc. IIIC.-An ILS approach procedure which / g. G m6 K- z$ X: s6 m: kprovides for approach without a decision height; m% @+ [/ B& Y- G; J3 r. C minimum and without runway visual range 4 ?8 O* w1 `5 T. Rminimum.7 ~1 s" x8 M$ z- c5 k) c ILS PRM APPROACH- An instrument landing . J) N+ U% Z( e! O! P4 H! Ssystem (ILS) approach conducted to parallel runways" n8 z Z9 ?4 n4 t. Z3 w& l8 K whose extended centerlines are separated by less than - q$ x5 B2 g) P4,300 feet and the parallel runways have a Precision 6 P# E7 H9 J4 [" BRunway Monitoring (PRM) system that permits : L) m- d9 ~2 {0 D+ I* Bsimultaneous independent ILS approaches.. [2 @0 j/ q8 H; \" O IM(See INNER MARKER.) ( u9 h! A4 R+ \5 W" yIMC(See INSTRUMENT METEOROLOGICAL6 D2 O6 f7 K- b. e0 ^, }# V$ E CONDITIONS.): ?& G% J, a1 y: Y) K" a [ IMMEDIATELY- Used by ATC or pilots when such ( c9 `( M- {) ^* H: g" {8 w; {, uaction compliance is required to avoid an imminent0 S! K s7 f8 r* v8 T+ C- i situation.; `% |6 I5 i& k! Z INCERFA (Uncertainty Phase) [ICAO]- A situation4 l5 M9 Y" e) |+ z6 Z" u7 r wherein uncertainty exists as to the safety of an, T c5 w! I3 a l aircraft and its occupants. . M3 ^6 t! u% |' y9 t/ d. p- EINCREASE SPEED TO (SPEED)-2 k* N2 U/ U1 ] (See SPEED ADJUSTMENT.) + J$ E9 w% I" B# U# ^INERTIAL NAVIGATION SYSTEM- An RNAV2 d- U+ B/ {7 X$ A system which is a form of self‐contained navigation.7 s) ^0 H0 v3 ~9 F (See Area Navigation/RNAV.) ' F( e) U2 _% x* xINFLIGHT REFUELING(See AERIAL REFUELING.)$ T( _ F+ U4 K" Y INFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.) 1 T/ U* c: S! h, R8 VINFORMATION REQUEST- A request originated- x6 ?* S; E- N% c/ K$ L5 z c, ? by an FSS for information concerning an overdue 7 p: K0 i8 X9 O$ wVFR aircraft.- K2 L! Q. C0 E+ ^( M4 M6 _; ] INITIAL APPROACH FIX- The fixes depicted on M0 h9 }( O9 ~; L% N) | instrument approach procedure charts that identify- B* n, I$ y* {7 B2 ?3 R. k5 A- ` the beginning of the initial approach segment(s).0 ^' j/ S% x- U4 w0 ?) D8 |" T (See FIX.): F& X: m; Z- i5 t9 ?) `( r1 x (See SEGMENTS OF AN INSTRUMENT$ i$ ?1 F! \1 g: C+ o APPROACH PROCEDURE.) 7 A$ y6 E# M. ?5 `" h: ~# OINITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT & p7 c9 |- n; k% H" MAPPROACH PROCEDURE.) - T9 R2 f$ ?* J3 m( H9 ]) uINITIAL APPROACH SEGMENT [ICAO]- That. k* Q9 d0 |. h" F2 P9 v1 O# M" N9 S segment of an instrument approach procedure' D1 ~: }9 v& j( [; I! U4 H between the initial approach fix and the intermediate! d t" @- }8 N+ A approach fix or, where applicable, the final approach ! e7 H- L2 R; y( |! L6 b" Wfix or point. ) @* F8 W+ f5 MPilot/Controller Glossary 2/14/087 O5 T; n- i: U PCG I-3! M: X1 q. b4 l+ ^' K INLAND NAVIGATION FACILITY- A navigation5 g0 s/ i0 t; ]$ K. t* T aid on a North American Route at which the common 5 [3 |. Y$ O, M" Nroute and/or the noncommon route begins or ends. 3 p( V1 X5 F+ f1 X5 HINNER MARKER- A marker beacon used with an4 ]* y3 Q" d- ?) ?8 k/ |, O0 B ILS (CAT II) precision approach located between the- L6 F! R2 }+ Z; |% o$ W" f middle marker and the end of the ILS runway, * z+ S. V$ b7 Ftransmitting a radiation pattern keyed at six dots per0 o. v1 g. v9 k, H2 M. t second and indicating to the pilot, both aurally and 0 {# |# b# a4 c0 m7 p2 ~visually, that he/she is at the designated decision" ]! n, Q0 d# y! H height (DH), normally 100 feet above the touchdown / V* L' w' D6 Y2 c# G& czone elevation, on the ILS CAT II approach. It also7 s l. S" r7 x+ c5 p marks progress during a CAT III approach.: Q$ H) {* @2 M0 @ (See INSTRUMENT LANDING SYSTEM.)& _( k; e' Q" k. i: | (Refer to AIM.)9 j" U: V6 R( x8 q* y; L. u" ` INNER MARKER BEACON(See INNER MARKER.) 9 s! x+ V3 H' B9 _3 G3 l7 UINREQ(See INFORMATION REQUEST.) ; f. ^, Y( C) C" ZINS(See INERTIAL NAVIGATION SYSTEM.); s5 Y/ c, \0 o9 X# @ INSTRUMENT APPROACH(See INSTRUMENT APPROACH# }8 w4 Y8 V" m$ K" L2 f PROCEDURE.)- Q9 r5 j* j! B( X INSTRUMENT APPROACH PROCEDURE- A / j8 \- w/ j$ n# Dseries of predetermined maneuvers for the orderly ^( |0 l. e L' q8 a1 H# { transfer of an aircraft under instrument flight 2 U' ~. w+ w: q& }conditions from the beginning of the initial approach 8 t2 _! d* u5 U/ `- @to a landing or to a point from which a landing may' L' Z! [" S/ J4 m be made visually. It is prescribed and approved for a! v1 C" }/ C/ }' A/ U3 Z3 O w specific airport by competent authority.4 G9 m5 H2 h( |. R, R" i+ T (See SEGMENTS OF AN INSTRUMENT7 b- ~$ A9 d* J+ ]% j+ t APPROACH PROCEDURE.)& [& z8 b- y" [ q" ]* Q (Refer to 14 CFR Part 91.) 4 L6 J7 P5 x4 A; @(Refer to AIM.)2 x: V4 k! C# j& w2 r$ @) m; o a. U.S. civil standard instrument approach # Q7 q2 G- b' r" p: k- tprocedures are approved by the FAA as prescribed0 q c* ]/ ^! N2 ` under 14 CFR Part 97 and are available for public# a* D5 e" `3 z. n1 K7 [' Y( P use. 0 i& A- T/ c* @1 f$ X a& f& bb. U.S. military standard instrument approach7 A# K* C' F0 D I! b( [- ` procedures are approved and published by the 1 V1 j8 |' f. j$ P5 ^/ `3 JDepartment of Defense. : K/ Q0 }+ [9 yc. Special instrument approach procedures are : [1 G4 n) L/ g7 Wapproved by the FAA for individual operators but are5 ]3 }: p+ M% C' P not published in 14 CFR Part 97 for public use.8 z/ |$ k8 o7 l0 ?% H+ E (See ICAO term INSTRUMENT APPROACH ; a: E! G- H* s# i7 |: B% }PROCEDURE.)1 B7 ~* R: K' ?. k( D# v INSTRUMENT APPROACH PROCEDURE6 @0 a5 y8 H7 p% D' O& W [ICAO]- A series of predetermined maneuvers by 9 R6 C( [( G" W% U' B) e1 Jreference to flight instruments with specified" @& M; \" h* w) { X protection from obstacles from the initial approach 1 B+ v) Q# P* L( v, rfix, or where applicable, from the beginning of a+ _$ n: h' l% R, K; W8 O! u: W defined arrival route to a point from which a landing . [/ ~7 t/ \, B" e5 K; bcan be completed and thereafter, if a landing is not / `$ z) W" v* G2 s4 V0 gcompleted, to a position at which holding or en route! M! K' s' e9 a) x4 q obstacle clearance criteria apply.- Y$ ^& d0 _8 p! b INSTRUMENT APPROACH PROCEDURES" K" E! ^6 V% g( K CHARTS(See AERONAUTICAL CHART.) 0 n! C, t5 J q3 C# a/ C4 oINSTRUMENT DEPARTURE PROCEDURE 7 z: D9 ^1 f* ]% Y5 @3 b% ^5 k5 z(DP)- A preplanned instrument flight rule (IFR) 4 Z% |7 W+ T+ ~& R- b! b7 i1 p% Rdeparture procedure published for pilot use, in- q X2 m0 T) }) G graphic or textual format, that provides obstruction* i- j: C. D( {5 i5 q9 l8 H clearance from the terminal area to the appropriate en% l# n+ g+ D \- Q! q route structure. There are two types of DP, Obstacle8 s. S: M, d3 o! H0 M' I Departure Procedure (ODP), printed either textually. s* b; \7 \4 z; m" ?( d or graphically, and, Standard Instrument Departure' I4 Q7 E7 T* x$ z+ }( G (SID), which is always printed graphically. * y D7 ~( p8 \* b(See IFR TAKEOFF MINIMUMS AND / K# z; Y' ]) m' K# ]& CDEPARTURE PROCEDURES.) 6 u, {$ L- y1 `( ^(See OBSTACLE DEPARTURE PROCEDURES.)' s* Q8 r/ \1 b& j, A. d( K0 j3 u, Y (See STANDARD INSTRUMENT DEPARTURES.)8 A, k5 ]( e9 k2 m9 R% c9 X (Refer to AIM.): Z$ u! p* X# t% l3 i. E INSTRUMENT DEPARTURE PROCEDURE (DP) & d' @+ w$ x0 S: E/ `) _CHARTS(See AERONAUTICAL CHART.) c& \8 Y. q6 p7 IINSTRUMENT FLIGHT RULES- Rules governing K; F+ j! }1 q$ x1 Jthe procedures for conducting instrument flight. Also 3 {+ U/ M. T! R" p) _/ qa term used by pilots and controllers to indicate type* X+ R8 m, F: l, a9 L( U1 X of flight plan. 3 |# z* y: d% l6 x(See INSTRUMENT METEOROLOGICAL6 O4 D8 t6 T7 V; o% P. _ CONDITIONS.) & p# J6 V3 u( V' D, h(See VISUAL FLIGHT RULES.) + @0 P! e% L* i7 B5 B) ](See VISUAL METEOROLOGICAL ; F; ?, B, D7 VCONDITIONS.)0 Z! F( o) L; |. h8 A' Y& h (See ICAO term INSTRUMENT FLIGHT# B0 M2 e: P7 ? RULES.). ?5 I& ~% T) ?8 Z2 O (Refer to AIM.), s; h7 t& s, i3 L) b INSTRUMENT FLIGHT RULES [ICAO]- A set of4 c% N. P$ F' K/ Q! L rules governing the conduct of flight under1 D, [, ?) @; i4 x0 j% h2 ~! W, p! z instrument meteorological conditions.+ {, a. B e" m9 F* W) G6 d+ T INSTRUMENT LANDING SYSTEM- A precision5 o5 v! q4 |! y8 b. f instrument approach system which normally consists- r" [/ X$ y9 b1 u$ o; G- O of the following electronic components and visual ( Q7 X" u( W! E- X! V" _: kaids: 3 |8 t4 `. I4 P* P, iPilot/Controller Glossary 2/14/08 + V) F! J/ a, @& s6 l% \( ]PCG I-4) L( ^6 ]3 X' V1 G a. Localizer. 5 m2 L0 { K% H( G3 y(See LOCALIZER.)+ G9 f$ v+ B: l* `( e$ c$ U) B* z) w; y f b. Glideslope.+ f8 h" H9 M, ?. D0 p (See GLIDESLOPE.) / `( S d0 E. L& gc. Outer Marker. J6 T4 X5 k& f6 c( R, X(See OUTER MARKER.)( Q* |& d$ k, e d. Middle Marker. w: Q, f: Q$ Q2 c/ Y5 f" X(See MIDDLE MARKER.)) C0 A4 A' m1 w) I+ z$ ? e. Approach Lights.# Z1 n7 V5 `- B9 M! ` (See AIRPORT LIGHTING.) 1 U; A! |! y: p {4 E1 H(Refer to 14 CFR Part 91.)7 D2 c. Y& `* o6 _5 ?7 e (Refer to AIM.)) d6 Z# y% f4 c7 t# w0 | INSTRUMENT METEOROLOGICAL CONDI‐ # F: z h& a4 o3 b/ P! p1 W* I2 Q0 sTIONS- Meteorological conditions expressed in9 a* |( a `$ ]( T6 _1 L9 v terms of visibility, distance from cloud, and ceiling . M1 R# d6 @4 zless than the minima specified for visual meteorolog‐# \( N/ z- a8 w* I I' M" }( `" _ ical conditions. , c+ o* h4 O# H1 u(See INSTRUMENT FLIGHT RULES.)( E' P- V& `% ` (See VISUAL FLIGHT RULES.)% p4 t& h" H7 ` (See VISUAL METEOROLOGICAL# L) g/ n2 i( A7 x$ p CONDITIONS.)8 [" g; k5 u. ]7 F. y0 ^ INSTRUMENT RUNWAY- A runway equipped) u4 l) P( o# {7 f+ K" ]& y5 x6 E with electronic and visual navigation aids for which& j7 F% m, T+ Y6 O# l% y* r* {# u a precision or nonprecision approach procedure 4 V# V; R: d- H% v- Qhaving straight‐in landing minimums has been 5 W1 Q: c/ U3 |, \, J. qapproved. ( d8 T8 @) l7 v) u7 M: h5 x(See ICAO term INSTRUMENT RUNWAY.)! L! a) l( V0 y* c INSTRUMENT RUNWAY [ICAO]- One of the ; r- z% R6 d) v( G; R0 N6 ^4 rfollowing types of runways intended for the * z- K, A. P" }9 Noperation of aircraft using instrument approach8 z7 Q# f% j( U4 `8 `# [8 R) P1 ^% q procedures: - @( _' ?) n3 ], {1 ~! i! Da. Nonprecision Approach Runway-An instru‐2 ]- _; z. e) d0 ?6 o' X, V( m ment runway served by visual aids and a nonvisual$ n+ f( | S' F. d7 _8 w- p aid providing at least directional guidance adequate : o& k' C' |8 B- Gfor a straight‐in approach.( N/ F) I! R+ i1 a0 `% {8 Q& k b. recision Approach Runway, Category I-An ) u6 ?+ h" a& c' \9 Xinstrument runway served by ILS and visual aids * |! P% U* x/ X0 @6 }" n1 v" nintended for operations down to 60 m (200 feet)4 ?1 v9 a/ A: K% x1 k& _ decision height and down to an RVR of the order of . w, \; w1 S/ i800 m.3 i: L7 P+ \& | L$ g+ \; \ c. recision Approach Runway, Category II-An / g$ K+ @) C/ K& C( S. t; s; Xinstrument runway served by ILS and visual aids , K+ L9 i, W3 ]" ]7 \$ h9 U8 P$ xintended for operations down to 30 m (100 feet) ( o/ y1 y- a. F* S# `% F: Hdecision height and down to an RVR of the order of 2 m3 d7 L6 {) L5 q# L400 m. + h0 s* |$ l: |+ {# h0 K1 Z! Hd. recision Approach Runway, Category III-An $ K M0 `' Q1 L" cinstrument runway served by ILS to and along the ' W9 f, Z$ E* {# M3 h! Rsurface of the runway and: , P. r( N4 y7 o1. Intended for operations down to an RVR of - n7 \- |$ q1 X1 l7 G# j7 Othe order of 200 m (no decision height being ) u- u, A6 H0 j2 |6 }9 ^, ?. e: ~) ?applicable) using visual aids during the final phase of1 _+ n# D' i& _" P' y7 `5 K3 ^4 j landing; # E1 I2 d! g- b4 s2 Y2. Intended for operations down to an RVR of " e N: e9 g3 d$ b" @% mthe order of 50 m (no decision height being 1 t) q8 X0 Q& L% H/ S# O+ Rapplicable) using visual aids for taxiing; 3 H" v7 H- G* S* Z6 r' p/ t" X l3. Intended for operations without reliance on0 q% ? F z: c# X# v visual reference for landing or taxiing. , y0 g9 @: h& i* p6 WNote 1:See Annex 10 Volume I, Part I, Chapter 3, ' z$ J. G" ], Q2 s" w+ k0 A: bfor related ILS specifications.& q8 J: s% v& e3 M Note 2:Visual aids need not necessarily be' t9 `0 K- l# s5 `/ c! Z4 y: B matched to the scale of nonvisual aids provided.- |. l. P* L& _ n4 I+ O The criterion for the selection of visual aids is the7 ?. T% X/ y, Q! t" E4 O. ` conditions in which operations are intended to be) G5 T& j1 d9 @ conducted./ A0 r- z4 s; _% h _! D INTEGRITY- The ability of a system to provide * X8 J7 k* G, Z2 G3 K q% b* Y0 X2 ttimely warnings to users when the system should not8 p. E7 F$ Q2 b/ f) L: R be used for navigation.( r- G6 [- O- M# R. U& E2 @$ }0 A INTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT$ ~0 V" a5 n0 U; @ APPROACH PROCEDURE.)1 T9 T- J$ W& V$ j INTERMEDIATE APPROACH SEGMENT & @3 B" p' w( ?- ^6 |( Y3 G# w y[ICAO]- That segment of an instrument approach/ I% q7 D; A3 d procedure between either the intermediate approach ) B) B3 t0 m$ E2 ?9 C/ k4 u. `fix and the final approach fix or point, or between the [+ K( O9 G/ L9 Y6 b end of a reversal, race track or dead reckoning track& b0 q$ O( a& P4 f procedure and the final approach fix or point, as3 g% r- I* U% f8 V" ^9 ? s8 A appropriate.6 a5 X& x+ Q0 q( B1 M7 Y7 P- P* E INTERMEDIATE FIX- The fix that identifies the* ]9 b. ^ m3 S% {7 J beginning of the intermediate approach segment of an ( x$ G6 v% V$ M5 binstrument approach procedure. The fix is not . ?9 ^" z- p/ r% Enormally identified on the instrument approach chart 0 ] h$ ~! s1 p `: y0 das an intermediate fix (IF).$ d3 H- S1 H" v (See SEGMENTS OF AN INSTRUMENT , c" F f8 q# x# VAPPROACH PROCEDURE.)) J% ?$ K' ~1 X0 T0 n6 R( t r j INTERMEDIATE LANDING- On the rare occasion & T2 q1 |6 J" O% W" E1 Ythat this option is requested, it should be approved. ( o: `0 G, x/ c' o( t) pThe departure center, however, must advise the & F c. @2 s @' B0 i3 uATCSCC so that the appropriate delay is carried over( B$ X7 \9 Z' U: n9 `% M' | and assigned at the interm ediate airport. An3 h2 q6 h, B- ^3 A0 D* v4 @ intermediate landing airport within the arrival center , P2 ?% C& B# u8 ^ b$ S! f: swill not be accepted without coordination with and " [% Y5 Q* T8 p ^the approval of the ATCSCC. ; Y1 y" ?7 T1 ?' M' yINTERNATIONAL AIRPORT- Relating to interna‐ " f: w/ d1 z3 n0 a+ _% Ttional flight, it means: ; G& I5 G6 G: o: c1 _2 c' }Pilot/Controller Glossary 2/14/088 @* a0 E+ m1 s/ G1 y% w PCG I-5" z& |! |& ^6 n" R0 N8 u$ l a. An airport of entry which has been designated P2 Q* ]4 z* j, M by the Secretary of Treasury or Commissioner of: [) @/ K1 l% A9 Z8 ~- [ Customs as an international airport for customs# q5 h# z$ n; \; z- z% x% H% b* l service. * d7 u2 h" ?" E$ V5 s6 b* u% ub. A landing rights airport at which specific& f* |/ @# y H) W- t permission to land must be obtained from customs" u- r- x! b" K, I9 n9 h& {% d authorities in advance of contemplated use. 8 }; g; F! m0 \& b0 R1 v5 Ec. Airports designated under the Convention on + L8 {: ]( p' E, H& M }International Civil Aviation as an airport for use by' X6 _8 _0 [6 } international commercial air transport and/or interna‐ ) v, `' V# j" T- I) h3 O7 U" ztional general aviation. 8 J; s6 d) r7 c(See ICAO term INTERNATIONAL AIRPORT.)' W$ \, e' Q% |: Y/ l3 k% ? (Refer to AIRPORT/FACILITY DIRECTORY.)' K3 ^* \7 f( O( ]7 \4 m5 M U" _ (Refer to IFIM.) k" F6 `% h( I. D6 f INTERNATIONAL AIRPORT [ICAO]- Any airport" a U" O: U( w t5 K/ R designated by the Contracting State in whose ! j; U9 A( m6 K- t" _6 \! v1 \territory it is situated as an airport of entry and " Q) v/ w8 E! z9 g6 x+ ]: _* Udeparture for international air traffic, where the, R* Z; T. g; o; P formalities incident to customs, immigration, public) I# f: k3 ~, T7 P health, animal and plant quarantine and similar : Q. Y0 r% f4 Lprocedures are carried out. ' I/ {4 V) n. EINTERNATIONAL CIVIL AVIATION ORGA‐3 K! {$ \- Q5 H( M2 B8 e5 N NIZATION [ICAO]- A specialized agency of the, @/ q0 M7 \, d( |3 v c0 w/ o United Nations whose objective is to develop the - A0 U7 f2 B) i9 ^% V. u( p/ N4 xprinciples and techniques of international air% L1 z) Q) H- n7 M# K% h$ b2 c navigation and to foster planning and development of 1 V* v4 `+ N+ Ointernational civil air transport. , L( R4 l1 ^2 b3 `2 {% ~a. Regions include: 3 b8 ?/ a1 F& D' x1. African‐Indian Ocean Region m/ h" h4 ?* ~ p. p; k9 O 2. Caribbean Region } H9 d7 M! Q4 L5 e C 3. European Region7 ?" X9 l) T6 `% f2 K: F; N" c 4. Middle East/Asia Region ! V: w4 b! ?& G5. North American Region - |* V) p2 g0 w0 [/ q6. North Atlantic Region% v! h# y d2 K' ] 7. acific Region% Q2 M, j4 k/ B b6 c 8. South American Region) @9 S2 X, D% R7 U INTERNATIONAL FLIGHT INFORMATION ) b( H* w, |% A) a6 G9 ?) G# p0 X4 H& NMANUAL- A publication designed primarily as a1 h$ O8 e3 T$ v8 X pilot's preflight planning guide for flights into , i4 K+ x' i }' Uforeign airspace and for flights returning to the U.S.2 X4 k2 V" |( S2 u9 \3 r, p from foreign locations.6 q: Q2 Y. C2 }' ] INTERROGATOR- The ground‐based surveillance) ~3 p8 D! l T1 } radar beacon transmitter‐receiver, which normally) R+ C7 f+ p A% s6 r2 i& b% X scans in synchronism with a prim ary radar," r7 L% V% U$ |. k. _, |9 g" F+ @ transmitting discrete radio signals which repetitious‐0 l: k6 X9 i! [( T( ~ ly request all transponders on the mode being used to " h3 _2 j* q+ F dreply. The replies received are mixed with the6 E/ S, g' q$ S2 ` primary radar returns and displayed on the same plan7 @$ i& }0 ?1 c) V' x. }2 }) {* L position indicator (radar scope). Also, applied to the 6 D* I6 i3 Z& i9 T$ _airborne element of the TACAN/DME system., D' p( k2 K6 n2 W6 X; L) T4 ~# P (See TRANSPONDER.)6 Y5 X5 r; G; |9 Y5 m% O. ~ (Refer to AIM.) 6 P+ ?" k: @/ ]" @! @( p! o. M+ lINTERSECTING RUNWAYS- Two or more& o# N5 T3 r" x0 l6 R3 [) u runways which cross or meet within their lengths.( k/ F9 i' [ y (See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses,! I" r a4 z0 v, W3 M" Q/ `0 u radials, or bearings of two or more navigational aids. & c! y2 q0 J6 ?9 ]0 y0 y Tb. Used to describe the point where two runways, # i D, U& c, W6 Z4 [- Y2 aa runway and a taxiway, or two taxiways cross or $ S9 ~" v# ^4 k' w/ \6 }. xmeet. ) v {' `. X2 ~INTERSECTION DEPARTURE- A departure from; ]& h$ L1 k/ l) r L$ K. E) l0 I. `, e any runway intersection except the end of the runway.7 N$ h2 h1 P% t, N: A (See INTERSECTION.) ( T m9 }1 l5 ^/ y( M* Q8 TINTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.) e- w. u1 O- C' |$ S' v/ JIR(See IFR MILITARY TRAINING ROUTES.) 2 N6 g0 a1 O- aPilot/Controller Glossary 2/14/086 ]3 E0 ~& Q# W f# J PCG J-1 & X: c6 x" B% u$ H& W9 MJ

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JAMMING- Electronic or mechanical interference L8 K9 i% B2 A* ~% Cwhich may disrupt the display of aircraft on radar or 9 J$ X! o0 B3 H3 Ithe transmission/reception of radio communications/ d% v# R( D. m# l- pnavigation.) `, [5 O0 m c! P7 e- b JET BLAST- Jet engine exhaust (thrust stream . d9 s- g+ s& v, v! xturbulence). * ~; l' ?. V: y4 T) w" d$ g(See WAKE TURBULENCE.) 7 K0 X3 @ V7 _0 W0 m( \JET ROUTE- A route designed to serve aircraft# t4 ]1 x$ s- }7 T8 O, h operations from 18,000 feet MSL up to and including " o0 j0 _& v3 q+ k9 R1 Jflight level 450. The routes are referred to as “J”9 K) Y1 \8 K }! O8 T7 y9 B routes with numbering to identify the designated ) w* X4 k* z8 S W1 N4 v" nroute; e.g., J105.- D \ Q5 E2 Q5 ?- J# U (See Class A AIRSPACE.) # ~) r1 \. H5 L' P! N- j0 \: M(Refer to 14 CFR Part 71.)7 G* g2 D+ o4 B1 H JET STREAM- A migrating stream of high‐speed, |" o3 D b/ s) e' s/ d, _ winds present at high altitudes. $ _& n/ H$ f5 H) X8 CJETTISONING OF EXTERNAL STORES- Air‐ 8 ]2 o& Y# T7 v8 Oborne release of external stores; e.g., tiptanks, 5 C$ d9 d) H4 |ordnance. . R: ?- ^ S) Z% M4 c(See FUEL DUMPING.) ! R3 w8 o+ I' J, K8 p1 [$ l! ]' P(Refer to 14 CFR Part 91.)( R' _ F) M" V; \+ x JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)4 |) l6 R, Q. ^: R Pilot/Controller Glossary 2/14/08- F" X5 y g. k9 ] PCG K-1" _; R$ r3 ?3 D: }+ k- w0 [! V K % Z; }/ x J( b0 m4 |KNOWN TRAFFIC- With respect to ATC clear‐ : @; X. y" T; i& m* `ances, means aircraft whose altitude, position, and R7 H# H& }7 n4 `, o& }) Ointentions are known to ATC.9 t+ r9 {# U v9 E+ H5 g Pilot/Controller Glossary 2/14/08- z( S- n# W) c PCG L-1 4 ]7 e! Z$ d: G# PL) |& ]* p$ H2 c0 B" o LAA(See LOCAL AIRPORT ADVISORY.)/ v* B, s4 x/ V1 H) w LAAS(See LOW ALTITUDE ALERT SYSTEM.) e) S0 I) j- l* JLAHSO- An acronym for “Land and Hold Short- D& o( G& e6 f# Y9 C R1 X Operation.” These operations include landing and " z: i% {- P; a c0 cholding short of an intersecting runway, a taxiway, a 8 g5 s2 I- I- c/ y: Z* P" R' fpredetermined point, or an approach/departure ) p% C1 A1 }& g- M+ w, tflightpath. 2 k+ t+ p* m+ I7 ?) \% D4 {LAHSO‐DRY- Land and hold short operations on+ p3 L" n& T: ^5 Z8 p7 v% c0 } runways that are dry. + Y, V/ n8 D, X+ {% k4 ZLAHSO‐WET- Land and hold short operations on* Y* q' H# R0 R2 I runways that are wet (but not contaminated). ! A( @: Q3 t& R5 Q4 H5 jLAND AND HOLD SHORT OPERATIONS -. Z3 K: Q2 @- H+ c5 D! v. n Operations which include simultaneous takeoffs and0 A! E ?* v( m g' [0 ` landings and/or simultaneous landings when a - e2 t! D1 s# f% H1 ]* r4 \* N6 h1 j7 dlanding aircraft is able and is instructed by the3 \' x: ]1 o8 U9 D; G5 O controller to hold‐short of the intersecting runway/4 @8 A, e& X8 B& `/ t: g6 ? taxiway or designated hold‐short point. Pilots are / e' U! \* Q: B0 V& W* X6 F+ Uexpected to promptly inform the controller if the hold ; H7 X+ C! E/ G' ]. L3 a; m6 s: tshort clearance cannot be accepted. 7 q7 |% {# P: S* T(See PARALLEL RUNWAYS.) ) {- h* q9 _* M2 s5 y6 w$ k(Refer to AIM.)0 o9 h5 Z( r1 O% U LANDING AREA- Any locality either on land, " F/ B/ B: r* U/ t# Wwater, or structures, including airports/heliports and * n% e0 C3 m$ L* i zintermediate landing fields, which is used, or 5 p0 D' g9 `0 y( X9 vintended to be used, for the landing and takeoff of ! e( {5 T4 U, f7 p4 haircraft whether or not facilities are provided for the 4 H- n6 L# F- c6 {% ~shelter, servicing, or for receiving or discharging 8 N3 y% R3 C- Qpassengers or cargo. . B7 g3 v$ G: s$ v R% m. J(See ICAO term LANDING AREA.)7 p# U j, @) J# K LANDING AREA [ICAO]- That part of a movement- v2 W2 P% @7 b area intended for the landing or take‐off of aircraft. # T$ a1 E, p% p. M; aLANDING DIRECTION INDICATOR- A device ! o6 I# n% e+ d% V: e5 pwhich visually indicates the direction in which2 H0 O: \. @: }8 j2 I! Q9 d7 g landings and takeoffs should be made. ; R* W. I+ D* ~2 x) h(See TETRAHEDRON.); e& \7 N: j& w, l7 y- [9 z (Refer to AIM.) $ e4 e, n# d8 u1 i5 u) ~) T& _( |0 lLANDING DISTANCE AVAILABLE [ICAO]- The " c1 ~0 a. ?% {$ w: N- Zlength of runway which is declared available and N" Y) w2 K# x3 N- N% ]) t suitable for the ground run of an aeroplane landing. 0 s6 w3 M9 P( e" Z3 W! ELANDING MINIMUMS- The minimum visibility2 T8 _& u+ e: p [8 |' L& R prescribed for landing a civil aircraft while using an 5 M, f4 ?% A2 k$ l- Binstrument approach procedure. The minimum/ W* A8 Z9 Y" ^/ m6 N% ^1 y6 z2 c applies with other limitations set forth in 14 CFR + | C8 h: ?; C( Q9 q ~! g1 ]Part 91 with respect to the Minimum Descent " g8 ^$ ~( M$ p. G# K: x+ @Altitude (MDA) or Decision Height (DH) prescribed) n: k8 q8 w: J; E in the instrument approach procedures as follows: : L8 w$ I2 x# t i& t9 }6 y! e$ pa. Straight‐in landing minimums. A statement of1 G# L. r1 x" q/ x$ S# h MDA and visibility, or DH and visibility, required for9 z; R; l @' R+ R2 Q7 Y: t a straight‐in landing on a specified runway, or 4 W, T# ?* M4 ~b. Circling minimums. A statement of MDA and" j, v' {% d \8 w) Q8 ^ visibility required for the circle‐to‐land maneuver. * j/ V& W9 ]% X7 e/ g D' iNote:Descent below the established MDA or DH is# v v p6 j7 | }/ v not authorized during an approach unless the2 ]! u+ ~# R- s! A' z1 W aircraft is in a position from which a normal ! W; ^2 F* q" E: S: d9 lapproach to the runway of intended landing can be 0 j0 j: `3 c, w$ e% Fmade and adequate visual reference to required F; R2 T& b/ A2 ^2 y0 ?7 x2 D2 r, [ visual cues is maintained. 9 Q6 T1 L s9 M# A2 |$ A- g(See CIRCLE‐TO‐LAND MANEUVER.) 9 s% B+ x2 B. w# \(See DECISION HEIGHT.)2 }# E5 y+ D; S (See INSTRUMENT APPROACH4 U9 n. ?; d: ~" D5 A' e, N& V PROCEDURE.)1 ?: C' F! N" e& M' X (See MINIMUM DESCENT ALTITUDE.)! u6 F3 u; B" j6 i& J* ^! o (See STRAIGHT‐IN LANDING.) A5 Z9 f$ A6 d* V5 L* I2 x/ L' a (See VISIBILITY.)1 M8 \1 n. \8 u6 ]9 W- S (Refer to 14 CFR Part 91.) " O- J- N) U; @" Q, Y0 JLANDING ROLL- The distance from the point of8 O6 p% t' _5 L& J& j W! [( ` touchdown to the point where the aircraft can be 3 w4 f* v& G% Y1 ?# obrought to a stop or exit the runway.# Y) Q) ?8 d$ R2 I LANDING SEQUENCE- The order in which ; W+ [; t- j- K; Eaircraft are positioned for landing.. E+ ~8 R ]" i (See APPROACH SEQUENCE.) + O4 y" Q O; t1 |LAST ASSIGNED ALTITUDE- The last altitude/! h: H0 }( T; U( T flight level assigned by ATC and acknowledged by 5 z* j `2 C! y: l. D' bthe pilot." e8 ]5 P/ H9 p, r, E (See MAINTAIN.) , `% ^ J, Y: n(Refer to 14 CFR Part 91.)7 a# M) D9 N5 N+ M8 g LATERAL NAVIGATION (LNAV)– A function of' _. {% R0 Z& S+ _1 f4 `( [ area navigation (RNAV) equipment which calculates, / s$ c2 T8 ^4 u( kdisplays, and provides lateral guidance to a profile or% d( [6 e! g8 j9 E1 E; \1 U path.! C g) v5 `& l! o: V LATERAL SEPARATION- The lateral spacing of & f& L s, W2 C" daircraft at the same altitude by requiring operation on 3 g" J/ U3 D( n- n: y& k" C) cdifferent routes or in different geographical locations. M; O) W' {2 E( c$ @6 |! e(See SEPARATION.) ! f9 l. U; p9 ^+ D/ y# P) r* d' nPilot/Controller Glossary 2/14/082 b3 x) V& l! _2 o6 X PCG L-2 1 Q$ B' t' T" |5 kLDA(See LOCALIZER TYPE DIRECTIONAL AID.), C& u) a% ?. q (See ICAO Term LANDING DISTANCE" I; _, P3 J, ?5 z" q& I AVAILABLE.) % Z6 a% P8 z" _ \1 p5 @LF(See LOW FREQUENCY.)9 ~! K' k( q! A/ p9 b2 |: Y LIGHTED AIRPORT- An airport where runway and ; a0 Z9 S7 F1 a. ]$ i0 ]) F9 m* Y1 ?" Yobstruction lighting is available. 8 v3 P! c$ n* k5 v, e# A7 |# s, L(See AIRPORT LIGHTING.) ; z7 b e2 E5 t3 J; R1 W0 F5 y(Refer to AIM.) % R. U( C0 i+ fLIGHT GUN- A handheld directional light signaling0 j8 `* U/ x9 C$ p6 a, n1 t- N device which emits a brilliant narrow beam of white,5 o4 {2 M/ u1 a" K6 T5 Y green, or red light as selected by the tower controller. # l) `6 O5 k3 u- @: lThe color and type of light transmitted can be used to : b' V: u$ d) V# W# Bapprove or disapprove anticipated pilot actions where( o7 s& r& q$ g& u radio communication is not available. The light gun7 ?8 I5 D$ |- i) b& a1 x is used for controlling traffic operating in the vicinity$ W: [8 u5 _9 A5 E of the airport and on the airport movement area. $ _1 N" ?8 s( V+ L(Refer to AIM.)/ S0 N0 [ O m$ z; F& }3 i7 j LOCAL AIRPORT ADVISORY (LAA)- A service / Y8 n( {* F8 D& {; m* v$ `- n0 hprovided by facilities, which are located on the2 W: h$ J2 |* L landing airport, have a discrete ground-to-air: W( I1 b; A; D5 B0 q" w communication frequency or the tower frequency 7 |% r5 T7 l+ G0 h+ Awhen the tower is closed, automated weather " [. d/ P4 a4 r! R% D5 Dreporting with voice broadcasting, and a continuous& F2 U5 _. w# C8 X ?! c ASOS/AWOS data display, other continuous direct ( j0 J* q% m q1 [2 q& b3 Jreading instruments, or manual observations avail‐: p, k4 p' h( {! Y& I% d able to the specialist. , [) H- {& \6 E3 D(See AIRPORT ADVISORY AREA.): |2 c! O/ @8 @% N LOCAL TRAFFIC- Aircraft operating in the traffic $ O( ]5 b1 i$ c" S2 M7 \pattern or within sight of the tower, or aircraft known " e% y, `4 k4 D! U- I hto be departing or arriving from flight in local practice : c- l; _- T* |. |9 H6 uareas, or aircraft executing practice instrument" M6 n1 G/ ^5 e" z) v. m* r+ m6 D approaches at the airport.: M B, |% Q; R2 v8 L' z; R (See TRAFFIC PATTERN.)/ b X$ {# G2 S) g* f4 t) ~% g LOCALIZER- The component of an ILS which * d/ h# i' s% m; T7 w, u" c0 Tprovides course guidance to the runway.0 x5 t( ?' c0 |5 Y. r (See INSTRUMENT LANDING SYSTEM.) % c5 {) o) N% _" ](See ICAO term LOCALIZER COURSE.) ! Z& q$ m" j# M9 [4 V(Refer to AIM.) 7 k8 B" _7 M" M; o6 }- ]7 [. PLOCALIZER COURSE [ICAO]- The locus of # k( \: r1 j5 i! rpoints, in any given horizontal plane, at which the. l9 L, v9 K) ]4 `2 Z w! \ DDM (difference in depth of modulation) is zero.. U) }6 f. R5 D% Z$ }# R LOCALIZER OFFSET- An angular offset of the9 k" }) b7 O3 ? Y localizer from the runway extended centerline in a9 S' o" ^7 l' Z5 L7 I, Y: J8 Z direction away from the no transgression zone (NTZ) ) N: L; ]/ J* `& Y( _2 `1 E2 Sthat increases the normal operating zone (NOZ)$ C$ K3 W; n( G4 x7 k width. An offset requires a 50 foot increase in DH and 3 [+ w6 M# D+ J! v# ]is not authorized for CAT II and CAT III approaches. 7 q' c8 q' u" `; U. A; FLOCALIZER TYPE DIRECTIONAL AID- A) e2 B9 C1 W1 t NAVAID used for nonprecision instrument ap‐9 l# f, D) W' ]0 b- E7 z7 e' P proaches with utility and accuracy comparable to a % _4 e6 [5 n/ s$ d3 K- Zlocalizer but which is not a part of a complete ILS and q. g) ^. S N `8 j7 R is not aligned with the runway. 2 T# q! `; q, H) p(Refer to AIM.)& S M8 f5 Z" _* G/ M LOCALIZER USABLE DISTANCE- The maxi‐# u& N" U y4 X6 F0 @8 g* t mum distance from the localizer transmitter at a* U5 L( F* }: J( s" P1 b! j specified altitude, as verified by flight inspection, at6 o: b- v% g& y3 S which reliable course information is continuously , _) K% {0 }2 M/ v+ _' [" yreceived. - x1 Z3 L! Z# P0 y(Refer to AIM.)2 [; s& ?! {6 x* B3 `) n LOCATOR [ICAO]- An LM/MF NDB used as an aid ! b( k+ U v8 @6 h% n) T! Xto final approach.4 w, X+ N4 m/ B+ `! A! Q3 R2 K' X' p Note:A locator usually has an average radius of 5 V+ i) D3 g8 @ T6 i5 u+ ^% Vrated coverage of between 18.5 and 46.3 km (108 H, N4 i7 ^5 f and 25 NM)./ j, U! E% u O LONG RANGE NAVIGATION(See LORAN.)0 s( O' s3 K9 l& t# _4 u; P LONGITUDINAL SEPARATION- The longitudi‐) Z& a+ v) V! a8 @& u( } nal spacing of aircraft at the same altitude by a# Q4 ^9 G! m T/ S# @ minimum distance expressed in units of time or! Z1 e$ {3 e' f5 s miles. % [- H2 t5 W: v0 H(See SEPARATION.)4 ~4 S1 z2 p% E6 R! p& _ (Refer to AIM.) 3 W4 G* P: ?( a' i) c, e3 R1 YLORAN- An electronic navigational system by4 t* f1 {$ X, s- x. V. h which hyperbolic lines of position are determined by 3 j8 ?$ Y( m: B& `& L; T+ Vmeasuring the difference in the time of reception of 6 {9 e' f: i7 g' `synchronized pulse signals from two fixed transmit‐ 0 \. h8 S8 l2 S nters. Loran A operates in the 1750‐1950 kHz % w$ \* D/ \1 ]5 J! f- Hfrequency band. Loran C and D operate in the3 A/ S/ b: u: `( D3 i1 W7 N 100‐110 kHz frequency band. 4 {* V! }% R( Q(Refer to AIM.)/ ]2 E$ H. V6 F9 d; q6 {4 M LOST COMMUNICATIONS- Loss of the ability to 5 d. A( x* |5 A* r$ ~) B |communicate by radio. Aircraft are sometimes * p5 {) K9 q9 b+ w" Y( greferred to as NORDO (No Radio). Standard pilot9 u4 n0 }% P8 U9 \( P _ procedures are specified in 14 CFR Part 91. Radar " P5 N. h% @# Y& w: }" zcontrollers issue procedures for pilots to follow in the. [; d: l( i" }- z! d# G event of lost communications during a radar approach 6 Z: D/ ^9 Z. D0 v }) mwhen weather reports indicate that an aircraft will6 O7 s) M1 y( ]5 X likely encounter IFR weather conditions during the ; J1 H9 l' p) Xapproach. $ c7 J" _3 E- y7 U(Refer to 14 CFR Part 91.)3 v2 V$ a- M" a5 H* S (Refer AIM.)" m/ Z/ w' x1 N8 W Pilot/Controller Glossary 2/14/08 8 a. ~! K& w/ g% uPCG L-3 / L/ W$ u9 H7 hLOW ALTITUDE AIRWAY STRUCTURE- The : W1 c1 l! J& C' c0 L/ _+ `$ z; C& hnetwork of airways serving aircraft operations up to " m: H; D) n* k9 d+ hbut not including 18,000 feet MSL." q7 S& q8 i/ _ (See AIRWAY.)$ v" Z( h9 Q, j: m( I9 J9 c (Refer to AIM.)+ D# s" F) h( a# D3 Y$ E2 V LOW ALTITUDE ALERT, CHECK YOUR ALTI‐ ! w+ x! |' t2 U* c0 `, _TUDE IMMEDIATELY(See SAFETY ALERT.) 6 Q j) [4 C! h0 JLOW ALTITUDE ALERT SYSTEM- An auto‐! V; K# e2 J" o; d% {, W1 n/ E mated function of the TPX‐42 that alerts the; R# J' e8 _- V' i O( L controller when a Mode C transponder equipped% Q* }5 W! Q( | }) S aircraft on an IFR flight plan is below a E# I* s2 k \) n! S" Q! gpredetermined minimum safe altitude. If requested5 d: y& M/ d( d by the pilot, Low Altitude Alert System monitoring7 S+ ?7 j2 g' N% l is also available to VFR Mode C transponder. n" q _5 g& U6 r equipped aircraft.+ P9 h2 Q1 R+ m) m! M LOW APPROACH- An approach over an airport or ! Y" @6 l% F2 P5 K( Rrunway following an instrument approach or a VFR : b) l0 N T' `5 h- ?. Tapproach including the go‐around maneuver where0 m% t1 c% ?5 S8 F3 s ?5 G the pilot intentionally does not make contact with the& g' ]/ y5 K: H runway.7 a! G; n& p( L% T' G# M2 L (Refer to AIM.) - V0 l E( H) {; g I- V9 G4 kLOW FREQUENCY- The frequency band between / Q. `) E& z4 i* B30 and 300 kHz." c+ N0 J' W! I( B7 X9 y/ u6 ? (Refer to AIM.) 3 Z$ P8 ^& D! b# h2 B) P: {& C O! VLPV- A type of approach with vertical guidance" Y6 U0 ~2 G+ i (APV) based on WAAS, published on RNAV (GPS) 7 i. X7 E/ ` x5 d* Eapproach charts. This procedure takes advantage of, y7 V" i, f6 X2 i- n the precise lateral guidance available from WAAS. + f. O; o0 u' b/ c! tThe minima is published as a decision altitude (DA).. T0 T/ }( |$ a/ j Pilot/Controller Glossary 2/14/08( O, a- U9 D' P; \ PCG M-1& |5 I( o8 l, ^$ b0 {, F i" B M; i& H; F4 Q4 Q. E) B1 f' ? MAA(See MAXIMUM AUTHORIZED ALTITUDE.) + Y. m4 O3 ~6 PMACH NUMBER- The ratio of true airspeed to the : s0 s7 r6 F$ Q& O( W! G$ M( z; Zspeed of sound; e.g., MACH .82, MACH 1.6.& Y8 n7 C l( I: ?8 L2 G (See AIRSPEED.)9 q0 ]6 F* s w% Q% J# w* P, @ MACH TECHNIQUE [ICAO]- Describes a control 2 Q: q! h$ L1 I# D: `; B/ T7 \technique used by air traffic control whereby turbojet$ F: }/ F0 u" r aircraft operating successively along suitable routes* y8 N( v$ ^9 W8 c; l9 D0 y are cleared to maintain appropriate MACH numbers( b# w5 K0 R* P1 O9 W& z' J7 p for a relevant portion of the en route phase of flight. 3 i, ? h! {3 d J( U; C; b1 \The principle objective is to achieve improved 0 b* O' a9 H7 p5 e! ^utilization of the airspace and to ensure that 3 r' g4 y) A" D, oseparation between successive aircraft does not ! k1 B3 u) Y" J1 \" Wdecrease below the established minima. {& S6 x7 x" ^0 J; y9 N3 Y MAHWP- Missed Approach Holding Waypoint/ x* e& k) U+ E* Z4 [2 y4 M MAINTAINa. Concerning altitude/flight level, the term 2 g+ Z2 N, g. Wmeans to remain at the altitude/flight level specified.9 x3 M) x2 G4 p1 M# A+ Z5 l The phrase “climb and” or “descend and” normally- e3 B& ^) {: @$ \# H3 F" }0 t precedes “maintain” and the altitude assignment; 2 T7 y: L% o1 B2 N4 K' s' ]5 y+ Ce.g., “descend and maintain 5,000.”( B0 n% P' J0 A b. Concerning other ATC instructions, the term is " Y( B: w4 l1 K5 z/ f9 @% \used in its literal sense; e.g., maintain VFR.4 ~1 Z$ o. O3 ^ MAINTENANCE PLANNING FRICTION & W/ R5 ?$ Z/ ALEVEL- The friction level specified in ; q0 N0 A; V, ?* {7 [$ d2 Y4 TAC 150/5320‐12, Measurement, Construction, and* q( j9 w9 t# L4 M$ U4 w Maintenance of Skid Resistant Airport Pavement 9 C8 i' ]: L( S% j" SSurfaces, which represents the friction value below& D: T/ D: _% B' K7 G6 l$ ? which the runway pavem ent surface rem ains ' _5 c' v1 P+ A7 l# Z. T, R2 tacceptable for any category or class of aircraft% N' F! p. x( a+ [ operations but which is beginning to show signs of 1 P! _# a/ E. ]2 H2 B2 L+ `; g* Ldeterioration. This value will vary depending on the" V( {2 V" I* k5 T6 u' T particular friction measurement equipment used.3 F2 r" V5 b9 c; [ MAKE SHORT APPROACH- Used by ATC to ; a. z3 s) j! g6 f$ T. Q. Oinform a pilot to alter his/her traffic pattern so as to& G+ z2 G! ]6 p% _& l V make a short final approach. ) r) O8 @4 z' t3 K) Q' X5 C L) r(See TRAFFIC PATTERN.) y- K: j$ ~9 l3 n# n: N& q/ _ MAN PORTABLE AIR DEFENSE SYSTEMS % ~6 j+ G/ |- C(MANPADS)- MANPADS are lightweight, shoul‐ 6 C/ A; Z: ~; P& k( w+ I, G' Hder-launched, missile systems used to bring down1 P. L+ X- ~% t& Z+ N# f' L& M aircraft and create mass casualties. The potential for1 D" o2 B( r9 g" m/ v' m( a MANPADS use against airborne aircraft is real and . d4 s8 l$ l0 frequires familiarity with the subject. Terrorists+ t2 V# {5 Q2 j3 n choose MANPADS because the weapons are low; b3 E) x) U V+ Q9 k- s3 G T8 A8 ~4 m cost, highly mobile, require minimal set-up time, and$ m1 N g9 v/ G) T are easy to use and maintain. Although the weapons$ k* K2 j3 C, e* c- h* g* q have limited range, and their accuracy is affected by . ^' P4 S5 w( P' d/ `poor visibility and adverse weather, they can be fired, @/ a* o7 f# P1 K3 J6 D) T- U" G from anywhere on land or from boats where there is 4 S8 Q) m0 X6 a( A2 l$ Punrestricted visibility to the target.4 M" v6 o @2 m& r/ _- f9 d MANDATORY ALTITUDE- An altitude depicted 7 F S. `& `1 R% H& ton an instrument Approach Procedure Chart 5 a; u/ E- |8 r1 |6 C4 v5 Nrequiring the aircraft to maintain altitude at the/ P/ }2 V; j7 W5 F' P depicted value.# }: c. U, s/ G: [ MANPADS(See MAN PORTABLE AIR DEFENSE ) f4 j; v s; D. mSYSTEMS.) 3 C6 }# Q8 I% H: r' V9 a: rMAP(See MISSED APPROACH POINT.) & X) [3 X0 \% i2 G9 c- t6 ]MARKER BEACON- An electronic navigation $ ~3 }- H6 ^) f% p1 x7 mfacility transmitting a 75 MHz vertical fan or 3 L. g+ m- u: n5 uboneshaped radiation pattern. Marker beacons are / }! E7 M. |0 [! m$ B3 S a# ?- M- i Bidentified by their modulation frequency and keying7 D! S$ G0 {/ z- |; ~ code, and when received by compatible airborne- d6 W$ ]& U: [( S @! V equipment, indicate to the pilot, both aurally and 7 P- [1 X3 P) B) D4 o' z. o/ Zvisually, that he/she is passing over the facility. 4 G7 K' ]) M9 S7 M# C, ]1 Q% N(See INNER MARKER.) ' v5 o" p! n; h: z(See MIDDLE MARKER.)0 U8 h" \, O f3 I: R! T (See OUTER MARKER.) ) Z1 d' x% _, I& f5 k1 m(Refer to AIM.)

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MARSA(See MILITARY AUTHORITY ASSUMES 5 n) p$ E+ F% b' d. W! aRESPONSIBILITY FOR SEPARATION OF/ J+ _6 Z4 r+ }# P% X w AIRCRAFT.) 5 |6 O& l+ s. b# n5 Z9 Z# `2 pMAWP- Missed Approach Waypoint$ {7 n6 y g: Z+ G% o MAXIMUM AUTHORIZED ALTITUDE- A pub‐ ) j$ ]+ z! ^4 Z4 T5 clished altitude representing the maximum usable ! N" Y8 }& n6 K# q$ e5 L' n; M! G- @" Zaltitude or flight level for an airspace structure or B- ~- v6 _" v5 ^8 @7 ]0 y route segment. It is the highest altitude on a Federal 6 L" K6 q6 }" G4 s' S, Qairway, jet route, area navigation low or high route,* d4 Y# l. I3 t* s3 S1 h4 g5 U or other direct route for which an MEA is designated 7 _: A" j7 S, s% bin 14 CFR Part 95 at which adequate reception of3 R2 h' l& e0 y) Z W navigation aid signals is assured. ; P5 d. B9 V" w: A* OMAYDAY- The international radiotelephony distress / D, d) H8 | K: y/ nsignal. When repeated three times, it indicates 2 v7 B! J# X }Pilot/Controller Glossary 2/14/08 ) a5 R2 K! |- w4 @* r/ J0 gPCG M-2 / S2 x& e8 g; p% k7 C- A0 himminent and grave danger and that immediate / k9 |! w( e7 J( {! t A) passistance is requested.3 j: G+ p6 j: M) V. V& J: T' l( P+ k (See PAN‐PAN.) 1 }2 U& o0 O V* ^3 I# B(Refer to AIM.) . l/ r1 I1 ^( {$ A8 M" [7 iMCA(See MINIMUM CROSSING ALTITUDE.) 6 C% @$ e2 c% @MDA(See MINIMUM DESCENT ALTITUDE.) " {5 L9 l: d9 h, {MEA(See MINIMUM EN ROUTE IFR ALTITUDE.)% }6 c6 v6 N+ N% Z) r7 | MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR2 V. K* X) ^2 t# o9 `4 a4 T8 L5 c TRACKING SYSTEM.); ` t6 C3 ]. o: K0 C METEOROLOGICAL IMPACT STATEMENT- - R, H: C. i# W. K+ s3 tAn unscheduled planning forecast describing " [$ E( o8 F5 ^8 qconditions expected to begin within 4 to 12 hours m/ N! l3 v+ E- X6 m+ I which may impact the flow of air traffic in a specific. h i. C6 |- n5 ^8 a3 I' t2 Z center's (ARTCC) area.7 k3 m* `. T0 W METER FIX ARC- A semicircle, equidistant from. u2 d7 d: U N9 F" F+ p" p$ T a meter fix, usually in low altitude relatively close to" m! m; Y0 a0 ~2 Q4 [ the meter fix, used to help CTAS/HOST calculate a - v) E' [1 V8 c! @; ?$ mmeter time, and determine appropriate sector meter5 Y5 _* S( Y1 N. G% ^: K; p6 \# f list assignments for aircraft not on an established % f! k7 ?/ L1 `/ g* v. S! b9 Farrival route or assigned a meter fix.1 K( t7 M+ `, s' |2 @4 q METER FIX TIME/SLOT TIME- A calculated time9 D# ^" q7 y! Z& L$ S* Z to depart the meter fix in order to cross the vertex at ^0 R4 \3 `1 c' nthe ACLT. This time reflects descent speed- w% |3 A) R' D e6 m# { adjustment and any applicable time that must be * f) k0 ?1 H' k" z( }6 Xabsorbed prior to crossing the meter fix. 8 u, N# T7 t1 D" I# _1 ZMETER LIST(See ARRIVAL SECTOR ADVISORY LIST.)# K3 n- h; H, [ METER LIST DISPLAY INTERVAL- A dynamic / c5 ?( l9 \' K( iparameter which controls the number of minutes 0 u9 Y$ [" m+ t8 R$ Gprior to the flight plan calculated time of arrival at the 2 C6 w' J) I( C7 S( k, _meter fix for each aircraft, at which time the TCLT is- M5 M6 Y3 A3 a" A5 g2 ^; b \ frozen and becomes an ACLT; i.e., the VTA is0 n& S' K) |% G* z updated and consequently the TCLT modified as( P- P- |, a( I appropriate until frozen at which time updating is5 u: N! y ^: a0 m4 F! c suspended and an ACLT is assigned. When frozen,. Q: ^- \" z+ }4 K# k the flight entry is inserted into the arrival sector's ; \- P- Q, Q7 E8 R6 @! }meter list for display on the sector PVD/MDM.5 G% \* N! C5 R3 P6 V# F1 n; r MLDI is used if filed true airspeed is less than or 6 z8 }9 Y& C' l( Dequal to freeze speed parameters (FSPD).+ w5 g+ G0 x* s# a* S METERING- A method of time‐regulating arrival + K' [+ }* j5 |) `1 dtraffic flow into a terminal area so as not to exceed a 9 }" |3 f+ M; Z& m0 W! tpredetermined terminal acceptance rate. u( @( @% g, {' F4 j3 bMETERING AIRPORTS- Airports adapted for ( y7 v8 b) h$ G( M( r Gmetering and for which optimum flight paths are% `) a. E A% H! Y- B( j defined. A maximum of 15 airports may be adapted. 6 ?0 {. U: B- \1 N# gMETERING FIX- A fix along an established route " _; e7 B5 B2 hfrom over which aircraft will be metered prior to# {0 Z. L/ e2 a+ ^8 m7 k: u6 f8 M entering terminal airspace. Normally, this fix should T2 O4 W) P- q& o2 {; I3 X2 N- dbe established at a distance from the airport which + o& W) A6 O o' Y2 [5 `1 `& i! Hwill facilitate a profile descent 10,000 feet above/ c$ P5 j5 w, f$ R7 [/ E airport elevation (AAE) or above.0 l0 Z( a2 A) ? METERING POSITION(S )- Adapted PVDs/ ; y( c' Y" H$ r2 \MDMs and associated “D” positions eligible for( f% k7 [% M6 T. z display of a metering position list. A maximum of ~! q# a3 r K2 f* Xfour PVDs/MDMs may be adapted.: X) p! |0 ]: m' v4 j( q9 i& W METERING POSITION LIST- An ordered list of% P$ Y% d: E* n5 [4 k2 s4 p, i data on arrivals for a selected metering airport / _' d$ Q/ [: I7 a* s0 D' idisplayed on a metering position PVD/MDM./ z6 b4 ]4 U9 g0 d- _0 g E# @ MFT(See METER FIX TIME/SLOT TIME.) D1 t$ ]# J* cMHA(See MINIMUM HOLDING ALTITUDE.) # M1 x3 g4 ` Q# ], O/ e' hMIA(See MINIMUM IFR ALTITUDES.)) R& O r7 J* i" l+ ~ MICROBURST- A small downburst with outbursts1 h. \5 C3 d5 b5 i- d/ B of damaging winds extending 2.5 miles or less. In ' @, f1 g& c& i3 `spite of its small horizontal scale, an intense* [' y" ~* |+ `# y# ?* D microburst could induce wind speeds as high as 150* ^; |5 ?) T; P' }/ ] G: x knots 6 t+ }. K' m0 } `(Refer to AIM.) / y+ X, e3 N' ^& R/ tMIC RO‐EN ROUTE AUTOMATED RADAR # v9 _- u, e( B) o5 g/ J1 LTRACKING SYSTEM (MEARTS)- An automated : N2 X5 R' O" m8 H: Z: G4 Nradar and radar beacon tracking system capable of5 B5 ?0 F8 w1 t" I$ R employing both short‐range (ASR) and long‐range 5 g3 }) p6 h6 T(ARSR) radars. This microcomputer driven system7 g4 c$ ]' S8 {; u. v! H provides improved tracking, continuous data record‐ u0 C8 R: C% U/ `, t: I8 Ling, and use of full digital radar displays. ! \ h( ]# x% L, k9 @8 x9 g3 I OMICROWAVE LANDING SYSTEM- A precision* a" \2 J, b4 G; ~ [* P* U instrument approach system operating in the9 ^' {# z; I- K6 Z microwave spectrum which normally consists of the + R7 G, [8 G/ Y1 ~- |" P6 K) `following components: 9 t! @% n5 Y! n3 R! za. Azimuth Station. 7 o$ x7 V; D3 B! yb. Elevation Station.' Y- q# O( P- x4 Z3 k- K/ T8 r c. recision Distance Measuring Equipment.# Z2 d& v/ w+ Q3 f* L d: m* Z; ~ (See MLS CATEGORIES.) 0 b% q' @6 s: C# d* G4 u- E) `MID RVR(See VISIBILITY.) , U% ~( b( I" d% G; qMIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.) 6 p! M/ t, L; {* ?* Z- l- bPilot/Controller Glossary 2/14/08% q5 x8 h, D9 v! J# ^ PCG M-3, B9 J# n ^5 m$ D! C) T MIDDLE MARKER- A marker beacon that defines 5 h$ O, i- w& l% p' m, ?$ B {a point along the glideslope of an ILS normally 5 ^4 i8 x0 W+ f2 ^. K6 elocated at or near the point of decision height (ILS/ }* J# I: i4 }* k3 }1 z Category I). It is keyed to transmit alternate dots and * k! @. L) }( q* W4 ]1 Ldashes, with the alternate dots and dashes keyed at the D* c, H1 {+ ^1 S2 f( F1 x rate of 95 dot/dash combinations per minute on a# F4 d5 f7 x2 E6 D8 X( v2 W 1300 Hz tone, which is received aurally and visually 6 ^. T" x4 E, E: E3 S5 j0 z4 q9 ?; g' _by compatible airborne equipment.: Y1 r" H6 g+ ` (See INSTRUMENT LANDING SYSTEM.) * s/ x, X9 j3 ^! F(See MARKER BEACON.)/ ]' w H) |" d) C (Refer to AIM.) 1 |: [/ ~% B4 ~4 NMILES‐IN‐TRAIL- A specified distance between4 C4 h0 ~ G0 Y- V% { aircraft, normally, in the same stratum associated/ t; N8 c4 h2 |( N" i. ~7 T& N, l with the same destination or route of flight.2 C) t/ }" B" e& S, d+ |, Z8 ?8 R7 b MILITARY AUTHORITY ASSUMES RESPONSI‐8 j/ j6 N# b8 H& @8 N BILITY FOR SEPARATION OF AIRCRAFT- A 2 H: }/ {: }9 \condition whereby the military services involved $ c( u- L2 x gassume responsibility for separation between ( j+ z8 k/ m3 ^! A) Y' r7 kparticipating military aircraft in the ATC system. It is g/ X0 x( _: {) @5 g! z {1 K* dused only for required IFR operations which are2 y( M- h2 F5 E specified in letters of agreement or other appropriate q* c2 g: [2 b) @4 J8 C) t: K FAA or military documents.7 ?5 @+ B: T0 c+ a# y( n MILITARY LANDING ZONE- A landing strip used$ ^: O0 t! u; g exclusively by the military for training. A military ; D. `3 }# @4 s, ^9 f3 y7 rlanding zone does not carry a runway designation. 8 `( I/ J$ g2 q3 fMILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.)/ F% Q8 @# I/ X MILITARY TRAINING ROUTES- Airspace of8 z2 E2 o1 w+ l& H8 ]* l defined vertical and lateral dimensions established+ T `% ~- P; W$ H1 k for the conduct of military flight training at airspeeds- M) S) Z3 R, B6 n2 j/ a0 e) D in excess of 250 knots IAS. ! N! t$ x6 E- [/ C2 S$ {(See IFR MILITARY TRAINING ROUTES.)0 Q- I1 l1 q# R+ k/ e+ t& v (See VFR MILITARY TRAINING ROUTES.) 8 P& [( A- | q# w, jMINIMA(See MINIMUMS.)7 q5 Q1 v7 d2 P2 O' A$ w; m& N MINIMUM CROSSING ALTITUDE- The lowest. b; @6 T/ a9 ^, |, F: c! w& ]# N5 i3 r altitude at certain fixes at which an aircraft must cross - z+ h5 j) \0 C8 twhen proceeding in the direction of a higher ) t' _, Y2 E! ?/ N/ e6 Ominimum en route IFR altitude (MEA).- I( l- [" B% X# R (See MINIMUM EN ROUTE IFR ALTITUDE.)% E& Y7 P, \' ] MINIMUM DESCENT ALTITUDE- The lowest 2 w2 w4 D" a0 H) t4 Q3 F% m1 w! J/ Zaltitude, expressed in feet above mean sea level, to + y k8 X- \ G# D! @) X1 Cwhich descent is authorized on final approach or y0 }) a: z9 N during circle‐to‐land maneuvering in execution of a/ M9 k! T$ T r& i3 S5 j/ v' z standard instrument approach procedure where no 9 e" R: j7 u' velectronic glideslope is provided. * K4 w6 v$ U% |. I4 h(See NONPRECISION APPROACH1 ?; t9 O& x: M6 i t, A- l PROCEDURE.)' ]' q: L; ]4 a MINIMUM EN ROUTE IFR ALTITUDE (MEA)-/ k" x& M" E. b; U1 O* N$ u6 s The lowest published altitude between radio fixes* c( P7 B" ?; G9 Q6 ~ which assures acceptable navigational signal cover‐ $ b# ?: z( F" s# c1 k" Jage and meets obstacle clearance requirements1 V9 X: h* S3 z. E' ^8 j between those fixes. The MEA prescribed for a: P# x8 g/ T3 H* ~* x7 @ Federal airway or segment thereof, area navigation & f' L3 e% O. n8 ^: Olow or high route, or other direct route applies to the9 L6 \1 J9 u; H& ^, | entire width of the airway, segment, or route between# A7 U; n' ]2 ^9 d the radio fixes defining the airway, segment, or route.: X2 o' n) ? w$ F6 U5 H (Refer to 14 CFR Part 91.) % h& i) p, O- [# K! M' E(Refer to 14 CFR Part 95.)+ z6 S7 \; k" g7 J& u6 h* T: M (Refer to AIM.) . ~4 r1 Z5 S. a! i3 @MINIMUM FRICTION LEVEL- The friction level, G( f- t4 `: q& p specified in AC 150/5320‐12, Measurem ent, $ Z( L9 y9 y2 pConstruction, and Maintenance of Skid Resistant : h# D8 p' U7 x f5 Y( V2 T" A b' xAirport Pavement Surfaces, that represents the 4 g' d& u' b/ n d/ T4 {* _, Kminimum recommended wet pavement surface X4 S$ }7 T# I/ J3 [! \: I" rfriction value for any turbojet aircraft engaged in % w7 i; D3 _. ALAHSO. This value will vary with the particular . a4 G" i( l+ `* v; G* nfriction measurement equipment used.. b$ z, V- t+ l2 a7 n& Y, C# [+ ~ MINIMUM FUEL- Indicates that an aircraft's fuel+ L) Q/ s* l' x/ O! z supply has reached a state where, upon reaching the P3 S& z7 a0 S) N0 _ destination, it can accept little or no delay. This is not7 K% F: a7 V* R E( D an emergency situation but merely indicates an 4 J% L7 h& D: s' Zemergency situation is possible should any undue 4 j$ h/ a# p1 F- s' tdelay occur. , _3 B" L$ P3 h+ \' y/ b7 E* Y(Refer to AIM.)9 P% Q: w0 `# F* M MINIMUM HOLDING ALTITUDE- The lowest" H) g% c7 f" X5 Q altitude prescribed for a holding pattern which# a8 ]4 y$ o. |/ T4 Q" J( y assures navigational signal coverage, communica‐- ? z: u% _2 \, e8 U! v tions, and meets obstacle clearance requirements. 7 @0 L0 R7 b$ z3 N1 vMINIMUM IFR ALTITUDES (MIA)- Minimum H# n- P" G& s" s Z% P" ^ altitudes for IFR operations as prescribed in 14 CFR9 `( x6 H1 o6 z `9 O- R Part 91. These altitudes are published on aeronautical 5 i" z( ?6 N% P4 ^: ~% Z3 zcharts and prescribed in 14 CFR Part 95 for airways+ g' H7 I7 C, q9 R1 n and routes, and in 14 CFR Part 97 for standard ) k/ ]- J+ s# V2 `* M! F. I' Finstrument approach procedures. If no applicable" }5 x; E& j5 M4 ~: u8 H7 ]' Q minimum altitude is prescribed in 14 CFR Part 95 or, y' P3 P5 G4 J+ ^( p$ _6 H 14 CFR Part 97, the following minimum IFR 0 H7 W7 W% x! y3 D9 h- i; w/ `: C9 Galtitude applies:" y" P9 P" k' B9 J7 ?# b e a. In designated mountainous areas, 2,000 feet + u) d) K$ q9 j p! Sabove the highest obstacle within a horizontal + o2 ^1 A, k/ k5 e: `3 V/ w1 hdistance of 4 nautical miles from the course to be. |% r) D1 ^/ O flown; or% k" c& a+ I4 X& P Pilot/Controller Glossary 2/14/08 " T) \( _: W8 T6 b# ]: d2 {PCG M-4 : }$ [4 Q7 v: V- ?; y' U# l4 z5 g3 @b. Other than mountainous areas, 1,000 feet above) ~$ [5 [" [, a; i9 U* R( n the highest obstacle within a horizontal distance of 4+ k3 K2 m% Q9 v" S: ~ nautical miles from the course to be flown; or ) b, ]9 _9 |0 e$ S7 v! e/ U6 Wc. As otherwise authorized by the Administrator , E& H) d' I* ?" Z% m" }or assigned by ATC. 0 G8 V. ?- y" _" C7 y; |0 ]* ^5 ?(See MINIMUM CROSSING ALTITUDE.) . T# K0 r2 d" B3 M(See MINIMUM EN ROUTE IFR ALTITUDE.) 8 Y# O) O# K* |7 Q; [(See MINIMUM OBSTRUCTION CLEARANCE % G% L# X" E; m# u- v! }ALTITUDE.)" P( G$ f0 [% }* y (See MINIMUM SAFE ALTITUDE.)5 \# ^1 [& m* P9 d5 E (See MINIMUM VECTORING ALTITUDE.)# q- [( V; H" K& K: Y (Refer to 14 CFR Part 91.)

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MINIMUM NAVIGATION PERFORMANCE- G; t' F, |/ ~- e9 ]( Y7 Y7 T% E. Y SPECIFICATION- A set of standards which require ; X& \3 Z, { r' ]aircraft to have a minimum navigation performance ( a/ [/ m8 ? e% Z8 b' Dcapability in order to operate in MNPS designated ! }1 @6 {. ]5 C: Q% X4 V* oairspace. In addition, aircraft must be certified by - j1 Y+ ?. n8 q5 |1 `9 `% S1 Ktheir State of Registry for MNPS operation. / p/ X+ l Z4 `- {5 s; vMINIMUM NAVIGATION PERFORMANCE ' w ~. E9 E- ]9 BSPECIFICATION AIRSPACE- Designated airspace7 F' h* x0 o2 w o in which MNPS procedures are applied between9 R& M* t( @6 n7 \& V, B MNPS certified and equipped aircraft. Under certain 5 W' |6 \" ^( W) vconditions, non‐MNPS aircraft can operate in; J/ Y* w& h" B2 C: {# } MNPSA. However, standard oceanic separation . N2 }( t5 d+ S+ q$ n3 w# Y! I$ ~. ?minima is provided between the non‐MNPS aircraft5 ^6 M5 ?4 A% P8 B1 x and other traffic. Currently, the only designated / C5 O; ?5 q4 O9 nMNPSA is described as follows: 8 s9 {( C; d; @9 O. B! G- s; ra. Between FL 285 and FL 420;- E( G5 L$ ?, T; ~ b. Between latitudes 27N and the North Pole;+ U6 i# p6 v) ]8 m7 o* ? c. In the east, the eastern boundaries of the CTAs 4 [7 X) v" ]8 A" ]- F! { T" b: TSanta Maria Oceanic, Shanwick Oceanic, and% V' c; {4 |$ [% T: k. o Reykjavik; " |, X( }4 N2 k$ ~d. In the west, the western boundaries of CTAs : E. {, g9 `- h E$ VReykjavik and Gander Oceanic and New York , [. M$ W& N2 w WOceanic excluding the area west of 60W and south: c+ q& o8 f0 X/ Y) ` of 3830'N. 3 d M7 `. n9 q& ~& v) D8 VMINIMUM OBSTRUCTION CLEARANCE ALTI‐/ C1 Z( m" Z% R$ m% P+ y TUDE (MOCA)- The lowest published altitude in* w. [" l: V+ f effect between radio fixes on VOR airways,, [, f) }# S( N# w off‐airway routes, or route segments which meets 0 m5 {& c3 h3 c9 Pobstacle clearance requirements for the entire route 4 V% Q, e% ^: A- O; }segment and which assures acceptable navigational 2 c- q6 x" S8 c s$ K# M+ @4 Jsignal coverage only within 25 statute (22 nautical) 9 R0 _5 N1 z3 \5 F' `) ]miles of a VOR./ z/ B" T# p" b3 k2 m (Refer to 14 CFR Part 91.). r' u Q( x7 X$ r3 e (Refer to 14 CFR Part 95.) . M( ]6 l: \% H+ X0 [0 K, r( }" `. e& [MINIMUM RECEPTION ALTITUDE- The lowest $ h% T+ W! B" Qaltitude at which an intersection can be determined. 5 _/ U% u4 n1 ~( |8 q(Refer to 14 CFR Part 95.) 5 y5 x2 |' S/ H* |1 G0 Y5 x% m9 ~MINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR 5 |$ `% q5 D$ l# YPart 91 for various aircraft operations.# E& Q9 E# Z h- _% J b. Altitudes depicted on approach charts which' r+ g8 T# o0 k" ^. ` provide at least 1,000 feet of obstacle clearance for 1 I, I; c3 D& C& t% x$ n; N8 C+ ]emergency use within a specified distance from the+ s, {( r3 j0 o$ @! s navigation facility upon which a procedure is 0 [1 d1 Y+ N1 f, J" M4 b* H2 I7 {predicated. These altitudes will be identified as1 ?- E- d! V+ K: ^0 W2 z3 a Minimum Sector Altitudes or Emergency Safe$ J5 z C5 D9 I* ^ Altitudes and are established as follows: : [1 P7 a7 X8 H8 G4 b) e1. Minimum Sector Altitudes. Altitudes de‐# t. t: p6 S `4 Q picted on approach charts which provide at least% o E4 P$ R5 {3 }: Q 1,000 feet of obstacle clearance within a 25‐mile' ~1 h" h" h- s7 v& t radius of the navigation facility upon which the* Q' V+ R* [' N* i procedure is predicated. Sectors depicted on3 w2 T4 ?) P y) q approach charts must be at least 90 degrees in scope. - I( Y2 `& H7 T* K; `6 xThese altitudes are for emergency use only and do not 9 j6 `! B# R2 j& [( o0 y, fnecessarily assure acceptable navigational signal " F' e6 C S$ [7 x. wcoverage. 2 H1 Z" X; k5 K2 m(See ICAO term Minimum Sector Altitude.) 6 Z8 ^1 X, F% O2. Emergency Safe Altitudes. Altitudes de‐ / h6 I" A. s5 t& v' f" r5 ^picted on approach charts which provide at least# B( r- q$ s$ R5 E 1,000 feet of obstacle clearance in nonmountainous( A9 t: G) _" A. I' y2 c: j. X4 u areas and 2,000 feet of obstacle clearance in 9 a {( U0 r' s l5 ~/ bdesignated mountainous areas within a 100‐mile ' H6 |/ I W' d* X; B" t5 F' cradius of the navigation facility upon which the 1 _8 o e% h9 H: @: m2 d. Oprocedure is predicated and normally used only in + U2 `1 N, G$ U1 C0 x7 q! ^$ v' Imilitary procedures. These altitudes are identified on ' }, J# J( v% y9 Ipublished procedures as “Emergency Safe Alti‐ # Z, x8 s: ?' {: Atudes.”2 O1 o! I- l8 B/ `9 L MINIMUM SAFE ALTITUDE WARNING- A, b, M" K+ O. Y6 Z function of the ARTS III computer that aids the' N# f: V2 D5 v! g9 |+ Q3 k7 I controller by alerting him/her when a tracked Mode' v3 [. e- O( Q3 o C equipped aircraft is below or is predicted by the3 d9 {1 l' r/ g$ R3 S* _ computer to go below a predetermined minimum safe" @9 I; H- Q. K$ i; r altitude.7 d% n, S3 h% F6 E1 m+ N (Refer to AIM.)5 B1 J2 N. w: n( H7 k/ K6 k MINIMUM SECTOR ALTITUDE [ICAO]- The' n) t2 T0 i/ P% N2 ~ lowest altitude which may be used under emergency . s! D! t8 K; u- \* ]5 c8 ]conditions which will provide a minimum clearance # n( B. ]' K; O. Sof 300 m (1,000 feet) above all obstacles located in6 _$ }! N+ V2 n an area contained within a sector of a circle of 46 km3 K# l T* }9 v T (25 NM) radius centered on a radio aid to navigation.: Y2 k7 P% M3 b' ^( F, N$ P MINIMUMS- Weather condition requirements 9 X% n) w3 P4 x" Q |& ?. c( qestablished for a particular operation or type of % A5 X$ i' }& L7 Y) j. T$ G, VPilot/Controller Glossary 2/14/08 " {7 ~6 U5 z: x* Z8 x4 }3 sPCG M-5, L$ ?) K# x ]+ C operation; e.g., IFR takeoff or landing, alternate - i. a' t- o! z: Q% ^" f6 f qairport for IFR flight plans, VFR flight, etc.' f& N9 G7 ^* y" s4 m6 b( @ (See IFR CONDITIONS.)* q; ^5 T7 Z$ Z& x- Q3 p8 s (See IFR TAKEOFF MINIMUMS AND. A. z$ Q! r+ l- B DEPARTURE PROCEDURES.) W1 ~& @/ \5 s* Y" r(See LANDING MINIMUMS.) % }7 |2 `( {' {(See VFR CONDITIONS.) 3 ]2 @( i% [9 i5 i0 U: S(Refer to 14 CFR Part 91.) ; g9 d' n9 x) D9 ]1 r(Refer to AIM.)5 M7 G3 S4 w1 v9 c. J/ \8 g MINIMUM VECTORING ALTITUDE (MVA)-2 X3 H! x, l' Q& L# ^9 \ The lowest MSL altitude at which an IFR aircraft will1 g4 K" C6 @. A/ N! O* R- ~4 A* d be vectored by a radar controller, except as otherwise! ]8 }) `& d! Y2 N authorized for radar approaches, departures, and( j6 ]2 M2 `1 d- [1 W missed approaches. The altitude meets IFR obstacle$ e& e0 c) A) @$ Z2 F3 f" ?* d/ I clearance criteria. It may be lower than the published( l- Z+ f/ @3 r5 T/ o9 z; o MEA along an airway or J‐route segment. It may be! Y3 u- ^3 s9 `+ } utilized for radar vectoring only upon the controller's & [% C! ?8 m+ G' m! ] Odetermination that an adequate radar return is being 9 A. ~1 ?' F2 F7 x5 X* \+ greceived from the aircraft being controlled. Charts" N- A1 c$ l, o! F, O depicting minimum vectoring altitudes are normally ' s) g8 E) I/ `5 `0 N; B1 mavailable only to the controllers and not to pilots.& V* R- N( L' u5 {! |% b; B; S (Refer to AIM.) 2 i; N; L7 G$ }0 \, }* KMINUTES‐IN‐TRAIL- A specified interval be‐ $ k+ M. ~" h/ y! {: Stween aircraft expressed in time. This method would + M. t0 w2 |; s6 o" Smore likely be utilized regardless of altitude.5 Q4 i( r$ J7 ?) G MIS(See METEOROLOGICAL IMPACT " }3 ~9 L; V, S# zSTATEMENT.) 3 j- Y5 t) }3 S0 P: N) h! } Z! WMISSED APPROACH- 1 h4 R" e5 ]: f: ma. A maneuver conducted by a pilot when an 1 L- Q' O7 i( |" r: s8 rinstrument approach cannot be completed to a ( v6 m5 w9 f: J4 N5 n4 D1 mlanding. The route of flight and altitude are shown on + G8 D! s: o8 V, t0 p0 {instrument approach procedure charts. A pilot4 [3 f; o+ F+ ]' F6 f7 v, c executing a missed approach prior to the Missed4 c0 k5 @* ] V* j1 v- I; H3 g" \ Approach Point (MAP) must continue along the final " x, k! L" Z1 O3 Japproach to the MAP. ' ?! K! s/ h d' U% {b. A term used by the pilot to inform ATC that1 s! y9 [& G" ` he/she is executing the missed approach.- |9 ^8 s* K# y# }7 J8 F: O6 ~ c. At locations where ATC radar service is4 u; ? Z$ d3 q0 `' | provided, the pilot should conform to radar vectors7 D) s3 U7 ]. ^$ `6 ~ when provided by ATC in lieu of the published/ S: C5 V) M% ` missed approach procedure.- V% B6 E$ J0 B (See MISSED APPROACH POINT.) 2 L3 s8 ~& Z' |7 }& `0 U(Refer to AIM.) " Q+ Y% T$ f# }( kMISSED APPROACH POINT- A point prescribed 3 o K/ V2 w+ U/ Vin each instrument approach procedure at which a7 H) T E$ u6 T' U! A1 I: n missed approach procedure shall be executed if the ! P: L3 m+ T9 M( t# brequired visual reference does not exist.- ^, H r- V$ R D) @ (See MISSED APPROACH.)* {' X- a! O- ` @ ~2 h (See SEGMENTS OF AN INSTRUMENT : S8 R. `9 Q3 n0 Q! {: a9 XAPPROACH PROCEDURE.) 6 H2 V2 n w/ nMISSED APPROACH PROCEDURE [ICAO]- The J+ ~$ p9 \- I6 J. @ procedure to be followed if the approach cannot be5 s; |7 s- b: ~& t3 W continued.+ N7 g+ C* E0 o0 F* x9 g2 F0 z: C MISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT3 X$ N0 P" e; T+ N APPROACH PROCEDURE.) % J9 ~+ f$ @( S6 R" X( ZMLDI(See METER LIST DISPLAY INTERVAL.) v: ^+ ~4 _ Z o( u6 k MLS(See MICROWAVE LANDING SYSTEM.) 2 E. N& ^% n8 x" Y. mMLS CATEGORIESa. MLS Category I. An MLS approach procedure & s/ s2 m$ m& S. d) Swhich provides for an approach to a height above ! X/ O' I, E% v! T2 g( h, T# J6 q# Mtouchdown of not less than 200 feet and a runway3 c& J! j0 j- J$ s6 x J9 \1 _ visual range of not less than 1,800 feet. ; J( v% b. y) o3 C9 u4 j1 C" eb. MLS Category II. Undefined until data gather‐! n4 C) q( @; f7 V% v ing/analysis completion./ c; [# q0 e$ O9 \5 L: \; Z c. MLS Category III. Undefined until data0 |3 T$ b" \: O' o' n3 l gathering/analysis completion.) k) y4 ~7 w3 d" K4 d& E) E MM(See MIDDLE MARKER.) m6 Z4 N( g9 _# ]3 o# q9 P2 |' p1 LMNPS(See MINIMUM NAVIGATION PERFORMANCE: H4 c" A1 V2 N% i- Q SPECIFICATION.)" m9 o9 b2 _- \# v0 ]$ W# @1 E MNPSA(See MINIMUM NAVIGATION PERFORMANCE-6 Y ?5 ?" H# i0 T' K1 j5 n+ u SPECIFICATION AIRSPACE.) ) Q, R" Y& Y0 V: i; {1 }MOA(See MILITARY OPERATIONS AREA.) 7 _: Y: m1 h7 QMOCA(See MINIMUM OBSTRUCTION CLEARANCE- `' d3 o) A1 N. p ALTITUDE.)4 l7 d Z4 e# I8 a MODE- The letter or number assigned to a specific - I0 M" D' I8 I. C7 xpulse spacing of radio signals transmitted or received6 [% [9 R% L; g8 g by ground interrogator or airborne transponder' o. R* x- I' D9 y components of the Air Traffic Control Radar Beacon ( R& C% P* Y. W/ O2 `: JPilot/Controller Glossary 2/14/08- O, m1 }( j/ |1 l% Y5 M PCG M-6+ c" T% Q6 N/ F/ Y System (ATCRBS). Mode A (military Mode 3) and 0 R' i. S' ]+ S* YMode C (altitude reporting) are used in air traffic , J$ {0 z2 W- ?* z" K& Gcontrol.1 W( g+ u! D/ Z (See INTERROGATOR.): q# K6 c. b& K( k5 X (See RADAR.) ! Z/ D4 @0 I2 p7 o l(See TRANSPONDER.) ( s; Y1 o; n/ g8 K% g(See ICAO term MODE.) 8 c. D& j9 V) W. N(Refer to AIM.) 6 o" A% Q; \ N+ S* F( fMODE (SSR MODE) [ICAO]- The letter or number , [1 T! Q2 n: n4 N2 e/ q% uassigned to a specific pulse spacing of the6 o# n6 K: |. A( v _% l interrogation signals transmitted by an interrogator. R- ^9 z! y" S$ m# ^. m; N+ z( C; zThere are 4 modes, A, B, C and D specified in Annex , [$ O1 e. u8 j, N8 j- n) [. _10, corresponding to four different interrogation2 N+ U7 {3 b5 v" h- w$ i9 ?/ o! ~ pulse spacings.. i% p4 T6 ~7 D v, B: T( }3 _ MODE C INTRUDER ALERT- A function of- g8 j+ e0 v' m5 U2 H$ g, R certain air traffic control automated systems designed % z& u. }, K$ v. wto alert radar controllers to existing or pending 9 _$ M1 s+ \: r* L- v( g/ G" |7 Psituations between a tracked target (known IFR or & J' C v+ m; S w% _VFR aircraft) and an untracked target (unknown IFR * m8 o" z. U1 i5 o f8 wor VFR aircraft) that requires immediate attention/ 2 U$ x0 U" r( i" b3 oaction.. Z, n% n# m9 y (See CONFLICT ALERT.)

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MONITOR- (When used with communication % v: _4 ?, N* ?transfer) listen on a specific frequency and stand by ; P" X0 [8 `% q$ z, vfor instructions. Under normal circumstances do not : [- m( u: I( v( |/ ]) `* ]establish communications. : Y m d( B; IMONITOR ALERT (MA)- A function of the ETMS6 L: N! p& M2 w6 F9 F that provides traffic management personnel with a- J+ B! n5 C% i* t0 Y0 v; l tool for predicting potential capacity problems in 4 Z6 g/ p' L- q0 X- C7 ]individual operational sectors. The MA is an$ \" P( j/ G8 V6 T: J# B indication that traffic management personnel need to4 \. Q6 `: E$ g/ c3 G- \$ m analyze a particular sector for actual activity and to; A) g5 u" r) H1 ]- s7 X determine the required action(s), if any, needed to C/ n* ~! ]6 P/ | control the demand.* u# n0 D& i9 Y5 w9 W$ ` MONITOR ALERT PARAMETER (MAP)- The1 r: ~# h2 T, }6 p' l2 V. [: c% f# Z5 E number designated for use in monitor alert / F0 l3 {, v) u9 i1 f# A( yprocessing by the ETMS. The MAP is designated for 5 c& M8 x1 B8 j: w+ ueach operational sector for increments of 15 minutes. ) {* x6 E0 a0 m7 f% S% s6 h! XMOSAIC/MULTI-SENSOR MODE- Accepts posi‐ ) M0 D( ^" ?' f1 s; u) ytional data from multiple radar or ADS-B sites.- I, d6 B- X- _3 k7 ~% ~ Targets are displayed from a single source within a* L1 {$ B$ g0 N9 G/ N# [7 ? radar sort box according to the hierarchy of the+ b7 C1 j y# F4 k+ A0 @ sources assigned. & S1 M$ b. s! M! N% N3 O$ hMOVEMENT AREA- The runways, taxiways, and; H, J; v6 ]3 j' D: J6 L7 f# @/ ~ other areas of an airport/heliport which are utilized : \* i2 Q) ^% i! V, D! @) ^' A) mfor taxiing/hover taxiing, air taxiing, takeoff, and, \, T7 t+ c* |: j* J9 h5 f \ landing of aircraft, exclusive of loading ramps and / o( e# m" [: n4 lparking areas. At those airports/heliports with a ( R- `( E5 G) U" x/ a8 H8 ]tower, specific approval for entry onto the movement ' O0 k) o7 a3 e0 B6 Yarea must be obtained from ATC. 8 H1 K3 w* U" z1 Y3 k, }(See ICAO term MOVEMENT AREA.) - T9 P" v+ ~( e. e5 w; u8 X/ hMOVEMENT AREA [ICAO]- That part of an; v3 b. S" F# L/ l. W" }8 I, b1 D aerodrome to be used for the takeoff, landing and . K/ O" m# ^9 l0 qtaxiing of aircraft, consisting of the maneuvering area ]$ u: @3 N. V9 L8 Q' `/ ?( v7 Mand the apron(s). ' U. }, U7 T9 y4 SMOVING TARGET INDICATOR- An electronic* ~$ H" _" |% @- y* ` device which will permit radar scope presentation ! u! }& w& v: {$ S4 ^+ V, Uonly from targets which are in motion. A partial : z: M# Y' t9 bremedy for ground clutter. p& u" c5 T. }$ G MRA(See MINIMUM RECEPTION ALTITUDE.) % R! G) g$ W% y( i. C9 |( yMSA(See MINIMUM SAFE ALTITUDE.). ~7 _0 v) V5 {( X# x+ q MSAW(See MINIMUM SAFE ALTITUDE WARNING.) ; \, Q1 m q! P6 I: e& u$ BMTI(See MOVING TARGET INDICATOR.) & z$ p3 M5 }& j. E) a8 |MTR(See MILITARY TRAINING ROUTES.) x6 i+ T& G* J. M7 ]9 d6 Z MULTICOM- A mobile service not open to public1 ]1 }# w9 i6 Y) ]1 V correspondence used to provide communications ( v# w& F- Y( k, T% P' V* w. lessential to conduct the activities being performed by / V+ K5 s$ ?! m' ?' d% x4 U# Uor directed from private aircraft. 6 ?3 a& ]: \- [& @/ w5 S8 K) O- kMULTIPLE RUNWAYS- The utilization of a ' P) |& E# s& W& h3 J" f' Z* x6 Idedicated arrival runway(s) for departures and a 4 p0 K( F9 p; O( f% idedicated departure runway(s) for arrivals when& m5 B1 H4 J4 B( a feasible to reduce delays and enhance capacity. . p0 J6 F, M# ~0 x( `8 d4 YMVA(See MINIMUM VECTORING ALTITUDE.)" _1 h- I! H @" Z) j8 j Pilot/Controller Glossary 2/14/08 : O3 |1 Y; ^, Y, uPCG N-1- |. \. c3 G' N0 c$ z2 v, z( ^ N ! R5 Y5 S$ j2 N2 G, ANAS(See NATIONAL AIRSPACE SYSTEM.) , @; l8 ?# |3 T3 VNATIONAL AIRSPACE SYSTEM- The common( P4 F, q. y* C/ |% ?8 k4 C network of U.S. airspace; air navigation facilities,, w5 A( s- p) O4 q1 a% K equipment and services, airports or landing areas;; t* T1 [; A3 w! A0 {2 l. Q g aeronautical charts, information and services; rules,0 r3 s% B2 h6 b4 f! I9 D4 H regulations and procedures, technical information, ! x9 w% m- R! \5 L2 d5 u3 F! tand manpower and material. Included are system" ~2 v" D' a/ l+ e } components shared jointly with the military.0 l3 I* S5 j( X" ]9 G1 S% Y. \ NATIONAL BEACON CODE ALLOCATION: \. E; v0 @. U( Z PLAN AIRSPACE- Airspace over United States' e7 a) T9 v4 f2 U `+ B! P territory located within the North American continent& G f6 g! S# g$ [8 S( h between Canada and Mexico, including adjacent0 V' o0 [+ H+ [( ]. q, Y territorial waters outward to about boundaries of & d) c. A0 \8 b6 ?4 ooceanic control areas (CTA)/Flight Information ' X0 a5 Q$ K& Z8 ?: n5 d2 b: kRegions (FIR).% E- g, x6 R; O- P1 i' m4 ^ (See FLIGHT INFORMATION REGION.) # Z* e( O$ N* N" j+ h* l; ~4 ONATIONAL FLIGHT DATA CENTER- A facility in ( A- }- L& u# T, o& hWashington D.C., established by FAA to operate a * X% V6 Q8 x' U- q9 Q& U- Kcentral aeronautical information service for the6 J/ y+ d4 D j# ^3 c% i collection, validation, and dissemination of aeronau‐ ; g+ j" X1 \# r* g7 E. \tical data in support of the activities of government,( u D: Y% q4 w7 B" U' u/ v W industry, and the aviation community. The informa‐5 Y$ Z E0 v/ o1 V# e2 L tion is published in the National Flight Data Digest. 7 b1 w; d2 X& v(See NATIONAL FLIGHT DATA DIGEST.) " ]9 h: q! \- o0 |NATIONAL FLIGHT DATA DIGEST- A daily' h) P" R, X, ~. g9 \7 I (except weekends and Federal holidays) publication / c8 \' y9 C( A" Y/ f/ t$ ]4 q' q# ?5 Fof flight information appropriate to aeronautical+ A; ~6 `- c8 [/ r) A! a1 u* V charts, aeronautical publications, Notices to Airmen,) o! F# g R# H or other media serving the purpose of providing+ e4 P, J8 w$ Q operational flight data essential to safe and efficient$ [' ^: \" ~2 l4 f5 [ aircraft operations. # [) A% L8 _# D5 H- U- \' g6 MNATIONAL SEARCH AND RESCUE PLAN- An 7 w& O$ }1 H( B0 R; _( j0 hinteragency agreement which provides for the 5 k- M& i. H- f# u- r4 Yeffective utilization of all available facilities in all ( j+ L7 i2 f- |8 l5 Ttypes of search and rescue missions.! x/ y- }1 i4 U7 m- n1 _* U NAVAID(See NAVIGATIONAL AID.)/ g" Z( E7 A( E. G NAVAID CLASSES- VOR, VORTAC, and TACAN 8 g$ w/ q- w: D% V0 z+ V/ Daids are classed according to their operational use. + l( z; B% C: d! ^. M; MThe three classes of NAVAIDs are: ) }- q5 z. y5 x0 ? t2 Qa. T- Terminal. / |& P( G) J3 U1 d$ \5 sb. L- Low altitude.; [* c! Q+ m8 R4 n c. H- High altitude.& O0 v) h) Z/ _, _9 G Note:The normal service range for T, L, and H class6 x0 n+ c3 [: ^% d8 n4 `* {1 H2 W: Y aids is found in the AIM. Certain operational' z) `4 O2 t" j+ H5 S) m1 \; Q' e requirements make it necessary to use some of, Y" J4 E) s B& Y* T5 h these aids at greater service ranges than 0 }. K/ Y9 P+ t3 W! {/ q5 S& j8 h$ ospecified. Extended range is made possible' K5 P9 I% r4 _# j V2 [ through flight inspection determinations. Some9 c& m1 c/ w7 V3 W* x aids also have lesser service range due to location, 8 B) o: S) N: b; [1 e. {4 U' L @! V8 mterrain, frequency protection, etc. Restrictions to8 G( C1 {6 a- ]: I service range are listed in Airport/Facility 3 P. @' t G# U8 GDirectory. 0 c2 G( Y4 z- |( J9 ENAVIGABLE AIRSPACE- Airspace at and above- {' t/ T0 a. A the minimum flight altitudes prescribed in the CFRs) ? z8 {* i0 E- A3 [% B including airspace needed for safe takeoff and 5 P2 ~1 T: b3 E4 x( t, tlanding. " J) `! M& c1 t0 g$ v(Refer to 14 CFR Part 91.)6 R1 w5 M% x) V8 W( _' ~6 m NAVIGATION REFERENCE SYSTEM (NRS)-3 ?7 _; `9 i5 `! w" T The NRS is a system of waypoints developed for use ; W; ~2 U7 U: y% r K' qwithin the United States for flight planning and) M* W$ D: h" `6 f7 |: T navigation without reference to ground based ' r+ B! v2 F" C& z) k: ]navigational aids. The NRS waypoints are located in $ s3 ^ {0 p+ } t1 g* I7 y) fa grid pattern along defined latitude and longitude% Y1 x8 l3 }9 S lines. The initial use of the NRS will be in the high6 Y$ \- A/ ^& h, P9 S altitude environment in conjunction with the High. t( W7 Z. L ?5 W Altitude Redesign initiative. The NRS waypoints are 5 r6 ^& a) Z$ R7 W; M$ Rintended for use by aircraft capable of point-to-point) [4 g- A: Q1 e; u) J9 m! n' M Q- a navigation. 3 H! n. P# o9 ]2 }* HNAVIGATIONAL AID- Any visual or electronic - m7 j6 r: O' }' A4 c* k7 g' edevice airborne or on the surface which provides ' F( B( X5 t& x3 J9 M+ Q/ Kpoint‐to‐point guidance information or position data % e5 O1 d w& p2 p! V4 s) oto aircraft in flight. % F1 B9 @- n: ?(See AIR NAVIGATION FACILITY.) 8 d q4 J. o" o# [: X# y7 RNBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION+ `, S m' F, u: X& O- H, e4 s6 F; \0 n PLAN AIRSPACE.): c6 B: l9 o( J( n NDB(See NONDIRECTIONAL BEACON.) - j ?' ?% F; C* z. yNEGATIVE- “No,” or “permission not granted,” or 4 Q4 z" ]5 ]1 s“that is not correct.” ) f i. q5 K4 n- V# r- C) H% a0 ENEGATIVE CONTACT- Used by pilots to inform $ T& {* e, F; M- `; i" |4 GATC that:7 j$ x9 K* I. ] a. reviously issued traffic is not in sight. It may5 l$ ~, d R- D9 ~3 _% c be followed by the pilot's request for the controller to % Q# b4 N: _0 T' Q1 {provide assistance in avoiding the traffic./ f5 a- M" A4 n" m b. They were unable to contact ATC on a 0 G/ W3 W5 C3 y* |particular frequency. 5 R( x1 {) ?/ d8 Z: T' sPilot/Controller Glossary 2/14/08 ' Y$ {+ K( [! z( a. O( VPCG N-2; @ \4 k, i0 Q% {) r5 j' S$ v% b$ O NFDC(See NATIONAL FLIGHT DATA CENTER.) - C' b* k/ ~" s# ^: ^NFDD(See NATIONAL FLIGHT DATA DIGEST.) / P9 J# N* e2 k* }2 I) o, ^NIGHT- The time between the end of evening civil - F! K, V' b1 T7 s4 ntwilight and the beginning of morning civil twilight, / m# K3 u, `. r2 p( ias published in the American Air Almanac, converted F3 R- j- `% d. O4 K, U: I f/ ?- _to local time. / ~, s, Q/ S Q2 {2 F7 `(See ICAO term NIGHT.)0 E% J( l8 ]% I( E) C NIGHT [ICAO]- The hours between the end of 2 ] w& T2 w/ H% pevening civil twilight and the beginning of morning 9 d! }7 f0 `& Lcivil twilight or such other period between sunset and# a2 A$ ?+ {( |! o; w* E sunrise as may be specified by the appropriate 4 l# k% P$ H% s" nauthority. " |2 s9 X6 b/ YNote:Civil twilight ends in the evening when the; w6 A V4 D, A$ i7 A' A center of the sun's disk is 6 degrees below the : ?& L" z( j% |% A5 E* c$ ]horizon and begins in the morning when the center . |! k* q" t' dof the sun's disk is 6 degrees below the horizon.; K/ g5 ?' `3 p, z9 e9 r NO GYRO APPROACH- A radar approach/vector, J4 J. }0 @2 W V# t# @/ c& ? provided in case of a malfunctioning gyro‐compass: Q; Y1 `" D' I; b( v! |/ o( K or directional gyro. Instead of providing the pilot: u% i) k$ }' l( g D$ m with headings to be flown, the controller observes the 8 B. F0 g. P+ c" H! Nradar track and issues control instructions “turn & O6 k% ]3 _4 j7 k" W8 h, Cright/left” or “stop turn” as appropriate. 6 l3 n# h3 L- z3 @(Refer to AIM.) 3 W: k9 J4 G+ z' P: i% e' _NO GYRO VECTOR(See NO GYRO APPROACH.) 8 T7 G! T( R6 H* l+ hNO TRANSGRESSION ZONE (NTZ)- The NTZ is / ~$ X5 Q6 k) l H. ?3 {. B: j# ka 2,000 foot wide zone, located equidistant between 7 v2 U& T$ |: D P* P! F* Dparallel runway final approach courses in which; c& ]" t) P1 y! y5 t9 ~' r flight is not allowed.# n. Z; v7 g- b0 J9 } NONAPPROACH CONTROL TOWER- Author‐ " y' h3 p" ?0 x, x! p3 | X1 Q- Lizes aircraft to land or takeoff at the airport controlled. p& H' c7 m9 U! e by the tower or to transit the Class D airspace. The# x* J" N5 Z( _2 n5 R primary function of a nonapproach control tower is ( U }3 A0 `9 @# ?7 `the sequencing of aircraft in the traffic pattern and on . c1 ] W. m U+ j0 @6 W* @9 Q$ p6 ithe landing area. Nonapproach control towers also0 L: A' d! \% Q8 ~- q' ~ J separate aircraft operating under instrument flight1 |/ `8 g) X! Y; M9 o8 A( Y rules clearances from approach controls and centers. 5 s# g3 L+ t [2 _. P% L; ]2 [9 }/ wThey provide ground control services to aircraft,: B+ A8 V1 q3 o5 s3 Q; J+ Y+ V4 n$ \* U# F vehicles, personnel, and equipment on the airport; {1 ^6 I5 C7 q: Q( R( f$ ^ movement area. : P- ?7 r0 C- nNONCOMMON ROUTE/PORTION- That segment- h! r. |+ `0 E- l- D0 g of a North American Route between the inland 8 J$ W/ O. |! L% p- S% Znavigation facility and a designated North American : k$ ], c$ I3 M6 k! }2 ]terminal., Y4 C) {; [7 O" k$ X/ Q NONCOMPOSITE SEPARATION- Separation in 7 q. I! Q' E* \/ waccordance with minima other than the composite # I: I( F$ X* G) r- p7 zseparation minimum specified for the area con‐ W8 J8 P* s+ @' ?4 [cerned.6 A9 P0 s, F, s% M( \ y NONDIRECTIONAL BEACON- An L/MF or UHF7 s6 P, K3 I( U( T radio beacon transmitting nondirectional signals) w' k4 S, k+ M2 B2 e i. y whereby the pilot of an aircraft equipped with * g7 U$ m$ @" i! Odirection finding equipment can determine his/her 9 z& l& G2 {* ~5 N. B8 w) b. _bearing to or from the radio beacon and “home” on or3 r2 L2 L2 t+ K: a track to or from the station. When the radio beacon is & f: L' b5 Z+ p9 J7 [5 uinstalled in conjunction with the Instrument Landing0 l3 ?1 \' d4 h0 I5 d6 A System marker, it is normally called a Compass1 }$ ?) |& I: t) u" K5 B Locator. # R$ g$ q2 k( |: S(See AUTOMATIC DIRECTION FINDER.) ) ? z; K f7 V- P(See COMPASS LOCATOR.)

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