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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‐ 0 v& |- {9 l2 r, r: `: wing aircraft in a composite route system where, by* M: x% u1 }. M: x management of route and altitude assignments, a7 J5 A- U1 d% v: G/ V combination of half the lateral minimum specified for$ D, g* g* h& D; w2 Z the area concerned and half the vertical minimum is. Z& @" Z1 L3 S) Y' O applied.+ q3 M( N. F2 n% I9 T/ k. ~ COMPULSORY REPORTING POINTS- Reporting 3 T6 v& p0 F% c" y+ m! v" O8 epoints which must be reported to ATC. They are- s s+ a( C* p2 h! _ designated on aeronautical charts by solid triangles or # S2 |& L9 \4 v0 H4 b+ H1 U% g6 s- ]6 Qfiled in a flight plan as fixes selected to define direct $ _4 z: O7 q; b5 r( \; h- sroutes. These points are geographical locations3 h# v$ w4 W! O7 u7 f8 @# | which are defined by navigation aids/fixes. Pilots2 }0 e' D5 q7 _7 N. Z should discontinue position reporting over compul‐- n2 t4 @4 Q. f* k7 N/ k sory reporting points when informed by ATC that 4 g8 S1 \% V! P3 ^their aircraft is in “radar contact.”7 c! q1 U1 y/ I6 i6 V( f CONFLICT ALERT- A function of certain air traffic ' ] T( K. T3 z0 ~/ [! l$ z: `control automated systems designed to alert radar9 a& A, M. B- l( I' v controllers to existing or pending situations between% `. h" a! u/ ` tracked targets (known IFR or VFR aircraft) that p1 Y( N2 l3 O" ?! S, r require his/her immediate attention/action.6 f7 s! U( W, ]6 ]6 i2 c (See MODE C INTRUDER ALERT.) & B& {/ r5 l7 C7 zCONFLICT RESOLUTION- The resolution of) @& Q$ X5 x5 I& y2 l7 [; c$ B potential conflictions between aircraft that are radar" R9 k! Z. X; ?1 G$ _ identified and in communication with ATC by! u. ]' E, G8 Q2 L2 j* F' d ensuring that radar targets do not touch. Pertinent , H: m$ M# p- L5 qtraffic advisories shall be issued when this procedure s( s4 }, y/ L% {; F3 tis applied. 0 C# A- u$ C1 v+ Y5 S$ }Note:This procedure shall not be provided utilizing 7 D" h- R# Z% bmosaic radar systems. 3 y5 s& f9 H5 j2 E, N: ~CONFORMANCE- The condition established when , ` X. R/ m1 F h V" ?7 |; ran aircraft's actual position is within the conformance $ }7 H" R, S8 ?7 E( B2 I3 nregion constructed around that aircraft at its position," V: I* l: U8 W2 `% Y4 U according to the trajectory associated with the - A5 S6 K% {3 x( Z7 Uaircraft's Current Plan. + @ O% C+ Q/ D |) s/ U7 \2 JCONFORMANCE REGION- A volume, bounded7 t- s- f2 f# {$ U5 q* V laterally, vertically, and longitudinally, within which ; m( v: b" Y, K, }7 \7 c3 T3 Fan aircraft must be at a given time in order to be in( ^. R- u! M9 h+ G7 c) y0 a/ B conformance with the Current Plan Trajectory for that " ~$ O% M1 A3 S _) Z: ]3 Laircraft. At a given time, the conformance region is 2 E3 s0 W8 u4 Wdetermined by the simultaneous application of the % d- ?/ m; R, V( z; c6 rlateral, vertical, and longitudinal conformance6 G9 G x7 [) y; M/ V! @* F$ T bounds for the aircraft at the position defined by time( {6 X( |$ c0 w) z# ` and aircraft's trajectory.: j: o5 u3 }" Y4 N; U0 g% R CONSOLAN- A low frequency, long‐distance # I, V0 P3 K8 ^' ~NAVAID used principally for transoceanic naviga‐ % p+ F g3 H& h9 @3 X. ~4 D7 q: ?tions.8 y9 c4 o- ^5 w- m; p CONTACTa. Establish communication with (followed by the0 f5 Y, g9 _' c. j9 _, i6 a name of the facility and, if appropriate, the frequency: e$ ?0 w! f) n/ P# a, q. \6 t9 b to be used)./ m3 u9 S0 H1 D b. A flight condition wherein the pilot ascertains ' I3 W( m5 J- M3 cthe attitude of his/her aircraft and navigates by visual 0 g& |/ |! H2 M! f7 t" ?, }1 Freference to the surface. $ \! V+ J) E* W, m* E# h k(See CONTACT APPROACH.)) C1 \! |" U8 Q$ N (See RADAR CONTACT.) + r; D4 u6 {- f ~" q6 d1 OCONTACT APPROACH- An approach wherein an , G3 k, W8 e# `* T& b6 zaircraft on an IFR flight plan, having an air traffic 1 R4 X3 k/ U+ O1 L7 ycontrol authorization, operating clear of clouds with" I. H# x% _5 N" ]5 m at least 1 mile flight visibility and a reasonable9 w; z: b( u4 o; ~4 e' R* _ expectation of continuing to the destination airport in / c: t: {2 | Rthose conditions, may deviate from the instrument 9 g- l r/ t1 r" aapproach procedure and proceed to the destination" K6 X4 n" W' ^# I: R airport by visual reference to the surface. This+ q* w7 V! U% A approach will only be authorized when requested by! i: w+ E q9 C1 H3 S& h- |7 N the pilot and the reported ground visibility at the ( ?3 ^& X1 M' Z0 Q1 l# h @destination airport is at least 1 statute mile.( H' ]3 I* [/ r (Refer to AIM.)5 x' E( F: S. ]0 d1 X CONTAMINATED RUNWAY- A runway is! B0 P9 w3 c& m2 {! s: B considered contaminated whenever standing water, , Y! Q* W) G# l( \ice, snow, slush, frost in any form, heavy rubber, or & s5 ]9 T! M( sother substances are present. A runway is contami‐" X% J5 z% v j, D" b* } nated with respect to rubber deposits or other ; z2 V, o, a) b% y1 Z2 Y& Xfriction‐degrading substances when the average% t% _( B0 u b friction value for any 500‐foot segment of the runway1 p+ _6 T/ m0 e1 b6 Z within the ALD fails below the recommended ( r( V. Q: O: w/ T$ [2 {% Xminimum friction level and the average friction value! V7 E' S1 w9 J7 O3 V in the adjacent 500‐foot segments falls below the) X4 s4 t* R& R" B maintenance planning friction level.0 \" A' H3 I8 X8 Z CONTERMINOUS U.S.- The 48 adjoining States 1 z% Z1 M2 ^$ T* o6 @and the District of Columbia. . V+ k; }. F; F& r% ?* YPilot/Controller Glossary 2/14/08 : r l7 r5 ~& IPCG C-6 1 k2 Y/ J$ a; ~' ^) S K" oCONTINENTAL UNITED STATES- The 49 States ( W( `3 L. j. |$ Dlocated on the continent of North America and the 4 {; C5 A: N/ g, p+ oDistrict of Columbia. ; w1 K' f2 M0 |; P9 hCONTINUE- When used as a control instruction 9 M9 q+ F9 a( B# G' n; O- @should be followed by another word or words & L4 W* y/ u) m9 @8 fclarifying what is expected of the pilot. Example: 9 s* N/ h+ [/ e“continue taxi,” “continue descent,” “continue 8 }" N6 s" s# [9 ]inbound,” etc. / \( \9 B5 e6 q* ^4 D( w9 LCONTROL AREA [ICAO]- A controlled airspace , C: p& X( S8 ?* V- `! uextending upwards from a specified limit above the $ Z* H8 R; i9 f) Mearth. , g% f% T* G9 c( _1 ^+ U+ T: M5 gCONTROL SECTOR- An airspace area of defined . V( \" ^8 h+ k3 W$ B" O5 w( \horizontal and vertical dimensions for which a4 g; j* h: F- f! U! n i# g2 T1 S controller or group of controllers has air traffic 7 p; A& U) O1 d6 e6 T# Y" V, W7 zcontrol responsibility, normally within an air route6 z3 \7 d3 M' R traffic control center or an approach control facility. : u$ |' A5 C& u8 r7 uSectors are established based on predominant traffic7 u$ D/ j1 B4 F flows, altitude strata, and controller workload.* ^- U# ]( x8 k% c Pilot‐communications during operations within a 2 U! F, `; {: r6 `8 x9 D! Usector are normally maintained on discrete frequen‐, S8 ^6 W4 J3 A2 |3 p cies assigned to the sector. + h- ?1 [* Z8 \ A(See DISCRETE FREQUENCY.)/ O6 t8 ^- m: K k. j CONTROL SLASH- A radar beacon slash repre‐, m2 f' K) I' d# k& q) L senting the actual position of the associated aircraft.* s) s+ z, b- C- A* {. V* R9 P3 ?) f Normally, the control slash is the one closest to the6 {2 J7 C! j0 h8 B1 |/ Y, z. @ interrogating radar beacon site. When ARTCC radar; O* h7 m2 j( ^ F" N is operating in narrowband (digitized) mode, the! f( g4 h5 X B: L3 k control slash is converted to a target symbol. 5 n+ \: Q# v6 n9 ^3 Q3 {/ T! k* }CONTROLLED AIR SPACE- An airspace of1 @/ t( c1 J5 k* j; X$ ], V8 L defined dimensions within which air traffic control/ C# M( M$ f( p1 X/ O service is provided to IFR flights and to VFR flights+ H/ i7 b% K8 \, O5 x, T in accordance with the airspace classification. ( C7 h- ?$ D; La. Controlled airspace is a generic term that covers0 G* }! r9 F" ]! t. t Class A, Class B, Class C, Class D, and Class E ! ?5 z q6 z7 c% xairspace.6 e: Y0 f) v/ i b. Controlled airspace is also that airspace within+ I- _) E" K5 [9 @ which all aircraft operators are subject to certain pilot% `& p& S: z% R/ ]* ?" q1 n; } qualifications, operating rules, and equipment: J# [7 A9 F; R1 q requirem ents in 14 CFR Part 91 (for specific # a0 g1 c( ]+ z6 u* t! q5 R; Woperating requirements, please refer to 14 CFR+ X4 j8 M/ q5 T3 m Part 91). For IFR operations in any class of controlled& N( ~: H9 w) ~9 D7 C- ` airspace, a pilot must file an IFR flight plan and ; n8 o. N5 J3 _ rreceive an appropriate ATC clearance. Each Class B, 3 [) {1 D1 h6 ?9 C) fClass C, and Class D airspace area designated for an2 k5 m9 l% u. i airport contains at least one primary airport around 1 v* N3 Z0 N8 @7 [which the airspace is designated (for specific- T1 P1 V' h7 }2 P; x. x2 O1 m designations and descriptions of the airspace classes,( Z9 c- Q9 z, B! H9 s( f please refer to 14 CFR Part 71). ; i- ~9 T1 \/ kc. Controlled airspace in the United States is- `; x* B- e( R1 _# V designated as follows:) w( P, h! k) ~, {% e% J4 F 1. CLASS A- Generally, that airspace from! c' L9 X7 A: ]! c; c8 d 18,000 feet MSL up to and including FL 600, @$ x3 O; F: q- }3 Z. Vincluding the airspace overlying the waters within 12 6 \9 J8 _6 e7 Q Z( f$ _nautical miles of the coast of the 48 contiguous States: n x H' M+ H% y& \) C! L and Alaska. Unless otherwise authorized, all persons 3 n' {8 Y4 N6 g7 A5 Tmust operate their aircraft under IFR.7 ?$ p8 F. v* Z8 I 2. CLASS B- Generally, that airspace from the2 p# B# n2 x5 @4 G) `! d$ a( M# S surface to 10,000 feet MSL surrounding the nation's# G+ j: s6 j6 J* @; l2 v7 l6 n busiest airports in terms of airport operations or 7 t" F/ w) ^- Vpassenger enplanements. The configuration of each 3 _$ s7 I7 W. E% w" l( `- b7 K1 xClass B airspace area is individually tailored and/ m# c; J7 e& G9 B& [ consists of a surface area and two or more layers 7 @# b' v3 V# l3 ?(some Class B airspaces areas resemble upside‐down4 p9 L. U7 g6 n wedding cakes), and is designed to contain all 3 w* V7 `; `4 a* r$ N% mpublished instrument procedures once an aircraft: y+ K3 M- T7 K# M1 I% U enters the airspace. An ATC clearance is required for 3 n+ Y' u4 B) [; w6 G9 ?all aircraft to operate in the area, and all aircraft that 4 N- ?! C+ O v; g1 ~are so cleared receive separation services within the# t8 ?9 m* o8 C; s+ d# D: ] airspace. The cloud clearance requirement for VFR8 S* V. M8 I8 M7 U operations is “clear of clouds.” $ l S) n1 D/ b( X0 I+ z w( k3. CLASS C- Generally, that airspace from the ! i- V8 E3 D* N! [$ O: gsurface to 4,000 feet above the airport elevation2 g! h# H. O/ Y7 d- ~ (charted in MSL) surrounding those airports that $ p% h' n9 R2 q2 ihave an operational control tower, are serviced by a P; K4 e- c$ ^& b( }1 ?radar approach control, and that have a certain" e0 ^+ c, N! I. b% ^6 S! Y number of IFR operations or passenger enplane‐ / k+ R ~! d R( O" x/ Kments. Although the configuration of each Class C 9 |3 u# l5 n% f, P$ J; `% o zarea is individually tailored, the airspace usually+ u) r; z2 T, v consists of a surface area with a 5 nautical mile (NM) ; b" f) w/ o6 G( H9 k) f+ zradius, a circle with a 10NM radius that extends no4 l) f$ c" W6 r' t lower than 1,200 feet up to 4,000 feet above the& g! k5 O% P8 Q# \+ r airport elevation and an outer area that is not charted. 3 F4 y! G& y. [. o6 q# {& HEach person must establish two‐way radio commu‐ + @" B; V) B* M# C( ]nications with the ATC facility providing air traffic1 @! F3 T/ Q1 l( ~6 i9 @. O+ f services prior to entering the airspace and thereafter3 q; n. @4 ~+ [6 a# o4 \" C6 k; K5 x maintain those communications while within the% [, w- T9 @' G6 Z7 M( n1 L% m! u airspace. VFR aircraft are only separated from IFR6 s) g3 g! q ]: e& k5 _8 L. r aircraft within the airspace. , |: m+ H; G6 L* F6 Z' n9 U% K3 ^(See OUTER AREA.)* v$ C* o8 w3 ^3 ? 4. CLASS D- Generally, that airspace from the+ K$ X* z8 }5 x9 @ surface to 2,500 feet above the airport elevation 1 h3 h1 f l: Y1 F) W/ A(charted in MSL) surrounding those airports that0 q# O Z; @' k, A* y have an operational control tower. The configuration. |: X* l, v- M of each Class D airspace area is individually tailored4 ]6 f( b$ m1 t: R and when instrument procedures are published, the* i: k- _5 K; T0 O5 y airspace will normally be designed to contain the; m! I! m& P" _+ f, I- l, h procedures. Arrival extensions for instrument7 z. }+ B, t1 g0 y5 d; w8 a approach procedures may be Class D or Class E & t. d) _) W, xPilot/Controller Glossary 2/14/08) G% N5 S- ]5 O! N: {9 |! j) L+ }7 c8 @ PCG C-7 . G- Q% {* P4 o# dairspace. Unless otherwise authorized, each person, J/ G/ y1 X& U must establish two‐way radio communications with * n& F T3 w' O4 u- v2 E# i. |the ATC facility providing air traffic services prior to5 j( h/ o6 X+ Q/ X1 g$ M entering the airspace and thereafter maintain those 3 p7 b6 }* m% e) [! P2 E+ n+ e. Icommunications while in the airspace. No separation 5 a% h& |% x, U9 y! jservices are provided to VFR aircraft. ' }( d2 w/ f- b {0 Z5. CLASS E- Generally, if the airspace is not ~" ]( U9 B" |# A- |9 l8 Q: a0 b Class A, Class B, Class C, or Class D, and it is6 V: k/ ]* O% I8 M controlled airspace, it is Class E airspace. Class E; d- {0 h r# r& l l% A airspace extends upward from either the surface or a . s+ N9 s2 Z# s( C% idesignated altitude to the overlying or adjacent & _) H" d$ `- P6 d/ w# I0 Ocontrolled airspace. When designated as a surface ; I8 P9 I6 u+ V( y6 K! s U4 Uarea, the airspace will be configured to contain all: D0 c6 M9 ~/ r( g z instrument procedures. Also in this class are Federal9 R% Y6 y6 ^" T+ d9 } airways, airspace beginning at either 700 or 1,200 # D h; L9 F$ Z* ~feet AGL used to transition to/from the terminal or en; {& q! |3 t( R- H, r, c* f% D. S3 j route environment, en route domestic, and offshore , w0 b) x/ P2 @0 Aairspace areas designated below 18,000 feet MSL.. o6 G1 R5 o- f, A Unless designated at a lower altitude, Class E 8 u ?! H8 E/ |3 A- Yairspace begins at 14,500 MSL over the United ! x* k' l+ r4 H$ EStates, including that airspace overlying the waters7 P8 C. T Q G+ ^: _2 A within 12 nautical miles of the coast of the 48 4 U: d6 b6 ^+ e" O* X( ?8 u9 s1 Rcontiguous States and Alaska, up to, but not, p0 Z$ B. {! F including 18,000 feet MSL, and the airspace above 4 b" m3 ?! V+ u0 d; }+ yFL 600.; \0 R* }) D& S4 V% B. t CONTROLLED AIRSPACE [ICAO]- An airspace 4 A9 X: \( M+ K9 M3 \- e# x, v5 yof defined dimensions within which air traffic control ( h4 L1 T4 g! k. h% Mservice is provided to IFR flights and to VFR flights # B @6 `2 y/ R! t" l, Pin accordance with the airspace classification.* @: @# A& q( O& ~ Note:Controlled airspace is a generic term which0 E: {/ g5 K, _, j6 D/ p& d covers ATS airspace Classes A, B, C, D, and E. & a8 ^! A- ^/ O" r9 p: JCONTROLLED TIME OF ARRIVAL- Arrival time - U2 }6 M0 F& |" k0 \; o2 _5 m* Vassigned during a Traffic Management Program. This ' ~: a% ]. G! f$ @2 Wtime may be modified due to adjustments or user 8 p! F8 J0 V8 @options.# U* ^; o* N% E2 ` CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.); [, Q* s+ ]- G; I: v. I; r CONTROLLER [ICAO]- A person authorized to - d$ @' [: m% }, b6 d- ]3 cprovide air traffic control services.& V4 h( _% h4 f1 D; v$ `: x CONTROLLER PILOT DATA LINK COMMU‐ # }" f$ L2 G( B' q% N) g! m; E, PNICATIONS (CPDLC)- A two-way digital very . R: r3 c4 \5 f, x6 \# Nhigh frequency (VHF) air/ground communications: I9 c+ A2 L5 ~3 H9 [9 l system that conveys textual air traffic control 4 O! o7 J$ Y& u6 E- nmessages between controllers and pilots. 7 z8 S. {+ i9 H2 q) A, P; W+ iCONVECTIVE SIGMET- A weather advisory! g4 C0 J* d1 ]4 D: ^# @. V# y4 f( ` concerning convective weather significant to the& G1 r' Y/ K5 m: g( j safety of all aircraft. Convective SIGMETs are issued% g2 u* a; r9 D. S5 r7 |# ]8 V for tornadoes, lines of thunderstorms, embedded . E: R* F# n9 _* w7 Gthunderstorms of any intensity level, areas of ; p% I+ X! x" T' Mthunderstorms greater than or equal to VIP level 4 2 F# M; V7 N* r5 kwith an area coverage of 4) j' g4 \9 k9 Y; x6 @* _ /10 (40%) or more, and hail; i/ {' H* ?$ m. S/ f. u5 Z2 x- a 33 ^# n/ _; F, I: K$ H! |/ x6 z /4 inch or greater. 1 m4 {) a$ j6 h% a- I. f: d7 d$ A(See AIRMET.) 5 i/ A6 p; |" u(See AWW.)5 m1 L9 t& G+ n# c (See CWA.) : }/ a! ?* u- ]3 q(See SIGMET.)5 p& _+ |' M) ?+ [ (Refer to AIM.) ! B3 B/ Z [6 t8 j$ fCONVECTIVE SIGNIFICANT METEOROLOG‐ : a7 }& `0 Q0 S3 f6 P6 j) pICAL INFORMATION(See CONVECTIVE SIGMET.); M3 k T+ D2 |' o7 T3 y COORDINATES- The intersection of lines of , ]9 q. e: J8 U9 ]: s9 `7 R( y7 [reference, usually expressed in degrees/minutes/ 2 K/ p$ D% |4 r7 Kseconds of latitude and longitude, used to determine8 O' X+ S: p$ f: f position or location.! i% I( B8 p$ I7 [! d$ z COORDINATION FIX- The fix in relation to which 0 p; g6 n1 a5 Y& [facilities will handoff, transfer control of an aircraft,$ [* V# f. B. w' V or coordinate flight progress data. For terminal 2 T: _5 Z. v+ ]6 n* kfacilities, it may also serve as a clearance for arriving' p( U3 t: H* z; A1 D, U aircraft.$ f1 ]/ Q. o: v, |0 u( ^ COPTER(See HELICOPTER.) " H7 S2 x& S+ JCORRECTION- An error has been made in the ' }, p( C/ \6 _8 z* \" x$ D7 t( ?transmission and the correct version follows. 4 q! I" Q7 ^- FCOUPLED APPROACH- A coupled approach is an3 H* e2 S; N: g: [4 h8 U9 y instrument approach performed by the aircraft 9 g; j, C) V/ eautopilot which is receiving position information# y9 e' ^* H1 @4 c! T0 s$ h and/or steering commands from onboard navigation 6 m" n: P8 [ l% Z% sequipment. In general, coupled nonprecision ap‐1 f, |: x$ O5 y0 ^ proaches must be discontinued and flown manually 6 b( k8 {' P8 V& a% b5 Y9 \at altitudes lower than 50 feet below the minimum0 |: m# H8 {3 B descent altitude, and coupled precision approaches 4 c; a. ?" I! lmust be flown manually below 50 feet AGL.6 Y9 \" s+ J0 x, F Note:Coupled and autoland approaches are flown! G: y' d& G, O [ in VFR and IFR. It is common for carriers to require , n/ }$ S6 D4 @) Itheir crews to fly coupled approaches and autoland * _# N- j/ l8 {1 s% Tapproaches (if certified) when the weather0 @! C; {' o+ q2 B& R% Y conditions are less than approximately 4,000 RVR.0 ]: E" r& l% E (See AUTOLAND APPROACH.) $ O7 {% |+ g2 x) a& \3 z9 H* x$ xCOURSEa. The intended direction of flight in the horizontal: r) C& q2 }& d2 q7 z plane measured in degrees from north. & X0 F# {9 a) [* s ]- l n8 Db. The ILS localizer signal pattern usually 0 ?/ z# ~" v( lspecified as the front course or the back course. 4 R( s3 \1 S! LPilot/Controller Glossary 2/14/086 q* n% O+ P* {" Q/ a3 d PCG C-8 : j! W: Y0 r/ _0 j; g5 Ec. The intended track along a straight, curved, or ( L$ e# a% M' ^% ^- ~+ Fsegmented MLS path.2 N6 |8 G0 r+ S* N (See BEARING.)) U9 d. l" X4 w( e (See INSTRUMENT LANDING SYSTEM.)( U: N5 Z8 F" G (See MICROWAVE LANDING SYSTEM.) @* \' @5 E$ L(See RADIAL.) . ^9 }- K3 I( ~CPDLC(See CONTROLLER PILOT DATA LINK / ^# ?' B6 H9 H% ?, j5 m$ M0 o6 OCOMMUNICATIONS.)1 q0 R' n* Y6 c5 E Z8 a1 r7 v; e CPL [ICAO]-6 z9 l3 G+ S$ y Q' Z (See ICAO term CURRENT FLIGHT PLAN.) " o$ d$ b: j, f/ ~6 BCRITICAL ENGINE- The engine which, upon 7 u( i9 m7 D1 dfailure, would most adversely affect the performance 1 g9 |7 W/ h" Q2 n% E3 mor handling qualities of an aircraft. , b5 r! t. W3 kCROSS (FIX) AT (ALTITUDE)- Used by ATC6 O& B/ B2 ~ ?# Y" K$ @' D when a specific altitude restriction at a specified fix5 ~' r* }7 X( Z4 z+ \ is required.* T& [! R. o6 v0 } \9 J CROSS (FIX) AT OR ABOVE (ALTITUDE)- Used& Z% m# H+ r- @' o% H by ATC when an altitude restriction at a specified fix ) h6 V P* R5 A; Dis required. It does not prohibit the aircraft from * A- @0 m5 }+ P: \8 l9 G1 Bcrossing the fix at a higher altitude than specified; 2 u$ e7 z. _' r% p2 K) Showever, the higher altitude may not be one that will ) \; e, r7 o8 ?9 `! v0 Bviolate a succeeding altitude restriction or altitude4 [4 d* Q# g, E. h assignment. ; o7 W W. G; d5 y(See ALTITUDE RESTRICTION.)- O3 D; S: x, e8 ?5 } (Refer to AIM.)4 [/ @) e" F; Z CROSS (FIX) AT OR BELOW (ALTITUDE)- 8 w7 R3 @8 G% n: l2 PUsed by ATC when a maximum crossing altitude at ' s* E9 H7 E1 }' ]7 n% ra specific fix is required. It does not prohibit the r8 m7 m- D. [% R( L9 ^aircraft from crossing the fix at a lower altitude;% w, K) ~4 O- Y% R, _9 _# c! U, A however, it must be at or above the minimum IFR7 }) K1 Z6 D y) M8 F% Q5 Y6 o5 R7 x altitude.7 t4 J! c& M8 |/ {$ u (See ALTITUDE RESTRICTION.): h; z# U5 `3 p5 t3 T. f' P. k (See MINIMUM IFR ALTITUDES.) " O) F; n: k$ @4 j: H5 P$ z; K% I) X+ I8 x(Refer to 14 CFR Part 91.) 2 N& G& S& Q2 l' ~7 C* N& k7 s( CCROSSWINDa. When used concerning the traffic pattern, the " ^" ^5 S1 ]$ b8 M8 d3 tword means “crosswind leg.” ( `1 c1 E' G! g# w' X& A+ t(See TRAFFIC PATTERN.) 8 K3 W& |* L5 d$ P7 o5 \6 jb. When used concerning wind conditions, the- o9 `, K2 y5 Y% m3 H) w3 L word means a wind not parallel to the runway or the( @; s- G2 P8 ~0 \, |' ]3 b+ p- G path of an aircraft.& U6 Q3 |; [1 ]( a (See CROSSWIND COMPONENT.) 3 O+ ]- ^( G* L9 e3 T8 E$ A# gCROSSWIND COMPONENT- The wind compo‐9 S x+ _& [& [3 Q/ j1 m nent measured in knots at 90 degrees to the( O7 g0 Z, u2 @! q$ z longitudinal axis of the runway. ; }! \( o' u* ?, [/ K, N$ [CRUISE- Used in an ATC clearance to authorize a 5 J! w, t2 z" {8 w6 \( U/ epilot to conduct flight at any altitude from the" v& R1 J2 I5 L" d; X5 _2 O* O, N6 w7 Y minimum IFR altitude up to and including the % n$ N6 \1 l1 R, |6 yaltitude specified in the clearance. The pilot may 0 R1 T/ _) ?& Q' e8 \& glevel off at any intermediate altitude within this block # Q( r) p# U# G2 ~9 wof airspace. Climb/descent within the block is to be ' L, O# h0 X& U- E: @& qmade at the discretion of the pilot. However, once the / k0 n+ t0 M0 Spilot starts descent and verbally reports leaving an& D' v' g$ _, p: n. { altitude in the block, he/she may not return to that * T0 k2 @$ Y# ]% j0 V+ Q: C0 z3 d9 qaltitude without additional ATC clearance. Further, it, b; a4 M, P+ o& _. _ is approval for the pilot to proceed to and make an % r7 ]$ F- S5 Xapproach at destination airport and can be used in% u# S+ b# d; O conjunction with:0 ?5 T- [9 `* O; g a. An airport clearance limit at locations with a0 r6 W& e7 e. [6 l; W1 H% @( z+ T standard/special instrument approach procedure. The - P+ _# o- w$ V& QCFRs require that if an instrument letdown to an 3 ?* K' F, ^* y4 S) @& hairport is necessary, the pilot shall make the letdown Z7 Q# X* m# w; t6 E* p A0 h in accordance with a standard/special instrument 1 B) H! X% u# [& L8 Z8 Rapproach procedure for that airport, or - |- K) O% L* L& P/ G: z; yb. An airport clearance limit at locations that are ^( a5 L. y& @" l3 e$ A' Y within/below/outside controlled airspace and with‐! J1 P: n5 `# H4 ~" Y8 P out a standard/special instrument approach- c! r: q: Y4 w) N procedure. Such a clearance is NOT AUTHORIZA‐ 7 d5 g8 c) M4 N3 }TION for the pilot to descend under IFR conditions0 W8 X6 g* L6 [8 T below the applicable minimum IFR altitude nor does" u. ^( E2 D+ {& Y it imply that ATC is exercising control over aircraft ; v* u3 P; e) I! F8 A% B# I; }- w& [9 _in Class G airspace; however, it provides a means for 7 K' E5 W4 A1 O& w- q. Qthe aircraft to proceed to destination airport, descend, + c# t( S4 C, l% e# |0 Y6 hand land in accordance with applicable CFRs- X( S& X8 P0 j j% ]9 m governing VFR flight operations. Also, this provides v/ S! c1 R$ X$ a" Esearch and rescue protection until such time as the/ g. }9 {$ S. |+ h4 K IFR flight plan is closed. 8 M5 D+ y) o# v9 D/ ](See INSTRUMENT APPROACH# W% |8 J: H& {6 j' w, N5 g PROCEDURE.) 8 R4 Y1 \& Q! T5 y7 |CRUISE CLIMB- A climb technique employed by U7 o+ Z: B5 B- F. b$ X: L; s aircraft, usually at a constant power setting, resulting7 X7 e/ Z) S7 [% }- H in an increase of altitude as the aircraft weight) |1 K, q" v5 o0 E- m# Z6 ? decreases. j$ \" l# F8 h$ v CRUISING ALTITUDE- An altitude or flight level . t! }4 z: O) \maintained during en route level flight. This is a- P s0 H2 Z+ l0 M/ I B/ O7 F! W constant altitude and should not be confused with a o$ V) Z5 v3 ^& N9 } cruise clearance.1 Z, g3 N) q& H Z7 e) ` (See ALTITUDE.)7 [. J5 W9 }# G+ e6 U. R6 [ (See ICAO term CRUISING LEVEL.)5 T% N: E' r4 i3 W CRUISING LEVEL(See CRUISING ALTITUDE.)1 F8 J! x8 s* D- \9 @ CRUISING LEVEL [ICAO]- A level maintained* U F) g! l3 H( } during a significant portion of a flight.: I& a# K% R( @4 }) v; b; ` Pilot/Controller Glossary 2/14/08* I2 ]; X# B; R PCG C-97 T* Y: j3 s# H/ u: p6 ` CT MESSAGE- An EDCT time generated by the - j3 d) h6 T7 e5 ^ATCSCC to regulate traffic at arrival airports./ M6 N4 s! B Q7 C/ s6 r B+ L Normally, a CT message is automatically transferred # _! a% `/ M( ^3 K# Tfrom the Traffic Management System computer to the- d0 H7 S7 C' h8 Y& s2 k5 | NAS en route computer and appears as an EDCT. In2 g c) j+ w" ^7 | the event of a communication failure between the6 \8 W9 b0 J9 n& f; K! c TMS and the NAS, the CT message can be manually " R. r" W. p( ?1 Wentered by the TMC at the en route facility. 5 L: ~4 A: b9 \CTA(See CONTROLLED TIME OF ARRIVAL.)+ C0 A7 j" T5 n, E/ r: G# i$ X (See ICAO term CONTROL AREA.)3 p! G- G0 L B( l- H R. e! } CTAF(See COMMON TRAFFIC ADVISORY # ]4 f' j8 \# N" dFREQUENCY.) - }, _9 t. ^" ~. M# eCTAS(See CENTER TRACON AUTOMATION: k I: r4 D6 T' J SYSTEM.) ; P% h# d, j6 @% G& V( ?CTRD(See CERTIFIED TOWER RADAR DISPLAY.) , r8 q, n( d5 q, S% r: s1 r8 Y) PCURRENT FLIGHT PLAN [ICAO]- The flight # ^: F. }/ o* r* E1 b% U+ }plan, including changes, if any, brought about by ) g: A1 \! j' T7 xsubsequent clearances. 6 ?3 y4 i2 _0 U. j, v6 b# xCURRENT PLAN- The ATC clearance the aircraft! d" D' s6 v! v* d) I has received and is expected to fly.9 a+ x0 t/ e9 y CVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE, Q/ l% l3 Q$ _0 N+ M6 Q% j3 p APPROACH.) - ?8 j8 C. d* X" {) q# d4 VCWA(See CENTER WEATHER ADVISORY and ?: n, n: i! C- KWEATHER ADVISORY.) % H% y, g, H6 L0 [- zPilot/Controller Glossary 2/14/08$ N' a" {' `7 W$ D6 r& t2 v* A7 L PCG D-10 |: R5 a2 n) ~" O/ L) t& h D3 K7 L! o# x; g; Z K D‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL0 ~1 {0 T, r$ h) m" y INFORMATION SERVICE.) 8 }% g/ C% Q" t% kDA [ICAO]-6 E7 i5 t& G6 f6 Z& c (See ICAO Term DECISION6 C. @( Y$ o2 E$ _6 i; Y6 W; f! a# ~ ALTITUDE/DECISION HEIGHT.) 2 `$ P! z, _5 s7 ]! U) b3 {DAIR(See DIRECT ALTITUDE AND IDENTITY 9 p) n4 ]$ j; {& G: JREADOUT.) ' ], M$ ^- Y1 N! q, cDANGER AREA [ICAO]- An airspace of defined . h9 Z3 ~/ S7 N; `+ Adimensions within which activities dangerous to the 9 U- `' T9 o M2 ^$ zflight of aircraft may exist at specified times.) L9 h, d6 ^- `4 z Note:The term “Danger Area” is not used in $ N | \% q! L. t2 o3 n' Oreference to areas within the United States or any - i- ], ?: s7 O9 i% hof its possessions or territories. % F# g/ K+ h% G0 s- j& LDAS(See DELAY ASSIGNMENT.)6 o. n. @& i$ ?( F9 R" N3 |; S$ x, Q2 ^ DATA BLOCK(See ALPHANUMERIC DISPLAY.) 5 [7 V, H. F# DDEAD RECKONING- Dead reckoning, as applied + B" w3 T4 g! L: [, Lto flying, is the navigation of an airplane solely by $ W% g4 I+ F _means of computations based on airspeed, course,1 o, ~) a0 D( J Z7 j( v$ G heading, wind direction, and speed, groundspeed, 0 [: x m1 W4 @; U% Gand elapsed time.- N/ D% { h* F2 W" c$ x DECIS ION ALTITUDE/DECIS ION HEIGHT, P+ P2 N& z8 x! |# T& v [ICAO]- A specified altitude or height (A/H) in the - t% {) e" o1 b B t kprecision approach at which a missed approach must% s' S- `) l1 J1 P& W- ^+ p& b be initiated if the required visual reference to9 K( E- ?* k2 X continue the approach has not been established. + g5 I# ^0 n8 O% N( jNote 1:Decision altitude [DA] is referenced to) P7 O- t, J) m. d- A. {+ u mean sea level [MSL] and decision height [DH] is1 y" X; j5 u+ Z+ O. ?7 U% {% `4 o" ] referenced to the threshold elevation. * Q2 z3 |+ x$ QNote 2:The required visual reference means that U" U4 b9 h0 G" W0 Zsection of the visual aids or of the approach area% \, f! d- I3 ?4 ^) t3 B' P which should have been in view for sufficient time 2 s. A% B& ]% X' W, W2 Hfor the pilot to have made an assessment of the5 F9 G$ d/ r, K* C1 o$ ]# V aircraft position and rate of change of position, in! D$ X1 z2 c' }- T1 h relation to the desired flight path.7 _( N2 q. I& x+ u DECISION HEIGHT- With respect to the operation9 B) O y. U) r: u/ ?+ z. F' q of aircraft, means the height at which a decision must 3 Y. l5 V: W j' N( }( cbe made during an ILS, MLS, or PAR instrument* `' G* F; [# j* N approach to either continue the approach or to execute " [4 K+ a- t9 ra missed approach. + i5 O: J# @& g% m# z, S `(See ICAO term DECISION* q" r; |0 ^/ D6 z' X4 X ALTITUDE/DECISION HEIGHT.)% o4 n+ v7 }+ k% {% G DECODER- The device used to decipher signals " m( B- r- u4 R3 a" Hreceived from ATCRBS transponders to effect their' s* j# @$ M* _& A display as select codes." e( ~/ E r3 L6 N; l( H (See CODES.)% Q# F6 J% y: S O& l( _9 i6 C (See RADAR.)" t& K$ h, y1 w, _" S DEFENSE VIS UAL FLIGHT RULES- Rules 4 ^3 q2 G1 P- T5 Bapplicable to flights within an ADIZ conducted under * X- c. X* i3 u* t) Pthe visual flight rules in 14 CFR Part 91.% M; e9 |$ O3 |1 P% Q (See AIR DEFENSE IDENTIFICATION ZONE.)+ c, e- d# _" Z) S4 G4 k (Refer to 14 CFR Part 91.) # `: m# j# }0 F3 ~! u, {- V(Refer to 14 CFR Part 99.) , ]' D0 S- ^- G- x' ~& p6 pDELAY ASSIGNMENT (DAS)- Delays are distrib‐ 4 N# W. p% j5 u1 O2 N6 P% h' ]uted to aircraft based on the traffic management' Y X* O+ z2 g! ]4 B8 { program parameters. The delay assignment is- y. `; S( |4 ?2 ?" T( p! v0 z# X+ X calculated in 15-minute increments and appears as a6 _# I5 t- _& N$ p3 C0 b table in Enhanced Traffic Management System + v( ]. K6 c1 o6 E ^6 j(ETMS). + W4 b4 q6 x+ b [9 [* k KDELAY INDEFINITE (REASON IF KNOWN) 0 m: H( W# t- PEXPECT FURTHER CLEARANCE (TIME)- Used' h3 Z2 e5 O' G7 K: q+ |! } by ATC to inform a pilot when an accurate estimate / y1 x) s4 @/ P: Qof the delay time and the reason for the delay cannot; x' G! y) i% \% K3 v8 [# d immediately be determined; e.g., a disabled aircraft & O4 v- k- C3 {( x2 uon the runway, terminal or center area saturation, ! e% m4 `" h' C9 ~3 d1 V. V5 Wweather below landing minimums, etc.) ~9 p9 @8 B& p& H (See EXPECT FURTHER CLEARANCE (TIME).)4 M4 }. g. c5 ]1 U' V/ A& ~ k) ~ DELAY TIME- The amount of time that the arrival5 p# _) D9 ~$ `( M/ Z must lose to cross the meter fix at the assigned meter& z( J- _7 x3 X fix time. This is the difference between ACLT and D$ l1 q3 g% ~! } @/ O VTA. : G5 k- o& j8 V3 j3 V+ }' n( XDEPARTURE CENTER- The ARTCC having 0 Y& E* ~2 J) M5 O2 sjurisdiction for the airspace that generates a flight to$ b& J" w& C" }8 I& v the impacted airport.4 K% H2 [2 H$ u DEPARTURE CONTROL- A function of an9 g0 r" P- ]. c% ?% w approach control facility providing air traffic control , }" {- m+ I6 b5 o+ p, E' T, u9 Yservice for departing IFR and, under certain 2 [$ R; X7 Q5 v& g' b7 iconditions, VFR aircraft.- o0 E A0 g! f" b+ R0 |! o3 m1 f (See APPROACH CONTROL FACILITY.) 4 j5 ~1 y g* c' I, o0 w(Refer to AIM.)1 F, I' R1 y4 U# |6 ` DEPARTURE SEQUENCING PROGRAM- A/ k7 Q. I5 V, ^ program designed to assist in achieving a specified + \% l/ ]( x$ Sinterval over a common point for departures.# X, K8 ~0 E0 C7 y- q Pilot/Controller Glossary 2/14/08, `" v4 p8 i- o% F ?# X- \ PCG D-2* e8 u5 }( X; b# o DEPARTURE TIME- The time an aircraft becomes - c0 M) L( m! a' b( B( a. v6 K5 qairborne.* c5 w/ d$ H% T1 _ DESCENT SPEED ADJUSTMENTS- Speed decel‐( k. B. W- n* h$ O5 }" ^% { eration calculations made to determine an accurate 7 a) H1 z" t' Z ^% f. b, WVTA. These calculations start at the transition point 4 B4 J3 R D0 |- T1 aand use arrival speed segments to the vertex., f; A \# M2 `; q7 R DESIRED COURSEa. True- A predetermined desired course direction / z1 _9 D# e1 u$ u+ kto be followed (measured in degrees from true north). ' H" v7 D( I' y5 W: i$ h- u0 ~4 |( Pb. Magnetic- A predetermined desired course ) R) o- |' B' Hdirection to be followed (measured in degrees from+ @* o* R, V' L( l local magnetic north). 4 g+ ?' a% H* o! `+ w/ lDESIRED TRACK- The planned or intended track3 \6 j: ~+ ]& x0 _% _2 D between two waypoints. It is measured in degrees/ ]. p, R( A/ C8 e+ j2 r/ P8 K2 l from either magnetic or true north. The instantaneous: U `" L( C: T" c1 S! p angle may change from point to point along the great 5 L7 U7 j' ?1 x6 \" gcircle track between waypoints. 8 I5 g, h v) g) O- dDETRESFA (DISTRESS PHASE) [ICAO]- The& j, P% d& _ V code word used to designate an emergency phase 7 B% |; T* `4 N5 S3 k1 ?" bwherein there is reasonable certainty that an aircraft3 E4 U3 a4 Q9 n/ Q! j* F% E and its occupants are threatened by grave and4 J0 L7 z O1 i4 @1 S: x; N# M imminent danger or require immediate assistance. & v2 a( m" |* E* L' }+ ?/ ODEVIATIONSa. A departure from a current clearance, such as an 8 O7 I5 ]: c3 @( i( Poff course maneuver to avoid weather or turbulence.# f6 d4 S6 K" `$ w. ^& f5 m8 W \ b. Where specifically authorized in the CFRs and0 L. ^: z% O" r& h requested by the pilot, ATC may permit pilots to : W7 J. o0 ?1 g4 e3 a! bdeviate from certain regulations.6 C( l( z" m9 T* m (Refer to AIM.)+ M. A V9 D1 O2 t( k DF(See DIRECTION FINDER.) - ~) g+ K) e! P8 a) v: ^DF APPROACH PROCEDURE- Used under3 o7 Y% |$ T" o N. K emergency conditions where another instrument 1 y, g7 C- g! e/ @' gapproach procedure cannot be executed. DF guidance 4 z# v( ^2 d5 m" v) c# K# q; v# Nfor an instrument approach is given by ATC facilities' x( @8 H/ P2 i" Q* U# c& L% D! o: w/ B with DF capability.2 m+ {6 w4 i/ F (See DF GUIDANCE.)( i" K# ^2 D$ V (See DIRECTION FINDER.) $ n J5 B) l* m7 r( R/ B- v(Refer to AIM.) ( E% Y q6 h3 [$ q% yDF FIX- The geographical location of an aircraft# _; [! L. |8 Y: h obtained by one or more direction finders.( V/ ]9 t# W1 _1 \5 X$ z- K6 D (See DIRECTION FINDER.). [9 k1 H, m# g ] DF GUIDANCE- Headings provided to aircraft by ( ~) b3 W9 Q5 \. [facilities equipped with direction finding equipment.. z9 Q0 ~' n1 @& x, y These headings, if followed, will lead the aircraft to) B& W; c7 m b% e" W a predetermined point such as the DF station or an % W! P/ D( r0 t7 j2 g& B3 Mairport. DF guidance is given to aircraft in distress or" s; i* k0 }# Z; q5 F to other aircraft which request the service. Practice ; Z4 N& A" h+ J4 e" Y2 G5 \DF guidance is provided when workload permits. 2 k/ `1 W! ]3 w* l' z5 b5 t(See DIRECTION FINDER.) 7 `7 J" k6 w( z2 b(See DF FIX.) & Z( M# ~% ] G9 Y# X(Refer to AIM.)2 ?7 `& M( C' v: b; Q% g4 u DF STEER(See DF GUIDANCE.)9 N3 h- T" U. m% [ DH(See DECISION HEIGHT.)2 D4 z, d* e' ?2 @+ E, r: g% ` DH [ICAO]-2 {8 e( |3 W* {5 `. N3 V (See ICAO Term DECISION ALTITUDE/ - L/ N/ q6 s: e* k9 z# y$ H# E! z5 IDECISION HEIGHT.)/ x2 m2 |( }* |/ p# s/ Y DIGITAL‐AUTOMATIC TERMINAL INFORMA‐ 4 @( ?( B! C0 cTION SERVICE (D‐ATIS)- The service provides 8 T' j- W* G- |text messages to aircraft, airlines, and other users6 x) v: }( g9 B R7 F9 U0 d outside the standard reception range of conventional1 L* G, n' ?% O- | ATIS via landline and data link communications to/ W+ a$ l6 l+ j& O ?5 _$ d7 K- ? the cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to8 X/ Y z/ R* Q2 F: K- a Q5 R all aircraft within range of existing transmitters. The v- y8 C, k7 i: m3 |! X; ^/ aTerm inal Data Link System (TDLS) D‐ATIS- J+ X( f7 P$ R; g! \ application uses weather inputs from local automated 8 e9 a. Q" W. j* b/ r: M7 fweather sources or manually entered meteorological1 T- E( W1 t* F5 \ W data together with preprogrammed menus to provide ( i# ?8 F7 Z4 @standard information to users. Airports with D‐ATIS9 X7 M" v, g6 ] capability are listed in the Airport/Facility Directory.0 s$ D3 c+ c6 U0 O DIGITAL TARGET- A computer-generated symbol ! |8 f2 M3 c8 Q- h; \representing an aircraft's position, based on a primary2 F ?5 F. A) ^& ` return or radar beacon reply, shown on a digital7 y5 Z% a% i9 j2 }+ I display.6 x! ^9 o! j' R9 t5 Q DIGITAL TERMINAL AUTOMATION SYSTEM$ \) Q2 n' s+ s& O6 E# ]: ^ (DTAS)- A system where digital radar and beacon$ |' I7 U. m$ @5 `- d( }9 C data is presented on digital displays and the 3 X9 g* f: N/ p/ a; Y& Doperational program monitors the system perfor‐ ; }% H/ I- [( S; G1 f' gmance on a real-time basis.+ @ ^3 E2 o0 E DIGITIZED TARGET- A computer-generated % _+ D, _5 T, `5 C/ D3 D3 qindication shown on an analog radar display resulting # U6 r( D: x1 ~& ?( l& A( Mfrom a primary radar return or a radar beacon reply.& c! `+ I# S/ y8 X7 o9 P DIRECT- Straight line flight between two naviga‐ 2 X+ L% i! ~$ jtional aids, fixes, points, or any combination thereof. - X: b% R0 e Q$ xWhen used by pilots in describing off‐airway routes, ( e$ c% O& f: j( }0 J+ h2 Dpoints defining direct route segments become! [- o C2 V1 C7 Z! S compulsory reporting points unless the aircraft is1 z* W7 l! I+ t under radar contact. 5 G5 T' o7 W: oDIRECT ALTITUDE AND IDENTITY READ‐# N! I/ N. ^8 q8 t% V! a OUT- The DAIR System is a modification to the! [# j4 S( U% g( H3 ]4 t# U& w Pilot/Controller Glossary 2/14/08 % D) \! K& E7 m& @1 h& TPCG D-3: a: l' L7 H- o+ d1 H6 s AN/TPX‐42 Interrogator System. The Navy has two 4 P# Q+ X) [8 J) G, w! c2 o4 f/ j' p0 q# ]adaptations of the DAIR System‐Carrier Air Traffic 0 i+ w/ }4 `" a3 ?* {* b8 Q5 IControl Direct Altitude and Identification Readout 7 U/ z) C: i8 Y& n# FSystem for Aircraft Carriers and Radar Air Traffic 5 O! z9 R0 t) a% C, i, oControl Facility Direct Altitude and Identity Readout! E6 j4 l6 ?" i9 } System for land‐based terminal operations. The' G7 q: S* L- X4 \# d6 A DAIR detects, tracks, and predicts secondary radar6 q5 G9 c3 K4 g% r aircraft targets. Targets are displayed by means of) c5 Y" h2 W4 F: _6 L! H computer‐generated symbols and alphanumeric - w9 C$ T2 @% h6 O' jcharacters depicting flight identification, altitude, ; D4 m0 y5 A& _( Nground speed, and flight plan data. The DAIR System" U4 c5 B1 E) V( f7 Y/ d is capable of interfacing with ARTCCs. % C# \, v4 ]+ I' ~: J5 ^2 h* HDIRECTION FINDER- A radio receiver equipped" P# p# p( N+ B" G! [4 ? with a directional sensing antenna used to take 7 w5 j G' z) C4 vbearings on a radio transmitter. Specialized radio9 e) `8 w9 m) J4 K direction finders are used in aircraft as air navigation& R) y" B( \7 @1 `* }6 L" e aids. Others are ground‐based, primarily to obtain a 1 g$ B v7 J6 B4 H# i1 O( l, v `9 ?“fix” on a pilot requesting orientation assistance or to ) q0 a# W) N% a$ K) i- b) }: glocate downed aircraft. A location “fix” is established . Y5 `; V7 ]& H `0 w6 ~by the intersection of two or more bearing lines f7 P$ ^; [( F! f7 E6 v$ Y* J plotted on a navigational chart using either two* p; s" k6 `/ W! K& ?- b2 E/ @ separately located Direction Finders to obtain a fix on 0 W8 ~4 E/ A6 u' i+ x8 oan aircraft or by a pilot plotting the bearing 2 H" L8 g. p& Z1 q9 T8 yindications of his/her DF on two separately located 6 F! A" q- ]2 N: K+ w# B0 nground‐based transmitters, both of which can be+ H* Q T5 w6 ?, ~8 U3 o0 V- M7 ~ identified on his/her chart. UDFs receive signals in ! D" B9 C) C9 F$ H( w: wthe ultra high frequency radio broadcast band; VDFs + {$ p% y# y! z' Q, \ k: X: lin the very high frequency band; and UVDFs in both( ] W& N9 J- e2 i7 I3 ?0 | bands. ATC provides DF service at those air traffic9 B' k/ ^( k$ m9 S& s control towers and flight service stations listed in the ( Q* x% u" r) I& B/ N4 ^; xAirport/Facility Directory and the DOD FLIP IFR En" z" v8 l! m Z8 |& ? Route Supplement.1 {: { J4 S: W; F4 A2 w* J (See DF FIX.) # H# w9 _" q' i(See DF GUIDANCE.)2 Z V5 X& d' I) e' f DIRECTLY BEHIND- An aircraft is considered to 6 P' V9 m4 ]: b/ ~/ Lbe operating directly behind when it is following the 0 e, `+ S" T2 z: s* b0 M' p: r4 Jactual flight path of the lead aircraft over the surface " Q( u" {0 ~- \9 F0 Fof the earth except when applying wake turbulence/ ~ |3 e9 F) d( G1 D: M! Z1 u6 I separation criteria.1 e0 [4 A$ n- U7 G DISCRETE BEACON CODE(See DISCRETE CODE.)8 m( R: W( z! h$ M' e DISCRETE CODE- As used in the Air Traffic9 u0 e- n/ p; ?6 M Control Radar Beacon System (ATCRBS), any one& |/ F, x( l6 w' r of the 4096 selectable Mode 3/A aircraft transponder: V: i5 {, C/ }) P; a9 m4 z) z8 X% r codes except those ending in zero zero; e.g., discrete, ~1 M+ P# g5 ]& J. } codes: 0010, 1201, 2317, 7777; nondiscrete codes:: Z0 L$ {0 w' u9 I 0100, 1200, 7700. Nondiscrete codes are normally* b- z$ e( o+ O+ C x1 }: a! ? reserved for radar facilities that are not equipped with' Z i8 [# i& t3 J) [' T discrete decoding capability and for other purposes s( g- z- }9 k" T# P such as emergencies (7700), VFR aircraft (1200), etc. / P! W; h, P2 L/ n- k(See RADAR.)* b( X3 ]: L* |# c) m (Refer to AIM.) & T" \7 M% O8 Q8 |4 cDIS CRETE FREQUENCY- A separate radio 8 V2 j( S5 U3 t' P1 Yfrequency for use in direct pilot‐controller commu‐- ^; A% U: F2 E0 @ nications in air traffic control which reduces) {( {0 w; D: P% @- }1 k frequency congestion by controlling the number of 7 e* G1 ^! l# {aircraft operating on a particular frequency at one - g! y0 I- c9 O9 _( Jtime. Discrete frequencies are normally designated f( \; `9 {8 t' k: Q for each control sector in en route/terminal ATC , A6 O6 n! B: h: } }, }' c' `facilities. Discrete frequencies are listed in the& v/ ?: l# D V0 K Airport/Facility Directory and the DOD FLIP IFR En * w9 F0 E* F" z- k# XRoute Supplement. , _4 I8 b( r7 {0 h3 D(See CONTROL SECTOR.)0 Y) t g6 ^* N+ ^1 P& L' ]/ t DISPLACED THRESHOLD- A threshold that is 0 ?+ P, X/ \7 u2 D" f. p8 _. flocated at a point on the runway other than the ' s0 I/ q H6 e6 o: G Fdesignated beginning of the runway.7 P6 o* z! b$ o- s: Y/ X& I (See THRESHOLD.) * H \, E2 |2 h/ T! b M* a" g(Refer to AIM.)) P7 R- [6 x9 X/ ?( r# C7 N DISTANCE MEASURING EQUIPMENT- Equip‐9 {6 O& X/ x! C ment (airborne and ground) used to measure, in9 W8 D/ E0 ^- P* I nautical miles, the slant range distance of an aircraft( j; J' m# R# t4 }) U1 y from the DME navigational aid. 5 G6 r2 z( P0 \3 t* _) }, \(See MICROWAVE LANDING SYSTEM.) # _+ S5 w) \2 B! Y6 h8 d(See TACAN.)5 x' Y1 v: q. e8 s! }. m (See VORTAC.) + c# C0 Q" A+ ?1 w! O Q) LDISTRESS- A condition of being threatened by 2 L7 F4 t/ e: ]+ @7 J. }serious and/or imminent danger and of requiring % v7 l3 j" g" |' P8 x- i$ U9 S! nimmediate assistance. 0 _+ t. ]- W" y8 z! d! o; f7 ~1 LDIVE BRAKES(See SPEED BRAKES.) ) N5 A9 z9 a9 M. k8 z: L* dDIVERSE VECTOR AREA- In a radar environ‐( t1 p; E6 ~ O/ c% T1 W ment, that area in which a prescribed departure route 2 Q& ~% e- X! R( dis not required as the only suitable route to avoid ) `0 y) L, z+ R$ sobstacles. The area in which random radar vectors9 Z1 }8 _! }) o below the MVA/MIA, established in accordance with( w+ \4 J1 U6 ]0 n- V( g the TERPS criteria for diverse departures, obstacles + o, [$ H0 V4 I$ `and terrain avoidance, may be issued to departing( ~3 T* x5 N U1 O o, _: _ aircraft." l2 h% x9 S0 C( m* t1 C w DIVERSION (DVRSN)- Flights that are required to , s. w# V, t3 v5 }. E) u! tland at other than their original destination for , \. m. `0 B$ B/ zreasons beyond the control of the pilot/company, e.g.8 q! J a, O3 U8 I( A+ | periods of significant weather.+ K1 \/ U0 i' G; f/ E DME(See DISTANCE MEASURING EQUIPMENT.) g" G" t: k$ R# O% b Pilot/Controller Glossary 2/14/08; T6 e, z# h) c% ]7 @ PCG D-4# I! K7 l; c) @% t$ Y- z DME FIX- A geographical position determined by 0 v% \: G+ j" S8 k' d+ Oreference to a navigational aid which provides 9 }4 { O2 y# L% e# x7 udistance and azimuth information. It is defined by a3 N' A& Z$ |$ m5 Y7 E- D- q' N specific distance in nautical miles and a radial, : |# I: E) ?* Y9 qazimuth, or course (i.e., localizer) in degrees6 L8 R e. P. d0 ^! Q magnetic from that aid. l9 e4 ]* D) q3 C9 j (See DISTANCE MEASURING EQUIPMENT.) & i( i3 A/ t: K5 c( c( |2 ~4 w0 L: @(See FIX.)' W* s$ o( G( w# g (See MICROWAVE LANDING SYSTEM.)& Z( q& F( ` n/ u# T DME SEPARATION- Spacing of aircraft in terms of 4 k1 V: e2 a" Q1 Q' C. g1 W8 \distances (nautical miles) determined by reference to. [" t5 i# g( j$ f3 B- W) l distance measuring equipment (DME).! U% u3 E3 r5 X. o (See DISTANCE MEASURING EQUIPMENT.)+ v8 a! l6 j, d! n$ I1 E/ \! K& z DOD FLIP- Department of Defense Flight Informa‐7 f1 ]" \" d6 E3 G- E; G tion Publications used for flight planning, en route,' a' M4 ]( [1 _8 e) N. z and terminal operations. FLIP is produced by the 5 e% B7 i9 i0 I$ r9 {0 ~. G' b+ HNational Imagery and Mapping Agency (NIMA) for6 K$ p+ ~& V ]; R7 P3 e& F' ~/ V world‐wide use. United States Government Flight 1 D5 L+ v) O; }; aInformation Publications (en route charts and+ D& L9 b2 v4 k5 f e& h/ G instrument approach procedure charts) are incorpo‐ $ I! o* `1 x) Zrated in DOD FLIP for use in the National Airspace: r# f! I% p1 P3 p System (NAS). 2 z* D6 N4 k4 U9 s: i1 @DOMESTIC AIRSPACE- Airspace which overlies " t- h' y1 S% I* _the continental land mass of the United States plus N! N. {" b9 ]! g7 |( P* j% e% P Hawaii and U.S. possessions. Domestic airspace # P+ @( j* d z# g/ R6 ~extends to 12 miles offshore. * @' l! ]7 y5 o! jDOWNBURST- A strong downdraft which induces % ^/ M1 |+ K/ t9 Dan outburst of damaging winds on or near the ground.1 l+ c: c9 ]* x0 @7 u" ` Damaging winds, either straight or curved, are highly 0 W# z, ~0 c" d8 K* i' a( pdivergent. The sizes of downbursts vary from 1/2' B+ J, K4 [: R2 p b mile or less to more than 10 miles. An intense6 f7 r5 n7 }$ o' B$ G: j; I downburst often causes widespread damage. Damag‐8 h. w$ c L' B6 t4 ?9 t" m ing winds, lasting 5 to 30 minutes, could reach speeds 8 _* [3 a5 D# n: gas high as 120 knots. 2 }* J: f* H) q! JDOWNWIND LEG(See TRAFFIC PATTERN.)0 W8 [9 s" ^1 e- U DP(See INSTRUMENT DEPARTURE PROCEDURE.) : r( K2 Z* m$ R. _) D2 kDRAG CHUTE- A parachute device installed on ( i* c) @% k0 n; Acertain aircraft which is deployed on landing roll to % r+ K$ h- a9 m5 }: d5 k/ C5 dassist in deceleration of the aircraft.% d+ G0 I; ^0 c* }- c DSP(See DEPARTURE SEQUENCING PROGRAM.)9 D5 H* h2 L+ D" F" i DT(See DELAY TIME.)( Z7 b+ F+ f8 Z$ R; O! F DTAS(See DIGITAL TERMINAL AUTOMATION- u- C& y1 H- i5 H3 A SYSTEM.). B6 J- ~6 u9 ~. g& y: S DUE REGARD- A phase of flight wherein an . g5 X7 n. D5 u( Faircraft commander of a State‐operated aircraft 1 e6 U- y, R% S u# ~# b7 q8 Nassumes responsibility to separate his/her aircraft 8 p8 i6 K, C. T x* Y* ifrom all other aircraft. 8 j* j/ L k( N(See also FAAO JO 7110.65, Para 1-2-1, WORD $ c1 R8 T# m, R: ZMEANINGS.)4 W: N4 y( @. S) x/ e3 ? DUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY1 e' W: V9 S( ^" }, ]* k7 y A6 Y RUNWAY.) % R. H. O. Y& F* \7 N+ c IDVA(See DIVERSE VECTOR AREA.)) F$ ?" Y) V9 N0 v; B0 @0 { DVFR(See DEFENSE VISUAL FLIGHT RULES.) 5 E5 N2 H; i, |( e' ZDVFR FLIGHT PLAN- A flight plan filed for a VFR 1 L/ R( X( g) V7 {% }# b9 _aircraft which intends to operate in airspace within4 Z& ?& d. h, V+ s# f" a- `4 [9 Y( n which the ready identification, location, and control6 p- B1 Q- i1 {! M+ t& f* _ of aircraft are required in the interest of national # v5 i3 \9 P8 k7 z3 z; Fsecurity.4 T6 n% j; N$ r+ H3 ~5 l; F0 J DVRSN(See DIVERSION.)1 q- k p8 i. P' p+ L1 B3 Z. `1 ` DYNAMIC- Continuous review, evaluation, and . `5 }" g5 @' z5 mchange to meet demands. ! L5 u, D: G2 U# I O9 _DYNAMIC RESTRICTIONS- Those restrictions ; I5 T2 [+ H/ L; n1 |imposed by the local facility on an “as needed” basis' e% o" }1 @, T. M% L4 [7 } to manage unpredictable fluctuations in traffic+ s: }0 k# X% A: e demands.+ h ^- U0 A2 i! S Pilot/Controller Glossary 2/14/08 + f% f, w6 x, u2 o3 W) i; }' MPCG E-1; V& B/ f+ I$ o5 W E* N- d, d+ P' { EAS(See EN ROUTE AUTOMATION SYSTEM.)+ X6 c1 a6 l. f EDCT(See EXPECT DEPARTURE CLEARANCE/ j6 b# z& V' @0 F* d6 g! ? TIME.)+ {! B5 d y+ S EFC(See EXPECT FURTHER CLEARANCE (TIME).) , S" `( S) s+ s7 U( t% XELT(See EMERGENCY LOCATOR TRANSMITTER.)$ u( h5 K6 ~4 u. _# R6 G3 u: e EMERGENCY- A distress or an urgency condition.4 i: V8 l, |! i5 S. m EMERGENCY LOCATOR TRANSMITTER- A ; E+ F- q4 A0 x$ A; Sradio transmitter attached to the aircraft structure, e' [+ ?0 ^1 W( k- _( i7 v" @ which operates from its own power source on. p9 a6 Y. @1 r4 c: y! g$ r9 O 121.5 MHz and 243.0 MHz. It aids in locating0 O/ P5 h8 v; s" F3 S. u6 s downed aircraft by radiating a downward sweeping+ L6 k' I- I9 n3 D: T3 ^2 p audio tone, 2‐4 times per second. It is designed to 1 B: V% X T+ z- a" }function without human action after an accident./ U+ U4 V* k+ M (Refer to 14 CFR Part 91.)& ^" U% n- k7 w" ^& k- H (Refer to AIM.) 1 @; ~- c3 k, K. r' z: nE‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE* U# C1 q4 D' N7 V8 c8 j WARNING.)1 D! ` h+ H; ~( P4 H+ S$ m EN ROUTE AIR TRAFFIC CONTROL SER‐ 6 t$ ^) |, D; D; x- i) @# \8 C/ }VICES- Air traffic control service provided aircraft 3 \, n# Z1 T4 F4 Uon IFR flight plans, generally by centers, when these1 f+ h+ E9 I% ` I( `4 F2 O aircraft are operating between departure and! R) }2 n- V+ |0 p. g4 W destination terminal areas. When equipment, capa‐ : F- |+ K( H: N& ?3 h) `bilities, and controller workload permit, certain , b( g* D9 Y; n" h3 K' ?+ T$ jadvisory/assistance services may be provided to VFR2 b5 N" n2 v; S* ^ aircraft.! X4 m0 L0 z3 \. [% M7 m, M (See AIR ROUTE TRAFFIC CONTROL1 }* b! Q" r0 X. d$ s CENTER.)/ g4 G: u3 ~% g (Refer to AIM.) 1 d: E O5 a- o9 s7 kEN ROUTE AUTOMATION SYSTEM (EAS)- The & O+ ^) w* T1 kcomplex integrated environment consisting of( a9 k8 R8 H/ t( _$ V4 F) I8 c3 n. k& [ situation display systems, surveillance systems and* i9 Q% C+ M2 P flight data processing, remote devices, decision @; j9 A3 T3 a' N6 ? support tools, and the related communications- ~4 @' p+ X+ v+ ~3 T equipment that form the heart of the automated IFR" K4 z' H' }, f, o: B6 o5 K air traffic control system. It interfaces with automated * A8 u" w5 J' S8 P1 D1 L" ?terminal systems and is used in the control of en route 7 f- m+ k- b% J3 EIFR aircraft. W, q; _) Q0 G, E (Refer to AIM.)" n( q0 Q Q1 w, d EN ROUTE CHARTS(See AERONAUTICAL CHART.) $ c2 v/ F4 q" t& u" Y8 L# o8 `EN ROUTE DESCENT- Descent from the en route * j' U# B E, F' d% `# acruising altitude which takes place along the route of ' e* s5 h/ N3 k$ {/ K1 a& `- j6 kflight.. Z& C% H4 w8 u% E5 ]+ x4 l- Y3 K EN ROUTE FLIGHT ADVISORY SERVICE- A D2 O& W/ m; M: W# M( `# j service specifically designed to provide, upon pilot) S% e9 F; P+ }+ M1 R request, timely weather information pertinent to , J; f: B5 K8 i) u9 e. U7 d8 k1 d3 Bhis/her type of flight, intended route of flight, and $ m3 ?7 x. q# H* baltitude. The FSSs providing this service are listed in& d) [ e8 u! W! M; h7 K" D" J6 h3 w the Airport/Facility Directory., g" {- f, d; B' `1 { (See FLIGHT WATCH.) - l7 k& v' ^' T! p' Y( q5 I(Refer to AIM.)- b: Y9 ]6 ~2 i& r% Q EN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.) 0 n" I' o3 |, d) g5 X% `1 x3 g1 gEN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.) " m, Y4 `2 F9 {1 I7 X% Q( xEN ROUTE MINIMUM SAFE ALTITUDE WARN‐+ v5 j2 d" Z+ }& \ ING- A function of the EAS that aids the controller : B' F6 R- S" j+ w' f+ H# bby providing an alert when a tracked aircraft is below3 a' ]: H; W: m+ J or predicted by the computer to go below a . a& {. Y1 T/ j2 T L0 e4 I, M$ H/ Ipredetermined minimum IFR altitude (MIA).1 Z& e* W# ?' n EN ROUTE SPACING PROGRAM (ESP)- A; u% _7 g7 P P; T! V+ F program designed to assist the exit sector in / q% h+ S& R6 A9 |achieving the required in‐trail spacing. 8 d9 E% d. a6 r3 cEN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a l$ X4 d# [* Z! C% R, B) _7 Y0 tSID/STAR that connects to one or more en route& G) S( x- E0 |5 e Q {0 J( S airway/jet route. 3 I3 b5 z% _7 V. m- I, o) w( ~b. RNAV STARs/SIDs. The portion of a STAR " a! ^+ B& `0 d5 H7 ^" f. Epreceding the common route or point, or for a SID the 6 y3 }# K( W( H/ c1 J0 vportion following, that is coded for a specific en route; h* e3 m' H, a2 \9 O fix, airway or jet route. 3 [- Q/ V6 G" l7 R; u7 i2 N5 _& yESP(See EN ROUTE SPACING PROGRAM.) l! O0 W& \) r) K ESTABLISHED-To be stable or fixed on a route, - o8 d# E# S# H: w2 {; E! H" y" Kroute segment, altitude, heading, etc. 3 R% `0 J% N( m _0 nESTIMATED ELAPSED TIME [IC AO]- The. D5 w3 `# {0 c4 } estimated time required to proceed from one% X f$ m+ a; ]' w) l2 z significant point to another. ! S! b6 m- w+ u4 U(See ICAO Term TOTAL ESTIMATED ELAPSED5 E5 F' N5 E0 n4 N8 m! ` TIME.)- ~- H b$ u: f Pilot/Controller Glossary 2/14/08" l; c0 Z( o0 i' v0 g5 D* w PCG E-2 @/ T+ {( n+ Y# z" w, BESTIMATED OFF‐BLOCK TIME [ICAO]- The8 N2 w1 I+ P' J( k8 L) h$ D& V estimated time at which the aircraft will commence 1 i$ z! {$ `4 V. y# a5 v/ i8 gmovement associated with departure. 1 }7 V( t5 f6 TESTIMATED POSITION ERROR (EPE)- 6 h/ Q c' R1 o: u" ^; B(See Required Navigation Performance)4 C5 Z2 A; _ I2 ~# I @ ESTIMATED TIME OF ARRIVAL- The time the ; S+ _4 e1 ?3 Q. V- m' y: y' Kflight is estimated to arrive at the gate (scheduled9 Z6 V' ~1 F K" m, q/ Y1 \+ ^ operators) or the actual runway on times for 7 ^$ F" @% ~# J2 _2 o! f& x R1 Pnonscheduled operators.) c/ [# X! m1 n3 c3 I0 F9 X. R ESTIMATED TIME EN ROUTE- The estimated! a4 s6 W8 l& q3 [/ U1 y flying time from departure point to destination6 }0 c8 r4 w4 v; p! d (lift‐off to touchdown)." U/ s3 Q6 U' f! _' ` w1 h ETA(See ESTIMATED TIME OF ARRIVAL.) b7 `$ s; a% K, E5 X ETE(See ESTIMATED TIME EN ROUTE.); Q8 ]# y1 V+ D EXECUTE MISSED APPROACH- Instructions+ g# B, y7 b7 j& ~) K X( X issued to a pilot making an instrument approach , f# A) P" {/ o4 g+ H) Qwhich means continue inbound to the missed. t, h, s& M3 E! P approach point and execute the missed approach 6 g# k' B/ g% P- N% dprocedure as described on the Instrument Approach 0 Y4 |* _. Y6 R3 |% c+ Y! K, eProcedure Chart or as previously assigned by ATC.3 @# j4 ]0 D1 v4 U) F" t' V The pilot may climb immediately to the altitude: S8 ]& W$ n4 ~( z: A8 W specified in the missed approach procedure upon + R1 E5 O9 F; T9 N: v. Nmaking a missed approach. No turns should be- w' V% u1 R- _8 C' u initiated prior to reaching the missed approach point. , M! g( p0 [- GWhen conducting an ASR or PAR approach, execute; o7 B9 q) T7 t9 }2 F' x& ] the assigned missed approach procedure immediately& J; H J7 E( _. r* Z# K upon receiving instructions to “execute missed 1 p8 K( |$ t. V* dapproach.” 7 ^: ^+ F" O7 s1 S(Refer to AIM.) ' u7 ^3 }8 L1 YEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used 3 u2 V% q" [% z- ^: t$ l- ~ Qunder certain conditions to provide a pilot with an* { B) [5 v3 N* O6 R8 x) F, l altitude to be used in the event of two‐way$ _* ^- e+ p, d2 o communications failure. It also provides altitude" K; @* T. S- N: ~ information to assist the pilot in planning. " f8 l( p9 e4 X0 g5 K(Refer to AIM.) ( o# k! T7 k/ E7 o D6 XEXPECT DEPARTURE CLEARANCE TIME 8 x- ^" g) `1 z! I. [(EDCT)- The runway release time assigned to an # p( H% `1 O4 ?+ Raircraft in a traffic management program and shown 8 {7 l9 B/ v2 ~; E5 xon the flight progress strip as an EDCT. 3 N( O5 R+ r* S(See GROUND DELAY PROGRAM.): r3 W% ]- N0 s EXPECT FURTHER CLEARANCE (TIME)- The : E W: J' Z1 E9 c$ i2 Y+ F* I3 ctime a pilot can expect to receive clearance beyond a* C; h0 J( m9 n; N- B/ G! u4 z clearance limit.4 b" ?2 d/ z* u/ y* g. W EXPECT FURTHER CLEARANCE VIA (AIR‐ & H2 N* _: y5 a8 |4 ~& \2 y+ d& rWAYS, ROUTES OR FIXES)- Used to inform a . r; n- a. \$ n4 ~- L# Vpilot of the routing he/she can expect if any part of the9 o* |) T% F( U" W5 k route beyond a short range clearance limit differs 1 p# S7 q3 C7 h" L# ?from that filed.' I1 _( t; B( i. { EXPEDITE- Used by ATC when prompt com‐' D5 F7 J1 E' ` `" [* v: O, s pliance is required to avoid the development of an* X- q( }* D7 p1 s. c imminent situation. Expedite climb/descent normal‐ & H) s) _* b& G6 M6 @ly indicates to a pilot that the approximate best rate5 q& ?8 B( g3 `# w3 { of climb/descent should be used without requiring an+ Q0 C+ l* `8 l5 Y8 ?( @! P exceptional change in aircraft handling characteris‐ 2 U6 d$ U [4 j& ]9 _5 t: R1 xtics.) L# p/ ~0 A: Y! h Pilot/Controller Glossary 2/14/08 - X: t5 {6 W% n8 S' P& c" MPCG F-1 7 {8 Z' _: y1 v" sF: [2 x2 g( z$ G$ h# @ FAF(See FINAL APPROACH FIX.): P8 i% k; ^! Z6 p FAST FILE- A system whereby a pilot files a flight1 ?" K/ { L" M# L5 p7 { plan via telephone that is tape recorded and then* L! C- H& W0 m7 Q$ x transcribed for transmission to the appropriate air : f8 {/ ~3 r- O8 N! v2 t3 qtraffic facility. Locations having a fast file capability 9 @ i# @" E' r% P" Z, G% _) \are contained in the Airport/Facility Directory. / K) }+ {; C1 a8 K* O# l( @(Refer to AIM.)1 h/ G" y# h) x6 V0 T* F J FAWP- Final Approach Waypoint ' m' v7 c- H+ r; a' f! p m* L$ GFCLT(See FREEZE CALCULATED LANDING TIME.) ( @8 H: [& x% |9 z+ u; kFEATHERED PROPELLER- A propeller whose ) \+ r& t$ {! _1 o3 a9 V. u) Eblades have been rotated so that the leading and & V, O8 v# K9 X4 ?% |6 z: rtrailing edges are nearly parallel with the aircraft - \! g* r0 `& J: i7 Fflight path to stop or minimize drag and engine) R) }. i& U0 N& ^5 H3 l rotation. Normally used to indicate shutdown of a ( @, I! k! z, [2 ?' L4 ereciprocating or turboprop engine due to malfunc‐- ?( Y0 V! D( P( c tion.4 b' @! z) k' `! b; w: y; m: Z8 q FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.)+ i; C# `, k% J1 \* a9 L' G! o FEEDER FIX- The fix depicted on Instrument6 \1 f% P, a, J Approach Procedure Charts which establishes the 8 @* C- o8 f* sstarting point of the feeder route.0 h# S! R( S* C' Y1 q FEEDER ROUTE- A route depicted on instrument9 c9 a8 [+ j, N3 I L approach procedure charts to designate routes for" ^: h \! N9 ~* G7 I; w aircraft to proceed from the en route structure to the 1 X5 B3 R! m" `* A5 n+ Linitial approach fix (IAF).3 B& S! K; O: e (See INSTRUMENT APPROACH ) F! p3 Z+ i) q* r7 U; tPROCEDURE.) & l! U; M- f8 ^+ r9 w: YFERRY FLIGHT- A flight for the purpose of:# o7 g4 f! ^, q& f, d a. Returning an aircraft to base. 7 n- S6 q6 Q0 `- @# T8 p: Mb. Delivering an aircraft from one location to S$ w2 w9 \' u. T8 K8 N another.; E0 p1 H( K# e( Q5 J6 z c. Moving an aircraft to and from a maintenance+ f6 l0 X9 k" ?2 k& ]0 m4 R5 q# H base.- Ferry flights, under certain conditions, may be ' `) z( t0 r$ xconducted under terms of a special flight permit.9 i( H- u: B, z9 O0 } FIELD ELEVATION(See AIRPORT ELEVATION.) 3 X: m/ a/ C4 b6 q0 a0 p# sFILED- Normally used in conjunction with flight 1 |3 S3 [0 }& I. I% nplans, meaning a flight plan has been submitted to * s1 S$ j+ O$ WATC. G: |, T. p2 V, W6 u' O9 n( QFILED EN ROUTE DELAY- Any of the following 2 G- R( D( V p) Epreplanned delays at points/areas along the route of ! O' J p8 k [flight which require special flight plan filing and/ l! f% \" a/ B0 ` handling techniques. * o8 t( M* }+ |+ c- Ia. Terminal Area Delay. A delay within a terminal 3 U8 e$ s& z; Narea for touch‐and‐go, low approach, or other4 Z" R, D5 {# v2 |+ m' Z0 o terminal area activity. $ c& n" y1 `2 T3 j4 ]b. Special Use Airspace Delay. A delay within a . E* @; T' z. s. d" k- `+ qMilitary Operations Area, Restricted Area, Warning5 B; e) Y9 ^6 d Area, or ATC Assigned Airspace. # D* o$ A' M( q% w: ?5 K0 mc. Aerial Refueling Delay. A delay within an ' a C$ [3 j4 L7 FAerial Refueling Track or Anchor.6 l' {( |1 k8 y: g) b& S# k FILED FLIGHT PLAN- The flight plan as filed with 1 o2 `5 K5 C* e- t1 m+ F, o, San ATS unit by the pilot or his/her designated . J H# m/ N0 f$ p( Prepresentative without any subsequent changes or. W |! [# b0 r4 b" X7 w clearances. 7 @+ ?6 _4 ~: |4 [7 v, W3 DFINAL- Commonly used to mean that an aircraft is ; v; e( I# h9 non the final approach course or is aligned with a ) o2 `8 \, _$ s$ g5 m2 ?landing area. + s$ H4 A/ g& E3 q: C(See FINAL APPROACH COURSE.) U( O6 ^7 ^5 O( J6 _. R$ P% W (See FINAL APPROACH‐IFR.) 7 P- m7 @" P* Z5 X8 n(See SEGMENTS OF AN INSTRUMENT . Q3 F+ F) E8 U) q/ G# A( ]APPROACH PROCEDURE.) ! A }0 v8 ]4 h1 @9 M* B' c! {FINAL APPROACH [ICAO]- That part of an, V f6 e1 E6 {8 {) S; C: M instrument approach procedure which commences at . g& t2 c. t6 j7 [the specified final approach fix or point, or where % e+ W! p7 @) H8 l Asuch a fix or point is not specified.$ U* f: W- a+ L+ _" m+ X& s a. At the end of the last procedure turn, base turn% _+ i; a0 j$ _2 s6 P$ Z or inbound turn of a racetrack procedure, if specified; : v+ r4 ]5 W. For 1 h2 P4 V! N' J8 K2 L( s# _# N Ub. At the point of interception of the last track8 S [! Q. \- ? l* s. q" { specified in the approach procedure; and ends at a5 p1 x6 K5 D7 B point in the vicinity of an aerodrome from which: 2 L" {* M$ \$ `6 c1. A landing can be made; or 5 c+ v# p) ?0 Y1 e2. A missed approach procedure is initiated.. q$ p, P5 M+ F' t$ V3 b9 [ W FINAL APPROACH COURSE- A bearing/radial/ * {( N- ?! [/ ]+ i# H% {$ Q1 h! otrack of an instrument approach leading to a runway/ S r9 y7 G7 @. | or an extended runway centerline all without regard8 r, E& ]2 @ T$ {" Z& G to distance.5 }2 C) U d. G2 q8 ^5 [2 M FINAL APPROACH FIX- The fix from which the $ } K/ b, w/ c1 r; g8 a* ]1 u* ofinal approach (IFR) to an airport is executed and F) Z- h( H, {$ w" L$ { which identifies the beginning of the final approach , e, ~: `7 d; U+ j5 @segment. It is designated on Government charts by 1 S5 n S+ ~+ v$ ^" Sthe Maltese Cross symbol for nonprecision" O0 m& B! y* L. X6 F; Q' B" V Pilot/Controller Glossary 2/14/08 8 \/ r! S5 M& _% F0 i2 `3 APCG F-2 . b2 _' p) _; Q! u8 Xapproaches and the lightning bolt symbol for ( v* x! I% z! J& z Fprecision approaches; or when ATC directs a8 B+ h! N9 x1 J0 H* p( S/ J, T- s lower‐than‐published glideslope/path intercept alti‐ }& Q3 L% h7 P9 h; P7 V% X tude, it is the resultant actual point of the: e" J6 R1 r* }& _, `$ d glideslope/path intercept. 0 z% M2 j m3 e) ?( O( j) `(See FINAL APPROACH POINT.) 8 d' }) S# \5 V0 {(See GLIDESLOPE INTERCEPT ALTITUDE.) 4 H, F) h! s, M5 g: w(See SEGMENTS OF AN INSTRUMENT# N- i5 P+ } i7 f- R% d APPROACH PROCEDURE.)7 C" C1 H* ?' m; p( ^ FINAL APPROACH‐IFR- The flight path of an 5 |( \: Y. k% e9 H) U9 yaircraft which is inbound to an airport on a final # N4 L) Q. w. ~$ [instrument approach course, beginning at the final . k2 G Q) ^2 c$ k$ E1 |+ rapproach fix or point and extending to the airport or 9 Y" x" t8 K$ |4 Athe point where a circle‐to‐land maneuver or a missed & {$ ?% _1 Q& l- T1 napproach is executed. 3 U- L2 ~& Z' [) X/ t1 A$ M5 G" `(See FINAL APPROACH COURSE.)! N- Q/ m7 w4 { u) f (See FINAL APPROACH FIX.) * V/ f; _- Y* q6 |5 N$ X(See FINAL APPROACH POINT.) 8 o5 W" M1 f7 s. E(See SEGMENTS OF AN INSTRUMENT, _0 W6 Y+ d2 W+ U. ^ APPROACH PROCEDURE.) 0 g& M1 s H& C7 B# Q) @( o(See ICAO term FINAL APPROACH.)7 [$ `3 c; ~1 ~3 |( z$ z9 d$ \, h, d0 Y FINAL APPROACH POINT- The point, applicable- @0 O/ P1 ?' q/ g0 @5 i; Q/ L only to a nonprecision approach with no depicted$ t2 s3 D" e, F FAF (such as an on airport VOR), where the aircraft 8 |9 ~% P5 ]% y" |$ x0 Z( j8 vis established inbound on the final approach course " v% k2 x% Q( K% N; xfrom the procedure turn and where the final approach4 q9 ~% ^& N* S& |0 m; W descent may be commenced. The FAP serves as the ( Q" X) [, V% K! H. k7 mFAF and identifies the beginning of the final 4 `' c6 Q+ f# L& [approach segment.+ \3 y# V5 X5 O. p+ J, C (See FINAL APPROACH FIX.) + X1 H; m6 N8 t& v. O(See SEGMENTS OF AN INSTRUMENT ; c2 @8 F4 T- m# i- iAPPROACH PROCEDURE.) ~% i0 J$ [4 s# ~6 l0 ]( [FINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT# i3 h0 b! _, G6 [4 } APPROACH PROCEDURE.)* U( ~# {" f6 H/ X- f# ^5 A2 U FINAL APPROACH SEGMENT [ICAO]- That 4 ?" K8 g, c0 h, K' h" Bsegment of an instrument approach procedure in [. n- w: g8 X5 S! t which alignment and descent for landing are& B9 @+ H% L5 O8 u4 ?% ~ accomplished.# R" x9 Q8 \/ @! P. A | FINAL CONTROLLER- The controller providing : b) x9 O2 a. G% ]: rinformation and final approach guidance during PAR( C9 }7 H) B1 W0 e7 h and ASR approaches utilizing radar equipment. L! o! N! i3 i+ Y7 ~(See RADAR APPROACH.) 1 Y1 r2 Y+ s' `/ d; OFINAL GUARD SERVICE- A value added service " g L0 U8 K+ l2 \! O/ a& s) Cprovided in conjunction with LAA/RAA only during- l1 K5 w7 X+ H% x9 t periods of significant and fast changing weather ' D1 {/ x" g; xconditions that may affect landing and takeoff & M5 \& q& D1 r' U! B6 S$ Loperations.2 e* c3 T# l& Y5 V4 d FINAL MONITOR AID- A high resolution color - W2 s6 V5 v, p" c+ u Z ldisplay that is equipped with the controller alert% J9 j: u6 u5 Y& j/ C system hardware/software which is used in the 9 j8 _' B9 Z' xprecision runway monitor (PRM) system. The 1 G b% B. t0 V1 T2 O2 `! s- udisplay includes alert algorithms providing the target) L, c' D9 T8 \+ I" e predictors, a color change alert when a target 7 v. \* }7 x% Kpenetrates or is predicted to penetrate the no/ w! @+ [! m+ n# G! q# I$ }4 T2 d transgression zone (NTZ), a color change alert if the5 M- [7 t+ C+ }; O: d1 U7 o: ` aircraft transponder becomes inoperative, synthe‐ & p" d# m: u( @6 a- N) @sized voice alerts, digital mapping, and like features% B( Y8 H3 A& }9 x contained in the PRM system.2 k8 G% g5 W1 z1 o5 [; h8 K, q (See RADAR APPROACH.)- ?/ _2 \0 V/ B8 F FINAL MONITOR CONTROLLER- Air Traffic' E* u0 m! d) k7 L A Control Specialist assigned to radar monitor the 7 {' a0 @. `4 A9 r4 v( @flight path of aircraft during simultaneous parallel$ I# n W# |, n1 T; t0 S& N6 w0 t and simultaneous close parallel ILS approach# h; H0 c+ W. Q/ P9 w operations. Each runway is assigned a final monitor! [7 O B; J7 T) j4 f5 Q controller during simultaneous parallel and simulta‐+ B! ], s$ D9 j5 s, V' D9 B neous close parallel ILS approaches. Final monitor / V- Y) z- p2 C# J0 u( R- F% mcontrollers shall utilize the Precision Runway, J: {+ v3 Z* l% f0 I E9 b, } Monitor (PRM) system during simultaneous close$ T% k9 |; W1 x9 P% t. K4 u# Y parallel ILS approaches.9 Q- _, `1 `; q X% ^; @ FIR(See FLIGHT INFORMATION REGION.) _% x# B! L: a3 Q, ^3 U FIRST TIER CENTER- The ARTCC immediately " s% S) x! }+ a6 P. {adjacent to the impacted center. ' c# {$ z7 e6 M3 |8 ^4 z- PFIX- A geographical position determined by visual, u9 u4 D4 i3 t; _% T reference to the surface, by reference to one or more % A$ _2 \$ e8 Hradio NAVAIDs, by celestial plotting, or by another 2 e- _( G- K. O r: Anavigational device. . b8 J7 w8 `2 q* X# hFIX BALANCING- A process whereby aircraft are6 k) X: J$ s1 N evenly distributed over several available arrival fixes : ]2 C0 i& o1 d) i Q) Breducing delays and controller workload." {; {8 j) V, M# I6 I9 y9 B) j FLAG- A warning device incorporated in certain) D8 a+ N' B$ Q$ U$ [5 Q# x$ `: b7 G airborne navigation and flight instruments indicating8 H! X( q, G- k+ J5 k% d9 L that: z V# ?% c4 Y2 P+ g ^( z) Va. Instruments are inoperative or otherwise not I0 T. |& _+ Z# R ?& G- H operating satisfactorily, or : H0 N5 n; `( L7 p6 q- t' pb. Signal strength or quality of the received signal/ Y5 n' P, v# K* o( N% ?4 q falls below acceptable values. 9 |' T& ^: S/ w* ]/ sFLAG ALARM(See FLAG.)9 i: d" P) u" N FLAMEOUT- An emergency condition caused by a , a5 e$ c& n/ b( e0 n7 {9 s% eloss of engine power. : \% h# \1 o! v3 j3 P [FLAMEOUT PATTERN- An approach normally2 R+ |& f& P- R6 Y conducted by a single‐engine military aircraft 3 ~5 h# d- ~% E7 ~/ U; _experiencing loss or anticipating loss of engine3 E8 |: n, X) B3 t. f Pilot/Controller Glossary 2/14/08 6 R- n# D+ e* F3 g2 LPCG F-3 - ]# k) o' C5 r2 t6 o% qpower or control. The standard overhead approach ; A3 Y1 g! b' _- R' ustarts at a relatively high altitude over a runway 4 Q) M5 T( F) t2 J- s(“high key”) followed by a continuous 180 degree+ x- u& P/ o- \7 g t6 B6 R( c/ U turn to a high, wide position (“low key”) followed by, N1 t" L7 N9 ]2 R a continuous 180 degree turn final. The standard0 ~+ Q5 C4 J" @( _ straight‐in pattern starts at a point that results in a% O# Q* n a7 q" _9 i0 s/ ? straight‐in approach with a high rate of descent to the : @: B* A# e% i, D/ X. [# erunway. Flameout approaches terminate in the type! c2 I5 R8 [5 D approach requested by the pilot (normally fullstop).# C3 _3 ?, n* c. H0 @' g FLIGHT CHECK- A call‐sign prefix used by FAA : G3 \& A6 h! k7 g/ M) Qaircraft engaged in flight inspection/certification of8 e0 g. K1 a% [: u* Y navigational aids and flight procedures. The word- A3 @. H# R9 Z+ q! L “recorded” may be added as a suffix; e.g., “Flight, t; z$ _# `0 O8 R" P; Y3 l) F. b& H Check 320 recorded” to indicate that an automated% d" v6 x6 A. P- j flight inspection is in progress in terminal areas. % Y) Z: m1 ~8 G: P) z(See FLIGHT INSPECTION.)/ y' w. r1 A& b0 n9 E0 Q: r (Refer to AIM.) & P$ {- k" G r! N$ \' }5 ]0 G pFLIGHT FOLLOWING(See TRAFFIC ADVISORIES.)* j7 y0 X5 s# U) i6 l& m2 B/ Y FLIGHT INFORMATION REGION- An airspace of $ l4 M$ x5 `' n, x r! rdefined dimensions within which Flight Information 7 m4 j( E" U4 ~& w! B0 p9 Z4 PService and Alerting Service are provided. , k. t7 m7 M, G Z- p! P; o3 P$ Ba. Flight Information Service. A service provided : _6 L9 w1 R) i! N) F" y. Dfor the purpose of giving advice and information 7 H; E5 G/ k' p3 |& Auseful for the safe and efficient conduct of flights. : O7 j& N; B4 P' Ib. Alerting Service. A service provided to notify 7 s$ V9 W0 p# l) o9 w$ Cappropriate organizations regarding aircraft in need C4 X% V4 r$ \4 c of search and rescue aid and to assist such/ X8 S- C o) a3 t organizations as required.' N5 Z7 v+ e, q' t! A: b. S FLIGHT INFORMATION SERVICE- A service 9 A! ^1 d4 s# O( rprovided for the purpose of giving advice and 2 I5 v* a" d9 e$ n Xinformation useful for the safe and efficient conduct ; z; \2 Z) a/ U+ O2 M# @# j4 Q' Zof flights.( n, u8 ^$ O7 Z3 N2 e; \( K1 C FLIGHT INSPECTION- Inflight investigation and' O, x: G5 D/ e! a evaluation of a navigational aid to determine whether 1 X" |0 @$ e y9 @6 ^, x' \it meets established tolerances. 8 b" c# P' w/ q: S/ Z(See FLIGHT CHECK.) 2 j% W3 e2 v9 v! }9 }2 J(See NAVIGATIONAL AID.) 3 G' \9 y" k5 a5 L: yFLIGHT LEVEL- A level of constant atmospheric $ {% |' N6 K2 ^8 V" C8 vpressure related to a reference datum of 29.92 inches % o; o6 g& n1 ~) A" A* S3 Eof mercury. Each is stated in three digits that represent n" L% P2 {! s+ E2 m# v hundreds of feet. For example, flight level (FL) 250 - V7 i5 ]1 N' f- |- arepresents a barometric altimeter indication of: r' I+ f$ N0 w: l$ Z4 e3 z1 \2 d! L 25,000 feet; FL 255, an indication of 25,500 feet. 6 P2 ?* \7 v" Q1 n(See ICAO term FLIGHT LEVEL.) K7 G- R0 L, D$ A7 G1 U0 z" KFLIGHT LEVEL [ICAO]- A surface of constant5 J+ \9 {9 W6 I% I atmospheric pressure which is related to a specific! [ A% l4 R9 A' a( k pressure datum, 1013.2 hPa (1013.2 mb), and is$ j4 M, F# s; p separated from other such surfaces by specific, E" k- e0 `% u pressure intervals.( M" D, z: z" g( D' P1 b6 | Note 1:A pressure type altimeter calibrated in 1 M5 K. L) L7 g k+ |3 k' S3 F5 Caccordance with the standard atmosphere: # k: b* t6 r1 S: ca. When set to a QNH altimeter setting, will ! a7 d3 o+ A3 @5 eindicate altitude; 7 s# C" G- u, d) ] [3 |- v& ub. When set to a QFE altimeter setting, will $ S! k D4 [6 \; ~' Oindicate height above the QFE reference datum; ! F+ ]" |& g! Q b8 jand $ X1 z8 c9 T' |/ }7 T! {c. When set to a pressure of 1013.2 hPa 6 Y1 `2 ]* j4 q" u2 m Q(1013.2 mb), may be used to indicate flight levels.! @5 P6 M/ u3 _ m) N1 U- G4 N Note 2:The terms `height' and `altitude,' used in : R4 U( Q: X# JNote 1 above, indicate altimetric rather than 2 T6 f1 [9 ]/ Ygeometric heights and altitudes. & Q" T( i3 C: f* w* z1 W; oFLIGHT LINE- A term used to describe the precise, j" C N! F2 s9 }9 L Q* \ movement of a civil photogrammetric aircraft along) |6 S5 |7 T1 K3 A a predetermined course(s) at a predetermined altitude* q# Z' c, L& D0 t0 ?8 F during the actual photographic run. ) V; [, O0 v9 c& F9 C* oFLIGHT MANAGEMENT SYSTEMS- A comput‐ $ a+ \- G7 |5 m4 ?; K* U% Ner system that uses a large data base to allow routes I8 G7 y+ N2 F+ Dto be preprogrammed and fed into the system by 0 b: U3 f- g, ?* c* O+ wmeans of a data loader. The system is constantly I6 O1 M1 i/ E# z1 P updated with respect to position accuracy by( k2 c. J/ Z4 H reference to conventional navigation aids. The & b0 @. a. z1 ~! X4 m* isophisticated program and its associated data base8 x) o: v, o2 `" `3 a% \( l h insures that the most appropriate aids are automati‐1 ~$ T S# M/ m% G1 Q+ Z cally selected during the information update cycle. ' Y0 s6 j0 S- E0 W" t' iFLIGHT MANAGEMENT SYSTEM PROCE‐ ; K) V$ q' d/ M# T' o: bDURE- An arrival, departure, or approach procedure # A2 u3 }' ~) b% a- @developed for use by aircraft with a slant (/) E or slant. U* X4 C9 Z' `- k* @- K( p( s (/) F equipment suffix.: N/ v2 C7 w' W/ W FLIGHT PATH- A line, course, or track along which / `2 H |' h9 C( j8 I9 ?2 r; Xan aircraft is flying or intended to be flown. * U0 \9 j7 s/ l(See COURSE.)+ }6 N) i, v1 D7 ?7 f (See TRACK.)( V- o6 |. l7 g7 k/ I; }. K' S6 ` FLIGHT PLAN- Specified information relating to & x8 s8 f* A+ r" T, {3 b" {' H" sthe intended flight of an aircraft that is filed orally or : a# z( e. ]1 c! H# o t1 O8 o8 _8 Z7 ein writing with an FSS or an ATC facility./ f' f3 E, [# w5 r: t0 W- _0 {& ^ (See FAST FILE.) 2 d' C* `! a9 f" C$ q! l(See FILED.)9 r: F# s+ n+ P& a- M1 C (Refer to AIM.)2 T9 U+ [3 W) | FLIGHT PLAN AREA- The geographical area/ v; K- L' t, v3 G0 |* J assigned by regional air traffic divisions to a flight 9 X6 Q5 h! v" I. i5 `- k% Q/ G: ]! qservice station for the purpose of search and rescue ; C3 K' a ` L9 V+ {$ R/ p0 y$ J. S2 lfor VFR aircraft, issuance of NOTAMs, pilot( p% F$ ~) T9 L% ]8 Z briefing, in‐flight services, broadcast, emergency i- ~$ a! C7 e7 P& \5 s5 B services, flight data processing, international opera‐5 _+ [0 r# K8 J tions, and aviation weather services. Three letter . L* O. h# G9 u) Y4 j% ePilot/Controller Glossary 2/14/08 # q V+ @. H; g' Q5 S; uPCG F-4 # f- q. B( K; U- @4 tidentifiers are assigned to every flight service station C. _0 }" L4 I5 O and are annotated in AFDs and FAAO JO 7350.8, 8 G* v; ^6 b; \% rLOCATION IDENTIFIERS, as tie‐in facilities. % q5 a" K8 H7 @* j9 ]3 b' u(See FAST FILE.) ) L: }# n9 N5 P7 z; J0 z/ i(See FILED.)" _7 q1 a+ C2 ~8 h% `& L |2 H" W' A: B (Refer to AIM.); a5 ^8 L2 |) s9 S( l3 Z& [ FLIGHT RECORDER- A general term applied to; Z4 Z' W. P! B% [7 w9 ] W/ B+ P any instrument or device that records information, y% n3 J( B3 Q9 u" B about the performance of an aircraft in flight or about, e% v e) e8 H3 r9 S conditions encountered in flight. Flight recorders) e1 ~- | q Q5 R( Z1 Q may make records of airspeed, outside air . d' i% O) R! T9 p8 j0 [, i1 ?" Btemperature, vertical acceleration, engine RPM, 6 S3 ?+ S; j) G6 E9 {+ j. ^manifold pressure, and other pertinent variables for a H7 l- W8 k2 e+ N, j" z# S! t' L6 A6 S given flight. Z3 x$ t1 V" i6 A& t) h(See ICAO term FLIGHT RECORDER.), G6 R% G/ Q+ r! F+ | FLIGHT RECORDER [ICAO]- Any type of 7 ], a2 z9 W) `recorder installed in the aircraft for the purpose of( T8 {& V$ `( N+ x5 ^ complementing accident/incident investigation. m& Y, h* X5 W! i+ c4 N* QNote:See Annex 6 Part I, for specifications relating ! ]# h* k3 D6 n: a: `to flight recorders. 6 J, i7 m1 s7 W" f5 a* \FLIGHT SERVICE STATION- Air traffic facilities 8 ]1 C2 d+ R) U/ i$ S' z6 E+ wwhich provide pilot briefing, en route communica‐& m& f! i( H5 J tions and VFR search and rescue services, assist lost- T" o& P, }4 q* a3 @' I aircraft and aircraft in emergency situations, relay1 v3 U( i; G+ L( z, } ATC clearances, originate Notices to Airmen,* a& @) p# W. j8 c( q) B1 L broadcast aviation weather and NAS information,# u# C) }' z' e and receive and process IFR flight plans. In addition, 7 T# X6 G+ A7 Iat selected locations, FSSs provide En Route Flight 5 y8 J6 t( o0 g& X7 Q5 uAdvisory Service (Flight Watch), issue airport * n" n0 l& M$ jadvisories, and advise Customs and Immigration of 3 ~4 c+ z4 W$ l6 q5 Q9 O7 ~2 N5 Mtransborder flights. Selected Flight Service Stations $ g9 ?: e& A9 r0 q: qin Alaska also provide TWEB recordings and take $ S# Y8 t. d9 C& W* kweather observations.3 R. S5 i/ w7 h, y' j5 a; {3 Q (Refer to AIM.) ' A1 D$ s, D& u/ Y/ i8 Y6 wFLIGHT STANDARDS DISTRICT OFFICE- An 3 e, }% d3 k( l c- L# Z6 d9 gFAA field office serving an assigned geographical " N% q M/ _+ @/ iarea and staffed with Flight Standards personnel who ( M- o/ c9 R; ~1 C2 ~serve the aviation industry and the general public on ' a- p+ M3 z6 K* E- jmatters relating to the certification and operation of 6 D: S1 P' @5 l* B, S# _air carrier and general aviation aircraft. Activities 5 ]; x8 Y+ l S* z2 q4 A9 L2 r# iinclude general surveillance of operational safety,! K; |7 J' S* m certification of airmen and aircraft, accident$ o1 ~% t y& }1 z& m0 S0 B prevention, investigation, enforcement, etc. , N$ }# T9 b+ P) {FLIGHT TEST- A flight for the purpose of:& n4 V2 w5 d6 d# P; b7 i& Y# z a. Investigating the operation/flight characteris‐ 2 G9 f7 c$ i) M4 Z1 Btics of an aircraft or aircraft component. - U0 A$ u' U6 p8 l% Y3 G; hb. Evaluating an applicant for a pilot certificate or- b( u$ h) B9 p rating.# w$ V" {- @1 Y/ x0 z/ J! N, A FLIGHT VISIBILITY(See VISIBILITY.)* @3 `# y. t/ ]5 x FLIGHT WATCH- A shortened term for use in , A# K: e7 {# T. y" ]air‐ground contacts to identify the flight service 3 f1 x1 ~9 }- @# ostation providing En Route Flight Advisory Service; 8 N& s1 p, Q% e+ B! le.g., “Oakland Flight Watch.” 4 v6 K9 A& N0 y(See EN ROUTE FLIGHT ADVISORY 1 Z, H; c% l& N1 ?4 i5 VSERVICE.) . L9 p& x0 ^6 n2 [' ~: j2 vFLIP(See DOD FLIP.) 5 Y3 Q- `, H7 u$ F( j, X4 h3 ~FLY HEADING (DEGREES)- Informs the pilot of) [+ \8 q/ M7 L% c) ` the heading he/she should fly. The pilot may have to & r0 d1 I4 ]3 V/ s1 pturn to, or continue on, a specific compass direction( S+ B, q" t$ m7 M7 O9 `: F in order to comply with the instructions. The pilot is* [& m- O% h/ B& \) ? expected to turn in the shorter direction to the heading ( o/ Y+ V% {9 [; R6 Y, b( {unless otherwise instructed by ATC.8 P( Y& U. v1 C3 d FLY‐BY WAYPOINT- A fly‐by waypoint requires * N1 ~: z$ X8 ^% `, _0 A2 x2 V7 mthe use of turn anticipation to avoid overshoot of the1 a! n( O. m/ R+ W5 E next flight segment.- c% H6 N( X8 N" J FLY‐OVER WAYPOINT- A fly‐over waypoint % K$ P( F% X# ^; mprecludes any turn until the waypoint is overflown" Q- {/ a. q+ @7 d6 k6 | and is followed by an intercept maneuver of the next2 O5 g1 w* o$ } flight segment. ! X, |0 z+ K7 o% I/ YFMA(See FINAL MONITOR AID.) " m, j5 d: \6 H/ WFMS(See FLIGHT MANAGEMENT SYSTEM.), p% W4 F5 I- o+ M: |5 o4 C: V FMSP(See FLIGHT MANAGEMENT SYSTEM/ U2 X/ o R3 f/ L PROCEDURE.); a: S8 a1 Z* h( [ FORMATION FLIGHT- More than one aircraft / P: W' B: H" u) p" s' V' Mwhich, by prior arrangement between the pilots, ; H7 G2 |/ F& K# Z4 c5 uoperate as a single aircraft with regard to navigation ( ?( j, E8 g7 ]4 M- D. Zand position reporting. Separation between aircraft ' u7 r( ]+ [- D' @. j- ]within the formation is the responsibility of the flight' [/ t0 ^0 W' U9 r8 T" [! e leader and the pilots of the other aircraft in the flight. - @6 S: T* X i# n5 X+ V) qThis includes transition periods when aircraft within$ E6 N0 Z1 W6 b# [+ p! @ the formation are maneuvering to attain separation; P- | ~, Z4 [. ?1 \ from each other to effect individual control and 0 |0 p: C/ P( f# R9 I" {during join‐up and breakaway.3 O4 S5 b" I0 i7 r: V: Y/ D& c8 A a. A standard form ation is one in which a* w K: [" H4 U1 X. S. m. m proximity of no more than 1 mile laterally or7 L5 r" b& K0 J) J" _ longitudinally and within 100 feet vertically from the 0 _$ L1 E5 b' B, d5 i7 ]" Xflight leader is maintained by each wingman.; }4 c- r" M8 h b. Nonstandard formations are those operating' ~1 j/ D _, @8 h2 X; K under any of the following conditions:( I$ H" ~2 B& _1 [- x Pilot/Controller Glossary 2/14/08 / E+ p0 I$ B; X3 g4 L6 DPCG F-53 O4 e6 C4 O& L" g" |2 d 1. When the flight leader has requested and ATC ' K3 `. a7 b K0 R1 N5 G# `/ r4 vhas approved other than standard form ation . N8 ~) {# e1 Z5 Vdimensions.4 I7 \% \" S+ x% ]+ a2 {& i 2. When operating within an authorized altitude; [1 H+ W1 z0 s) z4 W/ a6 F: h reservation (ALTRV) or under the provisions of a 2 d% J/ z: }8 j7 Wletter of agreement.$ E E2 S7 X! I; X; U8 o 3. When the operations are conducted in 5 _. A1 G7 a) ]/ X' e5 e+ Pairspace specifically designed for a special activity., X0 C: X& W! b5 m (See ALTITUDE RESERVATION.)& g( \ Y! ~* `5 z( m/ t- { (Refer to 14 CFR Part 91.) ) r$ S4 v8 w$ K; c) ?/ l v: nFRC(See REQUEST FULL ROUTE CLEARANCE.) 4 R' ^: Z6 g( zFREEZE/FROZEN- Terms used in referring to 8 A/ ~6 n$ f9 f- i) V% P5 Z+ B% warrivals which have been assigned ACLTs and to the9 W9 Y, M1 \# I7 Z" |! `2 h$ | lists in which they are displayed. 7 B: C' @( |9 VFREEZE CALCULATED LANDING TIME- A# k. x/ G# c0 j9 z0 n1 ~; E dynamic parameter number of minutes prior to the2 Q, `2 e+ `/ p4 o/ n S6 I# Y meter fix calculated time of arrival for each aircraft, n- y( k& r' p: d5 \ when the TCLT is frozen and becomes an ACLT (i.e., 0 K* {. K- _; e+ S7 ]5 g3 D0 Uthe VTA is updated and consequently the TCLT is 2 ? r7 Y" H* i& E' u" Jmodified as appropriate until FCLT minutes prior to- {" O! a, R8 h# P meter fix calculated time of arrival, at which time: A! ~. Q5 _, K updating is suspended and an ACLT and a frozen 7 O/ q ^1 f7 R" ~; Dmeter fix crossing time (MFT) is assigned). * O7 H Z$ B) }4 l. L( W0 b- JFREEZE HORIZON- The time or point at which an' \2 Z* G k- g: t& y aircraft's STA becomes fixed and no longer fluctuates* e3 U& a1 ]8 E2 p. ?7 d with each radar update. This setting insures a constant ! Z7 Y1 @$ H* N1 q0 K$ p3 otime for each aircraft, necessary for the metering8 T2 q& f5 x8 u4 E- @- y2 s O A controller to plan his/her delay technique. This6 J' ~+ M" l: U, R" b4 ` setting can be either in distance from the meter fix or " w6 ~# i5 ~* V5 g/ `a prescribed flying time to the meter fix. * I" j) e: g& Z6 t `FREEZE SPEED PARAMETER- A speed adapted7 U) G: B n3 m* Z3 N# b for each aircraft to determine fast and slow aircraft.& G# [9 T+ ^# m/ O( c7 L9 e Fast aircraft freeze on parameter FCLT and slow 9 h' o b0 b- E. w# s; Oaircraft freeze on parameter MLDI. 9 j+ v9 \. c" l) uFRICTION MEASUREMENT- A measurement of C4 U( x) [& n8 i/ c3 ]the friction characteristics of the runway pavement % q8 i+ U4 N3 S3 }$ Z# g5 osurface using continuous self‐watering friction: q8 S% E* M* J+ v/ h1 |0 g measurement equipment in accordance with the 8 e& c/ |- M( R5 s8 vspecifications, procedures and schedules contained6 J! ?! B4 m$ c& d in AC 150/5320-12, Measurement, Construction,9 O7 Z: n. G! f& p and Maintenance of Skid Resistant Airport Pavement ; e+ L) E, T. f: KSurfaces.% t) n0 g! o6 M) @" \$ ~4 M% ` FSDO(See FLIGHT STANDARDS DISTRICT OFFICE.)5 H% N$ E9 H7 n+ A$ X; X" p4 { FSPD(See FREEZE SPEED PARAMETER.)% P( X" ]- G) s7 P K FSS(See FLIGHT SERVICE STATION.)3 I5 t. H& t* S- t FUEL DUMPING- Airborne release of usable fuel." J: L; g2 b. C0 _2 m1 ~5 ^% R This does not include the dropping of fuel tanks.+ {( r, Y9 q+ K% z (See JETTISONING OF EXTERNAL STORES.) ; g$ p8 B0 E# k4 i* ^FUEL REMAINING- A phrase used by either pilots* z, [ z$ f" K2 ~7 m. C9 L4 t or controllers when relating to the fuel remaining on) Q" ~: A4 G6 @ board until actual fuel exhaustion. When transmitting. M" \+ t0 B6 a( _ such information in response to either a controller ! Z" |0 I! D$ T ?$ A7 k- Aquestion or pilot initiated cautionary advisory to air6 x, Y' S$ a, A- h/ a N H! b traffic control, pilots will state the APPROXIMATE ; F; H) j4 j, J# lNUMBER OF MINUTES the flight can continue, ] y' z, h- V9 C# ?3 ?) j1 {8 l; b with the fuel remaining. All reserve fuel SHOULD + J# w# K3 s8 uBE INCLUDED in the time stated, as should an+ [6 ?4 \5 f. H+ E allowance for established fuel gauge system error. 8 m* W6 x1 L k: JFUEL SIPHONING- Unintentional release of fuel 3 Y- F6 P `4 J; zcaused by overflow, puncture, loose cap, etc.; @1 e: s; D) [# O; X FUEL VENTING(See FUEL SIPHONING.) # n# f$ a, q* A" I' N1 r% H" `: ?+ BPilot/Controller Glossary 2/14/08- M( {; D* x8 F$ H1 |; d PCG G-12 R+ Z" R8 n3 [& E, r G

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GATE HOLD PROCEDURES- Procedures at7 v$ S% ~/ m* z# r% l. S selected airports to hold aircraft at the gate or other * m9 A8 N( Z8 R0 ~ground location whenever departure delays exceed or, u4 e/ w1 G# H, B are anticipated to exceed 15 minutes. The sequence ) R2 q. ~. A/ I% E) z; Gfor departure will be maintained in accordance with 1 B5 _- _+ r7 _# d3 {initial call‐up unless modified by flow control " h( g; z X2 r/ X7 z4 orestrictions. Pilots should monitor the ground / _& w" e( l7 L. V1 d, Scontrol/clearance delivery frequency for engine 1 s/ u3 U0 h. U4 V! e: Rstart/taxi advisories or new proposed start/taxi time 1 G* h! m5 L) l3 P h( p8 @if the delay changes.

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GBT(See GROUND-BASED TRANSCEIVER.) ; b' X2 a; |2 e7 P b0 j1 BGCA(See GROUND CONTROLLED APPROACH.)7 k, B% F. Q, I6 m! R/ d, ? GDP(See GROUND DELAY PROGRAM.) : ~ o/ t: x x; v" A* C* x+ VGENERAL AVIATION- That portion of civil4 y# M# v/ N2 K1 O& `4 T! G aviation which encompasses all facets of aviation' ]" e% \5 t/ m& ~$ @, I except air carriers holding a certificate of public 7 c& H4 L5 g0 I$ Y9 C, k; W2 x9 lconvenience and necessity from the Civil Aeronau‐* E7 l0 t# r; ]! p" W tics Board and large aircraft commercial operators.6 Y7 I# Q& g3 s, O (See ICAO term GENERAL AVIATION.) 7 P3 |" q; o+ d- |! I1 cGENERAL AVIATION [ICAO]- All civil aviation/ j# f( ?6 g7 U( | operations other than scheduled air services and s$ [0 W1 d/ f- z1 M* Z8 Q9 H. Hnonscheduled air transport operations for remunera‐7 ]: i5 F; W0 I tion or hire. L) N, r6 V( v9 y7 X# F7 xGEO MAP- The digitized map markings associated* L4 {8 A( H, T7 o( b5 B0 ~ with the ASR‐9 Radar System. - X# T5 J8 o2 C. M- d" }; B1 N# vGLIDEPATH(See GLIDESLOPE.)7 ]8 N( Y% M' A GLIDEPATH [ICAO]- A descent profile determined1 R9 j: K- ^! z/ k for vertical guidance during a final approach. 7 O# O4 y4 s, J( E4 YGLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.). i, l6 \ V2 m* [6 K GLIDESLOPE- Provides vertical guidance for 5 b' z& K2 }$ g4 J+ ~/ @aircraft during approach and landing. The glideslope/ - @+ y, S" Z) aglidepath is based on the following:, H/ e, O2 l/ c$ g a. Electronic components emitting signals which# I7 i& }3 E* P, w8 [9 N r provide vertical guidance by reference to airborne # E) T4 O) F7 v6 Pinstruments during instrument approaches such as" M: p% y3 r4 F g! T2 I ILS/MLS, or 1 m# ]* M& h" K0 p) Mb. Visual ground aids, such as VASI, which! o- d) @( Q5 W+ s5 R% P provide vertical guidance for a VFR approach or for' W/ Q8 ]. {* f( k8 m6 N the visual portion of an instrument approach and G8 l) V2 h' olanding.$ ?! p% s& _# g+ ~. | c. AR. Used by ATC to inform an aircraft making' J7 G7 J7 g3 t a PAR approach of its vertical position (elevation) + m0 F$ v- C6 z3 L) e1 Z* Qrelative to the descent profile. : E3 z0 b2 j" I(See ICAO term GLIDEPATH.)/ p# y3 w3 p. l7 C8 N GLIDESLOPE INTERCEPT ALTITUDE- The : J+ Q* u+ y( R& p gminimum altitude to intercept the glideslope/path on 1 L& u; Y6 o) L3 B ua precision approach. The intersection of the - b" n' z0 I9 E+ n9 a8 i) qpublished intercept altitude with the glideslope/path,& m' j6 G8 B- c) ~) B5 J designated on Government charts by the lightning 2 e7 E) |- l3 ]5 n7 a3 o- Wbolt symbol, is the precision FAF; however, when the 0 T8 _. A \" l3 v6 h% \approach chart shows an alternative lower glideslope 2 B: Q& n, u* q0 @+ q Gintercept altitude, and ATC directs a lower altitude, 7 D9 I# c/ A- _7 I2 K# wthe resultant lower intercept position is then the FAF.0 O7 I0 c1 [1 y5 Z (See FINAL APPROACH FIX.) 0 M9 x) t; A/ e6 u(See SEGMENTS OF AN INSTRUMENT : j d9 I3 e/ Z1 W/ o" c5 @" }APPROACH PROCEDURE.) " S2 l9 _* t6 u* kGLOBAL POSITIONING SYSTEM (GPS)- A- S9 C1 B5 ^- L' I# S, t space‐base radio positioning, navigation, and * }# B& ?4 ~; j* n* H% Ptime‐transfer system. The system provides highly , q5 ~, d" f* i. ~# l. C) zaccurate position and velocity information, and9 R0 I# B" m& R3 @, S% B) Y0 J L precise time, on a continuous global basis, to an& F% D0 Q8 V( ^: s8 B8 Y- e) I unlimited number of properly equipped users. The 6 \" P/ n' G* ~* bsystem is unaffected by weather, and provides a / J) a$ G0 K2 i( h6 |3 U# Cworldwide common grid reference system. The GPS4 r$ v3 r3 X6 [% x( n6 z/ v concept is predicated upon accurate and continuous 2 U6 O) a4 t+ G9 I& I' T- Vknowledge of the spatial position of each satellite in 0 w/ e- z7 U T! C( qthe system with respect to time and distance from a 4 @! w, J$ W/ i( P! R n8 `% t1 ?transmitting satellite to the user. The GPS receiver 0 h6 e8 E& @4 kautomatically selects appropriate signals from the/ ~1 d( R' {2 ] satellites in view and translates these into three‐ ' _# ]) q$ y: y0 Zdimensional position, velocity, and time. System" p& l7 w6 _" b accuracy for civil users is normally 100 meters# N/ n2 S7 t6 J O horizontally.0 s3 s/ S) S) E: i; B* D GO AHEAD- Proceed with your message. Not to be / z( J: D5 f% [: U7 Kused for any other purpose.' v1 P+ V; `' l& k9 j; R' Z GO AROUND- Instructions for a pilot to abandon l1 o. z4 _& w N0 S. A* w7 Phis/her approach to landing. Additional instructions H! \$ b( h9 l( Zmay follow. Unless otherwise advised by ATC, a ! t) v2 s: Q8 N" i5 j1 {9 aVFR aircraft or an aircraft conducting visual , T* Q6 b# L$ W3 ~approach should overfly the runway while climbing5 _6 E( I% [& L) C# ~0 G: H: r3 U; ? _/ A to traffic pattern altitude and enter the traffic pattern B3 I- X9 O& a% y1 b( _ via the crosswind leg. A pilot on an IFR flight plan 9 e- r) n4 `% K! ]+ [Pilot/Controller Glossary 2/14/08 / q. W$ {+ ]6 ~* K/ L- g( RPCG G-2" B. A9 i$ l" G; Y- l% F+ V making an instrument approach should execute the 4 _+ H6 c+ |/ m0 B# K, B+ zpublished missed approach procedure or proceed as & N3 X# R! k+ F1 i& ? |; y( Ainstructed by ATC; e.g., “Go around” (additional ' ^0 J% E! o3 A% M5 r0 Einstructions if required).& x, c) k8 v; o# A* ]7 a1 M (See LOW APPROACH.) . G+ f8 w% P, T; ~(See MISSED APPROACH.) 4 v& X% }; s. x5 `" I) x& r( mGPD(See GRAPHIC PLAN DISPLAY.)" K& `' b( F+ a; }3 I GPS(See GLOBAL POSITIONING SYSTEM.)" }2 R$ a6 d; V2 u2 ~! G GRAPHIC PLAN DIS PLAY (GPD)- A view2 n" o4 W8 O: l* [) a- W! w l available with URET that provides a graphic display , c0 N1 C6 q: ^7 Iof aircraft, traffic, and notification of predicted4 T$ B5 u- j' C/ C$ b conflicts. Graphic routes for Current Plans and Trial8 \3 ]4 x3 ?. X& ]8 T4 B% h6 ? Plans are displayed upon controller request. . { k E' M z. T# X, t(See USER REQUEST EVALUATION TOOL.)8 M+ p% x1 j7 ~ GROUND-BASED TRANSCEIVER (GBT)- The 1 `, C* \) b( K* e( M7 A) Vground-based transmitter/receiver (transceiver) re‐ * j6 k9 t. \! o! Uceives automatic dependent surveillance-broadcast , p9 c" z# h! R3 S+ e2 D Vmessages, which are forwarded to an air traffic' G) b' a2 M8 y0 e% F# p' U6 X% x control facility for processing and display with other' R' Z" L0 S4 T n radar targets on the plan position indicator (radar / j1 O3 {! h( C4 V: ddisplay).! q9 R1 O- ]- `8 Y) A- u: K6 h4 N. D (See AUTOMATIC DEPENDENT3 v, ~8 [" p6 y1 N" D SURVEILLANCE‐BROADCAST.)( N1 _2 l; z# {( ~ GROUND CLUTTER- A pattern produced on the6 j$ n5 Y/ {: w- y4 W' f radar scope by ground returns which may degrade3 x8 I/ j8 n: B6 [: g# ~ other radar returns in the affected area. The effect of9 W" U# J J8 O0 U- S ground clutter is minimized by the use of moving - s! Q5 q1 N N# S' starget indicator (MTI) circuits in the radar equipment " p9 J _. c+ d4 d+ Kresulting in a radar presentation which displays only 6 x& b1 B; ?3 q1 i, ^targets which are in motion. , d C9 C4 Y1 m5 ](See CLUTTER.): i1 i# R5 B: T) \/ P( f: [: v GROUND COMMUNICATION OUTLET (GCO)-$ w6 t4 C; C, n) y4 ^/ o An unstaffed, remotely controlled, ground/ground ( g! G: R4 W% M6 [: Ycommunications facility. Pilots at uncontrolled ' r- S/ M& g( ?! h4 R( R) F( jairports may contact ATC and FSS via VHF to a ) g& | S0 X* @1 J: ttelephone connection to obtain an instrument& U( P; B5 z. P# c+ S clearance or close a VFR or IFR flight plan. They may $ b) R% F; E. Y( B& J4 X' e" E: `also get an updated weather briefing prior to takeoff. 1 k; i. ?' m6 s. N) \Pilots will use four “key clicks” on the VHF radio to4 K6 R: n1 c+ B7 m contact the appropriate ATC facility or six “key $ [6 f' c+ ~; Hclicks” to contact the FSS. The GCO system is " k+ P* q: H" `# }6 X$ \$ z" qintended to be used only on the ground.- p4 o T" v; B( v GROUND CONTROLLED APPROACH- A radar / ]) g6 R P" Y' i3 B; ]0 Eapproach system operated from the ground by air% K- C. M8 ^. N2 W- Z traffic control personnel transmitting instructions to) D+ S$ ^% g4 I( A O9 ~0 U+ B the pilot by radio. The approach may be conducted( k# g6 ~' y0 n* K6 H0 p with surveillance radar (ASR) only or with both- V$ G5 f) m( _' \7 u5 F surveillance and precision approach radar (PAR). & x8 X* T( K, T3 I* G) x& }! JUsage of the term “GCA” by pilots is discouraged 3 T# T" ~+ M* B9 w- cexcept when referring to a GCA facility. Pilots should- C/ G- l, `5 \ A4 a# u specifically request a “PAR” approach when a+ q! _; f, H7 e7 k. b; ` precision radar approach is desired or request an . _4 _/ D0 j! b& y“ASR” or “surveillance” approach when a nonpreci‐; g1 [& A0 d& [2 z* ]+ R9 m# C3 U3 b& x sion radar approach is desired. - |' x/ d5 b, }' E! E# v. p(See RADAR APPROACH.) 4 Y+ n) x6 u3 ~GROUND DELAY PROGRAM (GDP)- A traffic+ {& e& i& ~1 ]& Q) j, K management process administered by the ATCSCC;7 m( z/ f# {( }7 Y5 I4 R when aircraft are held on the ground. The purpose of4 d e. ^( p# {. f the program is to support the TM mission and limit ! m U0 W# \# e3 D& l) u1 aairborne holding. It is a flexible program and may be2 j+ q& V+ d8 i* k implemented in various forms depending upon the , [9 n* H- j$ q$ a! Kneeds of the AT system. Ground delay programs - H) [4 U" F2 `8 M8 D9 k- Dprovide for equitable assignment of delays to all 6 I) e) p; D2 H7 x3 T4 L$ bsystem users.- L9 ?& H( F8 i# _! e8 R$ u0 Z GROUND SPEED- The speed of an aircraft relative+ \; p( f) Z: T* e! ~- g1 r to the surface of the earth." e3 R* x. w9 g! F GROUND STOP (GS)- The GS is a process that# m: j3 m- ?: K& R4 J, Z. s requires aircraft that meet a specific criteria to remain8 A# r; _" z7 s, X- i% q2 r. B1 j on the ground. The criteria may be airport specific, ! |9 |& i N: _9 u: T$ lairspace specific, or equipment specific; for example,# p# J2 R6 ?; o* { all departures to San Francisco, or all departures * g' W E1 g9 I9 f/ Bentering Yorktown sector, or all Category I and II 6 P6 c$ E9 Z1 I$ \( Zaircraft going to Charlotte. GSs normally occur with / s0 C g& V* X) clittle or no warning. 0 l! z: h; |- }GROUND VISIBILITY(See VISIBILITY.)+ o u: \% z! j0 r* U% M GS(See GROUND STOP.) u& E' H& ^$ U8 ?4 g; N9 } Pilot/Controller Glossary 2/14/08; }# s+ P9 W+ d( H+ f! Y PCG H-1& S& ~9 c( L8 [ H, l! s! T3 |0 X4 C# m7 _ HAA(See HEIGHT ABOVE AIRPORT.) ! K5 }5 o! W0 j/ k5 w SHAL(See HEIGHT ABOVE LANDING.) " x( b# i) [3 i+ y) x5 vHANDOFF- An action taken to transfer the radar3 T3 r) V0 I/ c1 z! j2 [6 o1 X identification of an aircraft from one controller to 1 O" x/ w) e( B: C6 g6 p% wanother if the aircraft will enter the receiving ' {% S' C; \8 V& ~3 N, i- Icontroller's airspace and radio communications with3 _# r* x3 v0 D/ Q. S3 h& a the aircraft will be transferred.9 Z1 q$ v& B. W# N5 a) F HAR(See HIGH ALTITUDE REDESIGN.); e& ?6 D3 o" `" z/ W HAT(See HEIGHT ABOVE TOUCHDOWN.)+ w' J O3 {& q: \' i# r HAVE NUMBERS- Used by pilots to inform ATC6 l6 q6 N5 x3 g* @. t! X' k3 c that they have received runway, wind, and altimeter7 c+ V+ z6 i2 ?; n# B information only. $ C2 B& `6 O* n9 B/ jHAZARDOUS INFLIGHT WEATHER ADVISO‐ 0 f1 E" g& b& i/ }* cRY SERVICE- Continuous recorded hazardous, h6 w/ r6 [. X; q# b inflight weather forecasts broadcasted to airborne9 q0 R& A( t5 B. H7 t( X3 y; Q0 X pilots over selected VOR outlets defined as an ! w; k* q: K2 K5 G6 j! ~HIWAS BROADCAST AREA.2 d" h4 \. U3 X# m+ @" ] HAZARDOUS WEATHER INFORMATION-5 C3 |0 l3 ^& @8 K' a' U Summary of significant meteorological information ' u) x4 S0 w' N. r# }(SIGMET/WS), convective significant meteorologi‐ ]8 y# t# [; o* K8 w4 I m8 n2 xcal information (convective SIGMET/WST), urgent & D& x8 j) l5 K# Gpilot weather reports (urgent PIREP/UUA), center $ y3 k/ p ^- _weather advisories (CWA), airmen's meteorological5 m/ h, ^9 p; \; H# L5 {/ ]3 e2 N information (AIRMET/WA) and any other weather3 Z$ a- ^2 _( F3 q, e! \& q& S such as isolated thunderstorms that are rapidly * G, l/ k% |9 f1 C* M0 ydeveloping and increasing in intensity, or low 6 o% D* K" |6 S1 G6 Oceilings and visibilities that are becoming wide‐ 8 A. o& R# T( `( L/ j0 Yspread which is considered significant and are not & N+ C2 ]) X& m) U+ Nincluded in a current hazardous weather advisory., I- Y/ y& z; n/ m" ^ HEAVY (AIRCRAFT)- ' o% w; w0 l7 j5 q( z& R(See AIRCRAFT CLASSES.)" B. q+ k* e2 K v/ O5 C HEIGHT ABOVE AIRPORT- The height of the. @% J8 z( Q& M- ~- Y# { Minimum Descent Altitude above the published8 ~4 N+ _, ?* S6 T, n% S airport elevation. This is published in conjunction + P$ i- W j7 L" v' R6 Jwith circling minimums. ) z: V" i X) Y(See MINIMUM DESCENT ALTITUDE.) ! Y o- V2 R8 u+ yHEIGHT ABOVE LANDING- The height above a; j3 A5 l( O/ O3 f, U4 R designated helicopter landing area used for helicopter ' P* d/ {% O3 m ~* Q6 m( a, h; L, Tinstrument approach procedures. 0 M: Q {3 G" t(Refer to 14 CFR Part 97.) 9 \8 C5 x7 B7 g5 {/ T0 Q3 W# eHEIGHT ABOVE TOUCHDOWN- The height of 0 f" N& C5 \( r0 i! Y; _1 q( Sthe Decision Height or Minimum Descent Altitude& S$ H9 R' f! v5 c0 F/ {; { above the highest runway elevation in the touchdown 4 A/ r' G2 Z0 N n5 P9 ]: T9 [zone (first 3,000 feet of the runway). HAT is1 M7 H v6 D" q2 s+ n published on instrument approach charts in conjunc‐* n$ G# ?* T" l5 g; |+ I5 D; Z tion with all straight‐in minimums.% f+ r% m; w- Z+ z9 f+ k' C- M (See DECISION HEIGHT.). ^+ J* K8 s, }3 z2 J# \ (See MINIMUM DESCENT ALTITUDE.) 6 _6 }& W2 t) ` @0 t+ zHELICOPTER- Rotorcraft that, for its horizontal- L# Q( r" H5 ]/ j9 e) [ motion, depends principally on its engine‐driven3 }, T: ]/ l) T' R rotors. 5 x2 @+ [) l7 W, C8 D4 k) b) w(See ICAO term HELICOPTER.)

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HELICOPTER [ICAO]- A heavier‐than‐air aircraft# W1 A& i2 W3 M* d* p3 U0 |% \ supported in flight chiefly by the reactions of the air o& q1 m5 g, d9 Kon one or more power‐driven rotors on substantially# o3 J% y& n9 c* ^& F" f1 E vertical axes.! p% c6 A8 v. v% q HELIPAD- A small, designated area, usually with a' c6 `+ L, A' W- T prepared surface, on a heliport, airport, landing/take‐$ y" W) _9 ?/ ~/ l5 o off area, apron/ramp, or movement area used for 3 {$ K0 D" Q; ^4 s6 Btakeoff, landing, or parking of helicopters. % ]5 X; P- ?0 ?5 O0 @( ^/ KHELIPORT- An area of land, water, or structure used 2 S; X; ~6 b6 A5 b3 H8 t6 por intended to be used for the landing and takeoff of 6 H- ~+ V3 x. F8 K9 \% I/ \helicopters and includes its buildings and facilities if! S: F% Q( N, }2 s any.1 j0 T# }" F1 E8 s& I HELIPORT REFERENCE POINT (HRP)- The $ R9 K. J' Q& t, qgeographic center of a heliport.3 Q+ G$ r) i+ t, A# \/ |+ k! I HERTZ- The standard radio equivalent of frequency% C6 v/ x k) d in cycles per second of an electromagnetic wave.5 E( r# K* y8 {% ]( O- n Kilohertz (kHz) is a frequency of one thousand cycles . T: W. A+ E- z- R% Sper second. Megahertz (MHz) is a frequency of one& r+ s2 }2 E# U/ j- Q/ j million cycles per second. ( c5 D2 c" Y. V: `2 x! ]! `HF(See HIGH FREQUENCY.); H5 G( d2 u) Q3 }! ^+ C$ i HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.)6 S8 x3 H. e4 h7 K HIGH ALTITUDE REDESIGN (HAR)- A level of ; g- [) Z( [( H& m4 a, Hnon-restrictive routing (NRR) service for aircraft6 s& @/ e. ]! a that have all waypoints associated with the HAR 4 o& |4 e, y: y+ @& B Jprogram in their flight management systems or8 t1 }. k; x, N RNAV equipage. + l: O ~$ ~0 H, Y6 ^6 J: f) j% ePilot/Controller Glossary 2/14/08 5 f2 r9 v! o4 y# S. o+ w9 YPCG H-2* Z f0 W5 B3 }8 z1 z" A( D HIGH FREQUENCY- The frequency band between, \5 L, X# l0 ^1 ] 3 and 30 MHz. ) T8 z: z8 m6 }) R/ R1 i1 V(See HIGH FREQUENCY COMMUNICATIONS.) # J. c: o* S( S9 { D) L2 ]4 tHIGH FREQUENCY COMMUNICATIONS- High9 X+ o9 d! ]) ]# s+ h radio frequencies (HF) between 3 and 30 MHz used1 l+ d& e! M' V7 u8 b1 G for air‐to‐ground voice communication in overseas 9 H6 p3 k) G& eoperations. , `+ h, m1 Y/ ~5 jHIGH SPEED EXIT(See HIGH SPEED TAXIWAY.); v8 A; B) C' @) l' ^ R# Q HIGH SPEED TAXIWAY- A long radius taxiway + I: o5 o. [& t. \0 adesigned and provided with lighting or marking to4 K( _( u: b! E) ]' i, [6 n7 L% Z define the path of aircraft, traveling at high speed (up . \. r' G+ q0 \2 a# gto 60 knots), from the runway center to a point on the ( W7 s: f3 U5 t/ B) ucenter of a taxiway. Also referred to as long radius4 W$ i0 B2 X! x" L7 p( Q' w exit or turn‐off taxiway. The high speed taxiway is; n, x r5 Y7 J) F7 W# J designed to expedite aircraft turning off the runway 4 S: Z; C) N) T3 yafter landing, thus reducing runway occupancy time. / ~3 N: L; F" }8 DHIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.) ~" q% N G. R2 C# v! Q1 ~HIWAS(See HAZARDOUS INFLIGHT WEATHER6 D, X/ C/ D" v# w2 [" _8 c ADVISORY SERVICE.) 3 i6 i! t# k+ X" H; N5 g4 |HIWAS AREA(See HAZARDOUS INFLIGHT WEATHER* k/ ~! C1 H; U* n ADVISORY SERVICE.) / u' \* N w6 Q4 x0 PHIWAS BROADCAST AREA- A geographical area9 K" R, f3 d" H! U of responsibility including one or more HIWAS' Y" o! Q9 o+ J2 i) ]$ a3 v6 ?) n outlet areas assigned to an AFSS/FSS for hazardous& F n- _$ Y0 s9 j weather advisory broadcasting. 7 X1 Y5 x. R/ _ @HIWAS OUTLET AREA- An area defined as a 150 1 N6 Z9 o, ^- D6 G' ], ANM radius of a HIWAS outlet, expanded as necessary: I2 Y# V( I2 g7 I& F+ z0 V to provide coverage. , f" |- |1 o+ F$ Y1 |$ a5 |HOLD FOR RELEASE- Used by ATC to delay an . D! C! k) P5 }. Faircraft for traffic management reasons; i.e., weather,7 n+ l/ o3 X, y& c/ A8 @, C8 z+ Z traffic volume, etc. Hold for release instructions) v& w0 F) E; b& m9 s (including departure delay information) are used to" ~: X4 l! b( ~7 y' b6 s# u% b/ Q inform a pilot or a controller (either directly or5 ?8 [5 e% G2 y# a0 W( V+ C8 ?& g- d through an authorized relay) that an IFR departure+ F/ w% M+ }; u9 j; s6 l clearance is not valid until a release time or additional $ h8 \# s" ] b! ^7 sinstructions have been received. / Q) E0 A9 H# i( K o(See ICAO term HOLDING POINT.) 1 ]% k( [- n0 q N" I. g5 ?HOLD IN LIEU OF PROCEDURE TURN- A hold# K: R7 f3 u. Y- A1 [ in lieu of procedure turn shall be established over a* G4 ]. D9 U& G0 A) p [ final or intermediate fix when an approach can be " i6 o& c! V8 q; F, X( P6 tmade from a properly aligned holding pattern. The) u [ R! n& f) ?) a hold in lieu of procedure turn permits the pilot to , o2 n8 ^1 y; {% ?align with the final or intermediate segment of the 0 s, d" c7 H- g- C! N8 w. Q1 M6 x) `. d5 xapproach and/or descend in the holding pattern to an 7 n: s2 M. w. {6 Zaltitude that will permit a normal descent to the final# O7 B# I+ h8 I3 q% ]3 y6 A6 b2 m approach fix altitude. The hold in lieu of procedure* j1 |; n# [: U turn is a required maneuver (the same as a procedure 4 ?2 W4 W+ w: d) s! Z8 Fturn) unless the aircraft is being radar vectored to the d: a3 w3 p* Kfinal approach course, when “NoPT” is shown on the ( q- I; H5 U: J5 {5 @9 I7 Xapproach chart, or when the pilot requests or the0 j. L% V/ a+ S5 C! T/ O9 e controller advises the pilot to make a “straight-in” # t& {9 @) Y+ J5 Z! h' {' g( Tapproach. " t( i. k/ d5 T' [HOLD PROCEDURE- A predetermined maneuver / j" w& t; T1 Awhich keeps aircraft within a specified airspace while + ~% w7 h, k) s( P9 V. F( m- Uawaiting further clearance from air traffic control.. V, y! }. I1 G2 V Also used during ground operations to keep aircraft" O" o; Y$ s- }: t within a specified area or at a specified point while+ ^" N+ s+ _3 z% O8 P, E& q: \8 d awaiting further clearance from air traffic control. 4 O! k: X4 J( o. W) J! c(See HOLDING FIX.)2 A$ s' L6 `4 D# O$ t (Refer to AIM.) 1 |4 Y: E- n$ c9 B1 ZHOLDING FIX- A specified fix identifiable to a 6 J& t# i6 s; m* y( z, fpilot by NAVAIDs or visual reference to the ground 8 }% x4 |6 I: Q& s* W% c; c0 I( `used as a reference point in establishing and 9 z: ?' q# o1 ?$ {) O+ p Z$ B) M" smaintaining the position of an aircraft while holding. % a' j; U) p: D+ h2 j2 y" C, {1 C(See FIX.)1 D: ^ t; y+ `5 D (See VISUAL HOLDING.) ' f5 e' J; ~6 ?& H(Refer to AIM.) , r n# G+ P+ H' R5 o! ~1 YHOLDING POINT [ICAO]- A specified location,# S! R% l; O; r1 y- _ identified by visual or other means, in the vicinity of* B) B; V$ _' Z which the position of an aircraft in flight is + V N% o# k- f4 qmaintained in accordance with air traffic control; W- W4 i) u) j; n; ?: m& d7 f clearances.0 h! [, A. [( {8 S0 ^; S, M HOLDING PROCEDURE(See HOLD PROCEDURE.)1 D' z$ b( y9 i j1 N. d4 ?5 m HOLD‐SHORT POINT- A point on the runway $ j, v8 R# R, z: Ibeyond which a landing aircraft with a LAHSO # ~: i6 z) P0 E; R5 ~& k2 ?% Y& }clearance is not authorized to proceed. This point! r% x5 @( o' V4 i may be located prior to an intersecting runway, " {3 H W$ ?9 y* w4 `taxiway, predetermined point, or approach/departure6 A6 a! I) c( O) t1 n flight path. . l/ e2 u4 o) c; |9 CHOLD‐SHORT POSITION LIGHTS- Flashing: |; v3 I; O$ m' ^/ z" w8 Q in‐pavement white lights located at specified . G3 O9 B! [) t! v& }9 P! M; hhold‐short points. [ J3 w' _8 N7 c" t HOLD‐SHORT POSITION MARKING- The $ u3 p9 s) K/ h- upainted runway marking located at the hold‐short ; Q& H0 J% b' ?% p8 p. L) @+ zpoint on all LAHSO runways.! v( } H- x# m- v" C3 X- s HOLD‐SHORT POSITION SIGNS- Red and white' v; T X/ s$ K- k holding position signs located alongside the* @3 D' Y$ ?2 n hold‐short point.( z/ V5 y& O6 l Pilot/Controller Glossary 2/14/08 ! b) v1 J0 W* k9 J6 A& F4 S$ CPCG H-3% H/ `7 m0 M8 `8 z1 M/ }& K. s0 @ HOMING- Flight toward a NAVAID, without a0 J L( _8 b3 q+ N: I. k; X correcting for wind, by adjusting the aircraft heading 7 p5 Z$ ?7 D4 \; L, Tto maintain a relative bearing of zero degrees.8 {# m3 C9 @( i" s# @0 ] (See BEARING.)! b% d, T1 j' [" X3 ? (See ICAO term HOMING.) , Y7 x* Z. _8 u5 a `3 ^' N3 E& |HOMING [ICAO]- The procedure of using the6 U) y) m, R! M( R S direction‐finding equipment of one radio station with 0 J! H" V( A+ {! Ithe emission of another radio station, where at least* M# d7 x% e! K% A, D one of the stations is mobile, and whereby the mobile , z& ]( u; u Y2 O( r! z1 {station proceeds continuously towards the other. r% v0 U8 Y$ ?9 X station. 3 S7 Y$ y% Q: ?0 ^HOVER CHECK- Used to describe when a- \5 y8 E7 v, f helicopter/VTOL aircraft requires a stabilized hover 9 x. T' k/ K& x+ C8 e+ D1 Cto conduct a performance/power check prior to hover 8 a& V% L' k6 Y1 O( Wtaxi, air taxi, or takeoff. Altitude of the hover will( }' F. q+ m1 g* o0 a: l vary based on the purpose of the check. % L5 p) _# j& T& }8 S$ U% e5 ~HOVER TAXI- Used to describe a helicopter/VTOL 6 M* x8 |' }; c3 ~) Qaircraft movement conducted above the surface and 0 F: \4 [7 U0 Y3 r- I/ Pin ground effect at airspeeds less than approximately - J1 S" T2 N# I$ y20 knots. The actual height may vary, and some ! O; n+ v) i# h Jhelicopters may require hover taxi above 25 feet AGL 3 Y/ _+ y2 h6 e( vto reduce ground effect turbulence or provide 4 A! I. \+ D+ I, V6 W: a0 jclearance for cargo slingloads.; p" A4 C# L) E9 b' @ (See AIR TAXI.)5 j1 c! J$ _, \% U+ I (See HOVER CHECK.)- {5 s% W3 U' U& g1 b (Refer to AIM.)7 F/ x7 t1 T( C, v HOW DO YOU HEAR ME?- A question relating to6 R0 w6 C; k' V. [ the quality of the transmission or to determine how 7 k* F% D+ p& s+ }; A, Rwell the transmission is being received./ f( n) n _5 L4 | HZ(See HERTZ.) 1 m& t& W& f3 L- L; @Pilot/Controller Glossary 2/14/08 : r2 t3 Y5 S5 p3 w9 D5 ?PCG I-1 * r) Q" a& O" |. ~0 ?: NI * X; S$ M0 u' h3 R2 y5 B/ F6 }% BI SAY AGAIN- The message will be repeated. ' r5 h% Y5 ?$ w0 v2 WIAF(See INITIAL APPROACH FIX.) 3 n6 d) g2 }: l: X8 E" J/ WIAP(See INSTRUMENT APPROACH6 ^7 ]/ N$ _- E* e PROCEDURE.): H0 E0 c( O3 Y: L9 }8 W IAWP- Initial Approach Waypoint3 l y) n4 ?- X% V5 J' T! k ICAO(See ICAO Term INTERNATIONAL CIVIL5 y1 K8 n3 P% F AVIATION ORGANIZATION.) & R( V, B* Q) W/ A* b' V. tICING- The accumulation of airframe ice.) B6 i) m) c$ x! P Types of icing are: ) L$ |! s+ Y3 V3 V8 da. Rime Ice- Rough, milky, opaque ice formed by, [- u4 p% s6 F+ Q4 }3 _ the instantaneous freezing of small supercooled * F5 F, b' j% P; T! F/ `, Twater droplets.( _6 F5 V0 [$ g; c3 ` b. Clear Ice- A glossy, clear, or translucent ice 8 n- T K/ z, T3 Sformed by the relatively slow freezing or large 4 U. W; \- u0 X/ z' A5 g. asupercooled water droplets." H+ [- V, x7 H( L" ?5 H c. Mixed- A mixture of clear ice and rime ice.! K# ^* u C1 f1 k y9 n Intensity of icing:. A0 h$ w9 I ?7 H' w5 |$ k) q a. Trace- Ice becomes perceptible. Rate of 6 X4 G; O) ~/ Baccumulation is slightly greater than the rate of ( U* _$ D3 p9 x2 [. P7 D$ Fsublimation. Deicing/anti‐icing equipment is not & O$ T5 \. f6 P iutilized unless encountered for an extended period of * Z' S' ^% R& N* T5 {$ ~time (over 1 hour).' H4 z2 S, c7 ~5 ?; H7 a3 O3 m4 B b. Light- The rate of accumulation may create a$ D7 z" L# |8 `$ R problem if flight is prolonged in this environment , F) |6 Z# U& _; `2 o* M* g, U(over 1 hour). Occasional use of deicing/anti‐icing1 x3 R. |' v+ W* R0 }0 B# u equipment removes/prevents accumulation. It does 8 l- S. ?9 n5 B# X8 @* znot present a problem if the deicing/anti‐icing$ \4 K" C9 T# C" o' D equipment is used.- I5 |% c: R" L c. Moderate- The rate of accumulation is such that ' K. S) n, ?# z% v+ xeven short encounters become potentially hazardous % ?. m) G- c+ D. L( wand use of deicing/anti‐icing equipment or flight! L' y# c/ B* Z( w diversion is necessary. + U6 \* H- z- e+ t" L; Jd. Severe- The rate of accumulation is such that/ J7 U6 X \! Z7 Z5 M) L deicing/anti‐icing equipment fails to reduce or k1 E) D9 R. ^1 `2 r) d3 x, t control the hazard. Immediate flight diversion is# L1 ~' U6 I- c: q necessary. ! R9 s/ V! ?, X! g! Y! ^7 ~IDENT- A request for a pilot to activate the aircraft . x3 @- d; P4 k& y3 \, v$ ?transponder identification feature. This will help the . a& @! ~$ Y* bcontroller to confirm an aircraft identity or to identify0 `) J+ d/ k9 V. G6 z an aircraft. 6 F5 r( J+ h- c! g* U' \+ A(Refer to AIM.) 0 [7 j- L- y! I# ~IDENT FEATURE- The special feature in the Air 8 J2 X5 L( H/ U; J" MTraffic Control Radar Beacon System (ATCRBS) / c# i( r1 T a% c4 i2 iequipment. It is used to immediately distinguish one3 I/ L' R' M8 ]; a" t" z5 L2 Z* l displayed beacon target from other beacon targets. & h% Z# k. D* @$ h0 [3 T(See IDENT.)- R" T7 E/ [" L+ V6 g1 i) D; q IF(See INTERMEDIATE FIX.)) x( u' }3 }( x; D, F IFIM(See INTERNATIONAL FLIGHT INFORMATION 9 v! F% }7 u9 h: P% W* dMANUAL.) % r1 P) P& D0 Q2 R0 kIF NO TRANSMISSION RECEIVED FOR Z. Z$ `4 C( S* J(TIME)- Used by ATC in radar approaches to prefix# _' @9 L1 e2 G1 I' D9 I procedures which should be followed by the pilot in7 F, |9 V- p, D! J! v, z s% _! [ event of lost communications. 7 g4 E0 t" f& i) N/ V(See LOST COMMUNICATIONS.) 6 [0 W. x. C( a0 TIFR(See INSTRUMENT FLIGHT RULES.)( f' j u) L( d IFR AIRCRAFT- An aircraft conducting flight in + m. s7 J- y" L0 |; K3 U0 W: baccordance with instrument flight rules. q8 B0 _: T* [$ H! R0 {( } IFR CONDITIONS- Weather conditions below the7 W/ O) N$ [6 A minimum for flight under visual flight rules. o' z' H: L# s9 v (See INSTRUMENT METEOROLOGICAL7 }( i! \- @' N \9 O/ n CONDITIONS.) % m7 n4 w9 ], N9 v! u0 gIFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND 7 ~; s1 J- z6 {& O/ \3 \8 V: {DEPARTURE PROCEDURES.)- V3 s7 S5 I* j% x$ M @% S; s (Refer to AIM.) \$ c: n% g1 D6 ~1 l: ^& o IFR FLIGHT(See IFR AIRCRAFT.) 4 k$ o3 o1 z5 j" AIFR LANDING MINIMUMS(See LANDING MINIMUMS.)& H# l7 h" n/ L% v6 |; ~ IFR MILITARY TRAINING ROUTES (IR)- Routes 3 X6 J( S: |0 E: Wused by the Department of Defense and associated # r! h% U3 p N! o" j" r+ bReserve and Air Guard units for the purpose of+ U& @3 [5 ~) B+ o% N" V conducting low‐altitude navigation and tactical % J9 I! v$ Z* ntraining in both IFR and VFR weather conditions $ t3 e' W! A( c* R! g: \below 10,000 feet MSL at airspeeds in excess of 250' M1 @# D! B& r; [$ v7 s knots IAS./ u0 f6 n0 s+ X2 @& U3 m# B6 n IFR TAKEOFF MINIMUMS AND DEPARTURE ]" {. a3 H) N6 N PROCEDURES- Title 14 Code of Federal 7 w! G) p# M( r) u1 `9 lPilot/Controller Glossary 2/14/08( z2 |4 @: e' m$ X PCG I-2

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Regulations Part 91, prescribes standard takeoff rules ( K }* U; i4 X9 H7 z8 s9 d7 efor certain civil users. At some airports, obstructions& m% a. Y! I( w ?, A or other factors require the establishm ent of ) n/ \% D, R) o) {* j2 i; O, Fnonstandard takeoff minimums, departure proce‐ 4 F, y. j/ w2 A% E' I0 Y5 S% bdures, or both to assist pilots in avoiding obstacles: v1 Q$ N# s7 m/ n5 M during climb to the minimum en route altitude. Those ) w1 s; ^4 ?* kairports are listed in FAA/DOD Instrument Approach $ b8 m! D' p% T& Y2 ]/ rProcedures (IAPs) Charts under a section entitled 7 Z7 h% [4 B/ {0 }“IFR Takeoff Minimums and Departure Procedures.” 1 h2 c; ?8 D3 zThe FAA/DOD IAP chart legend illustrates the 7 K! z1 {1 R7 E/ h, h) Nsymbol used to alert the pilot to nonstandard takeoff 3 t0 p4 [9 `: }minimums and departure procedures. When depart‐ 1 U$ z7 y& V5 B3 K9 W9 ~' oing IFR from such airports or from any airports where % L6 |8 _! y- ], c3 R9 ]6 bthere are no departure procedures, DPs, or ATC" N5 ], E( r" H0 W% a, c: V2 i facilities available, pilots should advise ATC of any 1 G# Z0 M' T4 J7 B1 Ddeparture limitations. Controllers may query a pilot * [" J, Y7 X' wto determine acceptable departure directions, turns,: T- F2 s- z# p) B- ] or headings after takeoff. Pilots should be familiar & M2 s( c, s% J! {with the departure procedures and must assure that$ Q G+ q4 O* s3 K8 w. u their aircraft can meet or exceed any specified climb# @2 U& D& W+ u+ ?7 m( O/ ]8 q gradients." c: a7 P9 k/ b/ ~ IF/IAWP- Intermediate Fix/Initial Approach Way‐ & v/ B5 c8 u$ Z6 t* s$ wpoint. The waypoint where the final approach course 9 ~( b' f7 p. O' Nof a T approach meets the crossbar of the T. When : e2 ]' \$ T- ndesignated (in conjunction with a TAA) this " z( a, {; G. {( l, Z zwaypoint will be used as an IAWP when approaching ( G o. S$ e- f+ G% t2 S) G% \the airport from certain directions, and as an IFWP# K* Y8 B5 ?. i+ a when beginning the approach from another IAWP. 7 r/ q* Y0 V: \0 dIFWP- Intermediate Fix Waypoint( }: r! R- k+ e2 a% P' J0 A; n ILS(See INSTRUMENT LANDING SYSTEM.) % ~8 t1 P/ x) I7 ^/ ~" }ILS CATEGORIES- 1. ILS Category I. An ILS # @, r) _, Q2 V) O7 ~approach procedure which provides for approach to , k1 b3 `, Y$ aa height above touchdown of not less than 200 feet( D& B8 O& y# s and with runway visual range of not less than 1,800! m1 A3 @& v- L5 ~* e feet.- 2. ILS Category II. An ILS approach procedure8 L9 K+ Q7 T+ F: N8 {3 Z" ^! Y which provides for approach to a height above+ }. s* r2 |; M: D touchdown of not less than 100 feet and with runway& k) ]0 V* V; B visual range of not less than 1,200 feet.- 3. ILS8 n% S2 `! _' N- K4 B: d, F Category III: 6 x: h) |. N6 [- @: N8 Da. IIIA.-An ILS approach procedure which7 c5 ]3 M, p% Z( H5 } provides for approach without a decision height) m; W. U2 f6 z8 V minimum and with runway visual range of not less. s7 A x3 {/ b) ? J6 w* O+ C$ [8 s than 700 feet. 2 ^" Y5 e$ P1 Z6 I6 w! Cb. IIIB.-An ILS approach procedure which' z' Y: s8 a- o6 d: | provides for approach without a decision height ! v5 {! I0 x! A/ b$ w9 x5 zminimum and with runway visual range of not less % r/ e5 K2 m( f# Pthan 150 feet. / X9 t" J; q2 X: O0 }3 P Q, y- ~c. IIIC.-An ILS approach procedure which0 w. T5 L5 W9 S: e% ~" N/ w provides for approach without a decision height* Z- c1 B; J' \3 m2 |5 l8 a* p minimum and without runway visual range - Y2 V z# ~! [minimum.4 w$ q0 \4 E1 }8 W( g% w( Y* L! f ILS PRM APPROACH- An instrument landing 5 z5 w3 K" T! s, P# ~3 csystem (ILS) approach conducted to parallel runways ) a. l# l& E L" {9 kwhose extended centerlines are separated by less than7 @ e }6 R* _ C E) y 4,300 feet and the parallel runways have a Precision; Y7 y1 E. d4 C) l& j0 \9 P K Runway Monitoring (PRM) system that permits: A% Q2 M M9 ]1 O7 `3 j5 k/ O simultaneous independent ILS approaches. - g) E6 s- K; i$ J, rIM(See INNER MARKER.) 2 g7 L5 ^* W) sIMC(See INSTRUMENT METEOROLOGICAL . q& `5 M% h! y% F7 S5 hCONDITIONS.)9 O& X: q+ W% v+ ? a4 r- S. @ IMMEDIATELY- Used by ATC or pilots when such8 z& L, T5 I9 I! q$ ^ action compliance is required to avoid an imminent! L" c8 z( {! A, ?* k/ } situation. 6 m, Q f& K; G* @INCERFA (Uncertainty Phase) [ICAO]- A situation * l2 D5 Z+ S- j, \wherein uncertainty exists as to the safety of an* b( D" u; X( ~4 k. E4 |1 D aircraft and its occupants.) M7 t6 k! X/ n! x INCREASE SPEED TO (SPEED)- Y$ s( F+ N, i& ?1 I# r(See SPEED ADJUSTMENT.) 0 q$ j l' M% IINERTIAL NAVIGATION SYSTEM- An RNAV + Q ]7 |- P/ W; Usystem which is a form of self‐contained navigation. + ] F1 t; {6 m4 r(See Area Navigation/RNAV.) ]' E( K$ i/ R+ T" J( [, C+ xINFLIGHT REFUELING(See AERIAL REFUELING.) 5 X+ A3 U) I+ ?INFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.)0 G, X, V$ d0 |% q, r INFORMATION REQUEST- A request originated $ s k% h: P( [" F3 Hby an FSS for information concerning an overdue3 t, U: K1 f$ Z* N+ N VFR aircraft.3 y4 J: u- M4 O: n4 P6 j. B INITIAL APPROACH FIX- The fixes depicted on4 C) ?; L3 K7 ~( {/ v/ j6 r instrument approach procedure charts that identify 7 F6 t0 k U: Jthe beginning of the initial approach segment(s). ( L0 W! ~) ?* \0 O+ y/ f4 ?8 _% b(See FIX.)9 I" s3 L3 l0 c& K$ q" {" V* s (See SEGMENTS OF AN INSTRUMENT 9 s2 z$ J9 n6 U5 x; E9 p1 rAPPROACH PROCEDURE.) # }' d: o0 \6 j) Y6 R/ @3 RINITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT7 I1 L Z% M. g, }* G/ D APPROACH PROCEDURE.) 6 G) X9 _3 {7 T) V- w) a$ CINITIAL APPROACH SEGMENT [ICAO]- That % p% W$ U( u2 \) }segment of an instrument approach procedure / m: n/ a- F2 D: c! sbetween the initial approach fix and the intermediate% w1 y+ j3 t9 ?4 q6 j$ ?, { approach fix or, where applicable, the final approach 5 @+ R5 ~7 F! z/ yfix or point. D1 z8 p9 x, C Pilot/Controller Glossary 2/14/08 ' X G* y9 X# dPCG I-3 + o! p5 a1 Y, ^6 jINLAND NAVIGATION FACILITY- A navigation9 A' o* m: z ~4 _ aid on a North American Route at which the common ( f% n$ m! L8 E6 o. Sroute and/or the noncommon route begins or ends. : x3 `$ V0 F( v" n" pINNER MARKER- A marker beacon used with an 3 p3 B1 X( u( }/ O& r+ o! h; PILS (CAT II) precision approach located between the5 M1 E% s% L& ~9 P middle marker and the end of the ILS runway, 5 D6 r) i6 U1 c) x2 F( [transmitting a radiation pattern keyed at six dots per4 g! J; f! R+ G1 V" G5 d second and indicating to the pilot, both aurally and , s/ Z4 F) ?5 j7 q8 S# R' T* _ yvisually, that he/she is at the designated decision ' J; K3 _, \/ P' }% iheight (DH), normally 100 feet above the touchdown 2 x5 _% k& z& `# Izone elevation, on the ILS CAT II approach. It also 6 f) X# v- K3 D8 dmarks progress during a CAT III approach. / e( t1 a- \; }8 f# c(See INSTRUMENT LANDING SYSTEM.)( Y0 X2 u# H4 h (Refer to AIM.)) o5 \6 Q: Y; g2 d- V INNER MARKER BEACON(See INNER MARKER.) 2 l3 V; z6 C& K- X4 o1 cINREQ(See INFORMATION REQUEST.) 2 }- D& M+ _4 G3 xINS(See INERTIAL NAVIGATION SYSTEM.)( }7 R, t1 |' Y5 d) y INSTRUMENT APPROACH(See INSTRUMENT APPROACH; C5 `/ N7 \$ @1 c PROCEDURE.)/ X# X9 U9 Y( u$ ]3 t INSTRUMENT APPROACH PROCEDURE- A1 c* H5 X9 P6 O& v% } ~ series of predetermined maneuvers for the orderly+ l- \; _; j3 @1 C* E7 ] transfer of an aircraft under instrument flight 5 @- ~3 ?( S0 {" Econditions from the beginning of the initial approach' F! K$ B* O: s) S5 w* [" } to a landing or to a point from which a landing may 4 C+ Y8 L" s0 |8 x. w6 h" bbe made visually. It is prescribed and approved for a & z* k/ K2 P4 e, n9 r) u/ D; k3 mspecific airport by competent authority. ! V4 a5 u& t6 _" m! J7 l(See SEGMENTS OF AN INSTRUMENT ! h) T0 [ ]' G' \0 s; \8 a- sAPPROACH PROCEDURE.) 9 c- |5 ]2 _. m9 X- n( y(Refer to 14 CFR Part 91.) % p- R% z( c9 Z/ k. r( d* j( n5 Q7 \(Refer to AIM.) 1 |: Z2 R) f3 L2 r1 s4 Ma. U.S. civil standard instrument approach5 Y) W2 F* M" ~& X$ U* c7 M9 }0 t procedures are approved by the FAA as prescribed 2 k8 i3 O3 f; W) p/ H4 f0 iunder 14 CFR Part 97 and are available for public4 |3 T, ]( X( b1 ] I0 ] use. ; K+ b# \- c. E/ K" ab. U.S. military standard instrument approach * u' G. f: _5 ?( n6 h) e2 ]procedures are approved and published by the ; o6 n. j9 E; j4 mDepartment of Defense.. t( I0 w5 k0 p, n c. Special instrument approach procedures are6 J( w* _+ K+ s7 q7 h approved by the FAA for individual operators but are7 V8 @2 H7 F5 b# ^ not published in 14 CFR Part 97 for public use.$ i8 p7 C: @& M+ P' @ (See ICAO term INSTRUMENT APPROACH& q9 I0 B' s y3 x. x PROCEDURE.)8 E5 Q! D$ @3 z0 H% A INSTRUMENT APPROACH PROCEDURE T3 f9 D" P8 n( @4 |[ICAO]- A series of predetermined maneuvers by ) F9 s: B! M& C, areference to flight instruments with specified' v3 g1 n8 {, a) ^; w; J! a protection from obstacles from the initial approach 9 S5 q) U, m' v* Y' H8 _fix, or where applicable, from the beginning of a6 q" E+ m& o$ A7 ^# l defined arrival route to a point from which a landing , z- j% g1 o% r0 W6 Dcan be completed and thereafter, if a landing is not ' n P1 D; x* M, e# I2 ]completed, to a position at which holding or en route" D' }7 a% w$ v" [" L obstacle clearance criteria apply.+ Q, o/ y, L% [( H' d INSTRUMENT APPROACH PROCEDURES % J: b+ D6 j8 e' ?6 lCHARTS(See AERONAUTICAL CHART.)7 D- d" K. t+ u. U1 m. ^6 T INSTRUMENT DEPARTURE PROCEDURE$ m1 R5 G7 I/ V1 z- ]% v* G (DP)- A preplanned instrument flight rule (IFR) 1 E( `' ]- l% ?. Z4 |5 l* zdeparture procedure published for pilot use, in- [4 i/ s8 Y' G8 X+ s6 h graphic or textual format, that provides obstruction 1 W$ R |) E* d6 [5 ^: |clearance from the terminal area to the appropriate en1 j/ Q7 Y) O- g+ D' v route structure. There are two types of DP, Obstacle$ z$ F( p. D/ R2 l% Y: o Departure Procedure (ODP), printed either textually8 j; V5 H: B: D" R3 a% v3 ^8 H. K. J or graphically, and, Standard Instrument Departure . s" I: K$ \: `8 ~0 E& m(SID), which is always printed graphically.0 H+ U7 K8 h! P0 p, j (See IFR TAKEOFF MINIMUMS AND# ~! m* m; G/ R3 Q' B _ DEPARTURE PROCEDURES.)& g) |0 O: Z9 q, k4 K8 c (See OBSTACLE DEPARTURE PROCEDURES.) ' n+ W- b4 N y4 t( u+ s(See STANDARD INSTRUMENT DEPARTURES.) 6 g2 K; U+ O) {% F" M: L( I) y. i2 u(Refer to AIM.)1 V* Y% R" t2 O4 ~% M& I INSTRUMENT DEPARTURE PROCEDURE (DP)5 I1 w) m% F2 v1 Y CHARTS(See AERONAUTICAL CHART.)4 Q/ h5 v5 i( k. k5 \ INSTRUMENT FLIGHT RULES- Rules governing ' |* g) u1 e+ k( uthe procedures for conducting instrument flight. Also $ P% I; ]! _- t( F7 j9 pa term used by pilots and controllers to indicate type9 k; R. K1 m" s0 a0 ?0 H3 X2 E% r of flight plan. # t9 b0 u+ C. c. J# g. v(See INSTRUMENT METEOROLOGICAL x. ~% l4 b& y+ _: |, L CONDITIONS.) 1 S, R1 U$ H; n; f5 @7 t! X% M(See VISUAL FLIGHT RULES.) 3 N! @2 R2 Z4 M(See VISUAL METEOROLOGICAL 8 s9 D5 ]; T% [7 h& u+ M9 oCONDITIONS.) ! R# Q9 J) [; |(See ICAO term INSTRUMENT FLIGHT : x! e* c. S/ Z9 q; x6 FRULES.) & h4 X# V8 V+ ^! ~8 r1 X6 }8 x* P* `(Refer to AIM.)" ?3 y. ?3 W1 h4 _" C INSTRUMENT FLIGHT RULES [ICAO]- A set of 5 `. t: [5 {8 H: `! Krules governing the conduct of flight under) S k0 b) D: x- m instrument meteorological conditions.; L. O6 u5 u) C4 P( K/ j INSTRUMENT LANDING SYSTEM- A precision & c. {5 [1 D; Kinstrument approach system which normally consists: @$ f) v- o3 X* g e* g% N; } of the following electronic components and visual* P' }) b7 I. b8 u: F* |+ C aids: ; ~ W2 V: J3 sPilot/Controller Glossary 2/14/08 ! I" {& a/ d+ |" RPCG I-4: h8 B1 ~$ d5 w! ]0 T0 {8 i a. Localizer.7 b: p: u& Z/ J" N+ Z% ? w w (See LOCALIZER.) / S+ ~: o# k( Z8 s( Jb. Glideslope.( [7 b; X7 B7 O& f4 P (See GLIDESLOPE.) ) O! F$ G; M" x3 [" s3 v/ l: dc. Outer Marker./ k1 q2 M' [+ |8 _9 b" ^ (See OUTER MARKER.): }! O/ @* ~ u( B1 s* T d. Middle Marker.+ F! K. @& m' f1 i+ m (See MIDDLE MARKER.) 6 ~: W$ S' j% t. de. Approach Lights.# u `( d- i+ ^4 V |$ [3 \7 M (See AIRPORT LIGHTING.) , T) \4 K4 O% S# N+ T(Refer to 14 CFR Part 91.) ( _0 W5 u% s" N(Refer to AIM.)* w$ N5 v, _0 | B3 a. U" M% u. u! h INSTRUMENT METEOROLOGICAL CONDI‐ . O9 G2 H7 u, `9 V/ d9 c9 oTIONS- Meteorological conditions expressed in * D( X5 @+ @9 G& E6 Y; hterms of visibility, distance from cloud, and ceiling- B5 X F' C% D s2 z8 C less than the minima specified for visual meteorolog‐ + r5 W8 ~9 K& g5 p& g' q# X; Rical conditions.. p9 a- j, B: Y' p, I, Y, l. p (See INSTRUMENT FLIGHT RULES.) 8 ?: f. @( b1 ^7 p+ t" ](See VISUAL FLIGHT RULES.)! A: R& p& g, I' R, ]7 H& X4 g7 A/ F (See VISUAL METEOROLOGICAL ! z7 K7 Z2 _ Q* kCONDITIONS.)* h) f7 l; ~* o/ E* T INSTRUMENT RUNWAY- A runway equipped + t1 I! t+ W* {- H% `1 Qwith electronic and visual navigation aids for which % ?& {; i2 R6 {/ s, L9 ea precision or nonprecision approach procedure 7 d: P$ B" W* G6 Xhaving straight‐in landing minimums has been8 w7 F! J& }* l- _. M" h' { approved. 1 [2 o; c l/ c3 Z' _+ W(See ICAO term INSTRUMENT RUNWAY.) 1 c+ Q9 G, \* ?/ q mINSTRUMENT RUNWAY [ICAO]- One of the! m& m1 Q5 H# n( A3 ]. i" i following types of runways intended for the+ f, \" I% `/ q" U+ ~( `, O operation of aircraft using instrument approach 5 L! [6 r9 B+ Y, gprocedures: ; l2 u! a/ w t" ~, {+ da. Nonprecision Approach Runway-An instru‐ ! ~0 [1 V. `5 ~! q/ [" Y& D1 a( Yment runway served by visual aids and a nonvisual ! ?4 ?( I7 F, h$ Haid providing at least directional guidance adequate$ H, i3 s; o8 W' E: q for a straight‐in approach. ( g) k2 Q8 d/ ^0 A5 ub. recision Approach Runway, Category I-An; _7 c# y( @# f, h) r4 A; X instrument runway served by ILS and visual aids " z7 O0 s- `/ k0 jintended for operations down to 60 m (200 feet)/ q$ a0 c" b: T9 V. d& U [ l2 C decision height and down to an RVR of the order of # f+ i" U( L/ s$ W; B: c6 C* g800 m.2 d) U% i" N( k8 u; @/ J c. recision Approach Runway, Category II-An 1 I/ i* x( z9 b. Z3 R, `instrument runway served by ILS and visual aids. t ?( E$ S; {% B2 q8 M$ R intended for operations down to 30 m (100 feet) ' f1 ]) m5 A& | X9 bdecision height and down to an RVR of the order of & f5 S3 S/ h" t400 m." W# {5 ]! x1 m% a* n2 Z6 G; o d. recision Approach Runway, Category III-An7 t0 _2 P# N! Z* U& G6 M instrument runway served by ILS to and along the! l W' M2 f0 [' F, B7 j/ e$ Q$ c E0 s surface of the runway and:8 R5 S+ e& u# V 1. Intended for operations down to an RVR of( r& U7 D" `- X7 z+ _; ^ Y! f the order of 200 m (no decision height being( M. {/ |$ i; t/ ?% A1 X6 G applicable) using visual aids during the final phase of2 E. a' g* p4 v3 ?* a2 e landing;# j s4 w" D2 [# J$ V" q/ ` 2. Intended for operations down to an RVR of d6 U3 l. s9 t. Z7 K& k the order of 50 m (no decision height being 9 X# D) C: h) J3 Y' X: ^applicable) using visual aids for taxiing;" \8 j# A: ]( k+ o7 D2 a 3. Intended for operations without reliance on, g. @ s3 T" X( ^6 Z+ a visual reference for landing or taxiing.! T, D+ f4 l; v' P2 S4 v Note 1:See Annex 10 Volume I, Part I, Chapter 3,' U% I& ]! \6 t9 _, n& H for related ILS specifications. ' J8 B' {* \) b. @! ZNote 2:Visual aids need not necessarily be3 R. P& r1 |. A, ] matched to the scale of nonvisual aids provided.' H$ l; w1 l3 f8 D: s The criterion for the selection of visual aids is the - C4 E. I9 {! t$ }. F, m& @* ^- hconditions in which operations are intended to be6 R! j' O, K6 }( P6 w2 { conducted.# B* Z; d; S# R# m0 S INTEGRITY- The ability of a system to provide& }7 o7 C% h a, U0 P) g+ Y) q timely warnings to users when the system should not) E3 M! q( _! H& X v0 n be used for navigation. 3 P9 ]+ T! l; G& V, ^INTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT & n, ~: Z# x1 M$ V9 s! OAPPROACH PROCEDURE.)5 R$ F, e* t# D* D, A INTERMEDIATE APPROACH SEGMENT; X/ W( N* P8 A: c1 a [ICAO]- That segment of an instrument approach/ B; I; F& c- `# `. ^) b: W procedure between either the intermediate approach ' j- j4 T. H/ @' G6 f( G; S3 u7 B$ |fix and the final approach fix or point, or between the / \$ m1 }+ g) C! s* Z Lend of a reversal, race track or dead reckoning track# a! [/ ^- F! e* m \$ | procedure and the final approach fix or point, as 4 |0 p! b- g3 l& T1 t7 Sappropriate.9 t. L5 |% _$ q. Y/ o( M! X' z INTERMEDIATE FIX- The fix that identifies the # A- E7 h1 v, {; m2 K8 Obeginning of the intermediate approach segment of an . k* |& F3 P2 C( | l1 cinstrument approach procedure. The fix is not 0 B# d# T! k1 n# L+ \% k9 U( Fnormally identified on the instrument approach chart$ i7 R6 w" c! P2 E2 K& `/ v as an intermediate fix (IF)./ }9 A3 a. c5 v* g: \ (See SEGMENTS OF AN INSTRUMENT3 y( [: I" O' p7 B, b6 L! Y) M* v1 q2 \ APPROACH PROCEDURE.)2 }/ S( B' q6 V7 J$ D1 { INTERMEDIATE LANDING- On the rare occasion 4 G) h% ?5 W) Z N$ ?that this option is requested, it should be approved. . F, R* H7 O0 R6 Q' ]5 i5 w- {The departure center, however, must advise the 3 U2 d7 J# S: e2 F1 iATCSCC so that the appropriate delay is carried over . V/ R+ H& ^0 j+ g' A$ Yand assigned at the interm ediate airport. An $ p" m8 C: R8 o+ g* |5 s0 Jintermediate landing airport within the arrival center, B# m$ q/ _ o+ P3 D+ I8 M will not be accepted without coordination with and - _( c. S8 P1 e* Q5 F4 u* \" M$ Tthe approval of the ATCSCC.$ }" w7 R% B7 f( ^' ] INTERNATIONAL AIRPORT- Relating to interna‐ & S6 L* J$ a! ]% ltional flight, it means:6 d, P" ?7 K4 L Pilot/Controller Glossary 2/14/082 j$ E' ^! `% P$ L$ V) X& B9 D* n PCG I-5, h4 I: h# U' p$ z$ F, Z, T+ u a. An airport of entry which has been designated3 ^( j/ Z4 Z! R4 |5 V) ~' Q- M by the Secretary of Treasury or Commissioner of4 b" h) R" A( s9 @) U/ Q$ o: @ Customs as an international airport for customs0 k% |) d! z q service.* r5 Y7 N* B0 \8 J: O b. A landing rights airport at which specific" t: T" W' B# Q$ n1 U( j8 H permission to land must be obtained from customs: r2 T, J( [/ b authorities in advance of contemplated use. 4 E) O* x- D' k0 zc. Airports designated under the Convention on7 A) S+ v# k4 a( g# p* Y0 r International Civil Aviation as an airport for use by ) O, e# s* Y) |( }$ \/ R" Xinternational commercial air transport and/or interna‐ % F: O4 S3 D& ]% Z9 x! _tional general aviation.% e/ n3 c: J5 _ (See ICAO term INTERNATIONAL AIRPORT.), C7 D2 n- G3 ?! u$ k (Refer to AIRPORT/FACILITY DIRECTORY.); m3 G- m0 \' d z, `8 P (Refer to IFIM.)4 O, |) P& N3 C/ J4 t% W9 H INTERNATIONAL AIRPORT [ICAO]- Any airport9 j0 c. b6 a# A7 W( v designated by the Contracting State in whose2 U9 G5 C! P- o$ E/ i/ E: ] territory it is situated as an airport of entry and3 K0 u4 [! i) \" Y departure for international air traffic, where the% `( i; A; h0 L" |2 ]+ Z formalities incident to customs, immigration, public0 D# L2 X4 a& w$ }( g/ p health, animal and plant quarantine and similar2 y9 Q: h( G( v4 n3 g) o procedures are carried out.; x" h/ B' L3 x) s! V# i INTERNATIONAL CIVIL AVIATION ORGA‐, ~- X0 t% \: a W; w& t NIZATION [ICAO]- A specialized agency of the 2 C% `0 A- P# n8 W- Q' z9 WUnited Nations whose objective is to develop the. B# e: H' u! s( r- Q principles and techniques of international air 7 E2 N0 t6 M0 ^& y& Onavigation and to foster planning and development of 7 G& j0 M) _8 n$ X" Winternational civil air transport.6 w1 _: g0 {6 i9 k' N- Z a. Regions include:4 V& L1 {! P5 Q- D& ^ 1. African‐Indian Ocean Region , C5 D& N \8 U5 i8 W) O$ B" l2. Caribbean Region# m+ D4 P$ v4 @+ ?8 g: U1 v. _: K 3. European Region " c. [1 O0 y! c/ ^4. Middle East/Asia Region. j# w: m; w+ F) D' y+ ?' I8 t 5. North American Region - U" K/ F! E; |/ |2 B+ |! o6. North Atlantic Region9 g$ | z7 r. r& }% n9 ~; o/ U! l 7. acific Region . J% J9 u4 q2 L% E: a/ c. E8. South American Region7 n7 w: f' Z8 M+ w5 g/ } u( I INTERNATIONAL FLIGHT INFORMATION , d6 ~4 y5 d0 ]$ X% M( eMANUAL- A publication designed primarily as a8 Y. q, Y' w3 M6 R pilot's preflight planning guide for flights into $ l! \( y4 E* C5 E" Tforeign airspace and for flights returning to the U.S. ( q0 h% M8 m6 ^8 x5 ~ ~" sfrom foreign locations.% H0 z4 T. j7 \; Y INTERROGATOR- The ground‐based surveillance 9 R8 D! C9 s/ b) Y V {radar beacon transmitter‐receiver, which normally, R2 ?0 g) Z+ v2 ^ ~* J8 E scans in synchronism with a prim ary radar,; W9 h( B. {9 h) z: L, O) m transmitting discrete radio signals which repetitious‐) C- @- ~7 A' p. M7 ~ ly request all transponders on the mode being used to ! [$ p5 A$ w; u; z3 Y! Z7 nreply. The replies received are mixed with the 7 a: P& g0 u! d7 T0 C$ ~primary radar returns and displayed on the same plan# Z0 g, R/ w5 R$ f$ W' r' n) m) _ position indicator (radar scope). Also, applied to the % K" y4 W5 A& S9 X5 j! {airborne element of the TACAN/DME system. : m4 U" M j) Q: T7 P$ y+ [(See TRANSPONDER.) . ^+ r0 s. L7 P" ?3 m8 U- \(Refer to AIM.)% N1 X' L* [0 b. D INTERSECTING RUNWAYS- Two or more6 c( R! E, g! `$ n5 P runways which cross or meet within their lengths. 1 h; p' F8 d% k5 v$ L% x" S) l(See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses,# `7 M% `. [, D5 h7 Z1 y radials, or bearings of two or more navigational aids.5 \6 c) ?8 Q6 O: B b. Used to describe the point where two runways,3 a( c/ {2 u% i0 L. } a runway and a taxiway, or two taxiways cross or ( j; A+ Y5 k$ o+ b- N3 Q; a8 T. }meet.- ^5 Q9 S9 `4 K- |( F) b0 W. P% }, b INTERSECTION DEPARTURE- A departure from% V1 Z$ f1 i* C9 m, h% x6 c h; ^ any runway intersection except the end of the runway.( y% j% \6 h; O; R3 U (See INTERSECTION.)9 i* }% }5 q7 I1 S INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.) , v$ {$ g9 `- P* [: {' ]IR(See IFR MILITARY TRAINING ROUTES.)4 W# e |% q$ c, L" m7 J Pilot/Controller Glossary 2/14/08 ) d: T* B: t9 v4 p+ RPCG J-1 + I" c- F0 {' IJ

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发表于 2008-12-28 14:15:29 |只看该作者
JAMMING- Electronic or mechanical interference, R. B# G# D- d which may disrupt the display of aircraft on radar or/ w/ ?$ i h6 R' F; u/ A! P+ ] the transmission/reception of radio communications/# h5 J$ Z9 Z1 N navigation. % h! Y( ^, M$ MJET BLAST- Jet engine exhaust (thrust stream% E" {4 O9 s, R( U. ~. K6 W turbulence). U8 I' m0 C/ b( d! t5 l0 v(See WAKE TURBULENCE.)( W3 I* Y* n$ c- a. D JET ROUTE- A route designed to serve aircraft - D) o: _; p7 a; M8 O% ~* L |- xoperations from 18,000 feet MSL up to and including J. U: j$ ]% a" I( ~) u" Aflight level 450. The routes are referred to as “J”1 k' [+ d4 F; A5 P5 O3 D0 M routes with numbering to identify the designated1 M P8 d2 e1 u route; e.g., J105.$ s( F/ D+ _, _& B- \6 p- s (See Class A AIRSPACE.) . g. p: K4 E- z2 E(Refer to 14 CFR Part 71.) & n$ S L. P& OJET STREAM- A migrating stream of high‐speed 1 B: l: W( j! K' k8 x/ f1 L! zwinds present at high altitudes. , p- c! a* b: KJETTISONING OF EXTERNAL STORES- Air‐+ d+ g5 n5 z9 a2 U# K. r borne release of external stores; e.g., tiptanks,4 M. {6 o" Z4 J6 h" o0 X ^ ordnance., z/ U, A- ]# ]8 u5 z5 D p (See FUEL DUMPING.)3 q# o2 N. i4 P- s8 j4 _' Q( E (Refer to 14 CFR Part 91.): y1 R5 P! H! V. b! p JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)" W* q! k8 }; A8 B5 L/ H5 O% [ Pilot/Controller Glossary 2/14/08, y5 _1 s6 m- s' I' r: L- w* ]7 p PCG K-1 , r2 Q9 f- D' S+ |! |4 _K8 h( r1 M, O& H' B( p0 q# V+ J KNOWN TRAFFIC- With respect to ATC clear‐9 e# U6 o- S6 s# j4 B' w- x) a ances, means aircraft whose altitude, position, and) }# M# H5 h7 i* ]7 m" U$ | intentions are known to ATC.- J. L4 V: L4 l% h0 v. V- T Pilot/Controller Glossary 2/14/08 V I, g% p# e) h$ g9 k9 p# `PCG L-1 5 ]" w4 D R' o8 |" e& IL. Z7 _3 o+ q u5 S LAA(See LOCAL AIRPORT ADVISORY.)! U2 X7 z* g9 p7 z, t LAAS(See LOW ALTITUDE ALERT SYSTEM.) 3 a- t2 u! r; ^LAHSO- An acronym for “Land and Hold Short # i$ p9 t2 h) q1 R8 QOperation.” These operations include landing and ; N) }" K% o+ X' }6 H' {holding short of an intersecting runway, a taxiway, a ' l# w$ c$ u" W# c4 }' m, {predetermined point, or an approach/departure0 h1 r" z. e, u1 P% G6 l, d flightpath. 5 X2 _* y9 q& K2 C6 g: @1 b0 c3 ILAHSO‐DRY- Land and hold short operations on* o/ r" c4 q2 ]! R1 @ runways that are dry.7 _/ @+ n" Q, L; T4 q LAHSO‐WET- Land and hold short operations on - G) @) c- e9 ~: Erunways that are wet (but not contaminated)." `$ Z8 P T' H LAND AND HOLD SHORT OPERATIONS - 8 o& [# z2 ~ D( ~8 Q7 b0 eOperations which include simultaneous takeoffs and ) y/ q! L0 t$ blandings and/or simultaneous landings when a ' P& h9 @" ?$ M0 Q9 r: Vlanding aircraft is able and is instructed by the4 ]2 ^8 l! f7 Z) ?: e9 Z- q$ I controller to hold‐short of the intersecting runway/ ! r" ~, F) M+ B$ N7 ^ T$ ataxiway or designated hold‐short point. Pilots are4 \! c% ?! x1 {6 Y4 m* Z G9 o* S expected to promptly inform the controller if the hold9 l$ L8 y3 P* S) e6 Y- v" F" I short clearance cannot be accepted. + m+ P {8 }! p9 P6 \1 M! r% r(See PARALLEL RUNWAYS.) ) L6 N& X" Z8 ]' O0 k(Refer to AIM.) 7 f6 \- x3 w3 n$ k2 rLANDING AREA- Any locality either on land,' N6 E! `1 s* }1 \ water, or structures, including airports/heliports and5 e4 G9 t7 m: Q& F+ {* Q3 D intermediate landing fields, which is used, or9 A- z$ s+ Z4 c" t C% [ intended to be used, for the landing and takeoff of1 u2 R8 H3 p2 R+ s4 p0 x aircraft whether or not facilities are provided for the2 g+ ~$ X# B2 @% |( C: |$ w* `1 W shelter, servicing, or for receiving or discharging- f; E, ]. s" }5 n passengers or cargo.% ], n! e {! k9 J" z9 {: r* n3 [* z (See ICAO term LANDING AREA.) ( g B+ c; t4 ~8 \LANDING AREA [ICAO]- That part of a movement [ z2 L2 z5 Y/ _% Carea intended for the landing or take‐off of aircraft. : C; M% Q* a. z) E8 ULANDING DIRECTION INDICATOR- A device ! e! s7 e6 C' }- _; o7 F. O# @which visually indicates the direction in which $ ?/ \1 |2 T& G e7 u! \landings and takeoffs should be made.4 ^# S$ ?& b: y4 j (See TETRAHEDRON.) - j- U" @3 E6 r6 t4 m6 S(Refer to AIM.)( T0 S' b, {, M9 E: q LANDING DISTANCE AVAILABLE [ICAO]- The ; E& e9 A# L& o4 ]- N$ \, Plength of runway which is declared available and: ]9 T4 W: M/ P1 r& I* I/ P suitable for the ground run of an aeroplane landing. 7 n& D0 f7 ^" {/ p4 d: JLANDING MINIMUMS- The minimum visibility5 R7 _" n" d& s7 t! y) K; Q [4 H1 B& a prescribed for landing a civil aircraft while using an # M6 P" [# z) H7 i4 W) v' N$ ginstrument approach procedure. The minimum: m' P5 }' ] e applies with other limitations set forth in 14 CFR5 g: a& w) |5 N! d Part 91 with respect to the Minimum Descent k. d1 Q7 ?# T# ]7 D2 LAltitude (MDA) or Decision Height (DH) prescribed9 R" K* u2 h/ f, s% r$ m2 c in the instrument approach procedures as follows: w3 Q1 N0 N: ^+ l4 k5 Fa. Straight‐in landing minimums. A statement of( X1 l, S# j- D) @ MDA and visibility, or DH and visibility, required for, |8 g7 a0 X$ |3 D a straight‐in landing on a specified runway, or - e) C3 I" y* F S8 S- m: i# `b. Circling minimums. A statement of MDA and/ N9 }( H {! D9 z2 J visibility required for the circle‐to‐land maneuver. # B" U! s- W. f8 \$ uNote:Descent below the established MDA or DH is$ W+ M* P# l0 ` not authorized during an approach unless the7 l- t; ~8 {, ? P" o1 a& I! W aircraft is in a position from which a normal ' X. |& t* v0 G7 W, b0 c6 R9 Kapproach to the runway of intended landing can be9 K0 y. }! {3 K% `, B* C9 d0 m2 k, } made and adequate visual reference to required/ x, o; S0 y6 r& {7 f visual cues is maintained. & h& _7 y3 K$ x4 w L! U(See CIRCLE‐TO‐LAND MANEUVER.) 6 }' P# u; \+ w( P4 N% ^(See DECISION HEIGHT.) $ k% G& l6 j: F3 u5 g& V' h(See INSTRUMENT APPROACH / f9 H0 M Y4 f0 [PROCEDURE.) o+ |6 {" T/ [(See MINIMUM DESCENT ALTITUDE.) ! a# b! D. @. G0 e( w8 a4 \(See STRAIGHT‐IN LANDING.) ( [/ d" d9 y! M: A1 c4 H% z(See VISIBILITY.) 0 A. l* M! a, w U6 S% u9 T) ] ^$ `(Refer to 14 CFR Part 91.) 3 B- P0 R" E" I7 L7 X/ ULANDING ROLL- The distance from the point of # J. Q. C9 f jtouchdown to the point where the aircraft can be; B" L8 j' `3 M brought to a stop or exit the runway. , `: v2 V- G1 k4 w) M+ MLANDING SEQUENCE- The order in which! O7 }& c8 P- F9 P aircraft are positioned for landing.! x& Q0 V4 S5 L' O (See APPROACH SEQUENCE.) / {1 j; ?. m7 I* Q& hLAST ASSIGNED ALTITUDE- The last altitude/ % m& r U6 Q* `7 V4 S* zflight level assigned by ATC and acknowledged by/ |/ P) @0 X% f! r, P% H e the pilot.5 b7 v( j3 D8 A8 n( v% }. v+ y (See MAINTAIN.)) q- |3 _/ W4 n (Refer to 14 CFR Part 91.) / H/ ]. R6 c, W) ALATERAL NAVIGATION (LNAV)– A function of 0 q# t6 X" [2 m6 a7 ^area navigation (RNAV) equipment which calculates, 3 A+ ?& C5 O% Z( d, t" D G) Cdisplays, and provides lateral guidance to a profile or : H( Z- C( W) \( z* T0 qpath.) n9 u5 C" H# | LATERAL SEPARATION- The lateral spacing of' u- a6 i5 {7 R1 b0 o9 |. B aircraft at the same altitude by requiring operation on- S+ u; O3 T8 Q& O& m0 V% x/ W/ ], W different routes or in different geographical locations.5 [& a( V( D R7 q2 T' }& R+ {0 H4 c (See SEPARATION.); s: u. N& S6 v6 ?8 [ Pilot/Controller Glossary 2/14/08 : M1 Y6 T5 Q- @$ F9 H& E' s k* ^PCG L-25 |+ o% P0 h9 R5 A7 W5 a- I* r LDA(See LOCALIZER TYPE DIRECTIONAL AID.) 4 P% E- ?3 r+ v(See ICAO Term LANDING DISTANCE* W% n7 B6 @% Z4 z3 `& f8 L AVAILABLE.) 4 ]4 Z6 O3 n; ~0 @LF(See LOW FREQUENCY.) , K4 B9 e" q* g6 fLIGHTED AIRPORT- An airport where runway and ; S# s* Z3 Q$ c2 G. Qobstruction lighting is available. $ e9 c7 y' ]0 C* R2 I* y(See AIRPORT LIGHTING.) . G! q' I' k$ j4 V& ~! k3 k; \4 u(Refer to AIM.) % a$ w0 H3 M" pLIGHT GUN- A handheld directional light signaling , ]6 L; |+ k% G2 udevice which emits a brilliant narrow beam of white, 0 u2 V: L( F& e1 K$ {green, or red light as selected by the tower controller.- \* u1 k0 B. T; F0 X6 v% I The color and type of light transmitted can be used to ) H" f" `5 R% F( lapprove or disapprove anticipated pilot actions where+ C( O- ?/ C* S% u& H- l9 G7 _ radio communication is not available. The light gun* P) F1 |7 T; l8 E( {! w& F is used for controlling traffic operating in the vicinity. v. G7 M. ^# [& g9 ^$ F6 \ of the airport and on the airport movement area. 9 Q3 o' r1 k- _& a" W( _/ |(Refer to AIM.) : ~, c* L6 G5 o1 ?LOCAL AIRPORT ADVISORY (LAA)- A service 9 M5 i0 P' ?* nprovided by facilities, which are located on the " S- J% H1 D D* K( k5 u: ~# ~landing airport, have a discrete ground-to-air/ l8 T2 I7 C+ T0 y- r8 E communication frequency or the tower frequency6 i3 Y/ H# c, b" } @. t when the tower is closed, automated weather& D' p$ ` y/ g7 y reporting with voice broadcasting, and a continuous; v3 v" Z$ m, A \7 P1 {1 g X ASOS/AWOS data display, other continuous direct * h0 p4 p* D/ d) I9 ereading instruments, or manual observations avail‐ # R2 U6 |; C) w; X! mable to the specialist. : x2 S! n' E6 F' c(See AIRPORT ADVISORY AREA.) }: r. S& `) k) A LOCAL TRAFFIC- Aircraft operating in the traffic4 Z. |2 k7 W+ V' T! j& y# h pattern or within sight of the tower, or aircraft known " s H+ J) S- E6 s3 X6 ?& Yto be departing or arriving from flight in local practice 0 {0 S. a- p& {5 d4 Nareas, or aircraft executing practice instrument& A. j& c+ D% I approaches at the airport. * ]! q5 E/ m1 o& a- U& O(See TRAFFIC PATTERN.)' F. }& U4 [$ m7 b LOCALIZER- The component of an ILS which* H, m' ^! W2 j& r# } provides course guidance to the runway.$ i8 G4 Q9 v1 n/ l (See INSTRUMENT LANDING SYSTEM.) 3 |0 g0 p( i" ~4 q(See ICAO term LOCALIZER COURSE.) 6 [! A. _9 s; Y! k(Refer to AIM.)& q8 Y3 S" b p2 | LOCALIZER COURSE [ICAO]- The locus of$ ^+ Q9 n) M" K4 ~" ?& N points, in any given horizontal plane, at which the : j$ U3 e) Z3 z" kDDM (difference in depth of modulation) is zero.# K$ e0 m! e: q* y$ b6 q LOCALIZER OFFSET- An angular offset of the # ]2 u& N4 r% [localizer from the runway extended centerline in a; @+ i( p9 n6 O direction away from the no transgression zone (NTZ): ^# Y1 S z1 G: M that increases the normal operating zone (NOZ)) e8 q' ?% b6 k' S* H( y+ {" \ width. An offset requires a 50 foot increase in DH and7 J( f: v/ p2 w' |" }/ X is not authorized for CAT II and CAT III approaches. ( o. f1 H: |2 o( `LOCALIZER TYPE DIRECTIONAL AID- A ! o6 E7 D2 o4 y& q- N$ j- iNAVAID used for nonprecision instrument ap‐/ k7 q# n& l( b; @ proaches with utility and accuracy comparable to a, N" E, Z6 b2 q) d5 a7 c localizer but which is not a part of a complete ILS and" s# ?& N+ n" t0 M7 s' L is not aligned with the runway. % V' ?9 E& {% V2 ~# m(Refer to AIM.) ' ~0 V: C/ F$ Z! ]4 SLOCALIZER USABLE DISTANCE- The maxi‐ {% r8 {1 y: H! m( hmum distance from the localizer transmitter at a 5 T/ o( j9 ~4 Yspecified altitude, as verified by flight inspection, at5 p% h4 N9 d4 g7 \6 p" o which reliable course information is continuously : i7 k5 v" |' A! C; x. Freceived.! p! z( P" c) e1 h* ~2 d B0 C' S (Refer to AIM.)1 {- v. ?7 n9 j' r& e LOCATOR [ICAO]- An LM/MF NDB used as an aid* K3 _5 g3 L* H) h9 N to final approach.- r) m; l& R) ^' p! q6 _$ z Note:A locator usually has an average radius of 0 U4 n! j9 ~" |, Y4 orated coverage of between 18.5 and 46.3 km (10 & |0 R4 o" u: n Y3 V' q5 tand 25 NM). 9 A) w" {5 G a5 b7 B+ {LONG RANGE NAVIGATION(See LORAN.) 4 K3 F1 X+ B3 g7 ~; y: N W( ULONGITUDINAL SEPARATION- The longitudi‐2 l3 Y4 H: U9 f+ ~* }: V nal spacing of aircraft at the same altitude by a + Y3 k& y7 V" Jminimum distance expressed in units of time or 7 g2 o3 {1 a/ A6 R2 \; Ymiles. 1 p" `9 W; s, B" e8 J# p" e(See SEPARATION.); Q2 C9 v, T B1 R, R: @ (Refer to AIM.)1 s" O, x. V* G ?. k LORAN- An electronic navigational system by % m/ V& K* D, I3 pwhich hyperbolic lines of position are determined by + E# Z! c1 Y7 p9 H* \measuring the difference in the time of reception of8 z* }. S3 S# @+ Y% E synchronized pulse signals from two fixed transmit‐9 T2 J0 U9 a* p+ N0 W6 a2 B: { ters. Loran A operates in the 1750‐1950 kHz # a T6 O5 _0 P$ ?. Cfrequency band. Loran C and D operate in the ( j0 k* V& L5 `100‐110 kHz frequency band.: m3 h0 k. V6 L* i) b (Refer to AIM.) ( g9 J; t7 o5 f4 ~* f" l8 ALOST COMMUNICATIONS- Loss of the ability to ! C1 [5 `! [. A0 e- u. l" jcommunicate by radio. Aircraft are sometimes 6 V& b# G6 B# b( Nreferred to as NORDO (No Radio). Standard pilot - o3 R; J3 }, k9 Y( Sprocedures are specified in 14 CFR Part 91. Radar 1 }4 ?4 |, a% ]* A8 u1 econtrollers issue procedures for pilots to follow in the . z6 h% t6 S4 X& o/ r9 ~event of lost communications during a radar approach4 E2 P+ `2 j$ ]1 D$ Q4 c. l o when weather reports indicate that an aircraft will. j& f) n- x3 I2 C/ o% Q+ B$ [ likely encounter IFR weather conditions during the0 K& l/ p# x0 X$ m/ } approach., s8 y6 M a) ]; C (Refer to 14 CFR Part 91.) - O, V, ^5 U) `8 {/ N1 A7 v) `(Refer AIM.) , [- E" v: f. V* e8 QPilot/Controller Glossary 2/14/08 l4 k {: c% E PCG L-33 m1 _% a. I: ~# H E: T LOW ALTITUDE AIRWAY STRUCTURE- The9 _* u1 y& @9 I network of airways serving aircraft operations up to* n6 ~ p: N: k% T! |$ n$ E2 a- b but not including 18,000 feet MSL. }3 T; Q) h! G3 Y3 Q) r (See AIRWAY.)5 N1 a0 E/ P# }4 T' F. v) \ (Refer to AIM.) : {' t x" F5 ` v F" ^4 G" MLOW ALTITUDE ALERT, CHECK YOUR ALTI‐* T& F6 \ f% M4 i) X& i TUDE IMMEDIATELY(See SAFETY ALERT.) 8 H& H/ V+ o* u- p1 Z7 ~LOW ALTITUDE ALERT SYSTEM- An auto‐& C, \1 _+ t8 j- R mated function of the TPX‐42 that alerts the4 u. A1 C* r" X7 Z1 d/ ~ controller when a Mode C transponder equipped1 J* N E- ~% p1 A! u aircraft on an IFR flight plan is below a 5 s: D* H- R: D' mpredetermined minimum safe altitude. If requested; c% e4 Q9 P3 m- V* J' k by the pilot, Low Altitude Alert System monitoring7 J N1 w }9 H, y8 Y* X is also available to VFR Mode C transponder& U; l N1 s7 w; J/ F equipped aircraft. ( F3 j K$ p6 lLOW APPROACH- An approach over an airport or 6 Q4 P0 `- K- F) X/ Vrunway following an instrument approach or a VFR8 U1 U+ F! n3 W7 P7 q/ D b approach including the go‐around maneuver where) G7 D% i" {4 ^6 F6 M" f the pilot intentionally does not make contact with the( c3 c+ I; {- ~ runway. " `8 Q/ \0 \ D) m6 s(Refer to AIM.)0 J1 p& B+ ]4 X3 z# J LOW FREQUENCY- The frequency band between7 j% m! d0 t# g 30 and 300 kHz.) i: h9 o0 f/ w) l: o (Refer to AIM.)+ t7 a/ p7 R' s* c) L3 V& X LPV- A type of approach with vertical guidance 3 w K3 W C" J9 |& { z(APV) based on WAAS, published on RNAV (GPS) 2 @ c; S- F5 v( h3 Rapproach charts. This procedure takes advantage of 0 I' i- b# j. I; ~the precise lateral guidance available from WAAS.$ h% o. w6 m1 d7 f The minima is published as a decision altitude (DA).6 S( }8 O. e9 V: L8 Y% Y) l Pilot/Controller Glossary 2/14/08 $ d* n/ O% m5 G* H/ Y) L* Q; mPCG M-1 : Q/ r5 B% I0 Y0 R( nM; ~& Y1 w( y) Z MAA(See MAXIMUM AUTHORIZED ALTITUDE.) : G% E3 I5 j; s) y9 lMACH NUMBER- The ratio of true airspeed to the $ K* O5 `; X7 P% O4 U3 Lspeed of sound; e.g., MACH .82, MACH 1.6.- G( ?0 s6 J; J" e" ^& b (See AIRSPEED.)) m' p1 E9 N2 ~ MACH TECHNIQUE [ICAO]- Describes a control8 N# Y& ]0 ]$ j( D6 }; e0 V4 b0 c$ b technique used by air traffic control whereby turbojet/ `7 T/ Z$ B8 v" ?# g aircraft operating successively along suitable routes # c. Q* K& s1 b3 nare cleared to maintain appropriate MACH numbers : L$ X: p( o; e) G( wfor a relevant portion of the en route phase of flight.8 T9 ?. h3 |0 X: K! f. C The principle objective is to achieve improved . @* ]. o( }9 N/ R0 H: eutilization of the airspace and to ensure that / v/ @$ i" d( k6 T, e& X" Tseparation between successive aircraft does not 1 |2 |) f% }) ^ |decrease below the established minima. - F+ `* ^# |% r2 o |; M# r4 s! NMAHWP- Missed Approach Holding Waypoint& ?4 K7 [6 h6 l% h# T K' ] MAINTAINa. Concerning altitude/flight level, the term% U+ E {' M) I8 ]* n) Y7 q means to remain at the altitude/flight level specified. / }) K/ U& |( e6 GThe phrase “climb and” or “descend and” normally* D9 @1 b; s/ N2 J! X& O. f precedes “maintain” and the altitude assignment; ' y1 |6 G1 d* I* ]; a6 Fe.g., “descend and maintain 5,000.”/ \1 b+ R4 H0 s- l5 s$ z b. Concerning other ATC instructions, the term is ( _4 y$ ^( C3 J( n, J8 o0 rused in its literal sense; e.g., maintain VFR.. b) j, I {1 G9 r MAINTENANCE PLANNING FRICTION1 `* K! a' M( e3 ?! ~* O LEVEL- The friction level specified in 6 C4 S4 R( Z+ W, c1 uAC 150/5320‐12, Measurement, Construction, and. ~% [9 \/ j1 R: r" g Maintenance of Skid Resistant Airport Pavement , J \- O4 [: z1 S V1 g2 ZSurfaces, which represents the friction value below 3 l& w9 x: W, F8 l: w& awhich the runway pavem ent surface rem ains" Q, L, | `2 s+ |$ E; A7 K( |9 e acceptable for any category or class of aircraft * u0 o A# G3 y1 I( Y/ Roperations but which is beginning to show signs of0 b4 K/ S+ r8 P( f0 b) D deterioration. This value will vary depending on the ' L7 I2 [. {5 v1 T+ Vparticular friction measurement equipment used., g1 s- |+ s9 k MAKE SHORT APPROACH- Used by ATC to + ?0 Y+ `' g$ I) ?inform a pilot to alter his/her traffic pattern so as to8 I _: V) [* h G. Z4 [+ _( F make a short final approach.; |8 s# V. ]; X4 l (See TRAFFIC PATTERN.) & d" ^- n* W" L5 f7 {MAN PORTABLE AIR DEFENSE SYSTEMS / q3 K1 W7 v$ M y. L2 X: p(MANPADS)- MANPADS are lightweight, shoul‐ 7 ], K: R3 U2 \" T ?der-launched, missile systems used to bring down : m" {9 V# P9 gaircraft and create mass casualties. The potential for : v3 [8 g7 j- a" ~( n+ v: ^, ~( _MANPADS use against airborne aircraft is real and, s" C+ ^' e- v requires familiarity with the subject. Terrorists% R3 @/ D z7 A0 Y choose MANPADS because the weapons are low& O& F* K% n0 D; ]. }9 [7 T" W cost, highly mobile, require minimal set-up time, and 2 s/ R4 K; i" H6 uare easy to use and maintain. Although the weapons $ W k& F8 Y# F) F' }- Y. Yhave limited range, and their accuracy is affected by" p2 R! B7 k" x" s7 [5 \ poor visibility and adverse weather, they can be fired " \0 ?5 c' X U) ~" D. ]3 ]+ afrom anywhere on land or from boats where there is $ i' s, [+ S L" v; o) b9 T/ c4 Qunrestricted visibility to the target. ( a; j7 r8 y2 Q+ b( x$ J* ~MANDATORY ALTITUDE- An altitude depicted0 d0 I& I' F, q) R. y3 j on an instrument Approach Procedure Chart 2 h: ^0 R$ w9 D' n3 b/ {5 Crequiring the aircraft to maintain altitude at the- U. D2 b, Q6 y6 g depicted value. # o( o; N2 ^! T' J5 c8 bMANPADS(See MAN PORTABLE AIR DEFENSE ; M, [1 [- _, s N/ h/ nSYSTEMS.) n+ |5 k$ T8 d# x; y; `MAP(See MISSED APPROACH POINT.)4 d9 |- ]; _5 a { MARKER BEACON- An electronic navigation 5 O4 U4 ]; ]8 [+ _5 w$ Nfacility transmitting a 75 MHz vertical fan or $ p1 J$ H$ @7 e" `boneshaped radiation pattern. Marker beacons are 3 ]2 \! d! u( I4 ~3 bidentified by their modulation frequency and keying3 V! k9 p+ \0 D! w2 T code, and when received by compatible airborne " N' h1 X9 p" W/ Qequipment, indicate to the pilot, both aurally and 4 N# H* Z* k6 |+ {: e& R9 c o; Wvisually, that he/she is passing over the facility. % s& k1 b( b" X" v" S) X' x9 k(See INNER MARKER.) - X1 |6 f9 `( M$ N" z(See MIDDLE MARKER.)( z7 F: m3 K6 Q6 M" W. Y (See OUTER MARKER.)! R8 U! p/ Z% M9 ?4 d1 ^ (Refer to AIM.)

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18#
发表于 2008-12-28 14:15:58 |只看该作者
MARSA(See MILITARY AUTHORITY ASSUMES ' O/ c3 l0 \# RRESPONSIBILITY FOR SEPARATION OF1 z1 E* p' _9 d" n AIRCRAFT.) - u: v4 L) Q# hMAWP- Missed Approach Waypoint% b1 M2 g% k- K( c+ a' d& {5 d MAXIMUM AUTHORIZED ALTITUDE- A pub‐ ! T3 t; g! }" qlished altitude representing the maximum usable0 o6 l& x4 J- |' Q# s0 a3 T/ | altitude or flight level for an airspace structure or J! o( T0 l9 g4 B route segment. It is the highest altitude on a Federal0 _; a& k5 W7 G airway, jet route, area navigation low or high route, 8 i2 J$ u! _! A) sor other direct route for which an MEA is designated& u, G1 Q$ Q' y9 e& J in 14 CFR Part 95 at which adequate reception of # |, Y- f7 {8 }6 fnavigation aid signals is assured.# V: [- C3 }, R3 q MAYDAY- The international radiotelephony distress1 M b% F# @0 t4 Y$ A5 n `: L signal. When repeated three times, it indicates % s' |* R9 M( h- x! O, Y3 zPilot/Controller Glossary 2/14/08 Z+ x r1 t5 e' t, q$ O PCG M-2 4 }0 j* m( U7 [imminent and grave danger and that immediate# e5 K( ?- Z8 G9 k assistance is requested. # ~ A8 t, X3 X(See PAN‐PAN.) ( u! d5 v' x+ t8 J(Refer to AIM.) n2 [! o% ?, a5 lMCA(See MINIMUM CROSSING ALTITUDE.) / E C3 T1 C/ F" h. I0 oMDA(See MINIMUM DESCENT ALTITUDE.)9 U. i& ~) X0 @. ~. @6 P2 X# ], Y MEA(See MINIMUM EN ROUTE IFR ALTITUDE.)( @9 ?- h0 a+ F; y4 ^ MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR - Q2 i1 P) A4 |4 lTRACKING SYSTEM.)4 x/ { B8 j( J$ n3 u' z METEOROLOGICAL IMPACT STATEMENT- + l, `- w4 b& C8 @6 M, UAn unscheduled planning forecast describing 6 x! J5 }5 b$ J+ ~3 `. kconditions expected to begin within 4 to 12 hours7 S5 X" b$ d& s7 { s which may impact the flow of air traffic in a specific 5 |( U- p% H6 E; _/ f( p+ Mcenter's (ARTCC) area. " n0 e' T) L5 X9 n: s$ M# SMETER FIX ARC- A semicircle, equidistant from 7 z i# Y' D/ Y Z2 b# P# ia meter fix, usually in low altitude relatively close to I& u# a. F8 w2 @, l. T6 hthe meter fix, used to help CTAS/HOST calculate a8 h" p Q# k* b1 w$ {$ u meter time, and determine appropriate sector meter3 |; k; `. K8 ~& \1 [! ] list assignments for aircraft not on an established2 O! w+ t# K2 ?9 y! Q arrival route or assigned a meter fix.5 p9 N, {( z$ i: ? METER FIX TIME/SLOT TIME- A calculated time 8 e/ b! l' I* cto depart the meter fix in order to cross the vertex at 1 Y7 o- k$ U& r0 S+ I+ kthe ACLT. This time reflects descent speed; f& {" p' E ~& D' I" ^3 ` adjustment and any applicable time that must be& H1 T% ^ i) V absorbed prior to crossing the meter fix. 9 l$ L; E, }2 H& B2 i# zMETER LIST(See ARRIVAL SECTOR ADVISORY LIST.)$ S1 v' W& {3 L4 n7 A, _ METER LIST DISPLAY INTERVAL- A dynamic $ O" b& c) z, Iparameter which controls the number of minutes% e+ A. x# h1 w' b1 K6 ?- L0 R# n prior to the flight plan calculated time of arrival at the ' Z8 |4 w- q* O9 E% n1 Bmeter fix for each aircraft, at which time the TCLT is $ F6 m0 i) S v2 h$ Y+ T! ofrozen and becomes an ACLT; i.e., the VTA is1 W9 j& T1 w. T- r# z R updated and consequently the TCLT modified as ( D( \1 A! M" Lappropriate until frozen at which time updating is " H+ [& d- \/ I' w# y' O/ V& wsuspended and an ACLT is assigned. When frozen, 1 Q1 D9 i( h7 _* K* lthe flight entry is inserted into the arrival sector's! K4 e6 Q, j9 J/ G+ r meter list for display on the sector PVD/MDM. + q7 J: w% ^, l: ]MLDI is used if filed true airspeed is less than or; u7 N5 M8 |- q& b equal to freeze speed parameters (FSPD).9 j9 Q9 R h7 V& w4 u$ Z METERING- A method of time‐regulating arrival- q! _% T# Q% B: F traffic flow into a terminal area so as not to exceed a ' Q9 h; S9 C8 Ypredetermined terminal acceptance rate. 2 c% b. f3 M, S7 VMETERING AIRPORTS- Airports adapted for* \6 J& {- V" W1 A4 Q% @' d metering and for which optimum flight paths are 7 U/ O# j9 t) r. E* t3 mdefined. A maximum of 15 airports may be adapted. + X L6 s9 k$ S, E0 _4 MMETERING FIX- A fix along an established route( `3 c. H3 }$ o7 H: g$ y0 d- G* \1 F from over which aircraft will be metered prior to7 O/ V9 ]& L* E6 \2 a' m# m0 J entering terminal airspace. Normally, this fix should 1 ^/ x6 t1 n" _( J0 Z' {1 d! [6 xbe established at a distance from the airport which 7 h" A& K9 g0 ?/ Dwill facilitate a profile descent 10,000 feet above - [* K" f- e- L; S, Qairport elevation (AAE) or above.5 U! n7 O1 b4 s. ]1 C8 e. @ METERING POSITION(S )- Adapted PVDs/ 5 E$ b9 @: i5 K0 @MDMs and associated “D” positions eligible for! Q& T2 j, P4 v2 P4 ]4 ~ display of a metering position list. A maximum of * d% R4 A& u5 F1 \8 D! j2 dfour PVDs/MDMs may be adapted.6 n& u1 S8 `2 Z# n X% B METERING POSITION LIST- An ordered list of " X% b9 _7 Z) o$ hdata on arrivals for a selected metering airport " B: d( m- G, ^' A" y4 Jdisplayed on a metering position PVD/MDM." C6 e9 K, F; \1 O* o; O MFT(See METER FIX TIME/SLOT TIME.) w$ C- V# o2 G9 J. [MHA(See MINIMUM HOLDING ALTITUDE.)3 G* u& s3 K; C7 C" O; M& P MIA(See MINIMUM IFR ALTITUDES.)4 t7 A3 j! g( R" [; }, O% ?; _6 g MICROBURST- A small downburst with outbursts 3 i# c7 f5 Q0 o$ f9 Nof damaging winds extending 2.5 miles or less. In# a" L; D0 |3 `. @ spite of its small horizontal scale, an intense ' g$ R# n% I) o% b2 K( omicroburst could induce wind speeds as high as 1502 T% Y- H' g+ q' J2 z knots 7 Z1 s9 W7 J# O3 i* p(Refer to AIM.) 8 e3 n7 u% m5 ?' @* M, {0 O6 v( d' dMIC RO‐EN ROUTE AUTOMATED RADAR) R( {& D3 Z( r, H4 H9 T TRACKING SYSTEM (MEARTS)- An automated h$ u6 p6 a, p4 A6 Jradar and radar beacon tracking system capable of k* r: p% c- ?. |6 aemploying both short‐range (ASR) and long‐range - a4 C% @3 k, Z(ARSR) radars. This microcomputer driven system* h; I3 e/ M, B7 `8 w! ^1 R provides improved tracking, continuous data record‐% `8 T; A6 j, c9 V; y ing, and use of full digital radar displays. : f {( }" x) H! o: Q7 P8 tMICROWAVE LANDING SYSTEM- A precision 6 n, D2 U, s3 r9 c: }2 [instrument approach system operating in the * r+ |" U% b) @% J! vmicrowave spectrum which normally consists of the 7 W5 o# F }- F/ Q4 n0 Ofollowing components: ( B+ F2 w8 A2 z. Q1 ra. Azimuth Station.+ q; w' x9 y& N0 v7 f! x b. Elevation Station.7 |& I% Z4 J! Z) l' W( v$ T! c c. recision Distance Measuring Equipment. * O" P# D) w2 _5 ?" _9 _. `7 E% Z(See MLS CATEGORIES.), i0 H$ J' Y$ ^7 t MID RVR(See VISIBILITY.) ' I, l7 q- O ?7 E2 ~* EMIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.)( A) T7 \/ R& y# i Pilot/Controller Glossary 2/14/086 d. U+ F2 Y! x) Y F8 O3 u6 c PCG M-3 4 R& V0 b+ u0 l3 \7 H5 [/ M. p- QMIDDLE MARKER- A marker beacon that defines $ P' p5 F. k m! s& `/ ^a point along the glideslope of an ILS normally- T- A$ r) y& c& L6 e" r# t located at or near the point of decision height (ILS9 V3 c% w- @+ e: E Category I). It is keyed to transmit alternate dots and4 [, R- b3 J% a dashes, with the alternate dots and dashes keyed at the 7 O) m6 X X9 i- arate of 95 dot/dash combinations per minute on a 6 j1 O# z& g: F. J3 L6 t- b3 s( b X1 t4 ~1300 Hz tone, which is received aurally and visually ) U7 U* {8 t0 F& Yby compatible airborne equipment.( d0 ^% W9 O& q& B. O7 V3 n( K! r) ? (See INSTRUMENT LANDING SYSTEM.)+ @# b3 e( S( u) D' G8 S' o% _- ] (See MARKER BEACON.)+ X g% z( f6 s# Z4 F$ b (Refer to AIM.) + f4 v, O' z" J0 h6 l; F+ eMILES‐IN‐TRAIL- A specified distance between; `9 C7 F8 G( a! c- c5 k2 W4 Z aircraft, normally, in the same stratum associated5 h9 N/ X0 G1 h/ ]. S- H; Q with the same destination or route of flight. & m& @+ g3 g8 n. ^6 {+ TMILITARY AUTHORITY ASSUMES RESPONSI‐ 1 F/ j, r1 a, F8 @8 b6 D# G7 UBILITY FOR SEPARATION OF AIRCRAFT- A $ ?( I8 i! I. A8 t( w2 N( lcondition whereby the military services involved: M H3 S( u6 ~+ l4 x assume responsibility for separation between 1 ^. g* Y& f; |, v8 Sparticipating military aircraft in the ATC system. It is . B2 Z7 p9 _6 T$ sused only for required IFR operations which are9 `! m. Z' e. C- u5 R/ X! Z! N! h specified in letters of agreement or other appropriate$ j( p' u9 K6 z FAA or military documents.6 ?' L1 f3 I4 X1 _* F" M MILITARY LANDING ZONE- A landing strip used" T# H3 w$ D/ K* y( C! G exclusively by the military for training. A military ; m% e3 R/ \1 I) Wlanding zone does not carry a runway designation. 7 w8 H/ E, l1 vMILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.) , ]) V8 e. @! \MILITARY TRAINING ROUTES- Airspace of ; i# X% c) t* y9 G! E+ R9 p, sdefined vertical and lateral dimensions established ' G3 u. s& f0 {for the conduct of military flight training at airspeeds , p8 N0 c0 D7 A( f; qin excess of 250 knots IAS. ! T; Y O5 |! P(See IFR MILITARY TRAINING ROUTES.)9 C' ~$ E8 f# K: ~1 i: H (See VFR MILITARY TRAINING ROUTES.): y: a# @2 D, }; T' b/ x: U MINIMA(See MINIMUMS.) % \: u) f( `# o6 A1 x8 kMINIMUM CROSSING ALTITUDE- The lowest* [ v+ |% t+ Z5 w! y; u altitude at certain fixes at which an aircraft must cross$ Q0 v) Z5 ?/ V: D! A when proceeding in the direction of a higher- h: {) x J' V- _" | minimum en route IFR altitude (MEA). 8 H. {# \3 w9 d7 f: }(See MINIMUM EN ROUTE IFR ALTITUDE.)3 e. T$ ]8 q: q6 U& p3 g MINIMUM DESCENT ALTITUDE- The lowest/ b2 l1 P/ _; K: e altitude, expressed in feet above mean sea level, to3 h; j3 J" _2 k) n: {% ^6 | which descent is authorized on final approach or 1 g8 H- T- K1 ~/ e% d, Yduring circle‐to‐land maneuvering in execution of a% z {# z4 m9 g. ~0 ]0 n standard instrument approach procedure where no8 P' T; v1 w, r- E, i$ A+ h3 I- e: ^ electronic glideslope is provided.+ z$ x- D! j( L8 B$ r (See NONPRECISION APPROACH % x9 v+ Q/ E( j4 ~0 S, {PROCEDURE.) & I$ Q7 H9 w1 g3 }MINIMUM EN ROUTE IFR ALTITUDE (MEA)-/ \2 Y1 ^5 ?+ w5 g8 P3 H3 f: D The lowest published altitude between radio fixes7 M( ~% y" [# n which assures acceptable navigational signal cover‐ 9 M7 e- O+ q8 A) X; B! eage and meets obstacle clearance requirements8 S8 c# e( d4 I: x$ w& T" z between those fixes. The MEA prescribed for a4 A8 x, n( b( Q% f+ b" y/ l Federal airway or segment thereof, area navigation& E9 p( E8 P2 q8 I3 r low or high route, or other direct route applies to the' ]. ~$ n! k9 A9 t6 A entire width of the airway, segment, or route between' ?1 N6 t4 i4 Y1 g% p# P0 y the radio fixes defining the airway, segment, or route. 1 P l: q$ E4 l5 i6 N4 m3 L! B# i(Refer to 14 CFR Part 91.) 7 u: c) L+ x% f0 e: C# O4 ?5 B(Refer to 14 CFR Part 95.) + c, Y9 V5 D% G3 ?" s+ y$ `(Refer to AIM.)& f6 g8 d8 }7 b* t* S) u2 c MINIMUM FRICTION LEVEL- The friction level1 Y0 q3 u6 D) B/ p specified in AC 150/5320‐12, Measurem ent, 5 m& q2 U2 G GConstruction, and Maintenance of Skid Resistant! A- [+ A2 L+ Z8 O/ G. r Airport Pavement Surfaces, that represents the2 Y* E! b0 I& e, u8 I( R minimum recommended wet pavement surface 4 \3 J, d A6 t0 |( `+ Z2 nfriction value for any turbojet aircraft engaged in8 ^4 w( G3 H- L4 l; d# @ E2 o LAHSO. This value will vary with the particular 4 @$ k3 [& n- ^4 {friction measurement equipment used. 0 B/ f) M0 V, E) W+ |% ^+ f9 eMINIMUM FUEL- Indicates that an aircraft's fuel 3 u: x9 k2 n6 G: q0 {& i7 ysupply has reached a state where, upon reaching the - t& o! n: _. _9 T2 x+ u% Ldestination, it can accept little or no delay. This is not : k* ?) |4 N9 San emergency situation but merely indicates an# [+ m& R7 n# `) Y) g0 G+ w emergency situation is possible should any undue 3 l0 s9 I1 W% k6 A; h+ Edelay occur.( i3 z1 }" s* Y9 _ (Refer to AIM.)7 O2 u! `5 Y/ T3 \) v/ r6 y2 f3 _ MINIMUM HOLDING ALTITUDE- The lowest % }) }) Z# x$ p7 Zaltitude prescribed for a holding pattern which ; d' O' [7 A2 S( F% Xassures navigational signal coverage, communica‐ $ T; W- Y' N) E8 Xtions, and meets obstacle clearance requirements. : L4 ~% n0 U, cMINIMUM IFR ALTITUDES (MIA)- Minimum! ]% |9 Y8 I V- x& @* t) s6 E! e altitudes for IFR operations as prescribed in 14 CFR & a8 J0 `/ S- ~1 X$ aPart 91. These altitudes are published on aeronautical ( M" E( y' A7 u9 wcharts and prescribed in 14 CFR Part 95 for airways w+ f2 `. l4 o) ] and routes, and in 14 CFR Part 97 for standard 1 t" |% I! g' e. r6 N; Q2 vinstrument approach procedures. If no applicable: u. n$ ~' |; z minimum altitude is prescribed in 14 CFR Part 95 or $ b) _9 p- C9 `% Y14 CFR Part 97, the following minimum IFR- \6 J. r& ?5 h8 @& V5 P altitude applies: . u/ s/ i# z: p% P) qa. In designated mountainous areas, 2,000 feet 3 c. b0 W7 Q( L+ Vabove the highest obstacle within a horizontal 8 b* h' }8 T( i+ |6 Z9 w7 W, ndistance of 4 nautical miles from the course to be0 v( J1 A" M% t( @ flown; or - o7 Y7 x# Y1 g" W- KPilot/Controller Glossary 2/14/08 $ z: ~1 x& k1 G+ DPCG M-48 {+ K1 p& R3 y0 R# \7 J* g b. Other than mountainous areas, 1,000 feet above, X- }- i5 V, x the highest obstacle within a horizontal distance of 4 1 q- ~2 U; D" G; R, h; P4 f- unautical miles from the course to be flown; or6 C# a* ` H5 O) d/ S# A4 o c. As otherwise authorized by the Administrator! P1 D2 s0 Y; _* S7 m2 ]0 I" h or assigned by ATC. 3 m! a9 R. {4 f. c4 u" U2 |(See MINIMUM CROSSING ALTITUDE.) - \3 Z( O$ \) G) Z# |(See MINIMUM EN ROUTE IFR ALTITUDE.) ! }# v- n8 h2 T" Z; u(See MINIMUM OBSTRUCTION CLEARANCE( T. o0 T" a$ c+ ` ALTITUDE.) 8 |/ _7 c* |! H% O: U8 W(See MINIMUM SAFE ALTITUDE.) 2 t7 g1 D* y: \/ ?( n- V(See MINIMUM VECTORING ALTITUDE.) ! ~0 C z3 i: Q5 |(Refer to 14 CFR Part 91.)

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发表于 2008-12-28 14:16:14 |只看该作者
MINIMUM NAVIGATION PERFORMANCE: j( e+ N" j+ u5 M6 d. q SPECIFICATION- A set of standards which require 6 q( H; ]8 W8 V! [- v, p9 maircraft to have a minimum navigation performance 6 P& c+ j: b6 N' Pcapability in order to operate in MNPS designated- U' N9 \ C" {% x airspace. In addition, aircraft must be certified by7 G/ J+ a+ E" Z. M2 b" U their State of Registry for MNPS operation. , G0 a2 O9 f( k1 L( ^: i# q/ _6 @MINIMUM NAVIGATION PERFORMANCE/ m2 U' i$ Q: m SPECIFICATION AIRSPACE- Designated airspace- _& g! c0 I4 y! A; U @. A) ~ in which MNPS procedures are applied between 6 M+ U9 A, I, M+ SMNPS certified and equipped aircraft. Under certain - S% a+ s. q- kconditions, non‐MNPS aircraft can operate in( ]/ W: ?' X, t; u* h1 R MNPSA. However, standard oceanic separation ; ]$ q2 a5 x% q" P8 Z& l3 wminima is provided between the non‐MNPS aircraft 9 W* T/ G" { D7 B# L! y* x* v3 Wand other traffic. Currently, the only designated6 ?" K8 J( q$ j- {3 S MNPSA is described as follows: 1 M0 f/ Z: c; U3 ga. Between FL 285 and FL 420;2 |( K6 n d! e$ o b. Between latitudes 27N and the North Pole;5 R$ h$ j v3 T# J. O c. In the east, the eastern boundaries of the CTAs: _! \. T J, @0 M4 D Santa Maria Oceanic, Shanwick Oceanic, and ' v# Y7 h! T J4 p8 |Reykjavik; 2 X6 u2 K" t4 x, z- p( \! pd. In the west, the western boundaries of CTAs, l. u# P3 s% R. ?( i7 A) S Reykjavik and Gander Oceanic and New York5 {( ?5 {% K9 ]) ?% l G Oceanic excluding the area west of 60W and south* U" N5 j) E9 k1 _& ?" t of 3830'N. ) M5 p7 g; A' Z0 ?MINIMUM OBSTRUCTION CLEARANCE ALTI‐9 E l) K% q. S* a+ J( N2 k8 f TUDE (MOCA)- The lowest published altitude in - l; ?4 E6 E. T) p9 Ceffect between radio fixes on VOR airways,+ A8 P+ @5 x2 L. S( H# ~* k% N. ^ off‐airway routes, or route segments which meets: a9 z. \1 _$ [9 Z2 a9 k- T. K7 ] obstacle clearance requirements for the entire route / Z7 u0 M( [' f! e6 q4 w4 {' p( Ksegment and which assures acceptable navigational : L. c5 b0 f& e4 U; E' ?- q- h8 Csignal coverage only within 25 statute (22 nautical) & I# ^1 g/ G6 I9 {' |" v$ Amiles of a VOR.; u6 g. I2 q6 _0 i7 } (Refer to 14 CFR Part 91.) ) Z1 p. K2 Q8 T% m% M1 \(Refer to 14 CFR Part 95.), d% D# R3 t) g- B0 s9 o MINIMUM RECEPTION ALTITUDE- The lowest% G; b0 l- C7 g; } altitude at which an intersection can be determined. 5 N. q3 N. z9 g/ @. l3 V(Refer to 14 CFR Part 95.)/ {' o' X( Z. g8 w9 p MINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR5 ^3 _5 t0 A: J3 |- } Part 91 for various aircraft operations. 1 c4 D, \0 a9 b$ ?1 E* \( `6 s+ Jb. Altitudes depicted on approach charts which8 ?8 B) H+ F1 w L9 U9 } provide at least 1,000 feet of obstacle clearance for, {2 W) t) U) T# d' ^ s. S5 R emergency use within a specified distance from the % \" \8 X. g; Rnavigation facility upon which a procedure is 4 H$ Z, V5 N' L# U- Tpredicated. These altitudes will be identified as v. u- N Y0 u$ h; r Minimum Sector Altitudes or Emergency Safe # P- ^) [1 D" x5 v+ oAltitudes and are established as follows:" \5 t1 Y9 g9 Q5 K v9 A7 \) W 1. Minimum Sector Altitudes. Altitudes de‐ $ S) P( j% c1 }; i \4 t! `picted on approach charts which provide at least w& k8 E2 `* K" r' C 1,000 feet of obstacle clearance within a 25‐mile, x& x! B) a2 U radius of the navigation facility upon which the" I9 g' R% T' u$ C procedure is predicated. Sectors depicted on + b# ?7 h# ~6 @- w$ @approach charts must be at least 90 degrees in scope. 4 C5 H5 q9 W" Z3 A) SThese altitudes are for emergency use only and do not! W' J- O+ d8 t9 m& ~ necessarily assure acceptable navigational signal 9 o; \5 A' l: l5 f$ i3 xcoverage. 6 N4 C) F0 y) N5 Q f' S(See ICAO term Minimum Sector Altitude.) + H2 P; v- J+ I* x# `2. Emergency Safe Altitudes. Altitudes de‐ $ _6 F0 ~- ?) Y, B. q" V' Q; Ipicted on approach charts which provide at least0 ~' n) {, s) g9 Z9 x9 k5 D9 v 1,000 feet of obstacle clearance in nonmountainous ) H7 `$ L: K/ b# Dareas and 2,000 feet of obstacle clearance in; V5 m! e1 Y3 y0 t2 v designated mountainous areas within a 100‐mile, K" `$ m% B8 H" i# s radius of the navigation facility upon which the3 l) b! T" K# I$ d. l procedure is predicated and normally used only in + z T% B: E E( Imilitary procedures. These altitudes are identified on 3 W8 Y O9 [. t* `5 x; a) gpublished procedures as “Emergency Safe Alti‐ , C, A$ i& K# gtudes.”- \) S7 R+ A+ c MINIMUM SAFE ALTITUDE WARNING- A ! M. [$ v# G8 u- j# Bfunction of the ARTS III computer that aids the ) C4 h3 K# G; d* x Scontroller by alerting him/her when a tracked Mode ' s5 [( o$ S6 c3 }C equipped aircraft is below or is predicted by the 5 e* J e* u4 b5 H! `# @computer to go below a predetermined minimum safe + J+ [& v# r1 V+ A5 w0 Jaltitude.7 G' L( _2 A0 \; a! e( P (Refer to AIM.) 6 M+ @! B. k$ e7 CMINIMUM SECTOR ALTITUDE [ICAO]- The- Q# G# t1 J& Q8 g* }- {" i lowest altitude which may be used under emergency- `2 f+ D& q0 w. n conditions which will provide a minimum clearance 6 l: M/ I, P+ v$ b' T9 \( \of 300 m (1,000 feet) above all obstacles located in ]1 {/ H2 O/ T2 r; t5 m an area contained within a sector of a circle of 46 km % F$ K- Y4 u) s* w% f' X) G! h(25 NM) radius centered on a radio aid to navigation.$ R( V+ c0 a2 |7 n& r MINIMUMS- Weather condition requirements 8 A: h w, {! c& Oestablished for a particular operation or type of. W m4 k) G# l2 q8 J; F Pilot/Controller Glossary 2/14/086 P) A9 {5 R5 I. R' b! L PCG M-5 2 `: P; v2 t- w5 B" Moperation; e.g., IFR takeoff or landing, alternate , ^2 a* Z+ {2 e5 w- Jairport for IFR flight plans, VFR flight, etc. & m+ _) x5 @4 K4 t! u(See IFR CONDITIONS.) 7 k/ u+ N$ V; Z1 u" t(See IFR TAKEOFF MINIMUMS AND, l2 j( }" j) w! t1 J4 H DEPARTURE PROCEDURES.). ^$ R6 a) `2 O B) k (See LANDING MINIMUMS.) - Z+ ~( S0 o: I& h. k% i# _; F2 ](See VFR CONDITIONS.) ' {( Q2 r" d9 h9 |; l8 D. k(Refer to 14 CFR Part 91.) # f! y2 S1 }* l7 @% [! h- W3 r(Refer to AIM.)" Z5 s3 W( r3 r) W4 l MINIMUM VECTORING ALTITUDE (MVA)- . o2 C3 |* V+ xThe lowest MSL altitude at which an IFR aircraft will ; r7 k" Q: V& S" Q/ d! C; [1 Y* ^be vectored by a radar controller, except as otherwise $ F4 r! V+ f9 b; G2 D8 [. O6 a8 Y, wauthorized for radar approaches, departures, and 7 Q! `' |+ M" L) fmissed approaches. The altitude meets IFR obstacle2 V2 l0 a" G( s% E clearance criteria. It may be lower than the published 0 d! u4 D8 [/ E5 S- ]MEA along an airway or J‐route segment. It may be $ {1 v" b1 }0 ~; O7 iutilized for radar vectoring only upon the controller's, R1 u% a/ B" P& ` determination that an adequate radar return is being ( Y* N' \" r$ R& _$ M! j8 Mreceived from the aircraft being controlled. Charts3 b7 h! a4 p+ u; w" |8 C& c4 W2 u depicting minimum vectoring altitudes are normally % f ?" D! Y. z" H. uavailable only to the controllers and not to pilots.2 M: E3 m( K) _6 L. z (Refer to AIM.)1 d& f) G/ d7 V' @/ A MINUTES‐IN‐TRAIL- A specified interval be‐5 g5 e2 g p# c. ^2 G4 w, ? tween aircraft expressed in time. This method would& N4 @# {: R% O1 y& \ more likely be utilized regardless of altitude. 8 l. ?7 q! G, d, s9 AMIS(See METEOROLOGICAL IMPACT" n! T( Q. K s8 K! Q$ U STATEMENT.)+ |' Z/ s. f$ Z v MISSED APPROACH- ! P9 X) | m$ ~) |a. A maneuver conducted by a pilot when an 2 r9 Q+ w( h" E# f: [* k4 einstrument approach cannot be completed to a + A2 @3 ]4 x5 P' v; i2 b8 Llanding. The route of flight and altitude are shown on0 m/ D9 G3 n5 Q* ~ instrument approach procedure charts. A pilot( D3 O$ w& F0 B) t9 y executing a missed approach prior to the Missed) o4 D- C: f2 m& q5 b0 U) b Approach Point (MAP) must continue along the final 6 N$ Q7 C8 s; z; T' H Q" Zapproach to the MAP." z- r. p& u9 S" [6 F# B" E' ?5 P" ~ b. A term used by the pilot to inform ATC that 1 `' n) y6 j& _) Z) G8 Ghe/she is executing the missed approach.; s4 j# Z# o& y# h' v c. At locations where ATC radar service is3 h9 `; o. U8 |$ f5 t provided, the pilot should conform to radar vectors# r% |6 k6 H; r" P when provided by ATC in lieu of the published ; f1 ^6 M1 U @+ t' V* x0 @7 jmissed approach procedure.+ d: e+ x8 {, Z) F0 ^/ R (See MISSED APPROACH POINT.) $ C& `" m1 \. z$ Q5 f9 j(Refer to AIM.)& p) X0 t% f/ V0 @2 y" n7 e MISSED APPROACH POINT- A point prescribed 9 h3 X& e& i8 sin each instrument approach procedure at which a & D7 H5 x. ^& a( @8 O$ H) O( umissed approach procedure shall be executed if the 3 q1 d+ _' u9 {required visual reference does not exist.+ k* W2 M, Y9 f- z' e- m' \ (See MISSED APPROACH.) . m' a' H' `. J. o2 s& ~" C1 t(See SEGMENTS OF AN INSTRUMENT : B; z' K9 j: a: W PAPPROACH PROCEDURE.) + Q# G1 |/ d) q7 S) M1 i* gMISSED APPROACH PROCEDURE [ICAO]- The1 | _2 y( }" E% K/ I4 d- v procedure to be followed if the approach cannot be 0 {) S$ N# Q8 d5 K2 |continued. 4 C6 \* }: Z& QMISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT ! S0 U1 P' u* z; i, p( `$ IAPPROACH PROCEDURE.)1 J I1 }. ^, E0 h# G: { MLDI(See METER LIST DISPLAY INTERVAL.) 4 p& y! t3 k- @7 [$ ?- q6 SMLS(See MICROWAVE LANDING SYSTEM.)0 R! b9 J! D) ^$ k2 Z$ f6 W MLS CATEGORIESa. MLS Category I. An MLS approach procedure/ O' m" a8 w- e' i" Q; [* D which provides for an approach to a height above ) Q1 l$ N0 w! z9 @# `7 l5 stouchdown of not less than 200 feet and a runway 8 M' k. r/ Z5 r# Q6 yvisual range of not less than 1,800 feet.* x8 }- C' Y- `5 g- f7 n, C b. MLS Category II. Undefined until data gather‐4 S" z" n+ r2 y8 f ing/analysis completion.+ l# Y, ~3 v% [( y1 \ c. MLS Category III. Undefined until data# ? X1 Y4 j$ G% E( G! X8 l gathering/analysis completion." ?( v( `+ ?7 o. N) d! Z MM(See MIDDLE MARKER.) + o; b1 M' T3 DMNPS(See MINIMUM NAVIGATION PERFORMANCE% F( h/ D3 T. N" I w. r& n( i SPECIFICATION.) & f2 C- j9 [" e S" W; O. ^MNPSA(See MINIMUM NAVIGATION PERFORMANCE-$ e, g/ E1 P9 c" X SPECIFICATION AIRSPACE.)1 k- ?! X* r) [, I MOA(See MILITARY OPERATIONS AREA.) ' n$ U3 e. k2 C- \; R9 oMOCA(See MINIMUM OBSTRUCTION CLEARANCE/ {4 _5 B e6 {4 n3 q1 V- @. N8 B. a. m ALTITUDE.) 5 U; M9 L( s: j. m$ u8 A/ [2 @MODE- The letter or number assigned to a specific" s6 d: T; l( n [ pulse spacing of radio signals transmitted or received + i, O3 E8 B: ~. Hby ground interrogator or airborne transponder( y$ \* o: `2 F components of the Air Traffic Control Radar Beacon& b: c/ P. f0 A9 c Pilot/Controller Glossary 2/14/089 @2 E9 Y3 c2 l6 T: B PCG M-6 4 D2 Q% l1 Q2 P I2 M! e. z0 D1 wSystem (ATCRBS). Mode A (military Mode 3) and; D& m" \: Q' i5 _5 Z3 @1 z" K Mode C (altitude reporting) are used in air traffic 6 P% c# u- d+ n* f( Q$ p. Bcontrol. : } g% g5 u/ M, a1 T* A(See INTERROGATOR.) 4 r& V1 S2 ]- _(See RADAR.) / J5 M( K: l4 j/ ]/ S9 `(See TRANSPONDER.) 5 ]. G+ ]$ `- u* U0 R) \" V! p(See ICAO term MODE.) , R) Y3 n" U m/ J3 C5 Y(Refer to AIM.)1 M* C" T G% ?- V* n MODE (SSR MODE) [ICAO]- The letter or number, w& u0 m1 T0 B7 `4 j- s: r assigned to a specific pulse spacing of the8 k8 n, g: t. @2 U: X0 j interrogation signals transmitted by an interrogator. ; x- c$ {- Z9 {1 ^( u. OThere are 4 modes, A, B, C and D specified in Annex - _: J# ?/ y0 O9 K+ j10, corresponding to four different interrogation8 v \) q$ F W" x, ]1 P5 a$ H1 F pulse spacings. $ h( V. H% W" ]2 K3 L9 i; D# a: QMODE C INTRUDER ALERT- A function of0 U% O0 |% D3 B8 W1 b certain air traffic control automated systems designed 9 F$ Y3 U7 L: S1 ]: Zto alert radar controllers to existing or pending1 Z1 }! Q1 ~' P& E situations between a tracked target (known IFR or! o5 g0 }+ R" z3 W; o" L" j& K VFR aircraft) and an untracked target (unknown IFR & z1 \& o3 R# r" w* aor VFR aircraft) that requires immediate attention/ & I4 r5 q' a1 ]action.+ _" k) f; ]5 j1 c1 _- S5 P9 _ (See CONFLICT ALERT.)

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MONITOR- (When used with communication0 ^9 \8 q3 d( A% L transfer) listen on a specific frequency and stand by( x0 q/ x! a2 r7 _( d6 [+ S5 Y+ ^ for instructions. Under normal circumstances do not ( v8 |5 k% C0 `: L3 `6 i0 g) Yestablish communications. " Z/ V0 _: H( f& X0 KMONITOR ALERT (MA)- A function of the ETMS 3 m' ~ K- Z9 |, pthat provides traffic management personnel with a + M) L$ L' Z0 c9 B: J! O e1 |' g+ Otool for predicting potential capacity problems in- h$ W2 p J3 X# m individual operational sectors. The MA is an9 L% E$ P: o6 `# B5 q indication that traffic management personnel need to4 }# ?1 I3 W) ? analyze a particular sector for actual activity and to7 k4 ^3 q" s; g5 R: R) ` determine the required action(s), if any, needed to) c2 k) e( i$ B/ T control the demand. N1 e& s- N6 E) KMONITOR ALERT PARAMETER (MAP)- The, a* c4 M1 Y9 R" D number designated for use in monitor alert4 N* T1 @0 {( Q: N processing by the ETMS. The MAP is designated for 0 p W( p* U. T1 F8 Neach operational sector for increments of 15 minutes. 9 a8 l1 X3 V# S1 t8 sMOSAIC/MULTI-SENSOR MODE- Accepts posi‐ N' \/ h( R3 q& ptional data from multiple radar or ADS-B sites.. i/ x+ c; j0 O g) Q. ]3 E Targets are displayed from a single source within a( A- i2 D7 l9 X H radar sort box according to the hierarchy of the ) {3 P- s9 |$ n6 f: O# b# k; msources assigned. 6 ^9 t3 U" B5 N- b- SMOVEMENT AREA- The runways, taxiways, and, H) B8 Z9 [; X: r5 t* j other areas of an airport/heliport which are utilized7 t! D% v' E+ s for taxiing/hover taxiing, air taxiing, takeoff, and 7 B1 O, B Y, _) G2 I% {7 `, V9 q7 Slanding of aircraft, exclusive of loading ramps and" v" \$ [0 J6 G6 l5 [ parking areas. At those airports/heliports with a . A" b$ A0 C- K2 [tower, specific approval for entry onto the movement - x1 Z' H$ X' q. S/ @area must be obtained from ATC. 3 [0 m" n0 A8 b/ S; {) g(See ICAO term MOVEMENT AREA.) - Z& s) }. z* R2 |6 _MOVEMENT AREA [ICAO]- That part of an ) g( R0 f9 D0 v8 [: T- Iaerodrome to be used for the takeoff, landing and \& A- H' N7 K$ Mtaxiing of aircraft, consisting of the maneuvering area . j. s- I! S8 }- s: mand the apron(s). M2 M5 u6 B: A) J: P" B MOVING TARGET INDICATOR- An electronic; O' a. p0 b% L* i A device which will permit radar scope presentation 9 e1 h1 |. w4 |+ H: ponly from targets which are in motion. A partial 3 C$ q: u! n: L; `( V: R$ ] W, X* n' z0 cremedy for ground clutter. % f: v% e- C9 ]% n' }! h. mMRA(See MINIMUM RECEPTION ALTITUDE.) # U! Y4 g4 N# w- MMSA(See MINIMUM SAFE ALTITUDE.)* l; \- K+ R0 R! R0 u MSAW(See MINIMUM SAFE ALTITUDE WARNING.)) X+ x* y8 w# T7 \/ v/ a( S& h$ i" ^ MTI(See MOVING TARGET INDICATOR.). q. E' b5 ]0 L+ w( C MTR(See MILITARY TRAINING ROUTES.)0 `! q+ k5 t- E _, W MULTICOM- A mobile service not open to public ' z1 \( i6 c& w& n! U- \correspondence used to provide communications( r! }2 e! ~0 J: k1 ~" u+ S essential to conduct the activities being performed by 0 b( v5 o9 @0 F6 r2 ^, r. _or directed from private aircraft. % k, L) f! I; t7 V3 ~! `4 g' DMULTIPLE RUNWAYS- The utilization of a 2 v$ {3 a3 k1 n& g3 p, h- }dedicated arrival runway(s) for departures and a2 A! I {# ?5 {1 w- z dedicated departure runway(s) for arrivals when- N5 I7 h, c8 _3 g6 L3 J feasible to reduce delays and enhance capacity./ R2 V/ { u; d MVA(See MINIMUM VECTORING ALTITUDE.) ( n/ Q! \5 }. }6 A9 \$ s0 Z5 N0 ZPilot/Controller Glossary 2/14/08 " i2 z; G) ~) E7 h4 t5 k5 hPCG N-1 - s5 w% n j6 g, zN- N* b) h U! r" D( a7 Q NAS(See NATIONAL AIRSPACE SYSTEM.)4 W4 P' I7 }3 V) o% |3 [ NATIONAL AIRSPACE SYSTEM- The common 3 K* j* O9 x0 I6 |, `network of U.S. airspace; air navigation facilities, % q" v: O3 ?3 }4 A& jequipment and services, airports or landing areas;# W& K3 f4 d. C: {! M4 h aeronautical charts, information and services; rules," g% U6 Y" E s3 J, H' _' Q4 { regulations and procedures, technical information, 5 z1 D- u- {6 N# uand manpower and material. Included are system- d- k \1 Y* ~* Z5 O components shared jointly with the military.! s1 p, S- ^4 Z NATIONAL BEACON CODE ALLOCATION; f) m7 r# M, w9 N* Q% G5 K ^ PLAN AIRSPACE- Airspace over United States ( F+ S9 Z6 h7 E6 K! \- L" pterritory located within the North American continent }: f4 B0 J7 d between Canada and Mexico, including adjacent ' { E+ ~6 {* `1 D2 x5 ^territorial waters outward to about boundaries of9 c6 c' F# o) {2 I1 E oceanic control areas (CTA)/Flight Information& G9 `1 e2 R4 u Regions (FIR). ) Q4 f" ^& T8 D' a$ i/ [(See FLIGHT INFORMATION REGION.) $ T% ~1 u& B+ W# [NATIONAL FLIGHT DATA CENTER- A facility in 2 M0 ]: d0 p$ ?& d0 eWashington D.C., established by FAA to operate a , o7 ~9 ]. H6 ^8 d( F9 \9 ?central aeronautical information service for the 3 d- S j* X1 Ycollection, validation, and dissemination of aeronau‐( r) h& r( q- g tical data in support of the activities of government,* c, }% Z7 l+ a7 ] industry, and the aviation community. The informa‐ : R! ^9 I( J7 b/ xtion is published in the National Flight Data Digest." Y( K2 k0 u% H0 Z F: S+ G! o (See NATIONAL FLIGHT DATA DIGEST.) ; S0 E3 y' q+ N! |NATIONAL FLIGHT DATA DIGEST- A daily ; P3 t" c2 {! X- m6 z3 R% R* z(except weekends and Federal holidays) publication) j$ n" ^1 g# q! c1 z% ? of flight information appropriate to aeronautical' h3 Q$ @$ C1 j) q% n! U# j charts, aeronautical publications, Notices to Airmen, 5 T) X& G0 r/ Y- p& Oor other media serving the purpose of providing" W1 i2 h, U B3 [' P9 v7 p( t operational flight data essential to safe and efficient 8 G. R( }9 [ U0 q) j7 Zaircraft operations. c6 f/ O+ [% k( fNATIONAL SEARCH AND RESCUE PLAN- An ' a, }8 o! s* [0 j8 L; |0 c/ Hinteragency agreement which provides for the4 Z% p- d* s! u; R# @( g& T9 g effective utilization of all available facilities in all 5 ~' `' E- {) x& j' Jtypes of search and rescue missions. G% S/ G* v8 q; L2 @" XNAVAID(See NAVIGATIONAL AID.) : K$ |: {6 H: Z& D. U/ m# TNAVAID CLASSES- VOR, VORTAC, and TACAN 4 e6 O" R' |- m( q$ w" Uaids are classed according to their operational use.3 t% a: b' v2 B" |( ^/ o The three classes of NAVAIDs are: ; G/ }; f( G: ^) _+ e2 }: r6 da. T- Terminal. 6 N8 p' O7 [0 f$ _) P1 kb. L- Low altitude.* r/ Y: _9 `/ K, N. g/ o c. H- High altitude." O- ^# S" _3 H9 x Note:The normal service range for T, L, and H class* v! F% J m8 Z7 M aids is found in the AIM. Certain operational& u, ~% H* a( d& C8 X1 g- B requirements make it necessary to use some of ; o$ V& {2 d" [% m6 G7 Gthese aids at greater service ranges than" Z4 B6 i# S T5 s, h. J specified. Extended range is made possible+ G; L- x- O! A through flight inspection determinations. Some , \8 K, v& U3 q* Z* B! A/ Vaids also have lesser service range due to location,6 L% L) y. S+ `$ g1 Q terrain, frequency protection, etc. Restrictions to! v8 h+ T: F3 V( t' @ service range are listed in Airport/Facility ( h( {, P2 X" I3 U2 n3 cDirectory.& a+ C- y$ H. S+ D( H) Y NAVIGABLE AIRSPACE- Airspace at and above , E6 ~: F* l) Z1 X& o6 Xthe minimum flight altitudes prescribed in the CFRs. B. }- o1 A& T including airspace needed for safe takeoff and4 V6 t0 l, }7 X' v landing. 9 ]% E! ~( e# B* D0 \(Refer to 14 CFR Part 91.)5 r1 f2 D0 E* o" a J* Z NAVIGATION REFERENCE SYSTEM (NRS)- ( q* E- A7 X" d% a/ ~- r9 @9 x! i6 _The NRS is a system of waypoints developed for use D& T# ]& T0 j1 O. U! Swithin the United States for flight planning and # d6 i. ~. j5 r- p# \5 ^4 Wnavigation without reference to ground based/ H1 h) s4 o# I; |5 r navigational aids. The NRS waypoints are located in$ V# f3 A0 H/ f0 L* E a grid pattern along defined latitude and longitude9 D( f0 ?, q5 R lines. The initial use of the NRS will be in the high& [: p; C7 m( |9 b0 k" K* f; V' K altitude environment in conjunction with the High$ y: ?, \1 E. @/ a# Y; l Altitude Redesign initiative. The NRS waypoints are; k y* U/ q2 a. q! f- a9 ?: M intended for use by aircraft capable of point-to-point ~+ Q; _6 i% s0 H+ D0 o7 L3 |navigation. + A6 h. h# y2 r, j# c" d! QNAVIGATIONAL AID- Any visual or electronic + h# m# d4 v5 k' S, U4 { xdevice airborne or on the surface which provides1 d0 ^0 n$ l( v. \0 t point‐to‐point guidance information or position data9 y3 {& k/ O/ S! Q8 ~- y to aircraft in flight. % \; ^4 Z1 @( J6 G9 Q) N2 W(See AIR NAVIGATION FACILITY.)* ~0 z& k$ _9 N# {& @: \ NBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION( p7 y; B1 t4 P, ? PLAN AIRSPACE.)7 O' T/ \; P1 U) r4 o- Z NDB(See NONDIRECTIONAL BEACON.)& Q1 o" y. n6 ~5 X+ e$ Y NEGATIVE- “No,” or “permission not granted,” or " c3 g7 @3 }8 ^! G“that is not correct.” 0 r' e! W0 s2 N# B$ Q; c3 k) R6 ~NEGATIVE CONTACT- Used by pilots to inform : f2 P2 n) ] g8 |4 cATC that: : c6 i9 A$ b: c4 u8 Z, t3 V+ @a. reviously issued traffic is not in sight. It may0 E5 L# E% R6 Y, @ K( e0 t$ c be followed by the pilot's request for the controller to " g O- ]5 d0 Y- m* H" a: k, Nprovide assistance in avoiding the traffic. / R; v! m! _7 b V z0 Ab. They were unable to contact ATC on a 6 n5 `% {0 a, r( M- I8 Bparticular frequency. ! W# d6 N4 P1 T+ j" e C- Z3 @Pilot/Controller Glossary 2/14/08* w& h* v9 y" n1 {+ `& O' u6 G5 [ PCG N-2 ) C# m8 b6 p0 N9 q2 }7 D: @6 QNFDC(See NATIONAL FLIGHT DATA CENTER.) & D6 O! n) {0 V7 o# bNFDD(See NATIONAL FLIGHT DATA DIGEST.)% e' z6 m' L/ u! A; T ~7 f NIGHT- The time between the end of evening civil ( _8 q l6 ]; p7 Utwilight and the beginning of morning civil twilight, / a8 M, \; p/ I) P" H( eas published in the American Air Almanac, converted3 D+ i3 O9 ]+ Z% V to local time. 9 [/ `2 D% _' w z(See ICAO term NIGHT.) 7 l% D! q6 t& W" j& x# d' wNIGHT [ICAO]- The hours between the end of3 c. t7 t5 b" W+ Y" _ evening civil twilight and the beginning of morning' H9 i: t0 l4 S) s( z civil twilight or such other period between sunset and 8 K( K( G9 s9 e# ^, Jsunrise as may be specified by the appropriate B$ m0 v I0 ] authority. c4 u7 v% y' n6 @- V) z Note:Civil twilight ends in the evening when the5 J$ s4 g$ T' ~2 x2 O center of the sun's disk is 6 degrees below the& c) |) o5 z0 V- i/ p) t) X; {& _" ` horizon and begins in the morning when the center 2 f8 k: d6 }5 }6 |6 g+ H6 S; Zof the sun's disk is 6 degrees below the horizon. 3 b1 L9 w* t) k0 s$ N6 `NO GYRO APPROACH- A radar approach/vector2 |$ U& d3 x; j& C5 u( @ provided in case of a malfunctioning gyro‐compass4 N9 u1 I2 y3 c1 \* y4 ^ or directional gyro. Instead of providing the pilot& V/ ?' f4 [# z; u2 B+ P% G) u with headings to be flown, the controller observes the + J2 P, ?5 e( ^9 e! I* ]radar track and issues control instructions “turn $ J( V2 p8 a/ c" ?% a$ qright/left” or “stop turn” as appropriate.. n* i3 d. i) u3 A (Refer to AIM.) 2 ^/ l. K$ \: k0 U1 C( JNO GYRO VECTOR(See NO GYRO APPROACH.), w3 u' d. ^+ L5 H5 ?( {" N! c NO TRANSGRESSION ZONE (NTZ)- The NTZ is3 G) F' d/ F! i2 Q a 2,000 foot wide zone, located equidistant between / ~% d; z) c: v. ~5 gparallel runway final approach courses in which u \/ A, u2 q- e$ H* A: c2 Y/ Nflight is not allowed. 2 x8 Z- X! ~/ V6 j! a WNONAPPROACH CONTROL TOWER- Author‐+ T. w9 I8 v7 _. L2 b; K izes aircraft to land or takeoff at the airport controlled1 _; j+ U' f0 g8 y by the tower or to transit the Class D airspace. The3 |& ]6 ^8 P" U primary function of a nonapproach control tower is : i8 s- ^( b) |% J6 R! s& I0 m- sthe sequencing of aircraft in the traffic pattern and on/ Q5 ]% O) Q, A) |+ ] the landing area. Nonapproach control towers also6 B$ Q* G& |8 C3 \/ T8 C/ P separate aircraft operating under instrument flight# `8 e( F- r$ m' X/ n8 v rules clearances from approach controls and centers.7 }) W, T ~- r+ J2 ^" J/ ^# z( Y They provide ground control services to aircraft, 1 `8 Z: O3 {+ L, q" Svehicles, personnel, and equipment on the airport& u* r2 C' t+ p/ i1 D+ V* ^ movement area.3 o( T0 ?, S/ G% p+ v- W _4 L NONCOMMON ROUTE/PORTION- That segment - t( a$ \! P8 j$ y% Rof a North American Route between the inland3 ^* `$ O" v5 `( B navigation facility and a designated North American1 ]' c6 ^) i1 q" R1 Q terminal.. H* }5 q$ T: A) E NONCOMPOSITE SEPARATION- Separation in7 O7 {; d0 w, A4 D accordance with minima other than the composite 3 Z0 ]; A- k( v% e, Q. c& ?separation minimum specified for the area con‐! H8 ^& I, R7 r( h cerned. & K4 U0 H+ K S% `NONDIRECTIONAL BEACON- An L/MF or UHF B8 b/ U1 T9 G( X+ M: A1 h' k radio beacon transmitting nondirectional signals# A( p( }8 s6 \ whereby the pilot of an aircraft equipped with; \- U* x1 V$ ~8 d. N9 w' X direction finding equipment can determine his/her" l2 t1 b+ m! h" W6 E% k' d bearing to or from the radio beacon and “home” on or 1 m' {9 c7 [/ N% f" a6 Ltrack to or from the station. When the radio beacon is , x* d4 n9 A& h" M. ^% cinstalled in conjunction with the Instrument Landing ' B2 R }. o+ c4 W% ~System marker, it is normally called a Compass! @# L5 }0 n* _& | Locator. f. [( F. |2 G: s* }& P7 c8 d F(See AUTOMATIC DIRECTION FINDER.) ) m8 Q) h$ G a. C9 m5 i" O% m" [0 z(See COMPASS LOCATOR.)

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