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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 k: F2 W2 r1 x( Ping aircraft in a composite route system where, by/ i; P5 A* } M& j management of route and altitude assignments, a- m" `+ O+ \. S combination of half the lateral minimum specified for9 S' t7 B# i! n8 q7 K; d the area concerned and half the vertical minimum is 9 I6 Y2 l) O$ k3 t. Mapplied. ' k, H- G5 G1 o; d+ U8 sCOMPULSORY REPORTING POINTS- Reporting9 p; @! U3 N A' L" u4 P points which must be reported to ATC. They are& d, ?1 S: f6 E& K. u; Z designated on aeronautical charts by solid triangles or" Q3 a( @* L, R filed in a flight plan as fixes selected to define direct / y: o4 J9 V8 E* b2 Croutes. These points are geographical locations 2 n' r# f* h) I p Pwhich are defined by navigation aids/fixes. Pilots ; N( { s) |1 M# @: @+ W- s xshould discontinue position reporting over compul‐ * a% c s# m- k# y+ Bsory reporting points when informed by ATC that 1 y6 Y) B1 z" e; v: }( v u* ]# Btheir aircraft is in “radar contact.” & a, T. _$ J# G; k+ o. HCONFLICT ALERT- A function of certain air traffic . J4 l$ J9 r1 N. |% g+ B- Ncontrol automated systems designed to alert radar 5 R+ M1 S) }/ i, \$ g, icontrollers to existing or pending situations between / ~$ D8 c8 i* E" t% c( l$ V# btracked targets (known IFR or VFR aircraft) that2 U x2 @+ z n/ c; Y; L require his/her immediate attention/action. % Q j& b f$ K(See MODE C INTRUDER ALERT.) 6 a6 N1 A% t3 N* a( `) @, Y: fCONFLICT RESOLUTION- The resolution of 7 v5 H/ a5 ^/ c! n7 hpotential conflictions between aircraft that are radar * i( R; r$ B9 q7 m9 K' @) }identified and in communication with ATC by & w9 h/ t" D& [( N! L0 censuring that radar targets do not touch. Pertinent4 o& T# W2 s0 o& k: U7 k' M; z+ Z traffic advisories shall be issued when this procedure0 }; w! z }! T6 |5 Q! U is applied./ I. _2 l$ J( ?' A Note:This procedure shall not be provided utilizing( z+ x9 }+ j3 O' D9 V4 V8 H( e mosaic radar systems.( H& U. B+ s; G6 w, P! e ~ CONFORMANCE- The condition established when, x5 I' r0 Z/ `# r; {* x$ q7 m an aircraft's actual position is within the conformance8 E* t( D+ V, m1 x$ L region constructed around that aircraft at its position,( a1 i/ [# o- T. J! l, z% y" W according to the trajectory associated with the * h$ {/ h# T' _aircraft's Current Plan. : J, I7 m {. t2 CCONFORMANCE REGION- A volume, bounded* W8 M2 {& E! ^, w- N. @5 M laterally, vertically, and longitudinally, within which 7 S* Q$ n3 ]. Q$ ban aircraft must be at a given time in order to be in! Z$ X! U) s, t4 p% } conformance with the Current Plan Trajectory for that% [- J; d1 O* U! y2 K* \ aircraft. At a given time, the conformance region is & q6 b, ]6 e) F0 p7 g2 o4 E5 U$ wdetermined by the simultaneous application of the+ ?7 J3 C* i l* i6 M lateral, vertical, and longitudinal conformance ' y5 n8 B: T& {" ~bounds for the aircraft at the position defined by time6 t6 u1 L4 w, J* C) Z1 o i& h- w and aircraft's trajectory.. I* }& { H9 U CONSOLAN- A low frequency, long‐distance 1 q( h5 ^( p4 v& pNAVAID used principally for transoceanic naviga‐( j8 f, k! N) K; A- d tions. 9 V; l: ~0 h- [: z: GCONTACTa. Establish communication with (followed by the , \. j5 S0 z& ?2 d* o" J; | bname of the facility and, if appropriate, the frequency 6 l% h" g8 W/ K* kto be used).. A5 ]$ L3 E. D* F3 s b. A flight condition wherein the pilot ascertains# {# G' ]4 k6 x. B the attitude of his/her aircraft and navigates by visual+ e* s2 C: l, N6 L$ c reference to the surface.2 W8 p2 @* j. E4 v i (See CONTACT APPROACH.)! W7 v0 {! S$ ^5 R) \ (See RADAR CONTACT.)9 g$ \ C( ]: y# z CONTACT APPROACH- An approach wherein an ! I, S/ M& N6 j# R& f z+ x: ^aircraft on an IFR flight plan, having an air traffic; J$ x1 _7 t7 R% O% R0 \$ J5 c control authorization, operating clear of clouds with " i; R* }3 H" sat least 1 mile flight visibility and a reasonable % L4 n5 }9 X3 s/ ^+ {expectation of continuing to the destination airport in6 i1 G# e" n2 Z) x those conditions, may deviate from the instrument - Z- G# H# K9 v6 y. N4 J5 qapproach procedure and proceed to the destination 6 s3 W- W6 T* L$ j, Xairport by visual reference to the surface. This0 T- F {4 _, p, [ approach will only be authorized when requested by; e, i+ [: `7 E/ \: Y) i- u1 L; H the pilot and the reported ground visibility at the 6 a- d. L6 L. g/ i8 Udestination airport is at least 1 statute mile. . \5 N# H* G; {) ~ Z* e(Refer to AIM.) * d9 i# o4 O* S; x: A5 X% D- V% e- `CONTAMINATED RUNWAY- A runway is9 H# b% f) N2 u considered contaminated whenever standing water, $ @, l. X# \! j& Sice, snow, slush, frost in any form, heavy rubber, or : s. H4 n1 o7 }( C& W* a. o% h3 pother substances are present. A runway is contami‐ ; w0 f4 ?" `6 d) Z( ]" g$ Wnated with respect to rubber deposits or other8 t, o% I7 [* p7 g2 x9 f4 g% O friction‐degrading substances when the average/ b0 Z m8 z2 [3 | friction value for any 500‐foot segment of the runway ) M) G3 B& z" B3 ]# r' Awithin the ALD fails below the recommended' S% U1 G0 J s; t4 Q minimum friction level and the average friction value * ]+ W, j$ Y- E4 W" ]* N! I+ Ein the adjacent 500‐foot segments falls below the / p- p Y( V: r/ Y0 s2 L) Xmaintenance planning friction level. # D. D* a8 k; J& b$ LCONTERMINOUS U.S.- The 48 adjoining States $ @5 r5 C+ c. Kand the District of Columbia.5 K% s7 f7 u9 {# b$ h& c Pilot/Controller Glossary 2/14/08 / G1 E L1 f5 {" e4 J2 bPCG C-6 / G- \1 e; Q3 m5 W4 v! sCONTINENTAL UNITED STATES- The 49 States & l" R: N' W6 @9 f& n% olocated on the continent of North America and the 4 g1 b) S- _9 ?! R5 aDistrict of Columbia.% G; S& Q" I' f8 Z; [ CONTINUE- When used as a control instruction& c$ |3 {; ~! a9 |7 F; ? should be followed by another word or words G" R, o+ A7 N7 u5 R, X7 i" o# C4 [clarifying what is expected of the pilot. Example:9 R. L5 G" e {* o: Q# Q “continue taxi,” “continue descent,” “continue * @' Q( c# S9 P7 G/ Minbound,” etc.1 {1 o+ X# L& l7 ?3 S. ?: b2 u5 s CONTROL AREA [ICAO]- A controlled airspace $ O: }( g5 g( u, J; Vextending upwards from a specified limit above the' {! e" p. W( m- q earth.5 E$ U" d. A/ u. c9 U9 I! C& M; \ CONTROL SECTOR- An airspace area of defined8 R+ h2 p. h8 N6 D8 s& o horizontal and vertical dimensions for which a , X- e: l* \) F4 Pcontroller or group of controllers has air traffic1 q( D# ?3 f/ p9 c0 U6 h control responsibility, normally within an air route. |! }0 x; H6 _$ L6 e ?* Q' Q. u traffic control center or an approach control facility.; f. T* u2 A3 t7 n Sectors are established based on predominant traffic + P# J1 {& z6 {+ \! x* Dflows, altitude strata, and controller workload. H( L9 f) f+ w; i; S Pilot‐communications during operations within a2 s' d/ I- [( Z& J6 h/ D# A sector are normally maintained on discrete frequen‐6 |9 {9 Z) m) D( ? cies assigned to the sector. / l7 [8 L B' k6 [0 w(See DISCRETE FREQUENCY.)7 W+ l- v4 I+ t, d" v6 E0 V CONTROL SLASH- A radar beacon slash repre‐ 4 D' Z5 L. p; F+ T8 m4 Gsenting the actual position of the associated aircraft. $ h0 G$ D! T: K* ENormally, the control slash is the one closest to the 7 C& j# l" c5 g; yinterrogating radar beacon site. When ARTCC radar ) Y5 `8 h: z) P* u: t6 {is operating in narrowband (digitized) mode, the ) [) c" H6 i$ V" y/ N( M, @control slash is converted to a target symbol. 3 ^6 N5 G7 `9 c' T rCONTROLLED AIR SPACE- An airspace of ( o: [3 E) M* A# i0 m0 F0 W% Ldefined dimensions within which air traffic control/ w- }5 t9 v8 j1 D# L/ H service is provided to IFR flights and to VFR flights, o8 @- j6 T' W# K. z3 o+ |4 b in accordance with the airspace classification. ; a- K6 m/ q/ J# ^& Ma. Controlled airspace is a generic term that covers 6 {+ Y* d& H+ H- RClass A, Class B, Class C, Class D, and Class E0 R; p' D" p Q5 p% {/ h airspace.% ]+ V5 S. o" G/ e6 P3 u b. Controlled airspace is also that airspace within S7 Z. g/ ~5 w2 b) ?6 i7 f which all aircraft operators are subject to certain pilot ( t# R0 }5 W' P3 Uqualifications, operating rules, and equipment + u* s; p, S9 i5 ^4 c5 krequirem ents in 14 CFR Part 91 (for specific 1 J9 `& k) r: C Doperating requirements, please refer to 14 CFR |: j3 a& E4 ~! ~2 r I. b Part 91). For IFR operations in any class of controlled ' P3 I4 O* `: E: F! A H0 H' F% Aairspace, a pilot must file an IFR flight plan and2 r i+ m/ }9 J. w" `1 \# O9 |* T receive an appropriate ATC clearance. Each Class B, " A! T( d; i% _Class C, and Class D airspace area designated for an 5 _( `- @9 ~/ X7 @airport contains at least one primary airport around 4 x& p. q- h: J' F1 Owhich the airspace is designated (for specific : n2 [; h/ |+ P, V, O+ k; ]% S9 a& r6 Ldesignations and descriptions of the airspace classes,1 ?& s. Z' U+ w4 A7 Z9 G+ q; s" y please refer to 14 CFR Part 71).% J0 _8 a6 u$ ]/ `1 N; ^/ p c. Controlled airspace in the United States is, Q$ w) F+ a$ j7 K" q! m! G- y designated as follows:- j0 E w+ \4 @/ O3 H3 Z9 ~6 Y 1. CLASS A- Generally, that airspace from $ {5 N9 ~6 W M* a: `( P18,000 feet MSL up to and including FL 600, 3 X. m: s$ |; c6 R, a) P# @including the airspace overlying the waters within 12; U$ z# `) A! E% z% g nautical miles of the coast of the 48 contiguous States1 V* B& E9 n% _% d: a _( b and Alaska. Unless otherwise authorized, all persons J$ w4 @: W* r- Y( j must operate their aircraft under IFR.1 P8 y2 i+ |+ j3 R 2. CLASS B- Generally, that airspace from the5 o$ [& N7 s% k4 y4 Q/ y, h: M surface to 10,000 feet MSL surrounding the nation's ) p$ r; k' a, b* ~% q* k& c( g2 ^, Sbusiest airports in terms of airport operations or + L+ @4 }: K V1 w+ rpassenger enplanements. The configuration of each0 X' m* Q8 O Q, X' H Class B airspace area is individually tailored and - v% J) O! q3 n6 W: h/ ?7 Xconsists of a surface area and two or more layers ! g {3 C$ P& J) G: ?- \' F8 ?(some Class B airspaces areas resemble upside‐down3 O1 p: W9 F7 v" l- s& T wedding cakes), and is designed to contain all9 ^, w5 M2 m3 [) k3 F8 x published instrument procedures once an aircraft , \9 h% v5 W$ o9 e3 Henters the airspace. An ATC clearance is required for X' K8 w2 y8 }. @3 n all aircraft to operate in the area, and all aircraft that3 H, F- N& s( b# J are so cleared receive separation services within the 6 T/ Z; k. A& [6 V5 Lairspace. The cloud clearance requirement for VFR 8 r4 ~: `" M& ]% ooperations is “clear of clouds.”* k+ ?8 I/ B# B 3. CLASS C- Generally, that airspace from the7 W: r1 g2 d; }# O) O7 c surface to 4,000 feet above the airport elevation e2 V+ b7 w+ h1 c( C# ](charted in MSL) surrounding those airports that 4 I$ O' m( Y: T. o/ Q$ @have an operational control tower, are serviced by a 4 Q. h8 @) e5 m, x3 `# Eradar approach control, and that have a certain$ C8 T4 n7 g' B4 ?+ `4 P number of IFR operations or passenger enplane‐ ! W% n3 p! |' ~4 m# q$ C8 Yments. Although the configuration of each Class C$ `& A# C* d! v* B+ u+ l6 @' O area is individually tailored, the airspace usually 1 h9 V9 J4 V8 r$ E+ v8 `. y+ Kconsists of a surface area with a 5 nautical mile (NM) ( n8 P) O4 c+ U) ^1 F! U7 gradius, a circle with a 10NM radius that extends no' |; `% d' u4 a+ L! n lower than 1,200 feet up to 4,000 feet above the 8 g! e5 M& a* A9 nairport elevation and an outer area that is not charted./ G: S0 S+ j1 t) a) y. [3 u1 W Each person must establish two‐way radio commu‐8 s; \, \( ?& |. W# g nications with the ATC facility providing air traffic, O5 u6 ^0 R; m! J1 K7 `) @ p services prior to entering the airspace and thereafter ! C7 _$ W# _6 t6 G* ]maintain those communications while within the " P9 I0 a3 w4 Y+ J3 pairspace. VFR aircraft are only separated from IFR0 \2 _/ ?" [+ n aircraft within the airspace.7 F# q* f& [7 p4 V" @2 J; b (See OUTER AREA.)4 B9 t( n4 j4 G 4. CLASS D- Generally, that airspace from the9 b/ S2 C5 V: P1 A8 j# g5 g surface to 2,500 feet above the airport elevation ! D: f4 n( X7 s(charted in MSL) surrounding those airports that6 h, A- s# t7 P4 Q8 q. r7 A have an operational control tower. The configuration2 q1 j; W4 G M+ ]# m' h of each Class D airspace area is individually tailored* ^5 c9 @. Q1 o) n& x" w and when instrument procedures are published, the! E6 T( s6 {; V" k$ w4 ` airspace will normally be designed to contain the+ h. @+ u$ I. p8 L; c$ l& [ procedures. Arrival extensions for instrument1 i" W1 ?& Y9 @( U9 p approach procedures may be Class D or Class E5 C# E& P; A0 o# t9 C: s Pilot/Controller Glossary 2/14/08 5 l+ o- P4 Y+ T; rPCG C-7% y% z! v) D I airspace. Unless otherwise authorized, each person: Y/ a% B$ w3 u/ y must establish two‐way radio communications with8 R4 f0 j) f, l, z I& J the ATC facility providing air traffic services prior to / I0 T- y9 ]: h% y; f eentering the airspace and thereafter maintain those1 O8 N4 E4 W; q7 \8 `! A" x communications while in the airspace. No separation. m6 u e1 s E; G- L* x% c' r" U; y9 J services are provided to VFR aircraft. 9 c \; b$ k# q, Y! e% d5. CLASS E- Generally, if the airspace is not( q+ L. U9 M' X. q Class A, Class B, Class C, or Class D, and it is/ a0 K6 G4 u5 v9 c controlled airspace, it is Class E airspace. Class E; J4 k# \/ Q6 P$ w8 S airspace extends upward from either the surface or a7 t* n# o' ]- Z& k. U# i designated altitude to the overlying or adjacent * z C$ E; f! z6 Bcontrolled airspace. When designated as a surface 5 v/ b& c# u% Y8 l: P# ~area, the airspace will be configured to contain all 0 Q S7 A) _0 zinstrument procedures. Also in this class are Federal u. l+ C/ V1 i. ]! l tairways, airspace beginning at either 700 or 1,200+ _, O* F7 W3 y7 }5 J feet AGL used to transition to/from the terminal or en : j( ^. D4 {/ \8 ~3 proute environment, en route domestic, and offshore : p' K9 k: w* _5 [# Vairspace areas designated below 18,000 feet MSL. 0 B/ S" i+ ?" y+ z4 K% @. rUnless designated at a lower altitude, Class E ( G5 O7 \$ }: e; Tairspace begins at 14,500 MSL over the United 1 ]- k1 P V8 k) p% k$ G( A! U1 iStates, including that airspace overlying the waters ' ~$ n9 n- M* @9 Vwithin 12 nautical miles of the coast of the 48 * Y n6 a8 X; k! T! s1 `. Ucontiguous States and Alaska, up to, but not ' t) L* Z" M! T: m) g! e4 d& ^' G! b/ }including 18,000 feet MSL, and the airspace above 1 D; i( e$ ^+ M4 XFL 600.1 P+ ^! y9 n$ Z+ _) R7 P CONTROLLED AIRSPACE [ICAO]- An airspace 3 X5 A& v- v' N ~of defined dimensions within which air traffic control 4 P# ]7 \" |. j% f; ~$ ?6 d( Eservice is provided to IFR flights and to VFR flights ; T% c( m! Y! i" Nin accordance with the airspace classification. 7 L) { W! Z: f( cNote:Controlled airspace is a generic term which- v" G/ t0 N- Q! z8 u* M covers ATS airspace Classes A, B, C, D, and E. ! B' ^: e* u, z( P. sCONTROLLED TIME OF ARRIVAL- Arrival time + Q: |! h! f" _0 m0 O- H. @assigned during a Traffic Management Program. This F O3 w! v) }* R+ [+ Y! z time may be modified due to adjustments or user- B4 n% Q5 g* ? options.* `7 q7 M3 P& G; a% @! d( o+ C, x CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.) ; m5 o$ _( y/ H: y$ dCONTROLLER [ICAO]- A person authorized to, i8 ~' d* ]! f6 z4 I provide air traffic control services. " U! ~ w7 @! [CONTROLLER PILOT DATA LINK COMMU‐- Z/ {. g2 i& ?/ s NICATIONS (CPDLC)- A two-way digital very 4 F; s6 A; G$ N! \; p4 ^" ehigh frequency (VHF) air/ground communications1 j5 H3 r. r+ J system that conveys textual air traffic control 4 f1 Y* f; g6 l( t5 E( `messages between controllers and pilots.) w! l1 r' L% [, M8 a CONVECTIVE SIGMET- A weather advisory& t- C5 k% S% i. P3 Q concerning convective weather significant to the8 n2 F. r8 _% z' I2 I safety of all aircraft. Convective SIGMETs are issued 6 f: P, d' I# }4 J; yfor tornadoes, lines of thunderstorms, embedded3 \$ q$ I0 x0 x& u) z4 t+ h thunderstorms of any intensity level, areas of- a' T0 n4 y: W* E ]) O* [ thunderstorms greater than or equal to VIP level 4 : m! H4 K: k( |* mwith an area coverage of 41 a! X5 A n5 \ s: z# u& L* l /10 (40%) or more, and hail ^& Z" y+ W% _8 A: p$ ?8 H6 N! f 3; c1 H! p" t9 i) A5 k" j) v7 x6 A /4 inch or greater. q7 Q1 L$ D6 { A(See AIRMET.) 0 b* i6 }( B5 g6 x* ?. v(See AWW.). L0 U9 Z' U0 m$ h' Q (See CWA.)4 _" w, [! P/ S; P l w (See SIGMET.) 9 }( Q4 {1 V0 R$ c |7 P/ f7 F(Refer to AIM.) $ B- M% T% y! |# t) Y' j4 p4 O3 JCONVECTIVE SIGNIFICANT METEOROLOG‐ 2 w9 D( t+ M* fICAL INFORMATION(See CONVECTIVE SIGMET.)9 L; y0 V. @9 T0 u4 o COORDINATES- The intersection of lines of! L( m5 j5 ]6 N6 C7 g reference, usually expressed in degrees/minutes/0 D8 S9 ]: a5 q& O2 L7 U+ p8 X seconds of latitude and longitude, used to determine G/ t7 x }0 g/ b; _' q position or location.4 L' H8 f5 ]# E' o* f7 S COORDINATION FIX- The fix in relation to which0 W8 s/ d3 C5 @8 ~' W k facilities will handoff, transfer control of an aircraft, ; M, F" r1 J7 `7 H9 ^+ Hor coordinate flight progress data. For terminal# o- a1 \4 x' Y/ h5 W+ Q( [ facilities, it may also serve as a clearance for arriving : `: u7 I( x5 Z. S& h( Caircraft. 6 J8 l$ t1 F8 R2 U7 l+ n9 I4 k+ kCOPTER(See HELICOPTER.) 1 ^3 `1 z# A: H! \0 V3 dCORRECTION- An error has been made in the % Q! V; X, X( D0 g T' e, p, ttransmission and the correct version follows.% f) D. y) E/ {6 V( ]' p& ^! G COUPLED APPROACH- A coupled approach is an; H; X5 s$ U2 a) B% r instrument approach performed by the aircraft 2 |4 c. [! U8 w; _2 @5 Wautopilot which is receiving position information - X; u6 N0 k/ I8 @' m3 ?and/or steering commands from onboard navigation , R; u8 a! ]3 w) ?4 E9 z4 s- ?equipment. In general, coupled nonprecision ap‐ / A1 \6 M* E" V" I+ Mproaches must be discontinued and flown manually ) r9 c- N) @( {# g6 Y& N9 xat altitudes lower than 50 feet below the minimum ; d- P4 \9 o' R- Y) ndescent altitude, and coupled precision approaches & A* C# F7 I. Y1 R7 x* i* X5 I4 [must be flown manually below 50 feet AGL.+ x$ o; J& j r8 e8 x Note:Coupled and autoland approaches are flown2 P. B( |3 ^0 K2 [9 W% S9 o in VFR and IFR. It is common for carriers to require 7 X$ k' B% j2 ctheir crews to fly coupled approaches and autoland" p$ i6 i6 K! J1 E9 f approaches (if certified) when the weather ' _& b2 P% {+ ?& Q A/ Qconditions are less than approximately 4,000 RVR." ^+ F* W& Q. X; z# d (See AUTOLAND APPROACH.)% q4 f6 C4 q: a8 y6 S3 Y; X; m COURSEa. The intended direction of flight in the horizontal 1 l8 L& m" K4 U; R- n& j3 m9 p' Xplane measured in degrees from north.8 w$ g; Y: g0 E; g( R+ j b. The ILS localizer signal pattern usually* S8 B+ I% M' V7 r6 P! U specified as the front course or the back course. # F8 \ @7 A; I% h' WPilot/Controller Glossary 2/14/08: U" \# j3 n! T) |5 b PCG C-8 " n& j; a. o2 N9 ec. The intended track along a straight, curved, or 7 r' V: \: y2 _segmented MLS path. " z$ O5 @6 v8 \& M* o6 z7 W) G(See BEARING.)" }5 E) n7 h E' _- h, M (See INSTRUMENT LANDING SYSTEM.)6 {- u0 G3 |! V: }/ K1 C' A (See MICROWAVE LANDING SYSTEM.) 2 @3 U5 z C8 _9 J(See RADIAL.)- L' [9 {: }9 I" k5 C/ c CPDLC(See CONTROLLER PILOT DATA LINK ; p# d+ T: ^3 i' S1 w* pCOMMUNICATIONS.) 8 y. F" p) ?& ACPL [ICAO]-8 d# Z7 W, V9 B/ H+ P (See ICAO term CURRENT FLIGHT PLAN.). J' }- }; O, v9 r7 B# B CRITICAL ENGINE- The engine which, upon K: b3 q9 z2 y3 d: vfailure, would most adversely affect the performance0 G/ j3 H, D9 T' E6 O/ p* u or handling qualities of an aircraft.8 J$ T! v# s2 V2 B5 i% Q7 [ CROSS (FIX) AT (ALTITUDE)- Used by ATC4 r% J% o# H) Q, J0 R when a specific altitude restriction at a specified fix ; a% G( e# G5 r% |$ U% |: D5 z' Bis required." _0 U ~; x7 V: A CROSS (FIX) AT OR ABOVE (ALTITUDE)- Used+ k7 a( |0 w Y9 R9 A5 b8 f- } by ATC when an altitude restriction at a specified fix$ s6 v/ v, V" }9 T: y% t is required. It does not prohibit the aircraft from( A/ T( f4 Q! P/ N. C3 x ~! a crossing the fix at a higher altitude than specified; 3 @4 @9 }7 G) P3 d8 g4 m6 N1 ]however, the higher altitude may not be one that will . ]* a: W/ J( x D8 s4 Tviolate a succeeding altitude restriction or altitude 3 a: |% N% ~2 H, e+ |assignment. ; J1 F: K3 M* T T( C8 l, e(See ALTITUDE RESTRICTION.) * A% s o# _* K(Refer to AIM.)5 j' |- \. k) I CROSS (FIX) AT OR BELOW (ALTITUDE)- 9 h; Y1 M' u/ }4 i$ ~/ O( B8 R$ rUsed by ATC when a maximum crossing altitude at; q6 N3 n5 v6 X( H8 V2 [ a specific fix is required. It does not prohibit the* b5 W, S5 ?, V+ H aircraft from crossing the fix at a lower altitude;9 Z4 a/ t+ O# J0 l+ l however, it must be at or above the minimum IFR B/ X) f: z: M M! O altitude. . }+ E! v: E! H/ Q9 d7 b" Z) t' p(See ALTITUDE RESTRICTION.)$ ^; Y# M Z8 h7 d% S (See MINIMUM IFR ALTITUDES.) ! {( A. M8 ^& |& Y(Refer to 14 CFR Part 91.) $ u% A1 r+ T8 |9 `+ aCROSSWINDa. When used concerning the traffic pattern, the3 ]+ R" @" k& i" _ k( b. U* p word means “crosswind leg.” _+ p) G: F/ J. n7 T (See TRAFFIC PATTERN.) # h! [3 O: r+ r1 Zb. When used concerning wind conditions, the ! J* s; Z& N9 n u2 d! Kword means a wind not parallel to the runway or the7 b3 P' X6 Z0 d k' J: \ path of an aircraft. : K% a* Z0 W8 g5 ~(See CROSSWIND COMPONENT.) ( \6 h1 ?$ \) R1 ]" A* qCROSSWIND COMPONENT- The wind compo‐ - q ]) W: N+ P! n8 i6 }8 [$ |nent measured in knots at 90 degrees to the & i) T5 B5 ], J3 R' v Q: Glongitudinal axis of the runway./ }6 L2 O) m# N8 A6 R CRUISE- Used in an ATC clearance to authorize a ( f8 m* b& P {/ E3 _$ G7 L2 ipilot to conduct flight at any altitude from the X1 b& W( O$ z9 h: z minimum IFR altitude up to and including the0 _ E& E) t$ P' c altitude specified in the clearance. The pilot may & I: V" p O0 g* D! H1 Llevel off at any intermediate altitude within this block ' X+ H& F" J3 |" A8 ^4 U- iof airspace. Climb/descent within the block is to be. q: O0 Q- d4 {2 t `4 v1 U made at the discretion of the pilot. However, once the 9 ]8 V6 C! |9 r% c4 Upilot starts descent and verbally reports leaving an+ I, s' Q/ R2 x altitude in the block, he/she may not return to that! {( A" i# W9 G# f! \4 \9 | altitude without additional ATC clearance. Further, it 3 i2 j3 }0 ~. N# o' _is approval for the pilot to proceed to and make an" T# E, m5 t4 D approach at destination airport and can be used in, l: T' z! t( i conjunction with:5 v1 s5 P* J7 T; m0 a2 [! L: {; c a. An airport clearance limit at locations with a . I. f: Y5 f& T2 j* lstandard/special instrument approach procedure. The v0 d3 e7 f L) b$ E; y4 P CFRs require that if an instrument letdown to an 5 e! l% g0 @( _1 Aairport is necessary, the pilot shall make the letdown ; ?/ o: Y5 r4 c9 I6 h8 W+ p6 N1 x' _in accordance with a standard/special instrument ; n9 @& ^7 M: K0 K% l, \2 c3 Y: Qapproach procedure for that airport, or , B7 q& T4 N- ]1 R! x# ]" wb. An airport clearance limit at locations that are* k' w- t$ g* N/ I' ` W& X/ L0 Z within/below/outside controlled airspace and with‐9 x. \# z, T/ n8 f8 E4 u! ~9 _ out a standard/special instrument approach . k, R6 O4 u" C' p1 Z3 rprocedure. Such a clearance is NOT AUTHORIZA‐8 U1 X/ P5 D2 }/ N' O TION for the pilot to descend under IFR conditions7 J- J6 ^ N+ @* V. P) M Z1 U( [ below the applicable minimum IFR altitude nor does, ?. {; s' `% n, i it imply that ATC is exercising control over aircraft & V) Y, c/ ?5 ~: f% J9 y, B5 k; I. Cin Class G airspace; however, it provides a means for- Y8 Q8 T. u9 S& Y the aircraft to proceed to destination airport, descend,. U# o8 I% v# E$ O' o and land in accordance with applicable CFRs * R( e$ t0 s( E- Egoverning VFR flight operations. Also, this provides ; x. L- z ?5 R$ ^4 O" Nsearch and rescue protection until such time as the . s6 q# @5 e# k- WIFR flight plan is closed.) p. B$ S: p) h. [% ] (See INSTRUMENT APPROACH ; v# L7 W: O% c( D Z0 |" tPROCEDURE.) ' t% \" v) Y3 q" a2 eCRUISE CLIMB- A climb technique employed by $ S2 w9 P5 u B1 V2 n8 Zaircraft, usually at a constant power setting, resulting9 Y, P3 y8 E8 _' v in an increase of altitude as the aircraft weight2 ]6 |2 F; d- x" y3 c# E3 n/ i K decreases. + }9 q q' X" f4 R$ M* O+ y! ^" Z' QCRUISING ALTITUDE- An altitude or flight level/ R$ e8 x) U- T6 X! ~; h2 } maintained during en route level flight. This is a ( T" G; X5 ]: B9 gconstant altitude and should not be confused with a " w+ r( d2 ~' e9 Z' t& @, N2 }& L4 Rcruise clearance.2 P/ L! w$ v5 F8 r! h) P. | (See ALTITUDE.)4 x2 J( Q# J1 i2 R* @ (See ICAO term CRUISING LEVEL.)7 G) S! f3 J9 Q CRUISING LEVEL(See CRUISING ALTITUDE.)* ?* X1 f+ R1 @ CRUISING LEVEL [ICAO]- A level maintained 0 y0 `2 J6 S+ V# b( e- o2 tduring a significant portion of a flight. 5 }9 z7 t4 C7 W. f JPilot/Controller Glossary 2/14/08 2 p. T0 ^ B& uPCG C-9 $ z) ?& L! u" H+ U( L! j; ICT MESSAGE- An EDCT time generated by the; }3 j% g4 [7 }, b ATCSCC to regulate traffic at arrival airports.8 f6 j5 V0 P4 @0 \ Normally, a CT message is automatically transferred 7 P7 b: ^9 o) \! S. D: K& ffrom the Traffic Management System computer to the 0 T$ q9 r* c( y3 X- C( [) QNAS en route computer and appears as an EDCT. In9 R1 i" A% l/ [! S0 @9 w: u% h the event of a communication failure between the' ~. [% `! c k TMS and the NAS, the CT message can be manually! S' q3 |4 D/ K* @% ^ entered by the TMC at the en route facility. ) E+ Z( `6 e4 W& w9 [, L7 Q- y0 {% UCTA(See CONTROLLED TIME OF ARRIVAL.) 6 L w* V4 e/ v5 I7 P2 a(See ICAO term CONTROL AREA.) . I+ I( ^- L9 w6 u- i& I! FCTAF(See COMMON TRAFFIC ADVISORY & ^0 u* Z# Q6 j; lFREQUENCY.). ?7 \% c$ o& X* p2 Z CTAS(See CENTER TRACON AUTOMATION 9 `7 X1 H& o! x' RSYSTEM.) & D; |: q3 M$ z) v, G5 QCTRD(See CERTIFIED TOWER RADAR DISPLAY.)( b: Z0 b% p( }+ Q CURRENT FLIGHT PLAN [ICAO]- The flight 7 s! A/ A* y" z7 fplan, including changes, if any, brought about by s( S, L+ i+ m) r- P: v: bsubsequent clearances.( @) [+ ^* O n6 x" o CURRENT PLAN- The ATC clearance the aircraft 7 _1 k, o0 X, P) H6 G6 G# [has received and is expected to fly.+ n/ D# p- q' [2 S2 E7 q CVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE 2 r1 D" Y# P8 S5 TAPPROACH.)5 D$ p# M7 n* \1 D! ^ K* D! U o, Y$ w CWA(See CENTER WEATHER ADVISORY and ~2 L( a! u4 F3 I. k& XWEATHER ADVISORY.) ! k" o& O3 S: o8 ~7 {Pilot/Controller Glossary 2/14/08* r. q2 n# a; N% y PCG D-1. J0 e# I' p0 g; `, v( B5 p- U7 A D : f: M, o2 y) e' l( f1 ED‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL) ~. z! i4 \9 ?& Z INFORMATION SERVICE.)6 n# @ z4 D6 H- F, } DA [ICAO]-- X2 i- y" @* u (See ICAO Term DECISION ' S" C; i# Z& a0 w* a' GALTITUDE/DECISION HEIGHT.) / G0 X- G" t0 [DAIR(See DIRECT ALTITUDE AND IDENTITY X. Y4 m5 |( N- ~ Y4 C5 J, G READOUT.)0 L8 f8 {/ |' v1 \ DANGER AREA [ICAO]- An airspace of defined ; \: l2 P# Y: B, \$ c- |dimensions within which activities dangerous to the5 ^/ q ]" O# D* c6 U2 ?% a flight of aircraft may exist at specified times. % d* x0 t, a3 e: w4 PNote:The term “Danger Area” is not used in . ?+ S5 U. B; Y7 D6 D) oreference to areas within the United States or any5 d6 `/ e9 z" | a1 R, s of its possessions or territories. : U3 P# r" z1 p' hDAS(See DELAY ASSIGNMENT.)5 ]0 V3 V- v- ^* J2 M DATA BLOCK(See ALPHANUMERIC DISPLAY.). _ V) U# R2 V# U/ l% D DEAD RECKONING- Dead reckoning, as applied$ z/ F3 k- z! W! r to flying, is the navigation of an airplane solely by , q) t" L; G6 d' N" h; K! Tmeans of computations based on airspeed, course, 4 Q3 X+ P" O& f( O4 y1 theading, wind direction, and speed, groundspeed,& M& t- t7 j4 W9 V c6 q and elapsed time. 4 i4 ^) S% d/ P6 F! F3 J; eDECIS ION ALTITUDE/DECIS ION HEIGHT - _/ ?* k( |( C3 b+ U1 j, ^[ICAO]- A specified altitude or height (A/H) in the * p+ x. Z- L3 ^+ w3 J/ tprecision approach at which a missed approach must ( W: M# d' @" [3 dbe initiated if the required visual reference to * a" w4 r6 J$ T0 gcontinue the approach has not been established. 6 h8 A/ R0 ^) H! ^Note 1:Decision altitude [DA] is referenced to) |* }* F5 W1 F# n mean sea level [MSL] and decision height [DH] is" U/ @7 J, S& C9 \: `% I$ i referenced to the threshold elevation.' ]8 |9 ~, E% D3 [; d; y, R Note 2:The required visual reference means that w# R6 K9 m$ O2 \# d* qsection of the visual aids or of the approach area % u# F+ p# |: k7 l; Z1 W$ ~$ iwhich should have been in view for sufficient time) S. c: q* P# J0 N for the pilot to have made an assessment of the 7 h% U* i* ~# v& o8 X' u( N! [aircraft position and rate of change of position, in % ]0 s3 t% G- b) s. G, }relation to the desired flight path. ; j- n4 L- a, B0 }% PDECISION HEIGHT- With respect to the operation) B4 L2 x' d# P4 c9 g of aircraft, means the height at which a decision must % Q+ a4 V: D U' H" W8 `5 s/ n6 Tbe made during an ILS, MLS, or PAR instrument t' S' |; z) W( d approach to either continue the approach or to execute 7 s% e9 z8 b( T- J& p' t% a* A2 u; g6 la missed approach. . b8 i& ~6 `, X, e4 l+ J(See ICAO term DECISION 4 Z# P5 W$ B' k; m3 ?+ ~ALTITUDE/DECISION HEIGHT.) 8 S' z: S/ h8 TDECODER- The device used to decipher signals7 s% h, j' v1 Y; n/ C% a received from ATCRBS transponders to effect their3 D! K) |; x U K2 l2 N display as select codes. " I- a$ m9 S2 a4 `. l: H4 t8 O(See CODES.)2 K3 c7 B+ V. w9 |) d5 Q (See RADAR.) 7 S8 P2 i* t2 PDEFENSE VIS UAL FLIGHT RULES- Rules + ?; ^5 o3 P- A7 v, [, Tapplicable to flights within an ADIZ conducted under# f' b0 h0 ~% V. o3 {3 c m; w the visual flight rules in 14 CFR Part 91. 0 u# W. z+ g) {2 M" g(See AIR DEFENSE IDENTIFICATION ZONE.)% I0 x) Y# w7 t- Q" m% }( d (Refer to 14 CFR Part 91.) 7 q5 A% }0 `1 q(Refer to 14 CFR Part 99.) , X4 X2 d) o' DDELAY ASSIGNMENT (DAS)- Delays are distrib‐ 8 T8 L: ~" T2 l, _3 Z4 O1 b3 Suted to aircraft based on the traffic management8 w5 n- ^1 W5 W T1 V: _$ ]3 E# z program parameters. The delay assignment is7 p; F# ^; e3 k Z) T8 k calculated in 15-minute increments and appears as a: X: a3 k- M; f table in Enhanced Traffic Management System2 |; p3 V P1 U( t8 r- { (ETMS). " B+ B7 e) m" H1 iDELAY INDEFINITE (REASON IF KNOWN)' d! }$ i* }* P" [ EXPECT FURTHER CLEARANCE (TIME)- Used5 L* Z& @4 P5 C a/ e/ k by ATC to inform a pilot when an accurate estimate 2 z7 z8 ~5 I4 @0 t9 b) t/ y% Sof the delay time and the reason for the delay cannot 9 W) |" Q0 @$ N K% G wimmediately be determined; e.g., a disabled aircraft+ p) {3 }8 h6 l& ^ on the runway, terminal or center area saturation," G6 ~5 s B8 H: k6 \ d& t, W weather below landing minimums, etc. $ @- [6 O: v; i1 P$ L( m* U" f(See EXPECT FURTHER CLEARANCE (TIME).) + E4 z; P; \ O7 hDELAY TIME- The amount of time that the arrival2 n% _( g! `8 J& }% v2 ^; ^ must lose to cross the meter fix at the assigned meter # V% r' z5 w3 y! m- W1 ^; Zfix time. This is the difference between ACLT and y2 _' ` k9 W! B1 a VTA.# f/ a( ?: ^! y DEPARTURE CENTER- The ARTCC having. I1 D0 q M* r% L" L1 J2 q jurisdiction for the airspace that generates a flight to( C" U$ q1 g2 ~" k! W' A' f7 K6 m. z the impacted airport.! e- C% n# Q7 @/ V6 [' } DEPARTURE CONTROL- A function of an 5 s) ]+ @ ?3 A6 rapproach control facility providing air traffic control* u+ g, [& B" u) |/ I service for departing IFR and, under certain7 u+ P" k. }5 z% Y: h conditions, VFR aircraft. 1 P7 ?$ f @+ B3 L0 Y(See APPROACH CONTROL FACILITY.). R) l( s* q$ |3 o6 m# i1 `# y (Refer to AIM.)# D; I5 P( W1 X$ V% } DEPARTURE SEQUENCING PROGRAM- A $ C- ]/ _ Q4 kprogram designed to assist in achieving a specified # g$ f0 s$ J+ V5 |& F8 {interval over a common point for departures. ( v2 j. `& a3 |2 _' `9 o& d8 aPilot/Controller Glossary 2/14/086 T+ c+ r& M0 b; C7 G PCG D-2 0 b# m# {) a* q: O& P3 [/ m' j& c0 wDEPARTURE TIME- The time an aircraft becomes ! X+ M0 L$ o" D7 Jairborne.* {5 X; L5 m* z- o/ L DESCENT SPEED ADJUSTMENTS- Speed decel‐& W* A. o" v0 o0 R _/ _. K# w eration calculations made to determine an accurate, i' u0 _" Y. ^) q- C0 R VTA. These calculations start at the transition point3 b& g8 l0 @* A and use arrival speed segments to the vertex.9 T( X0 ?: |$ D( ~' | DESIRED COURSEa. True- A predetermined desired course direction # F0 R1 Z& o0 ^# B; i3 P; ?6 wto be followed (measured in degrees from true north).' R* H6 \0 T6 m' p' l% O+ W* f b. Magnetic- A predetermined desired course & g% _6 q$ q' d2 S8 Adirection to be followed (measured in degrees from V6 F1 C: {* U1 S9 ^, T( jlocal magnetic north).7 H, E* h7 A2 A, H7 y DESIRED TRACK- The planned or intended track 7 t2 [/ ~4 y3 T* dbetween two waypoints. It is measured in degrees 2 D0 P( p9 k8 L( P: x: J- n9 ?6 hfrom either magnetic or true north. The instantaneous+ Q8 l$ j2 q9 W angle may change from point to point along the great : ]' @ R2 O8 y$ Vcircle track between waypoints." Z; ?8 \: D2 ^9 K' B9 b0 G q. d DETRESFA (DISTRESS PHASE) [ICAO]- The 1 m6 m) v# S# p6 D: U; g2 J4 Q' ]8 `code word used to designate an emergency phase+ V1 T$ m6 y2 `6 ~) g wherein there is reasonable certainty that an aircraft P0 ~6 g$ u# j6 x! Wand its occupants are threatened by grave and / y5 h! l; N! _4 d6 O6 \# Dimminent danger or require immediate assistance., o/ }- h; o8 U* k DEVIATIONSa. A departure from a current clearance, such as an9 s) b- B- \' ^ off course maneuver to avoid weather or turbulence./ i# E6 `6 R* f/ d. D b. Where specifically authorized in the CFRs and # R+ g0 u5 L) p6 G5 c: Zrequested by the pilot, ATC may permit pilots to& j: t x9 h' t6 ]* n4 i deviate from certain regulations.: _9 p I) Y' L4 ` (Refer to AIM.) 4 p4 s, ?$ ~6 M7 i8 tDF(See DIRECTION FINDER.) e% o% y5 W$ k* H u) E DF APPROACH PROCEDURE- Used under ' M+ Z @1 m6 d' E; m0 Aemergency conditions where another instrument & Q* R- p7 t0 i' qapproach procedure cannot be executed. DF guidance: O' f; [. c4 h) ]0 x5 l3 A% E0 Y9 [8 R for an instrument approach is given by ATC facilities* A- z, L* z" i2 X with DF capability./ T7 G$ @! \& W ~1 U) U (See DF GUIDANCE.); t1 q5 l+ r* F9 ^ T (See DIRECTION FINDER.) 9 M: W: u& {( K- k! A(Refer to AIM.) ; ~7 n( W+ q/ [( w1 O) A& XDF FIX- The geographical location of an aircraft6 j, _: P% N" ?! {5 S( ` obtained by one or more direction finders. ; @8 r" ]" m! i( J7 v$ p1 ~(See DIRECTION FINDER.)" Q& i9 \/ @6 W DF GUIDANCE- Headings provided to aircraft by R \1 j4 T7 }. h9 `/ p facilities equipped with direction finding equipment.% X& H+ X" `* \8 [( |9 R: ?9 D These headings, if followed, will lead the aircraft to 0 x' T0 D$ y, s! c' C/ Pa predetermined point such as the DF station or an " L; |0 [/ ~% G! xairport. DF guidance is given to aircraft in distress or . w" Z6 |1 x. ~' [ Q7 F9 gto other aircraft which request the service. Practice 1 X4 p4 X8 ], @! xDF guidance is provided when workload permits. & I9 N# K5 K( K) c' k( a(See DIRECTION FINDER.)- S9 r* S. J4 E* D% l4 Y) `5 N (See DF FIX.) ' C% T8 s: P: W Q( b(Refer to AIM.)4 @$ [: S$ s$ W7 F6 u. I# ` DF STEER(See DF GUIDANCE.)1 Y! D2 X. P: H# l DH(See DECISION HEIGHT.) + \5 g$ f% L7 qDH [ICAO]- - |9 @9 d$ h6 c; o6 t(See ICAO Term DECISION ALTITUDE/ / E1 ~) v9 R% |% {0 ODECISION HEIGHT.)7 _% V' H! F4 z K1 l0 J DIGITAL‐AUTOMATIC TERMINAL INFORMA‐( r, L6 H1 d( ?& L2 E. y' } TION SERVICE (D‐ATIS)- The service provides5 o" w1 W2 f2 l' i: K5 t5 X. c text messages to aircraft, airlines, and other users ; D; l% ~& f8 X$ C( k& ioutside the standard reception range of conventional, p" t: e$ T- I) t( C ATIS via landline and data link communications to8 H4 s5 U6 z6 P g' }! \( t* d# V4 f the cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to! W0 U+ F+ y+ N: E" P! U all aircraft within range of existing transmitters. The5 K* a c" f4 f. v$ y+ n Term inal Data Link System (TDLS) D‐ATIS8 L& T' ^ g* p- a* j% a' D7 |* \ application uses weather inputs from local automated5 V9 Q. P8 r. y) J" ^ weather sources or manually entered meteorological 3 y( a- d% n r3 F" q( U' xdata together with preprogrammed menus to provide X$ ?0 I0 U5 `) Qstandard information to users. Airports with D‐ATIS. e2 k4 L5 `5 C7 O; X capability are listed in the Airport/Facility Directory.* t) j' d E4 y( H1 b9 Q1 z/ u DIGITAL TARGET- A computer-generated symbol# L% M, U/ @ B, [! h- G5 V representing an aircraft's position, based on a primary' X4 B# i4 w+ R5 ^ return or radar beacon reply, shown on a digital : ]% n7 P0 r$ Tdisplay. ( P: Z* y0 N4 I8 }) D) bDIGITAL TERMINAL AUTOMATION SYSTEM + {& I& \" }9 v! [4 H3 M. N(DTAS)- A system where digital radar and beacon* x! D; ~) \; y) P data is presented on digital displays and the6 P4 |6 m/ o2 P! P operational program monitors the system perfor‐ * U3 B) V; {, P: ^* Z+ t/ I9 Qmance on a real-time basis.# ]* K- o a' J- ^# p$ H, t1 _: F DIGITIZED TARGET- A computer-generated! F* [5 }5 M& b4 j" ]; L" d indication shown on an analog radar display resulting ) e/ R u: _# M) v! C$ M( P5 mfrom a primary radar return or a radar beacon reply. }' m) M( N% r; j9 ] DIRECT- Straight line flight between two naviga‐ : ^+ s5 s0 q/ z( D+ Vtional aids, fixes, points, or any combination thereof.1 z% _- ]. S0 O/ U( X9 ^ When used by pilots in describing off‐airway routes,7 T( B; _3 k% p" l0 Y% Y points defining direct route segments become) m! I& |3 y/ |! | compulsory reporting points unless the aircraft is+ [% I2 X" S6 g9 P0 D S" y1 k6 s) N under radar contact.( p, I+ V* r. L, w DIRECT ALTITUDE AND IDENTITY READ‐ 7 ^- G* p9 f/ q' SOUT- The DAIR System is a modification to the 8 b. j2 a. _3 Y: D* d# z* dPilot/Controller Glossary 2/14/08$ e0 _5 a2 d- D" r. r PCG D-3' `8 e ?' S* H/ \7 U5 d' M: o& J AN/TPX‐42 Interrogator System. The Navy has two ) N" t! {$ N% Uadaptations of the DAIR System‐Carrier Air Traffic 2 z f9 C' p; L# G8 E* K# nControl Direct Altitude and Identification Readout* p5 o q- D* @. y; _4 N q System for Aircraft Carriers and Radar Air Traffic % e( @7 d3 W- v# BControl Facility Direct Altitude and Identity Readout- Q" E' c6 B1 E! M( s/ P3 a System for land‐based terminal operations. The, M0 r% O) _$ [8 K DAIR detects, tracks, and predicts secondary radar ( W9 ?+ r7 ]+ H' Laircraft targets. Targets are displayed by means of ; v6 g$ U; l" E$ C# F6 l% _computer‐generated symbols and alphanumeric' O' b! c* u+ d: d1 g5 ]' v+ V characters depicting flight identification, altitude,, O g0 M v6 b+ X! i1 J7 q ground speed, and flight plan data. The DAIR System 4 c; k) a2 D3 jis capable of interfacing with ARTCCs.. C$ h4 T2 w8 Z5 H9 ? DIRECTION FINDER- A radio receiver equipped 2 F0 }" i, y# p/ U5 uwith a directional sensing antenna used to take" V5 u9 |0 L0 J0 x5 c bearings on a radio transmitter. Specialized radio , z3 G+ z8 y& V2 Fdirection finders are used in aircraft as air navigation ( d8 K: {/ V& O1 d" t' eaids. Others are ground‐based, primarily to obtain a ! i9 y& x1 b* u6 {“fix” on a pilot requesting orientation assistance or to- R7 D N4 K. P, Q& x# y locate downed aircraft. A location “fix” is established ; S4 O8 ]0 J! dby the intersection of two or more bearing lines 6 F" \% n: w5 |% J/ S; f r' jplotted on a navigational chart using either two3 { r7 {! n, @' f$ I( V) ?& V7 W separately located Direction Finders to obtain a fix on 5 R. o& C9 L0 H$ }3 R* Dan aircraft or by a pilot plotting the bearing - {5 i$ k- W; ?0 D' {indications of his/her DF on two separately located4 U7 d( P5 V# @ ground‐based transmitters, both of which can be . b1 \* n' N- l; U% _! I* eidentified on his/her chart. UDFs receive signals in& r7 |& f0 r2 i5 j: N* O) F& r the ultra high frequency radio broadcast band; VDFs* V' I9 ~) A7 U* i: W in the very high frequency band; and UVDFs in both7 W# q: ]9 X( l9 q1 q bands. ATC provides DF service at those air traffic 6 C) S5 Z# s. B: q7 B& W& h+ wcontrol towers and flight service stations listed in the 6 y+ F6 N+ S+ LAirport/Facility Directory and the DOD FLIP IFR En 1 l; A6 c; l2 _3 oRoute Supplement. + ~; ^+ U% u" w( s: L1 o(See DF FIX.) / s5 o* O9 r8 i' v8 F* k' B(See DF GUIDANCE.) ) `/ Y3 ?, I. O4 H1 U% vDIRECTLY BEHIND- An aircraft is considered to0 h. S. a3 D7 g. ]1 _ be operating directly behind when it is following the \; V9 I( ?/ d pactual flight path of the lead aircraft over the surface : M* z S# F3 U5 Fof the earth except when applying wake turbulence ( b- o8 |( S s+ E8 U4 Sseparation criteria.% o5 M) i4 I. B DISCRETE BEACON CODE(See DISCRETE CODE.)' s! t+ |9 c2 B( P4 E0 |: t DISCRETE CODE- As used in the Air Traffic , N& s9 v/ s* G) H( P( o, a$ CControl Radar Beacon System (ATCRBS), any one' d& Y/ j$ z* v+ {+ [+ E R of the 4096 selectable Mode 3/A aircraft transponder ! H. T2 [; J/ c/ [codes except those ending in zero zero; e.g., discrete( n/ l6 @5 j6 h4 `* `+ T codes: 0010, 1201, 2317, 7777; nondiscrete codes: : b" k) |, _# H( X9 {9 O0100, 1200, 7700. Nondiscrete codes are normally w( E" y @/ }: \/ Xreserved for radar facilities that are not equipped with - g8 y* n/ b4 O3 T/ X0 Ddiscrete decoding capability and for other purposes / C; k7 h# N& t' e' ~such as emergencies (7700), VFR aircraft (1200), etc. 0 A' j) O- N0 F8 n+ t7 T$ }8 o* a(See RADAR.) 9 S& Y* y" ]& o(Refer to AIM.)! N* n. e$ O- V; X6 R& ] DIS CRETE FREQUENCY- A separate radio 5 a6 q& v B H7 j+ tfrequency for use in direct pilot‐controller commu‐; X6 J" c F0 y7 v nications in air traffic control which reduces7 n: |7 F7 x: @! L) k4 y- _, Q frequency congestion by controlling the number of / E A+ Y7 S c2 K1 b9 Haircraft operating on a particular frequency at one 5 t) j' h( r# ]' ctime. Discrete frequencies are normally designated 1 U6 r" Z: \* {" Z& V) W* Ffor each control sector in en route/terminal ATC ! I) B( [/ j) ^( s; A! ufacilities. Discrete frequencies are listed in the 3 D2 e6 b" M& n% S* qAirport/Facility Directory and the DOD FLIP IFR En ! t+ k9 W; B# s& ], ?6 F+ vRoute Supplement.) ~; C! c8 l, s (See CONTROL SECTOR.); M- y e2 M& s3 R DISPLACED THRESHOLD- A threshold that is . O5 M0 h, J3 r% s5 q" C% m6 T8 T" Z$ Wlocated at a point on the runway other than the/ J) a; h4 c1 S8 z- J designated beginning of the runway.4 E1 N+ U; s, ?, B2 m) z$ S (See THRESHOLD.)0 ^7 {3 w0 [' A3 G+ N' |- k0 y: m$ u (Refer to AIM.) 4 t$ F1 @1 k4 ]4 i4 s; TDISTANCE MEASURING EQUIPMENT- Equip‐4 I, y. ^/ Z1 r$ q ment (airborne and ground) used to measure, in + L% S. G9 i! ? p; Q+ Hnautical miles, the slant range distance of an aircraft' O' K3 Q. T9 R. a from the DME navigational aid.; n$ M4 ]7 F6 V- q* Z+ S: ^( M) K (See MICROWAVE LANDING SYSTEM.) " U$ I; H' R- a' T(See TACAN.) 0 r+ g5 I+ v( C* B" [) c+ D(See VORTAC.)8 S; v9 B+ D' J/ M, z" e+ s5 p DISTRESS- A condition of being threatened by+ b! ^* O$ A' r$ Y0 c4 Y' f2 p serious and/or imminent danger and of requiring 6 A4 |& j/ f7 o& \* C; ^2 \immediate assistance.2 y' t+ C/ j& c; H% d DIVE BRAKES(See SPEED BRAKES.) " E: m$ V$ }2 Y3 C5 t7 \" RDIVERSE VECTOR AREA- In a radar environ‐ 2 b4 \& i7 _* F9 Q) lment, that area in which a prescribed departure route/ q8 u. S% p( k" J is not required as the only suitable route to avoid ) ]: [8 v/ Y& |1 h" Q! z! dobstacles. The area in which random radar vectors $ c& z7 F, @& Wbelow the MVA/MIA, established in accordance with% Q7 A+ L3 K& Q9 [5 |$ L$ r3 R% q the TERPS criteria for diverse departures, obstacles) x" C" o8 @1 d1 E \% } D4 h and terrain avoidance, may be issued to departing3 X. U# B% d3 t; U6 k' c aircraft.! Y" n: Z$ N4 r, x9 ~ DIVERSION (DVRSN)- Flights that are required to" }! q2 U, [! S4 w: b; o' ~+ E0 S land at other than their original destination for& W' ~# ^. V. m) i3 F reasons beyond the control of the pilot/company, e.g.3 C; w( f; _9 e) K: L( d periods of significant weather. + [8 o( V8 h' K* z6 d' M% u4 sDME(See DISTANCE MEASURING EQUIPMENT.)+ t, ], i- g" {& e9 n p Pilot/Controller Glossary 2/14/08 7 y& z& k* Z8 W$ n8 qPCG D-4: o5 J* o/ e( S+ u1 H$ W/ V DME FIX- A geographical position determined by3 ~2 X9 m% S# @ reference to a navigational aid which provides ; Q$ I3 {6 H6 G* s9 b% {# s% X; Xdistance and azimuth information. It is defined by a0 L4 f( M7 s. X9 y. R specific distance in nautical miles and a radial,7 a* p+ B' Q& Q7 V0 e azimuth, or course (i.e., localizer) in degrees & t% }) m& u* W. n+ gmagnetic from that aid.$ M- b- H! \& j2 G* [ (See DISTANCE MEASURING EQUIPMENT.)" `# D' P2 q4 Z4 y3 M0 w (See FIX.) $ @; j v" U0 E9 D% @* h9 ^1 D* \(See MICROWAVE LANDING SYSTEM.)/ v% C9 H7 R0 T1 J DME SEPARATION- Spacing of aircraft in terms of 8 J% f2 N9 `! q: ydistances (nautical miles) determined by reference to; c1 [" m. b9 o$ ^# K distance measuring equipment (DME).! r8 w3 U" q A: G* U; U3 u3 q (See DISTANCE MEASURING EQUIPMENT.)& ^5 Y7 j9 m0 T# m9 u* s3 V. L DOD FLIP- Department of Defense Flight Informa‐# Y& k2 D- a: `# T) |7 {$ T tion Publications used for flight planning, en route,7 N0 a. z8 Z" e3 S& o; A and terminal operations. FLIP is produced by the 8 \* K, ~( }' m) }' d$ |) LNational Imagery and Mapping Agency (NIMA) for / r+ _7 Z. |, A1 `* d/ T5 wworld‐wide use. United States Government Flight + Q1 J( @' T. Z' OInformation Publications (en route charts and3 j+ c+ m' m, u5 s7 U$ @ instrument approach procedure charts) are incorpo‐/ J. U- T4 b% | rated in DOD FLIP for use in the National Airspace, ?) ^+ |! O0 z System (NAS). ) b. O4 f7 |0 T9 y/ ^2 dDOMESTIC AIRSPACE- Airspace which overlies2 I; F% Q( W' k. B* H7 K$ d the continental land mass of the United States plus / s5 m( z. v2 B8 w1 F) t) i& U" yHawaii and U.S. possessions. Domestic airspace2 N3 i2 A9 j! \. y7 h3 b. z- } extends to 12 miles offshore.2 T. ]0 u/ m/ P* m DOWNBURST- A strong downdraft which induces8 U- g( X6 g! O. ?/ Q: l! O: { an outburst of damaging winds on or near the ground. 0 W; v0 Q3 b) d- l# K5 RDamaging winds, either straight or curved, are highly9 Y; f& V0 U: R" o) g divergent. The sizes of downbursts vary from 1/2 ! U( L) K+ x# V3 m, J- S8 Xmile or less to more than 10 miles. An intense5 h# n) Y% a* j5 N2 q d downburst often causes widespread damage. Damag‐ 9 V+ c5 z9 b( t3 b G$ \: E% g5 Ding winds, lasting 5 to 30 minutes, could reach speeds# U. a" _! X; e! i( U) ^8 J as high as 120 knots. . D M, k5 L- q; b8 `- `DOWNWIND LEG(See TRAFFIC PATTERN.)/ z: A. u4 V4 D/ V DP(See INSTRUMENT DEPARTURE PROCEDURE.) 1 g" N: y5 R. E0 ?& I: }6 b- R1 EDRAG CHUTE- A parachute device installed on! m6 r9 `" Q0 T! E7 u certain aircraft which is deployed on landing roll to ) Z6 x! ]7 y& E. |assist in deceleration of the aircraft. 9 x0 K; C# C. N' n0 U3 @2 T/ s5 pDSP(See DEPARTURE SEQUENCING PROGRAM.)+ {7 C# m; V: P0 k- U+ [: `* R DT(See DELAY TIME.) ( p2 p- ]5 u6 LDTAS(See DIGITAL TERMINAL AUTOMATION 1 F; a9 ]4 r R- }SYSTEM.) % {& r! v% Z( D) C3 aDUE REGARD- A phase of flight wherein an' T: A5 [1 [8 p, m: f5 ^6 k aircraft commander of a State‐operated aircraft3 b9 \4 m% s( v( D assumes responsibility to separate his/her aircraft2 r# a+ ?5 ?/ O& Q& L2 q2 I+ l0 H from all other aircraft. - G. c l8 j4 f; F- e(See also FAAO JO 7110.65, Para 1-2-1, WORD ) K: Y3 A4 g1 \# z+ b; d; Z2 NMEANINGS.) * q5 S% j% H" h9 [& @DUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY' p0 n) O: l$ B7 H l3 A; M2 \ RUNWAY.)2 `' l6 c7 \ X4 I6 n( r! \ DVA(See DIVERSE VECTOR AREA.)- h# C1 h$ t8 D& l4 N5 }* u- } DVFR(See DEFENSE VISUAL FLIGHT RULES.): K, D( R; _3 `: J* t7 K- \1 s8 |8 Q DVFR FLIGHT PLAN- A flight plan filed for a VFR , U1 B* g3 [' F5 Q( zaircraft which intends to operate in airspace within+ {9 e/ _* k) b3 H which the ready identification, location, and control' V& p% p- {, C- n1 u7 S3 k& x of aircraft are required in the interest of national R e: B& X$ ?0 n4 [, v, q security. ' o1 N0 h6 g( x3 T [DVRSN(See DIVERSION.)* T! S, N/ J1 } p) v) c( M% z DYNAMIC- Continuous review, evaluation, and! B- a4 w2 `3 }6 L- ^; n change to meet demands.2 F. ?4 `5 d+ m" ^6 [1 s/ p/ G DYNAMIC RESTRICTIONS- Those restrictions % D4 ?2 j0 a5 u }' F- Fimposed by the local facility on an “as needed” basis6 G- }* K" G# p* h8 Q: N to manage unpredictable fluctuations in traffic O7 G. K2 U. y% }demands.0 ^6 ` m- e; B Pilot/Controller Glossary 2/14/08! s* G S( ~' m PCG E-1, T5 _0 W4 j# q: v! F, T E ! R7 r8 C. n: P5 \& `4 zEAS(See EN ROUTE AUTOMATION SYSTEM.)( r, G i. }$ ~! r" O, ^7 U EDCT(See EXPECT DEPARTURE CLEARANCE" S8 p2 Z9 E k2 O% M4 T# f I' u% c TIME.) 7 Q2 a6 g0 R2 b& S# X) `& h) ?2 L7 tEFC(See EXPECT FURTHER CLEARANCE (TIME).) % y7 D$ q2 v' U3 F8 [. N1 U8 G& k nELT(See EMERGENCY LOCATOR TRANSMITTER.): _" t( O2 w- {$ J2 j1 w7 H% O EMERGENCY- A distress or an urgency condition. - B2 N3 f0 }3 e. v7 ]7 I+ eEMERGENCY LOCATOR TRANSMITTER- A 4 N0 h0 Z3 ?- `: G) \5 c% ?radio transmitter attached to the aircraft structure ( r2 R- _7 s; A; Owhich operates from its own power source on' W; k% ]* `2 q 121.5 MHz and 243.0 MHz. It aids in locating ! g) [$ N$ Z6 w; {: c, c) s: Ddowned aircraft by radiating a downward sweeping 3 I4 C) |0 r& `, y2 x- naudio tone, 2‐4 times per second. It is designed to , Q. c. S4 E2 y5 D" I# k2 P2 Xfunction without human action after an accident.+ ^- B, J9 v4 n (Refer to 14 CFR Part 91.) " O* K2 ^: T( o# T9 S(Refer to AIM.)8 }: @, b! L& C0 e: m" A# w* |! q E‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE , }) Z/ j4 b# P* d; {) P8 W) vWARNING.)5 i. P4 [, j: q/ O EN ROUTE AIR TRAFFIC CONTROL SER‐0 Y" J: p% w, \/ }0 x- U. ^ VICES- Air traffic control service provided aircraft- d& }& w4 f0 e# r+ R: q; J on IFR flight plans, generally by centers, when these" S" I# t4 c, w3 f6 | aircraft are operating between departure and; C' ^( S3 l7 { destination terminal areas. When equipment, capa‐% r) F: C I9 k9 p! Z2 C bilities, and controller workload permit, certain' o7 J/ \' W! O1 `9 E3 c4 q$ R advisory/assistance services may be provided to VFR 2 o5 v3 @* I m3 s, p. Y* E( gaircraft.* o! K4 [( s$ z (See AIR ROUTE TRAFFIC CONTROL9 p% {7 l- z7 G CENTER.) 8 ? C* ^( \& W4 ~. [9 n(Refer to AIM.) 5 L& @' P' I# l' B; v4 ~EN ROUTE AUTOMATION SYSTEM (EAS)- The" w4 p: f; g7 o- {+ X complex integrated environment consisting of - v# ] ?! r$ Q9 f7 Zsituation display systems, surveillance systems and) i+ l$ @+ ]4 G3 }' q+ K) z flight data processing, remote devices, decision3 \+ u# X, o( H- Y support tools, and the related communications1 R) u1 V* B3 s# w# G0 J equipment that form the heart of the automated IFR3 Z/ J- V" w3 T air traffic control system. It interfaces with automated8 q% ?# I1 Y \6 n terminal systems and is used in the control of en route * K' e0 |0 Q/ C/ x, c; J0 dIFR aircraft. 8 s$ o1 b; A1 b7 y(Refer to AIM.)# h8 V3 J3 S {+ r3 k/ ? EN ROUTE CHARTS(See AERONAUTICAL CHART.) # B' z0 {9 c) z" T$ DEN ROUTE DESCENT- Descent from the en route: z2 E5 W; @: K) u( \! Y" Z' l cruising altitude which takes place along the route of4 L% Z, I" m) J* p/ a/ n, o flight.' {; n/ O; d7 C EN ROUTE FLIGHT ADVISORY SERVICE- A 8 @! H% Z h% L3 \service specifically designed to provide, upon pilot% \7 h9 v* N0 V* a$ Z! D+ r request, timely weather information pertinent to% o; n* ~" B( f0 m his/her type of flight, intended route of flight, and 1 L! P Z* m/ S! W; o$ ?% daltitude. The FSSs providing this service are listed in 8 p, j$ J) z. A( @* v' x# [the Airport/Facility Directory., F( o/ N5 S- v: {& x (See FLIGHT WATCH.)3 {5 }* R2 x; a3 W9 H (Refer to AIM.) 9 U* y) S7 A/ g+ A% r. oEN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.) 9 w& Q* x3 d5 Q8 Z; c E' q( ]EN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.) 2 \- B0 [' N7 f3 L7 q3 `. vEN ROUTE MINIMUM SAFE ALTITUDE WARN‐5 o+ W0 M* p; |/ h0 z# o; P$ [- m& } ING- A function of the EAS that aids the controller3 m4 Z0 S) b8 Q9 G! n/ T9 _ by providing an alert when a tracked aircraft is below$ S( @, v$ _9 Y' K* L or predicted by the computer to go below a+ u3 u" Y# q$ ~, k* Z) x predetermined minimum IFR altitude (MIA). 0 r$ d; D4 {& m/ k& _7 h. FEN ROUTE SPACING PROGRAM (ESP)- A7 g% ^5 [# W, f( y% }) @; Q program designed to assist the exit sector in2 `# A' m- g* P, z; ~ k' G achieving the required in‐trail spacing. - c% o% `+ W4 s+ A2 F8 ]6 mEN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a p. u! ]8 A' j$ O5 c' w SID/STAR that connects to one or more en route 0 b' _1 A8 {; F# t* w3 lairway/jet route. m4 Y$ K; V% E8 bb. RNAV STARs/SIDs. The portion of a STAR: A! b" j2 _8 D& k preceding the common route or point, or for a SID the5 z2 H; ~9 e$ n7 ] W' t portion following, that is coded for a specific en route $ p0 z& X2 ~" E& Lfix, airway or jet route. - r5 s6 ]+ ?( j$ f8 T. S% l8 e. A8 lESP(See EN ROUTE SPACING PROGRAM.)+ Y7 e: a1 V" ^& z6 p" c ESTABLISHED-To be stable or fixed on a route, 1 k& b. E6 z; T4 oroute segment, altitude, heading, etc. ; F) q4 y! S Z Z5 d8 F$ tESTIMATED ELAPSED TIME [IC AO]- The - C; E4 s' _9 n8 z: o, O8 `estimated time required to proceed from one 3 w: i/ O+ f" Ssignificant point to another. 0 o8 O# u* X1 l* ^6 T. R(See ICAO Term TOTAL ESTIMATED ELAPSED% q% m3 B3 z0 l TIME.) ; Y/ f( R! _" A7 R) wPilot/Controller Glossary 2/14/08 # h" U9 N# O+ L$ |- w2 vPCG E-2* Q7 o/ c. Y* K8 a: [" I ESTIMATED OFF‐BLOCK TIME [ICAO]- The 6 O4 r$ F$ x, X1 O, D% N: a* @estimated time at which the aircraft will commence ) E+ O7 Z/ l% u* d2 mmovement associated with departure. 4 h Z! `# P, n! M2 o a9 cESTIMATED POSITION ERROR (EPE)- ( d4 u4 D( F8 S- J) R0 U% e(See Required Navigation Performance)2 R9 h1 Y0 M( I" s$ S* C# R/ L- ? ESTIMATED TIME OF ARRIVAL- The time the 5 l* H3 [/ L. ^- e4 F: wflight is estimated to arrive at the gate (scheduled 1 |2 z/ x8 J- O$ D- H( X; qoperators) or the actual runway on times for 6 C1 H" A, t hnonscheduled operators. 9 _5 _) i5 P* y L0 J9 F) s7 GESTIMATED TIME EN ROUTE- The estimated& q, @+ s- g( Y/ J! s8 n flying time from departure point to destination* q& w7 z& D* K4 ?8 h! c* i; f (lift‐off to touchdown).' P8 C$ z2 y* T# k% m- Q ETA(See ESTIMATED TIME OF ARRIVAL.) ) g5 e! A9 Z9 [- W5 g' p: hETE(See ESTIMATED TIME EN ROUTE.)& W% ?. ~! H. v$ e- z EXECUTE MISSED APPROACH- Instructions8 R; c# g; l; W H9 Y3 b/ _+ [' I issued to a pilot making an instrument approach # e- n6 y: c, pwhich means continue inbound to the missed $ E; P( L) O' c( H1 g! Fapproach point and execute the missed approach% c7 m# M# N' e, A* ]# n procedure as described on the Instrument Approach 9 c( f1 {- c- ^( k; wProcedure Chart or as previously assigned by ATC. 1 ?$ {8 L3 M1 gThe pilot may climb immediately to the altitude * r8 I0 ~" z, `5 K0 d ^specified in the missed approach procedure upon! J5 R7 i. \3 x# A making a missed approach. No turns should be 3 e% S- p. E( B: y0 h3 U5 sinitiated prior to reaching the missed approach point. / Y2 |, U3 X2 Y" p5 IWhen conducting an ASR or PAR approach, execute! ~" ]5 O# g( R the assigned missed approach procedure immediately& L% V, E2 U+ s- A- Z+ w upon receiving instructions to “execute missed ; K1 N; f+ S) u: \. d& r6 u7 U* tapproach.” ( ~, n0 v$ J& d# u3 a* f(Refer to AIM.) ! L& |7 k+ h) h( A4 n* pEXPECT (ALTITUDE) AT (TIME) or (FIX)- Used ( f1 D9 |% A8 punder certain conditions to provide a pilot with an l' Y+ m9 g0 T altitude to be used in the event of two‐way: ?% m, W. T& K communications failure. It also provides altitude 6 j/ [7 C3 z$ a. z( P8 winformation to assist the pilot in planning.& G! X8 z2 H: T% o4 L5 G. I (Refer to AIM.) 4 R$ X7 D0 U8 \- T: u# k ~9 BEXPECT DEPARTURE CLEARANCE TIME " d5 C7 g- T7 ]. w. O3 z) [(EDCT)- The runway release time assigned to an & j# c" E* i- a3 t) D- q Haircraft in a traffic management program and shown 9 u. C/ L& X/ X% `6 M0 Z, Son the flight progress strip as an EDCT.3 K/ P) h7 }4 o2 I1 ^# H# w (See GROUND DELAY PROGRAM.) 7 z" i! l" p; C6 XEXPECT FURTHER CLEARANCE (TIME)- The# F" V4 b" i1 U' W+ I time a pilot can expect to receive clearance beyond a ' j6 X4 p7 u- j) u1 \clearance limit. 0 q) Y6 ?* _' y) h6 {EXPECT FURTHER CLEARANCE VIA (AIR‐9 M; e, W" Y2 e. N3 u' Q4 k WAYS, ROUTES OR FIXES)- Used to inform a* ^7 M! S& k$ S# u# J pilot of the routing he/she can expect if any part of the" A' E( M+ X9 Y. ~! C& ]/ N' c. R6 \ route beyond a short range clearance limit differs 1 M3 c5 @* p' d$ sfrom that filed. ; ]/ a/ D1 P9 Q$ Q& O' bEXPEDITE- Used by ATC when prompt com‐* S9 d8 c1 _- j: U- d pliance is required to avoid the development of an 1 m/ \* J. s1 [/ C6 v) M( vimminent situation. Expedite climb/descent normal‐ $ ^$ V8 O+ C1 q, `' x0 A; l$ N& jly indicates to a pilot that the approximate best rate 8 h9 T- d$ U" ]of climb/descent should be used without requiring an " X4 C. u+ N( q; I4 dexceptional change in aircraft handling characteris‐5 l' M; f1 |0 f& U% q tics.; ~ G' I) ~' S% s5 O* ], l Pilot/Controller Glossary 2/14/08 " i' q; O, q/ X& C/ {: A6 d2 LPCG F-1 % O" w- W: q" ?4 {9 DF ( m5 Z# s6 i8 ~$ \5 XFAF(See FINAL APPROACH FIX.)5 \% R* I" j$ {9 u& o FAST FILE- A system whereby a pilot files a flight. }! A* A l- o' \8 l! B2 _ plan via telephone that is tape recorded and then3 [0 u+ m; C+ M1 d+ q3 i transcribed for transmission to the appropriate air: }! M" p! L( l, d+ s traffic facility. Locations having a fast file capability/ U5 J4 _# K# |' f2 e/ H are contained in the Airport/Facility Directory. " j- ]& S6 E; S ]% C+ ?0 u(Refer to AIM.) 8 v K. m7 z9 @4 T7 ~( C! NFAWP- Final Approach Waypoint 3 C" D9 S9 y/ }4 [' uFCLT(See FREEZE CALCULATED LANDING TIME.) 4 I# N* v( Q' o) S w. kFEATHERED PROPELLER- A propeller whose/ P" w4 @) c4 v8 t6 \ blades have been rotated so that the leading and q( g6 u6 k- `4 V6 z+ etrailing edges are nearly parallel with the aircraft * y* u3 R% A; I' _flight path to stop or minimize drag and engine/ C2 l% g5 ?5 s. k rotation. Normally used to indicate shutdown of a8 }; X4 D2 s/ Q reciprocating or turboprop engine due to malfunc‐* k5 Z% M- ~7 {! x! r2 o6 x" s# { tion./ o H1 v" e& m: T! |7 F- p FEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.)! n/ W: z6 \$ L7 C4 o" S FEEDER FIX- The fix depicted on Instrument) Y, S$ H1 s4 y0 U. M, X: G Approach Procedure Charts which establishes the 0 \9 \4 O( A- P/ z0 E0 J( Tstarting point of the feeder route. 5 ?( n) k0 F8 u! P6 D4 |2 W$ d* z8 pFEEDER ROUTE- A route depicted on instrument0 @' o6 g+ Y, v( x approach procedure charts to designate routes for% I( L( G0 m' |2 U! l aircraft to proceed from the en route structure to the 7 D1 i3 K) ?, ~initial approach fix (IAF).( }! s) p. D9 U& v f* e" w (See INSTRUMENT APPROACH9 C/ ]+ s3 ^/ C PROCEDURE.). s) y2 `# U% X! O5 x. D- f0 `! F3 I8 a FERRY FLIGHT- A flight for the purpose of: / \# k; U! J9 E* k; j8 o$ }, B7 ea. Returning an aircraft to base.9 J, }7 X9 S7 Z# P$ t) B" Y b. Delivering an aircraft from one location to6 g& Z. o; N8 q. Z8 l another. k" f" j5 ^5 pc. Moving an aircraft to and from a maintenance" V. _# q% T% S3 @" V; N base.- Ferry flights, under certain conditions, may be7 ?' ^$ C- f6 ]% M conducted under terms of a special flight permit.8 x: ]0 [2 E& _ FIELD ELEVATION(See AIRPORT ELEVATION.) 8 Q x8 B5 V8 o |/ K) Y- tFILED- Normally used in conjunction with flight 0 g1 p" s8 ^" ?) C9 l Fplans, meaning a flight plan has been submitted to # U; I6 ]1 V" IATC.$ g2 Q. P$ |7 H" u$ S FILED EN ROUTE DELAY- Any of the following% l* H0 w. T" `/ n5 m preplanned delays at points/areas along the route of 7 f9 M7 ]# _; I3 X H6 \6 q4 pflight which require special flight plan filing and& X/ t5 \" K' y1 X- u2 z handling techniques. 0 j" a- X* {' \7 V- ha. Terminal Area Delay. A delay within a terminal & m: Q( z# A4 [. X0 f, _' e/ S: Zarea for touch‐and‐go, low approach, or other % s8 z, o& F; B2 gterminal area activity.+ y) B% M: |' \5 q b. Special Use Airspace Delay. A delay within a2 M: B c, ?0 L' s Military Operations Area, Restricted Area, Warning ! X u6 b* X7 N, iArea, or ATC Assigned Airspace. " N, ]9 y8 h5 [- V4 ^c. Aerial Refueling Delay. A delay within an# } T' Q" E6 l# A5 P1 O) | Aerial Refueling Track or Anchor. 9 y7 P: F9 j2 ^1 \ C5 |+ v8 {- BFILED FLIGHT PLAN- The flight plan as filed with' ` D" Z' B# H( P8 L+ h9 d an ATS unit by the pilot or his/her designated, g! g; n) X' T3 L. y3 a* } representative without any subsequent changes or- s7 y+ w& F9 A6 K clearances. ( r2 y+ \! I+ I: }/ UFINAL- Commonly used to mean that an aircraft is6 C# p& b% F0 Z on the final approach course or is aligned with a & {& ], |9 |' g2 b- ]. C+ X2 a7 {& d' Alanding area.* J, ?: j2 L5 Y (See FINAL APPROACH COURSE.)0 U; W- p3 y0 ]; O* k2 I- h (See FINAL APPROACH‐IFR.)$ c4 I- I" e% M r; S' i- i% \ (See SEGMENTS OF AN INSTRUMENT! x! i$ |/ Q- w6 }6 M3 ^, H# a# Q APPROACH PROCEDURE.) : J" v* }4 O; H W0 H! d3 lFINAL APPROACH [ICAO]- That part of an" o. {# x1 J$ O# w+ O instrument approach procedure which commences at( c5 L6 D+ |4 ^; Z# [( |; t; { the specified final approach fix or point, or where : g, w4 S9 d. lsuch a fix or point is not specified.& z) V1 u+ B3 b/ @ a. At the end of the last procedure turn, base turn ! E3 l9 D- B( i: n" y9 nor inbound turn of a racetrack procedure, if specified; . H; ] N1 c" e* J; z+ Uor ( K/ ^; q" N# C0 s1 ~2 db. At the point of interception of the last track8 h8 }- z* t6 q3 W: F specified in the approach procedure; and ends at a 7 X2 |) P. S# x& {0 x. y' o- s. ~point in the vicinity of an aerodrome from which:& o" t) U& L( v2 I/ F+ i: X 1. A landing can be made; or 4 f+ F0 N- |! U. f9 A" U" ^: t2. A missed approach procedure is initiated.2 u" | {' @& w! g FINAL APPROACH COURSE- A bearing/radial/ & B! n( { h* o$ w, G/ f. z7 Ptrack of an instrument approach leading to a runway 9 i3 g8 C& N* O2 ?or an extended runway centerline all without regard , ]. v7 _( g# \5 Oto distance. # i" K; r; |1 UFINAL APPROACH FIX- The fix from which the6 ^+ \" P9 `7 ?' D# k6 S final approach (IFR) to an airport is executed and * d7 K; e8 n) O. P9 a Iwhich identifies the beginning of the final approach) U9 {% s! z5 t+ F* [ segment. It is designated on Government charts by$ C, @, ?$ k# w the Maltese Cross symbol for nonprecision" O1 n2 W W3 `5 i% M) Y8 I Pilot/Controller Glossary 2/14/08 0 ^8 s: ^; n7 G: F" PPCG F-2 0 E" a7 }2 U& @" S7 O9 _3 ~) [, napproaches and the lightning bolt symbol for : R5 l. f- C5 D5 g' iprecision approaches; or when ATC directs a& \8 p0 |: k. K3 I2 S B lower‐than‐published glideslope/path intercept alti‐( K2 I7 j# t- O tude, it is the resultant actual point of the u3 C. ?+ l( ?; O3 ^! g5 uglideslope/path intercept.- w6 {+ M `# b9 Z+ i+ ]2 M; B (See FINAL APPROACH POINT.). B- q+ A/ W3 [! G! J (See GLIDESLOPE INTERCEPT ALTITUDE.)3 E: O6 A/ X5 L0 y* O8 j (See SEGMENTS OF AN INSTRUMENT, f1 K( X8 V! s# l' }3 }1 t APPROACH PROCEDURE.)( F% F2 V7 U) p+ D1 e% N' C FINAL APPROACH‐IFR- The flight path of an0 @" q" H9 y4 `8 G6 p7 a# p aircraft which is inbound to an airport on a final # D. W( @$ g0 |+ Ninstrument approach course, beginning at the final ! o5 ~8 j: @: H1 ^3 Kapproach fix or point and extending to the airport or# f6 K( g' K7 T8 N8 T the point where a circle‐to‐land maneuver or a missed5 r% M ]3 q( H% |5 R approach is executed. ! o5 \# e' z- a/ G0 K2 a(See FINAL APPROACH COURSE.) $ _ }; R' Y2 ^0 N) @6 }0 [5 l(See FINAL APPROACH FIX.) % S: p7 Y: K4 b+ G(See FINAL APPROACH POINT.)% Y8 I3 e: r" U3 s# A2 V$ V1 E1 d6 V (See SEGMENTS OF AN INSTRUMENT + f# I# X" a# WAPPROACH PROCEDURE.); l4 ?$ ]6 ? m( S7 d5 S/ c& v- ~ (See ICAO term FINAL APPROACH.) : o+ X7 o' b; v4 V+ v1 H/ k! I0 RFINAL APPROACH POINT- The point, applicable ) T2 |+ y E" r0 A# ^only to a nonprecision approach with no depicted; r5 A' j+ R! ` FAF (such as an on airport VOR), where the aircraft 1 v" ~( I L0 n$ S Z7 l% [is established inbound on the final approach course 1 j$ q/ a; g7 z" b6 Hfrom the procedure turn and where the final approach7 d% E! `8 S# u- j: h' Q descent may be commenced. The FAP serves as the+ I, r" @8 y% e; B/ q, p. G- K/ @ FAF and identifies the beginning of the final. b( S& T, p) ?% {0 w approach segment. ! M6 K$ Y7 P. f/ P' {(See FINAL APPROACH FIX.) 6 z h+ `, [+ q R' P) n, V9 ~3 v(See SEGMENTS OF AN INSTRUMENT6 d' n' }) [( ^2 u0 i/ F5 |4 {2 x4 q APPROACH PROCEDURE.) 5 ]0 B( z+ ^) B7 o# E/ f; H. ^FINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT7 {3 N1 u0 `* Z6 \. r1 c APPROACH PROCEDURE.) 5 q! ~. G" W; a! yFINAL APPROACH SEGMENT [ICAO]- That" _ U3 \1 M3 q segment of an instrument approach procedure in, G" y6 Q$ ]" r: k which alignment and descent for landing are $ s+ ~6 z. v9 L' N8 waccomplished.9 N, v% r6 \' O& L: } FINAL CONTROLLER- The controller providing v3 T3 I& p% N7 N+ o$ n. l' f9 Q information and final approach guidance during PAR) W! ?2 @% C1 ?: V$ a! o& f and ASR approaches utilizing radar equipment.( K- c1 v, A2 e; z; z (See RADAR APPROACH.)) _7 q F+ X3 {1 p# @ FINAL GUARD SERVICE- A value added service6 d6 s6 p2 T9 [7 K; \ provided in conjunction with LAA/RAA only during 5 e3 j; b. \0 g2 ^periods of significant and fast changing weather4 g. T! U$ ^0 [2 z% j6 ? conditions that may affect landing and takeoff ) k9 |& H. ]8 R& F8 V7 u3 woperations. . X6 |, t* |; i: P, `5 H1 bFINAL MONITOR AID- A high resolution color 6 Z/ S2 p/ ?9 Rdisplay that is equipped with the controller alert * f4 L! q Z* j5 Asystem hardware/software which is used in the. o5 `2 v; d1 b precision runway monitor (PRM) system. The / _! g8 r$ d# i) J; s7 m: \; w5 w0 ddisplay includes alert algorithms providing the target - G7 x5 H8 ~% f: ipredictors, a color change alert when a target1 N0 }! l( `2 ^' y! P penetrates or is predicted to penetrate the no% @! V/ u" `0 |- D/ U" G transgression zone (NTZ), a color change alert if the2 \0 q1 N" _$ E2 S) f7 K Z/ e aircraft transponder becomes inoperative, synthe‐ 4 q, N) p' g+ o \& ?( m4 D% Wsized voice alerts, digital mapping, and like features ( u# }$ w' ?$ s% Bcontained in the PRM system.5 T/ E1 d3 d3 T% o2 N* X (See RADAR APPROACH.)/ Q! C5 ^* N0 E0 J6 b0 A FINAL MONITOR CONTROLLER- Air Traffic9 O( m2 T! }8 |$ `% B Control Specialist assigned to radar monitor the ( Z! ?- Z/ Y: W& _0 d. r1 Vflight path of aircraft during simultaneous parallel7 n7 N0 S2 x% V2 b/ k* ^" G and simultaneous close parallel ILS approach ) @* g: s/ E. D* f: h/ I8 loperations. Each runway is assigned a final monitor0 X5 e! m7 \$ ~9 q& M9 ` controller during simultaneous parallel and simulta‐& s6 l6 V" W; C0 } ` neous close parallel ILS approaches. Final monitor 8 q0 S, i" O5 L0 dcontrollers shall utilize the Precision Runway 0 s# b7 C+ o6 M; n+ c" FMonitor (PRM) system during simultaneous close. F1 U' x& D2 Y parallel ILS approaches.: m" \3 V% y- C9 c2 m FIR(See FLIGHT INFORMATION REGION.)( K& M+ z" S, G& C) m FIRST TIER CENTER- The ARTCC immediately# R- R) T( c" Y5 @. S# K adjacent to the impacted center. # i a4 a8 o& n* b1 g$ fFIX- A geographical position determined by visual / I$ t+ M) P( P9 C8 B) Oreference to the surface, by reference to one or more ! w0 M/ G- [3 F: t: _radio NAVAIDs, by celestial plotting, or by another $ y$ W9 O0 v& X7 W4 f onavigational device. ) w3 W5 T! o% lFIX BALANCING- A process whereby aircraft are: {# b# J* w) { evenly distributed over several available arrival fixes & x& p6 l0 S6 ~( D! [reducing delays and controller workload. $ m9 b$ V! i4 m* ?5 YFLAG- A warning device incorporated in certain* q. e Z8 C! {9 z airborne navigation and flight instruments indicating1 `# `( H8 d5 B5 ^' t& c& u. j$ h+ j that: 9 s" g$ R8 P( p9 ~7 ?. Ya. Instruments are inoperative or otherwise not9 n* {" c5 y! k operating satisfactorily, or # j7 w* F3 t+ C, K1 Q4 @5 Z* Mb. Signal strength or quality of the received signal! z9 o' [ Q. I+ H0 z- t5 ~/ c' Q falls below acceptable values. ! l. a9 A/ s* s# h9 T3 v; x! xFLAG ALARM(See FLAG.)# R4 t3 r% ]0 \! d/ e" z FLAMEOUT- An emergency condition caused by a 6 y% O, X8 y/ v& Jloss of engine power.! ^# `8 J! y% z- c h6 o# T9 j( \ FLAMEOUT PATTERN- An approach normally; q# Q9 l" ~1 ~$ p$ m% J0 E) U! L conducted by a single‐engine military aircraft; `: ]0 L/ q0 O experiencing loss or anticipating loss of engine 5 b8 C& }+ ~: h) i+ V' H$ LPilot/Controller Glossary 2/14/08 m3 ~+ c7 h( e% L T5 h PCG F-3 6 z' q" h+ I2 L# Y6 _$ Bpower or control. The standard overhead approach/ {0 t: N% q6 f: S! m+ G% z starts at a relatively high altitude over a runway 6 r6 t0 _* q0 o(“high key”) followed by a continuous 180 degree3 L! b- [# }3 T/ ]+ {/ n" @ turn to a high, wide position (“low key”) followed by6 G% C( c5 a7 K( |( J; u! P a continuous 180 degree turn final. The standard ! H& C" g: u" B) l7 `straight‐in pattern starts at a point that results in a : w5 e8 C; I9 W) Fstraight‐in approach with a high rate of descent to the 8 \, u6 C' x/ }. i* I. Lrunway. Flameout approaches terminate in the type & _3 Y5 g' a4 T4 q% ~5 [' napproach requested by the pilot (normally fullstop).; F. Z" h6 K/ a( Y v' B4 ^1 q FLIGHT CHECK- A call‐sign prefix used by FAA ' S3 J' o0 z4 y. N- H! vaircraft engaged in flight inspection/certification of$ y' Q$ g; U5 C; q% @ navigational aids and flight procedures. The word - d& J& O- H0 h# K! _" o“recorded” may be added as a suffix; e.g., “Flight # `: H* Y$ X' l5 Q6 JCheck 320 recorded” to indicate that an automated. U6 A" K$ {8 e6 s* k* X3 T5 p flight inspection is in progress in terminal areas. 6 O8 B2 t& X, B% n(See FLIGHT INSPECTION.) " i; o0 X" [9 ?' T(Refer to AIM.) 2 q) t' a/ k) h+ xFLIGHT FOLLOWING(See TRAFFIC ADVISORIES.): [+ ?1 C, d- H( k1 j: k0 l2 ]! S! P FLIGHT INFORMATION REGION- An airspace of7 u" H' e5 k3 t# }. W defined dimensions within which Flight Information* ?3 J' r; e- K0 G0 M& C: m Service and Alerting Service are provided. * ~ M4 T, @! e/ ea. Flight Information Service. A service provided" {8 g- p5 z/ e for the purpose of giving advice and information, O' E o* R! h1 Q6 P useful for the safe and efficient conduct of flights.6 \, H2 l: k/ W6 s* n8 e7 t/ s b. Alerting Service. A service provided to notify ! q- c. `6 I! ^0 V& J* @2 Fappropriate organizations regarding aircraft in need . T# e1 W( u1 u) \" }8 ]9 f7 gof search and rescue aid and to assist such" G: f& o2 f, a organizations as required.6 u# }. Q2 f/ c( p& m8 Q FLIGHT INFORMATION SERVICE- A service 5 E; ?! C( J# gprovided for the purpose of giving advice and8 A E( n# E$ R' R+ }9 E- E7 ]% A information useful for the safe and efficient conduct. C& s; z$ X2 `( p! U9 F of flights.. ]2 C6 s* \- Z- n$ H) a FLIGHT INSPECTION- Inflight investigation and " p5 [5 [% K$ b, D. ?4 Ievaluation of a navigational aid to determine whether & e; @/ o1 u3 z8 n( @1 Jit meets established tolerances.* B( u/ U" K1 e k( d( V* z$ O' Z+ m (See FLIGHT CHECK.) 0 D" y5 ~0 ]6 [! ?# P: K& v) I {) r(See NAVIGATIONAL AID.) / F7 a0 q: \) q+ ]* B& ^* S. N4 MFLIGHT LEVEL- A level of constant atmospheric # }( W4 D6 o$ @pressure related to a reference datum of 29.92 inches / |5 \) \" x+ ~! \6 ^$ dof mercury. Each is stated in three digits that represent 8 l- B7 r1 e* e. a5 dhundreds of feet. For example, flight level (FL) 250( W$ N/ h4 n% Y- L5 ? represents a barometric altimeter indication of F3 t( x% Y) v5 t1 E25,000 feet; FL 255, an indication of 25,500 feet. % }( T& r9 f* F8 R& A(See ICAO term FLIGHT LEVEL.)9 Z7 s0 F" i$ i- E$ \- B FLIGHT LEVEL [ICAO]- A surface of constant _1 _) [8 W0 g7 ~ K S ratmospheric pressure which is related to a specific ( v$ l3 \4 ~. ]/ Apressure datum, 1013.2 hPa (1013.2 mb), and is ( H `4 s0 h! n3 C/ _5 sseparated from other such surfaces by specific ' C# `# Y$ A [' e8 o8 A% E1 [pressure intervals. D3 D" f5 g+ u/ o+ ^9 t/ Y Note 1:A pressure type altimeter calibrated in ( \. ~3 A; i! a1 ]: z# v% Faccordance with the standard atmosphere: ) ]2 j% r+ g5 o1 L! ]( G8 z+ Ma. When set to a QNH altimeter setting, will9 e# n: [0 ^2 `! x, J# }( a' P3 \ indicate altitude; 9 b5 I, S& O$ ?# |: Z+ [b. When set to a QFE altimeter setting, will ' S+ b) {& V. a) P% _% Yindicate height above the QFE reference datum;( I* p5 ]' ^ T( I/ I$ j. F; }6 G and; }% V# u1 x: M9 w/ t; L c. When set to a pressure of 1013.2 hPa6 V: _0 V; }3 h0 ]0 ~& S4 m (1013.2 mb), may be used to indicate flight levels. ; _6 F( s6 _0 j! X4 s3 ], a# I1 G( q; Z' XNote 2:The terms `height' and `altitude,' used in$ S9 F) \ `3 v9 C$ }/ W2 M Note 1 above, indicate altimetric rather than( G/ @( ^; I. H; ^7 ` geometric heights and altitudes. 6 \0 ^2 F6 e0 _% f+ ^5 y* {FLIGHT LINE- A term used to describe the precise 9 l9 {' M) w. Umovement of a civil photogrammetric aircraft along7 i- X/ ]3 P, q( S. L a predetermined course(s) at a predetermined altitude + J! i. }2 w0 l3 hduring the actual photographic run.1 c6 k3 l1 b% ~% V FLIGHT MANAGEMENT SYSTEMS- A comput‐ / ?' M9 [2 J% [, Q( k6 D; Ier system that uses a large data base to allow routes) d/ |/ s8 f. G2 V/ i- u/ S to be preprogrammed and fed into the system by : k% v0 u/ l7 k" ~) k9 I+ emeans of a data loader. The system is constantly 8 j+ \& x4 l4 ~$ w1 H! }updated with respect to position accuracy by4 J! t3 P: h/ n! C8 X6 C reference to conventional navigation aids. The# l0 A8 ~ O8 d; a+ ^. |% `. J% W8 |0 r sophisticated program and its associated data base * c) i( l7 f4 c& m9 O- hinsures that the most appropriate aids are automati‐ 6 w$ f4 v) }: a5 |* Tcally selected during the information update cycle.3 n5 K5 K$ `) u; g# @% W FLIGHT MANAGEMENT SYSTEM PROCE‐ $ G+ o- @: E$ DDURE- An arrival, departure, or approach procedure 4 [1 `4 L. u( p6 `/ }0 a! b Pdeveloped for use by aircraft with a slant (/) E or slant7 c; ]: [8 U- q" L! f1 z (/) F equipment suffix.& S# p, ~+ H, z9 X FLIGHT PATH- A line, course, or track along which3 s6 ]' c. o9 i& q) t) d& W: E- K an aircraft is flying or intended to be flown. E! O& r3 H; T1 B, O1 m2 ? (See COURSE.)/ J6 |/ W2 ~( }. E5 o: b8 n' D0 X) ~ (See TRACK.) : |% G$ K& X, [+ `) {" |FLIGHT PLAN- Specified information relating to8 W( R! A- S+ q4 E& l8 z the intended flight of an aircraft that is filed orally or8 R( c" O9 j+ F8 q+ L7 Y# @ in writing with an FSS or an ATC facility. ) L6 O4 v$ q" t+ I(See FAST FILE.) + k' M, r0 a; T(See FILED.)" k4 E3 X7 G) ~% @! ~) n (Refer to AIM.) - M. R; c: W1 Q7 u6 VFLIGHT PLAN AREA- The geographical area- B; H; [$ T% ]- z$ v+ ?: i3 F assigned by regional air traffic divisions to a flight& D' p; P: _4 o9 D! p* M1 W service station for the purpose of search and rescue7 m4 W- N4 H$ z for VFR aircraft, issuance of NOTAMs, pilot$ Y# J# [ y8 S briefing, in‐flight services, broadcast, emergency R; G3 X- J" V& n. j services, flight data processing, international opera‐ & k7 S0 B: U2 R; A. c2 E2 a! Wtions, and aviation weather services. Three letter) Z; A$ I& h+ U; H0 j Pilot/Controller Glossary 2/14/085 r! ]. y$ o+ Q8 u7 b& u* J2 G PCG F-4. u$ N+ ?" B2 p1 F3 v5 m4 i" I! W identifiers are assigned to every flight service station& _! B, O( B5 \, |' H0 r3 ] and are annotated in AFDs and FAAO JO 7350.8,7 B7 M* y9 r* f4 ]! s% J% Q/ _ LOCATION IDENTIFIERS, as tie‐in facilities.- @2 \0 ^0 S L2 t( K& \" A (See FAST FILE.)& j9 c3 s# U7 A P* S8 b (See FILED.)1 ^+ R9 m+ _! o4 i1 E( b (Refer to AIM.) # C! f) o( R& A; e" OFLIGHT RECORDER- A general term applied to3 u: k1 W5 V' S) q any instrument or device that records information 9 h+ W+ y' [( a3 Z3 L2 C% zabout the performance of an aircraft in flight or about, Z, }+ n6 k( P6 H, x7 C$ b conditions encountered in flight. Flight recorders3 L0 |5 v$ J2 q# L6 t" n% _3 O may make records of airspeed, outside air 1 a1 A# r" I2 htemperature, vertical acceleration, engine RPM,1 r. \0 b6 m& b/ u manifold pressure, and other pertinent variables for a E' E+ b2 l- U given flight. 3 L, K$ n" s9 o$ l! L7 P) c! ^; e(See ICAO term FLIGHT RECORDER.) $ j/ w( b0 g6 e/ eFLIGHT RECORDER [ICAO]- Any type of ; B' J+ m; M$ M8 frecorder installed in the aircraft for the purpose of* T' ~7 j% j2 n complementing accident/incident investigation. 8 e. L3 }# j4 F! LNote:See Annex 6 Part I, for specifications relating3 `$ f% A0 z. K; `1 a- h% V! `, y7 S to flight recorders. 1 V3 Y* J* m6 j4 p; g# yFLIGHT SERVICE STATION- Air traffic facilities 4 x9 F: }( o4 o1 y5 E& A( Z) \; W- Ewhich provide pilot briefing, en route communica‐( K7 b" q$ {3 s* O tions and VFR search and rescue services, assist lost S) ]5 F. n; t) K! B aircraft and aircraft in emergency situations, relay$ C5 |, z+ W2 x3 }& M; R7 I ATC clearances, originate Notices to Airmen,& e+ F( Z% ]* b' k5 v B broadcast aviation weather and NAS information,- K; w' }) X' h/ N9 n2 r. q and receive and process IFR flight plans. In addition, * b8 e) |/ d! r& |* U4 N3 sat selected locations, FSSs provide En Route Flight X! Z7 M3 R) \# y7 o Advisory Service (Flight Watch), issue airport 3 ]" g1 b, W$ `# I! x8 I( [advisories, and advise Customs and Immigration of + d3 Q6 A6 y4 jtransborder flights. Selected Flight Service Stations; g1 }5 z3 w: F4 a( c; q in Alaska also provide TWEB recordings and take( F! G$ p/ s7 R: d6 g weather observations. " i- S. r# v) T1 l1 k1 U(Refer to AIM.)+ P9 A" [% v& p, X$ Q6 f FLIGHT STANDARDS DISTRICT OFFICE- An$ E2 _, }- w- L/ c3 ] FAA field office serving an assigned geographical0 D4 ~- }; g9 ~3 S8 p area and staffed with Flight Standards personnel who7 f% T* Q w0 c0 K) M6 |1 b serve the aviation industry and the general public on [- W! {9 R/ q3 n matters relating to the certification and operation of& E, B: v( c. j- O air carrier and general aviation aircraft. Activities* L7 {8 i# o. o; f7 T% d/ _. B include general surveillance of operational safety, ; e# ? L) R# J8 Ocertification of airmen and aircraft, accident ' n U P7 n1 Z- P* q8 g" d. }& M) kprevention, investigation, enforcement, etc. # q$ g% L$ u! n1 @/ yFLIGHT TEST- A flight for the purpose of: + F T: E! d& p5 O8 la. Investigating the operation/flight characteris‐1 I! d8 |, Y4 X& U: E; Y tics of an aircraft or aircraft component. , G+ C8 |+ Z Z$ }) s& u% x: Pb. Evaluating an applicant for a pilot certificate or 5 v/ r( Y K8 _3 Qrating.6 [9 G! A7 y p: k# _' B FLIGHT VISIBILITY(See VISIBILITY.)/ j. F! R% w3 k" i& ]9 P6 l* X FLIGHT WATCH- A shortened term for use in4 q; ?6 v; H7 e- \6 Z air‐ground contacts to identify the flight service0 H$ i3 W& W/ @+ Q; K station providing En Route Flight Advisory Service; # D: b5 E; @$ Y r6 R5 ^* fe.g., “Oakland Flight Watch.”' l1 v0 U! m$ W (See EN ROUTE FLIGHT ADVISORY0 _) h5 r; d( E0 ]. \! j# e SERVICE.) * A+ S8 H* k2 b! V- [FLIP(See DOD FLIP.)* `* {9 _) a8 n, A% C; D' ?5 f FLY HEADING (DEGREES)- Informs the pilot of ( N. R' K' C4 v, J" _0 l1 ?the heading he/she should fly. The pilot may have to 2 y' e' a) z* H6 _# D8 i- zturn to, or continue on, a specific compass direction " M1 ~+ f! o$ s5 T. i8 p$ ~5 bin order to comply with the instructions. The pilot is . e$ e6 t' m5 Q- D. z% Bexpected to turn in the shorter direction to the heading . ~" u6 J4 |; @5 tunless otherwise instructed by ATC.! V+ ~7 g8 q* f. N6 ` FLY‐BY WAYPOINT- A fly‐by waypoint requires" [- u9 p" A* z; K2 L9 z* V; g5 w5 V the use of turn anticipation to avoid overshoot of the " k* R. B) I; B9 L: o9 |7 Wnext flight segment.3 R. d) S$ |0 @; F; a9 T FLY‐OVER WAYPOINT- A fly‐over waypoint % t) H7 h1 P, O0 j* Uprecludes any turn until the waypoint is overflown/ |( [& H. W. I; Q( f' @ and is followed by an intercept maneuver of the next / T, {8 ]" M$ n/ R- Rflight segment. 1 w; k$ Y4 p, M& X# T3 n$ oFMA(See FINAL MONITOR AID.)2 }4 w# P4 O \. o1 O! r FMS(See FLIGHT MANAGEMENT SYSTEM.)" H% t% m0 w8 ?, N, U% h FMSP(See FLIGHT MANAGEMENT SYSTEM7 d# E4 B7 g( A2 @; G PROCEDURE.) " Q$ i6 m4 k% _) T9 eFORMATION FLIGHT- More than one aircraft - h# R2 U/ x* Z H" j, @which, by prior arrangement between the pilots, 2 s9 M" m# A! h2 S. E8 Z1 ^" Aoperate as a single aircraft with regard to navigation1 m. Z& g2 z& {- `# m; n* F2 P and position reporting. Separation between aircraft ! J, ^" L8 h' i; w2 A2 ~within the formation is the responsibility of the flight7 N: x& g; _' ~8 w! K) z b9 I leader and the pilots of the other aircraft in the flight.7 ~+ j6 f) ]3 k This includes transition periods when aircraft within- x4 k5 G* i( I! t& f9 a2 J) u the formation are maneuvering to attain separation4 ?, h: B6 h! _' p% u& p from each other to effect individual control and, r3 X- ~( `% o" _1 i$ n) l during join‐up and breakaway.5 l) A* h' w1 r9 P) ]- | K* m( s a. A standard form ation is one in which a ( z b3 W! Y, o$ hproximity of no more than 1 mile laterally or / X5 K n* p9 j+ N) f% flongitudinally and within 100 feet vertically from the/ b8 S2 ^) B) Z flight leader is maintained by each wingman.& }% u; h; \3 e: R! C$ O! a b. Nonstandard formations are those operating4 p x9 f% I; R- x+ W7 B5 X under any of the following conditions: 4 ?" `% |& D6 G) v: ^0 [ j# MPilot/Controller Glossary 2/14/084 X E# ~7 g' [$ H4 q1 d PCG F-5 " f. P U; Y2 n& _4 X+ Z1. When the flight leader has requested and ATC) E& _+ i/ l, ~1 t! z has approved other than standard form ation & N# t' G6 y( m5 cdimensions.$ j9 P, N; _( `$ p* d7 N1 t 2. When operating within an authorized altitude+ O7 z: ^" I- B8 I( z$ t( `$ ~ reservation (ALTRV) or under the provisions of a * t5 N. r) ?& ]1 Z: ^* h9 Pletter of agreement. ( N* F! V$ b$ n. e3. When the operations are conducted in8 m7 R3 t6 b. B% P) Y airspace specifically designed for a special activity. / T7 i- M2 x% Q, n! l+ C5 M: F(See ALTITUDE RESERVATION.) + }3 C9 W) H# e(Refer to 14 CFR Part 91.) 2 x* i2 R* m, ^1 I& n2 F$ R, jFRC(See REQUEST FULL ROUTE CLEARANCE.) ( n, x6 k8 V0 i3 c- G( H* t* ~9 JFREEZE/FROZEN- Terms used in referring to3 O: A0 |# w/ {9 k; ^' i: G/ r arrivals which have been assigned ACLTs and to the( p/ c: @( E6 l$ T. [8 ~( K lists in which they are displayed. - @, T. _: K( }* L2 ?) k3 AFREEZE CALCULATED LANDING TIME- A# n z% M4 B8 `# d( Y5 Q dynamic parameter number of minutes prior to the% y- h; F, Q& D7 d: L1 X! n$ |# C meter fix calculated time of arrival for each aircraft + T( e1 J8 f% O* i' ]1 b0 ^when the TCLT is frozen and becomes an ACLT (i.e., ; Z% v3 U8 k" F9 z0 \the VTA is updated and consequently the TCLT is: a# L" \7 H, L% U3 Z( O modified as appropriate until FCLT minutes prior to! r$ O9 L7 x' q- f" y meter fix calculated time of arrival, at which time0 i0 u; e. T9 }5 \ updating is suspended and an ACLT and a frozen' Z1 y( g7 c3 i meter fix crossing time (MFT) is assigned). 8 n" `3 P# h7 LFREEZE HORIZON- The time or point at which an$ P* [5 `3 N% {! T8 u/ W4 S6 U aircraft's STA becomes fixed and no longer fluctuates; M" V, f% l) b6 ]4 R- `1 l) Y5 t4 G with each radar update. This setting insures a constant ! n4 B+ r3 W4 ~' [! [( A7 @time for each aircraft, necessary for the metering $ a$ J9 A1 Z/ ~2 \controller to plan his/her delay technique. This ; }, ^! ]; n% zsetting can be either in distance from the meter fix or ' g3 g; n$ Z+ L6 e2 J4 _0 Ya prescribed flying time to the meter fix. * W% Q( ]" z. w& b. e* P3 X: ~FREEZE SPEED PARAMETER- A speed adapted0 \3 P8 }9 e# `0 [+ Q3 i: O$ t, a- a for each aircraft to determine fast and slow aircraft.: R6 V) _) g6 Z6 R; h- S- p" B; ? Fast aircraft freeze on parameter FCLT and slow k7 i6 W; O9 c( B; O5 caircraft freeze on parameter MLDI.% `; T# B' _* D2 f FRICTION MEASUREMENT- A measurement of ' P2 m5 ?# m) @! Nthe friction characteristics of the runway pavement 6 _# [, H1 v/ l0 T# ~/ ]& l: lsurface using continuous self‐watering friction / b" j) h3 K5 R$ E0 s5 d Q& c! `measurement equipment in accordance with the ' J- n' H4 m. a3 A3 I$ Z+ Y9 h" X/ ~specifications, procedures and schedules contained ; [# d* v& j; {5 Z. u, uin AC 150/5320-12, Measurement, Construction,0 q# @5 ~* P) [. P and Maintenance of Skid Resistant Airport Pavement ]. g: \. p5 f A% u4 F" H1 @ Surfaces. 1 G) D4 P6 m+ }FSDO(See FLIGHT STANDARDS DISTRICT OFFICE.) 9 R6 p& m7 u, k/ v; }FSPD(See FREEZE SPEED PARAMETER.) 3 K' }8 E7 c6 f" e/ q2 kFSS(See FLIGHT SERVICE STATION.)% K1 ]& y N3 F- ?2 Q. F0 \- P FUEL DUMPING- Airborne release of usable fuel. 0 F8 C" F& I! b7 {4 O9 [This does not include the dropping of fuel tanks. 9 R+ @1 Z2 A9 \* E4 n3 \(See JETTISONING OF EXTERNAL STORES.) & B g6 f1 S) n: DFUEL REMAINING- A phrase used by either pilots9 }3 i3 q4 G/ k3 l or controllers when relating to the fuel remaining on2 V, \' k5 ^( Q# h) x3 w' v9 n board until actual fuel exhaustion. When transmitting 9 }1 p2 A1 Q* n5 {9 ~) t& j- Tsuch information in response to either a controller/ n. D$ R* V1 Z- b question or pilot initiated cautionary advisory to air, u" e7 l+ b$ e, C- x traffic control, pilots will state the APPROXIMATE 5 I/ H C0 I$ \( K! R) Q+ GNUMBER OF MINUTES the flight can continue * V; y( J" K l6 P7 f- xwith the fuel remaining. All reserve fuel SHOULD8 s% f \& F8 H BE INCLUDED in the time stated, as should an ' N3 _ R9 g- l. Callowance for established fuel gauge system error. 5 O* R1 ^0 R: a9 ?5 u! e8 `FUEL SIPHONING- Unintentional release of fuel / K/ O4 T0 u- H k1 ccaused by overflow, puncture, loose cap, etc. * w) `+ ]5 C* C0 V% P$ zFUEL VENTING(See FUEL SIPHONING.) % G y. e+ c, C+ x3 Z7 G, V* F1 gPilot/Controller Glossary 2/14/08 * V) [3 B" f ~, ^2 L; tPCG G-1 8 V( e' h$ w; Z. DG

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GATE HOLD PROCEDURES- Procedures at , i! r" E; ^" t& k9 P/ ^' {& @3 Dselected airports to hold aircraft at the gate or other8 H: B# y) F: m5 o+ F ground location whenever departure delays exceed or/ p# W9 a- g. p are anticipated to exceed 15 minutes. The sequence0 H$ D! I, a, Q) H for departure will be maintained in accordance with G& t4 u/ P# J. t% m initial call‐up unless modified by flow control' T2 W( ?8 l" T( i restrictions. Pilots should monitor the ground ( ~4 f7 U+ ?, j! y2 H" bcontrol/clearance delivery frequency for engine! v) L# D+ ^ B0 ]( j# d" u% C0 ? start/taxi advisories or new proposed start/taxi time 5 }4 T! T0 H- D0 {# ^. C9 Pif the delay changes.

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GBT(See GROUND-BASED TRANSCEIVER.) , i+ N9 J& p/ J& S$ h( [4 [$ g" g$ bGCA(See GROUND CONTROLLED APPROACH.): d' w- h. c" A) Q, O6 a. _8 ^( ] GDP(See GROUND DELAY PROGRAM.) # U4 S0 }. a+ B0 {7 p6 z% y1 d3 ?" p- JGENERAL AVIATION- That portion of civil ( [1 z& C- j* ~9 U9 ]3 baviation which encompasses all facets of aviation1 j) A9 j- p: f. q$ f5 `: H except air carriers holding a certificate of public 9 j+ O/ r6 Z+ m7 G s" O5 [convenience and necessity from the Civil Aeronau‐& c0 `0 J+ g5 ?, Q' m* j tics Board and large aircraft commercial operators.5 F; _$ F; l- G% b2 f (See ICAO term GENERAL AVIATION.)1 [' I$ ]! ~ w W" l GENERAL AVIATION [ICAO]- All civil aviation . z8 F4 q" ]& ~. u- c1 Poperations other than scheduled air services and + |$ O$ d- r/ pnonscheduled air transport operations for remunera‐, r4 q$ b9 X' U! N A- _- v tion or hire.7 ^! L: Z% Q/ M0 a GEO MAP- The digitized map markings associated% J! W3 E1 h3 [% k with the ASR‐9 Radar System.& ? M% x9 l9 V. x) @ GLIDEPATH(See GLIDESLOPE.)& T- R3 v1 p0 v% c0 s- V GLIDEPATH [ICAO]- A descent profile determined v, A( n) @, {0 Q" p! K for vertical guidance during a final approach. . \5 ~7 R4 k; h& i0 H/ O$ OGLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.)$ x! w# ~6 i& m8 C GLIDESLOPE- Provides vertical guidance for " V( z- o9 l- s7 D, {' waircraft during approach and landing. The glideslope/ ) k3 n. t; { d; l6 ?glidepath is based on the following: . T7 w6 i, E) I8 V# Ca. Electronic components emitting signals which4 [! \) ]+ [( P provide vertical guidance by reference to airborne 8 n) o% n1 `7 w. K, ?instruments during instrument approaches such as ! K4 \2 K& \: Z2 s; }ILS/MLS, or * s6 R2 b) q. @. c4 R' h: sb. Visual ground aids, such as VASI, which( v! h2 l) ?3 H6 y3 z3 k: S) ^ provide vertical guidance for a VFR approach or for/ j; f$ V1 ~1 x0 }; E- B the visual portion of an instrument approach and' A1 Z, Z( s$ k2 n% X# A8 e( ?0 U landing. 0 L/ j4 m1 n: ^& M5 t9 I1 Dc. AR. Used by ATC to inform an aircraft making 0 G) A( V7 I6 z0 T% \7 la PAR approach of its vertical position (elevation)4 g" L' o* k5 @& y; ]' T relative to the descent profile. + Y3 t: `* q7 O7 Z6 G- }(See ICAO term GLIDEPATH.) ( G% @' N" E, s3 H: gGLIDESLOPE INTERCEPT ALTITUDE- The) d, t3 P1 `0 Y S& ^7 L minimum altitude to intercept the glideslope/path on 2 }0 D6 c) h* F) C% B; y& qa precision approach. The intersection of the/ j( J5 ~; } N3 Y5 c0 g published intercept altitude with the glideslope/path,4 Z8 {; p) i2 o2 j. o designated on Government charts by the lightning ( r$ d0 I' j: N! k' k/ p( ^" jbolt symbol, is the precision FAF; however, when the 5 _& [& x6 N! zapproach chart shows an alternative lower glideslope3 N) a3 R. r+ v intercept altitude, and ATC directs a lower altitude, " M4 D. F' P. Z) u. F4 ythe resultant lower intercept position is then the FAF. ) X; O: {! F4 Y8 k! `(See FINAL APPROACH FIX.) 4 q- L+ A1 Y5 L. V! e(See SEGMENTS OF AN INSTRUMENT + l. E: p9 Z7 P2 K" OAPPROACH PROCEDURE.) 8 A) g9 u8 n3 l$ T! o, [7 r+ bGLOBAL POSITIONING SYSTEM (GPS)- A! z4 I: X0 `7 U space‐base radio positioning, navigation, and/ X& p5 s4 B( C0 U+ ^ time‐transfer system. The system provides highly& `' D1 ]5 ^; j. w# T4 K accurate position and velocity information, and " N8 d3 ], V3 `# ^# {precise time, on a continuous global basis, to an; ^2 M+ B# u; D7 R" Y! c1 i unlimited number of properly equipped users. The 9 @/ Z4 X4 U& E0 K1 K2 M: J% Q/ U' esystem is unaffected by weather, and provides a 9 m1 K/ @; H( U" e2 P: {* gworldwide common grid reference system. The GPS4 T3 t' ~# D. ]7 D t concept is predicated upon accurate and continuous% Z% T2 B. q$ {2 G& W& q knowledge of the spatial position of each satellite in. ?+ L- K/ m t. w- y8 I the system with respect to time and distance from a 1 C# _) P2 n4 w$ ptransmitting satellite to the user. The GPS receiver' L ^" ?" t/ B2 B! r5 Q# c/ S automatically selects appropriate signals from the 0 T) Y4 ]) ~0 f3 Qsatellites in view and translates these into three‐ 5 i5 y: y7 [( \- p, K% g7 fdimensional position, velocity, and time. System/ ~. s1 l1 H9 w" Z/ v/ q accuracy for civil users is normally 100 meters# e. g U' e O0 [% H# p horizontally. $ R% [/ @/ y I; y. h6 K* q: jGO AHEAD- Proceed with your message. Not to be, h; Y8 A9 u: G used for any other purpose. 7 O% d: a5 c$ iGO AROUND- Instructions for a pilot to abandon, ]* s$ E; P9 h his/her approach to landing. Additional instructions ! `* `& n4 `* a) F; N5 `may follow. Unless otherwise advised by ATC, a # t" Z* v7 a8 D, i9 C1 oVFR aircraft or an aircraft conducting visual. ~8 z, \3 w/ T: {9 P8 F approach should overfly the runway while climbing - _& g& X7 \$ m# w, A5 k3 M# Jto traffic pattern altitude and enter the traffic pattern 6 V- c: t" r7 g: R6 xvia the crosswind leg. A pilot on an IFR flight plan & Q: t; n/ Z& \: ~1 l) P6 U0 ZPilot/Controller Glossary 2/14/08 5 u4 I( b; B' J' q7 Q2 p9 s" u7 gPCG G-29 X$ s$ S5 ^8 `. n# m& a6 X' o0 R making an instrument approach should execute the . v6 w/ s- t/ B5 U' F4 `$ epublished missed approach procedure or proceed as. S6 G. \1 I( \0 a) ~ instructed by ATC; e.g., “Go around” (additional 9 y1 k ^5 S! o" ~) \/ X O5 Q. |instructions if required).# ]* p: o4 u% g C& g2 X (See LOW APPROACH.) 7 ~) P/ b. B. a s(See MISSED APPROACH.) , M8 P' o( P8 W" L QGPD(See GRAPHIC PLAN DISPLAY.) g1 t/ T6 Z9 R% p) j GPS(See GLOBAL POSITIONING SYSTEM.)2 s) p& l Y/ ^8 C7 t GRAPHIC PLAN DIS PLAY (GPD)- A view 9 g* d2 g7 a$ d. Y% o; W- Kavailable with URET that provides a graphic display , ~- q% G/ c y6 W4 h- R0 O% Dof aircraft, traffic, and notification of predicted/ J! G& }: T; X, M conflicts. Graphic routes for Current Plans and Trial 7 [0 ^& M5 n0 a* R+ u, w; o KPlans are displayed upon controller request. ( o0 K0 j5 H/ O, \7 h/ I- ^(See USER REQUEST EVALUATION TOOL.) 4 L( O# @: ]& mGROUND-BASED TRANSCEIVER (GBT)- The" q7 n5 ^+ V9 P& Q; o4 d ground-based transmitter/receiver (transceiver) re‐4 Z, L+ H, e6 V3 D. C! L8 y+ Z ceives automatic dependent surveillance-broadcast6 Y, F2 f! j7 s1 a8 V+ h Q" r4 A messages, which are forwarded to an air traffic ' w) y V5 K: Q2 H* u- f5 lcontrol facility for processing and display with other : _* a: [. s4 A6 Q6 Yradar targets on the plan position indicator (radar! v! f& j0 x$ J3 ? display).& M* Q: L; }& H) o' D (See AUTOMATIC DEPENDENT3 C. [8 _& g) G/ z0 s) K SURVEILLANCE‐BROADCAST.)8 R g3 n; C, ~; e2 N- f8 q GROUND CLUTTER- A pattern produced on the 1 L; |' B% H$ p) P2 Qradar scope by ground returns which may degrade, f. L2 N9 r% P other radar returns in the affected area. The effect of+ ^5 Q" S2 N% t& K P8 ^# `( y4 F ground clutter is minimized by the use of moving0 m z) O$ Y6 P$ D target indicator (MTI) circuits in the radar equipment % f& y, z- M' x! W8 u9 q4 ?( zresulting in a radar presentation which displays only" I, L) D4 K$ I) \1 y targets which are in motion." M$ G4 B6 \8 Q3 E% ]. `$ i (See CLUTTER.); m$ {3 B! P4 d, v6 F6 h4 J GROUND COMMUNICATION OUTLET (GCO)-) a# b7 U4 H- H) D An unstaffed, remotely controlled, ground/ground 3 K9 m. V. U' h/ Q9 y/ Mcommunications facility. Pilots at uncontrolled; h( H4 q* M3 w' R* p! C0 n airports may contact ATC and FSS via VHF to a 5 ?" C D$ b5 wtelephone connection to obtain an instrument3 |# M' F' X2 v6 g* r( N9 a clearance or close a VFR or IFR flight plan. They may # M# E+ U- G- E1 c" \2 y7 v7 \/ `also get an updated weather briefing prior to takeoff.$ N2 `; E3 ~* ]. p. s; g" ]( D Pilots will use four “key clicks” on the VHF radio to & O4 d+ b4 t2 Vcontact the appropriate ATC facility or six “key - X( @8 H4 w! \* R6 l& rclicks” to contact the FSS. The GCO system is9 E9 Q w* ?6 e* c6 Q: J$ m intended to be used only on the ground.! o& l( J1 v; L( O# d+ P! m1 K GROUND CONTROLLED APPROACH- A radar; E$ b) a) r' F& {6 `& d approach system operated from the ground by air Z0 ]: S* v+ N. m2 Z traffic control personnel transmitting instructions to6 o' E! A0 r, m' Q$ {5 V+ A5 O a the pilot by radio. The approach may be conducted9 S. c) _: H, c3 R& N4 V2 L with surveillance radar (ASR) only or with both 7 l1 j* M1 p7 ^5 i* F8 F. H- Wsurveillance and precision approach radar (PAR).! }$ r! V. y+ @& ? Usage of the term “GCA” by pilots is discouraged . T& G9 ~7 G" P( oexcept when referring to a GCA facility. Pilots should 7 J" r2 x5 [8 ~( u5 h# ~( Especifically request a “PAR” approach when a" T- f5 d5 `- q- U( x$ ? precision radar approach is desired or request an ! P/ O: Z" J, M: R+ R* q“ASR” or “surveillance” approach when a nonpreci‐4 C* |5 n6 V7 c/ O7 u4 P sion radar approach is desired. ( z2 l' p y/ B6 }# s/ ^+ g(See RADAR APPROACH.): _. ]4 J3 }+ b Y GROUND DELAY PROGRAM (GDP)- A traffic& U7 t. o1 H7 W; N6 v5 f# X( R management process administered by the ATCSCC; . D4 P% q4 }3 R$ E/ C1 s/ Jwhen aircraft are held on the ground. The purpose of. v6 T* f! q5 H; A the program is to support the TM mission and limit " M0 J6 J* C& f( e2 kairborne holding. It is a flexible program and may be . K% q1 p2 T/ X6 Y& ^' Qimplemented in various forms depending upon the : |: W$ g; P+ V# o& z" d( ineeds of the AT system. Ground delay programs ) Q$ u' Q9 K" K! Zprovide for equitable assignment of delays to all . j* H; k* V3 N5 h1 |3 a5 Wsystem users. ) S+ R4 W7 [4 p4 F) V SGROUND SPEED- The speed of an aircraft relative + q1 j' g/ \" X( q3 `to the surface of the earth. ( Y" D" z% l+ }. Z; |4 ?) [4 HGROUND STOP (GS)- The GS is a process that 9 ~5 d) ?2 t$ @4 @requires aircraft that meet a specific criteria to remain 9 I; o) \( A4 Z- j! t1 Eon the ground. The criteria may be airport specific,: `+ A' m* z: e2 N+ G3 \3 z n airspace specific, or equipment specific; for example,' Z2 o5 v8 p) ~9 c- U4 b1 v+ |" N all departures to San Francisco, or all departures 6 d3 R0 F, k" L0 oentering Yorktown sector, or all Category I and II , X: R g# ^: z& a, h- waircraft going to Charlotte. GSs normally occur with+ I" ^3 G" n' k' t' G) ^ little or no warning.: B' R/ M0 u% N! O; D" f GROUND VISIBILITY(See VISIBILITY.) 5 B8 T5 k" r' lGS(See GROUND STOP.) 3 c3 t9 A0 r! QPilot/Controller Glossary 2/14/08 * e, I" h: v u ?1 K- TPCG H-13 ?$ q1 J; h: S1 T2 ^" D+ X7 R H, T3 {0 E, a! y! R/ b4 g HAA(See HEIGHT ABOVE AIRPORT.)8 I4 s) X) e& f5 R0 H HAL(See HEIGHT ABOVE LANDING.)3 P( t$ ]' K4 E0 u: \5 e HANDOFF- An action taken to transfer the radar" T1 ~6 v- F) l: ^: c identification of an aircraft from one controller to; q8 ]0 W D+ q2 | another if the aircraft will enter the receiving * s9 d/ t1 i+ O9 A) u E) p) }controller's airspace and radio communications with/ ?% t \* x1 E- x( ~# G8 m the aircraft will be transferred.% A( x; b. Q1 J$ e) _ HAR(See HIGH ALTITUDE REDESIGN.)* S k+ t& Y) m* D5 E4 q0 ^7 J HAT(See HEIGHT ABOVE TOUCHDOWN.)- U! I- v V- |, x# ^* X0 V HAVE NUMBERS- Used by pilots to inform ATC* @& e: I7 B' I) `' \6 R5 | that they have received runway, wind, and altimeter ) h2 u. H R3 k8 n% ?information only. ) q! o8 X2 H! Y( i4 NHAZARDOUS INFLIGHT WEATHER ADVISO‐5 h% I! _& m# b5 s3 I, ?& y1 I4 f RY SERVICE- Continuous recorded hazardous ' {0 [! k) s* q( s8 ninflight weather forecasts broadcasted to airborne / t b& u L0 G7 mpilots over selected VOR outlets defined as an7 V% z4 y8 U& | V4 D/ } HIWAS BROADCAST AREA.6 u8 \2 {9 l. A, `. y HAZARDOUS WEATHER INFORMATION- 3 J! q- f" R" @. N! u# j* xSummary of significant meteorological information8 e3 A1 F" N% N8 L/ K (SIGMET/WS), convective significant meteorologi‐ # ]6 \- U7 ? c) Gcal information (convective SIGMET/WST), urgent0 \" c5 v8 s1 _; w2 p/ |/ } pilot weather reports (urgent PIREP/UUA), center0 [6 r" w( Z7 O6 [8 u- c5 ~ weather advisories (CWA), airmen's meteorological 3 L5 l) Z: u( I' {+ Iinformation (AIRMET/WA) and any other weather " j9 D# v( ? k9 k( k* x3 V" Bsuch as isolated thunderstorms that are rapidly * U3 X( `2 O: Q B; R. O+ I3 S: Zdeveloping and increasing in intensity, or low5 u, p0 K4 ] {% w- T: \" G9 f* O6 I ceilings and visibilities that are becoming wide‐ . z5 x% e1 h" I. n- p% X8 c: L6 Aspread which is considered significant and are not9 y7 b0 ?, @2 r! K5 l. o H5 |; F included in a current hazardous weather advisory. 9 v' o' H- z# P5 l* QHEAVY (AIRCRAFT)-4 |6 }+ Y/ L1 W: o (See AIRCRAFT CLASSES.)9 ?0 B) h( u4 Q3 T1 {2 } HEIGHT ABOVE AIRPORT- The height of the& a& D: A, ^) e; i. C7 b9 j7 u& \ Minimum Descent Altitude above the published * I! a# `4 k4 Z& y. [airport elevation. This is published in conjunction 8 Q+ P7 z b6 t' q/ w( Z! P) Cwith circling minimums. , V9 ]+ ]( r/ F: g8 _' y(See MINIMUM DESCENT ALTITUDE.)0 f2 [6 ~: i: O6 ^4 a HEIGHT ABOVE LANDING- The height above a & \9 R1 _" }9 Y% \+ Tdesignated helicopter landing area used for helicopter 9 z* @1 N1 G K4 q& Uinstrument approach procedures./ C; y/ ~; J0 K" e* d+ l (Refer to 14 CFR Part 97.)) U: W& @$ V3 y' [ i0 x% K HEIGHT ABOVE TOUCHDOWN- The height of 7 e. a# k+ U0 W) } W. w' k' l$ h" lthe Decision Height or Minimum Descent Altitude( G) c* |9 }. l* q9 P" E above the highest runway elevation in the touchdown! V3 w+ G$ w) a3 y! Q zone (first 3,000 feet of the runway). HAT is : a5 ?8 d! x; S4 u* `: A1 tpublished on instrument approach charts in conjunc‐ 2 o0 S9 y1 C8 g3 ?tion with all straight‐in minimums. 2 i- x- z. r5 ^7 P$ X4 A(See DECISION HEIGHT.)5 M! `1 F g! x! b g (See MINIMUM DESCENT ALTITUDE.); f& X% W! ~* p* N- |1 a HELICOPTER- Rotorcraft that, for its horizontal1 n$ n; j* M: Z$ Q7 U4 b% ? motion, depends principally on its engine‐driven8 O) T, h5 m/ _ rotors., C& Z- w" n, n! n* G# o3 L& o& A (See ICAO term HELICOPTER.)

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HELICOPTER [ICAO]- A heavier‐than‐air aircraft0 T9 s5 k, l$ X4 m4 d7 b' N6 M supported in flight chiefly by the reactions of the air* Q8 z, Y/ B3 ~% X/ \ on one or more power‐driven rotors on substantially1 }/ z+ T, F4 E7 S3 `+ r vertical axes. ' i* A6 L( h! ]. ]0 T }HELIPAD- A small, designated area, usually with a & X) I" F' J- H$ a* [$ |prepared surface, on a heliport, airport, landing/take‐: g9 G- O; I, J9 H9 m1 j% {, R0 {/ M off area, apron/ramp, or movement area used for0 l& _* b* L3 _. J. m* [, I. k8 T takeoff, landing, or parking of helicopters.: G, m# [; Q- \8 ` HELIPORT- An area of land, water, or structure used- B. C! g% Z3 |, t3 P8 t or intended to be used for the landing and takeoff of3 c1 q; l/ P. @* y helicopters and includes its buildings and facilities if . r: o/ w5 t9 a& U! _any.. m6 }" O! d% J, Y/ h8 Z! ^ HELIPORT REFERENCE POINT (HRP)- The ) h! U, T$ G4 h1 qgeographic center of a heliport.* z7 c' ~) x! Y2 i. @+ i% t4 r7 X$ N, L1 W HERTZ- The standard radio equivalent of frequency; t& z3 L! w' L( [ in cycles per second of an electromagnetic wave. 2 n U8 }+ h0 m& MKilohertz (kHz) is a frequency of one thousand cycles6 Y7 J- z# J2 S) j3 {2 @ per second. Megahertz (MHz) is a frequency of one / f# H6 [ {/ b7 {" ~million cycles per second.+ Z% U) F3 Y) i$ i Y HF(See HIGH FREQUENCY.); @, x+ ]6 O8 N# e4 y) A% f HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.)7 z# k# ?- {* o; L4 W HIGH ALTITUDE REDESIGN (HAR)- A level of % U! O3 @6 u+ A. ^* U" a6 X' Anon-restrictive routing (NRR) service for aircraft# Z. x: e+ |0 H O- s& Z6 h that have all waypoints associated with the HAR % ?3 ?6 |. j# I% ^! ^! Xprogram in their flight management systems or, ^) h8 J) T2 C9 L5 K* f RNAV equipage./ d4 c# n! h1 M" c6 j Pilot/Controller Glossary 2/14/08 3 ]* a7 v$ }3 Q1 @4 {, w0 JPCG H-2 k6 V* y# I5 h s* }, B0 PHIGH FREQUENCY- The frequency band between$ W3 \- {! C3 O! a 3 and 30 MHz. , y/ L0 Y L! L0 s+ G(See HIGH FREQUENCY COMMUNICATIONS.) / I7 I1 T. u# C( NHIGH FREQUENCY COMMUNICATIONS- High, }. _2 g3 ^1 [6 H1 l- W4 X/ Q radio frequencies (HF) between 3 and 30 MHz used$ y) [1 r/ Q& A, {2 `/ ^+ _ for air‐to‐ground voice communication in overseas$ M5 T/ A: l0 Q* ~9 }. O8 e, r6 J operations./ R" \$ r8 X! ~5 g2 h5 o2 V- D: G HIGH SPEED EXIT(See HIGH SPEED TAXIWAY.)1 |3 k2 K- x- ^; i- }& Q HIGH SPEED TAXIWAY- A long radius taxiway* C: p2 q6 j; ^( H% a D3 W" b designed and provided with lighting or marking to0 t, m' |$ T; M! s" N define the path of aircraft, traveling at high speed (up 1 n7 k7 D( _' y/ ^, hto 60 knots), from the runway center to a point on the% e; |! l' Q2 e3 v. u- G g center of a taxiway. Also referred to as long radius ! k) p3 y/ G: T7 {+ T% g2 Hexit or turn‐off taxiway. The high speed taxiway is ) X1 p% _* ?& Adesigned to expedite aircraft turning off the runway ' k3 _1 `: p+ |3 \after landing, thus reducing runway occupancy time. 0 I6 Y- i' K- l; a. jHIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.) 8 H/ h, f0 T9 q7 E2 V5 PHIWAS(See HAZARDOUS INFLIGHT WEATHER% s# y* U2 I' Y0 x4 S ADVISORY SERVICE.)' a: y! g9 \# I3 F HIWAS AREA(See HAZARDOUS INFLIGHT WEATHER0 a0 d% u5 r! c! q0 l6 J ADVISORY SERVICE.)) t9 R% ~+ \9 L% _# G HIWAS BROADCAST AREA- A geographical area : U0 @& J" S9 u: F; M7 t9 sof responsibility including one or more HIWAS% ?& @1 {, L- F" z1 a! ?, ?* c1 L outlet areas assigned to an AFSS/FSS for hazardous 2 r: h' p# X$ p$ g: `7 V2 S) yweather advisory broadcasting.: s3 B W8 k8 d" N HIWAS OUTLET AREA- An area defined as a 1509 ^7 L! d! _% w, p NM radius of a HIWAS outlet, expanded as necessary * A% ~0 S: C- i3 F1 z7 [/ ^; @0 o5 Dto provide coverage. b# d/ c7 W1 G# W) u& z7 H8 R2 `2 J HOLD FOR RELEASE- Used by ATC to delay an& s! \& T# L1 C# y3 ^ aircraft for traffic management reasons; i.e., weather, 3 x2 N7 g. ?) n4 F% J2 Ttraffic volume, etc. Hold for release instructions# t3 r/ c* h' G (including departure delay information) are used to ) ?2 _, {4 ~' T+ zinform a pilot or a controller (either directly or8 c( ?9 w. {* u: W. L8 l# e) Q through an authorized relay) that an IFR departure& b0 R! O P+ R clearance is not valid until a release time or additional9 {. Q2 }8 T) l instructions have been received.5 L' R6 r, }, O" S1 G+ T- M (See ICAO term HOLDING POINT.) B; `1 E Z- ]* t: D% sHOLD IN LIEU OF PROCEDURE TURN- A hold$ h8 B# z$ }! G8 q0 C- \ in lieu of procedure turn shall be established over a ! f* @& h" G2 P; X8 tfinal or intermediate fix when an approach can be1 m0 Q0 |2 F! O$ U0 p made from a properly aligned holding pattern. The i# u; q# b" Z- c, s8 \ hold in lieu of procedure turn permits the pilot to) A: t% H+ S; X) d' s0 S align with the final or intermediate segment of the% T, q# I0 X7 b8 r& I9 ^7 p approach and/or descend in the holding pattern to an 0 L# {7 c) O8 j; F8 g. l' Baltitude that will permit a normal descent to the final; K5 ^4 t, G% t, k approach fix altitude. The hold in lieu of procedure 2 @/ g' Z* V8 gturn is a required maneuver (the same as a procedure3 O3 r. z7 t& Q5 i; D9 p9 F( T turn) unless the aircraft is being radar vectored to the, ~: W) o* E" w1 \& p; j$ u$ @8 x final approach course, when “NoPT” is shown on the ( l( i% @6 |, Qapproach chart, or when the pilot requests or the 3 x8 }9 r3 d1 I# V: S W5 E3 @' Bcontroller advises the pilot to make a “straight-in”& {/ t9 Q# O; m0 i2 e% R6 Y' h0 l e approach. 5 s k Q+ y5 ~& F) [4 ^- g) |. w/ ]HOLD PROCEDURE- A predetermined maneuver. Q# p2 D( j4 g( e8 p A which keeps aircraft within a specified airspace while$ [; K+ X* i% l awaiting further clearance from air traffic control. , t7 v: ~, b, ^! b4 hAlso used during ground operations to keep aircraft/ j- n/ Q, H, C5 e! w: T within a specified area or at a specified point while ; K2 \0 I. A; ^4 Z* S& xawaiting further clearance from air traffic control.: I2 e3 T% k* }6 ~* x5 l (See HOLDING FIX.)2 ~7 a) o, u. f* Q Y/ m$ ~ (Refer to AIM.) " x; s! r, u7 U. { ~- {HOLDING FIX- A specified fix identifiable to a/ w6 P% q" P) d/ O9 c7 L pilot by NAVAIDs or visual reference to the ground! x$ W/ h2 P$ |8 y, h9 w used as a reference point in establishing and . R: t. f) a6 `maintaining the position of an aircraft while holding.% z& V# B8 @* J" i' ] (See FIX.) 0 A, L3 f p& e0 S; u3 t+ e% x(See VISUAL HOLDING.)( [; b8 o- q$ m (Refer to AIM.) k! v+ r1 a. Y& Y HOLDING POINT [ICAO]- A specified location, 8 t# v7 n5 J- ~" w" Sidentified by visual or other means, in the vicinity of/ D) z. [* c% }5 u8 K# y' z, ^ which the position of an aircraft in flight is( q# C* A2 d$ Y; f& y maintained in accordance with air traffic control 3 w) `: J9 }$ E1 B( l5 q oclearances. 8 T& U: J' `) d0 q7 G1 RHOLDING PROCEDURE(See HOLD PROCEDURE.) 0 r4 J( _2 z1 M B9 s& MHOLD‐SHORT POINT- A point on the runway 4 ]2 }& W# }: U9 o- g, I8 J" Hbeyond which a landing aircraft with a LAHSO" l3 O: R; e0 b+ W' y7 v1 V clearance is not authorized to proceed. This point + X; @! k' W7 w7 A% cmay be located prior to an intersecting runway,+ W" }) L- b8 S taxiway, predetermined point, or approach/departure 7 v' s* @: A6 w$ J$ R5 v! Fflight path.; b* }+ s* S5 W HOLD‐SHORT POSITION LIGHTS- Flashing : b' N1 |6 J- qin‐pavement white lights located at specified , j3 e3 I' R# N; c/ ?! V2 Z% chold‐short points. 0 [/ [1 b; I' b9 _4 u) ?HOLD‐SHORT POSITION MARKING- The . l5 X. ~4 [. {- C1 a' h: ^painted runway marking located at the hold‐short# j9 u* R( z& l* k% E3 ?" B6 ? point on all LAHSO runways. ; J5 `4 z4 i2 w* k/ w9 G, ~; UHOLD‐SHORT POSITION SIGNS- Red and white$ H- A1 H2 |: h0 q0 [0 ], f/ E holding position signs located alongside the) s& q5 @6 c/ p7 T1 J hold‐short point.' c: e& d3 ?. @6 f2 Z Pilot/Controller Glossary 2/14/08$ X9 }7 `2 Y/ h6 s* R1 G+ e8 @9 R: f PCG H-3 ' F* `8 Y# y) N) V% k N( @HOMING- Flight toward a NAVAID, without * _& u- K1 r8 N3 Fcorrecting for wind, by adjusting the aircraft heading, u8 x t' I4 i7 n: \. U3 B to maintain a relative bearing of zero degrees. 7 i9 D! ^% t, W' v(See BEARING.)9 d. m r* l) K; c* h$ {# K (See ICAO term HOMING.) 1 M% M6 ~( U, \& r) c. l# vHOMING [ICAO]- The procedure of using the0 w% I/ D0 a; o1 y; c7 M6 o direction‐finding equipment of one radio station with + {* h& t9 L- O* C. S0 T+ q0 @the emission of another radio station, where at least0 D+ h5 a( q. C( \2 G0 e: q one of the stations is mobile, and whereby the mobile 0 E% L4 S& m/ A$ R9 Istation proceeds continuously towards the other4 v$ y0 H# p: u9 F! ~# F7 z7 o$ D station. T* i7 J6 Q. p j4 pHOVER CHECK- Used to describe when a + ~3 h8 e6 K) S2 j% \$ H3 B- Ghelicopter/VTOL aircraft requires a stabilized hover! S0 \" V* p) z to conduct a performance/power check prior to hover3 f2 v$ i7 j d% M" O! B( Q/ y taxi, air taxi, or takeoff. Altitude of the hover will 2 ?( ~& R$ N: e! h3 }' l1 ]2 Jvary based on the purpose of the check. 8 W$ P& }& i5 hHOVER TAXI- Used to describe a helicopter/VTOL ' E4 c: |! M' D% T; q: waircraft movement conducted above the surface and ) ~0 o' Y# v* n- r+ d. D) q+ w' oin ground effect at airspeeds less than approximately ) B7 [1 X. P! |0 A20 knots. The actual height may vary, and some 8 p! ^. T7 S j3 ~: V7 @- s" \helicopters may require hover taxi above 25 feet AGL O p6 u+ w; [5 z/ A to reduce ground effect turbulence or provide: `" X& J4 @# t: D clearance for cargo slingloads. ' T: x: F3 a7 q2 S(See AIR TAXI.)& z3 O& I/ z% @7 [/ o: d0 U (See HOVER CHECK.)5 k: j" P$ I, |$ S+ B) ? (Refer to AIM.) / ?! Y3 K+ o* L. y: H9 iHOW DO YOU HEAR ME?- A question relating to- W; i3 v5 ]% C, Y/ b7 x the quality of the transmission or to determine how, e8 @$ ^9 B7 @- V$ _ well the transmission is being received. & y( f% |' U/ a: O L9 }$ rHZ(See HERTZ.) ) r, Z6 K3 x6 r, _1 d& YPilot/Controller Glossary 2/14/087 H g1 F, ~/ ?% X+ C PCG I-1 ' m5 A0 F( p/ v+ nI 4 U: W9 }; c' z; F0 \7 GI SAY AGAIN- The message will be repeated. . S( h- {9 e9 j6 t7 x* O, E y( O& hIAF(See INITIAL APPROACH FIX.) 3 h( C% g( H- E2 s! N6 ]IAP(See INSTRUMENT APPROACH 4 i$ P0 o9 B0 ^7 \2 |4 \5 OPROCEDURE.)9 c, s5 w2 H. c3 E. T% K4 W. w IAWP- Initial Approach Waypoint% _* P7 Y$ H5 M% P2 g7 A ICAO(See ICAO Term INTERNATIONAL CIVIL 6 | M1 E# k* n4 w! o! R+ hAVIATION ORGANIZATION.): b- c8 O# A1 ^( J; h7 W ICING- The accumulation of airframe ice.1 Q8 w! e& e) g, t Types of icing are: - v. d8 s/ ~6 ~! o/ ]a. Rime Ice- Rough, milky, opaque ice formed by 4 i2 q, ~1 f7 f8 A0 W( gthe instantaneous freezing of small supercooled8 c# b: }* ]9 K z# v+ f/ w: Q water droplets. ) B" ]; e2 V/ w+ ~) h% Ub. Clear Ice- A glossy, clear, or translucent ice E+ |& a. D; B+ N0 x5 O formed by the relatively slow freezing or large ; M: e3 y0 H# k4 xsupercooled water droplets.. R9 S7 e+ _* @+ _, p* j c. Mixed- A mixture of clear ice and rime ice. ( Z) L; b. H7 a0 hIntensity of icing: 4 l2 W0 G0 i* t. e/ @0 o" Ta. Trace- Ice becomes perceptible. Rate of6 Y# S/ o% L+ Z, L) H2 [6 f accumulation is slightly greater than the rate of * n1 W8 ~, \* [. j+ J5 gsublimation. Deicing/anti‐icing equipment is not " q% z+ v; U d4 z+ f6 {* Mutilized unless encountered for an extended period of7 C9 e8 I' }. r( y2 G6 Z) b% C time (over 1 hour).3 A5 p9 {8 v1 V3 R9 P% f b. Light- The rate of accumulation may create a ; a3 s/ Y/ }) Jproblem if flight is prolonged in this environment 7 K) v+ `7 |2 y! I& \7 [(over 1 hour). Occasional use of deicing/anti‐icing # u( \% m& z, n4 h, j+ V. O, pequipment removes/prevents accumulation. It does / j$ {* d3 w9 y! Anot present a problem if the deicing/anti‐icing- K8 o% X' V2 j& N& H equipment is used.7 U6 ^$ {6 q M0 e( [& [4 c c. Moderate- The rate of accumulation is such that5 `3 Q9 i5 E9 d4 J even short encounters become potentially hazardous + S4 ] p; V; L/ G/ K- Pand use of deicing/anti‐icing equipment or flight/ }' s6 W" u# e diversion is necessary. # C- ]) ~3 I* i. X( p8 J) x0 s7 Pd. Severe- The rate of accumulation is such that $ O& [0 `5 }8 G! Xdeicing/anti‐icing equipment fails to reduce or - D' P! p' y& r! tcontrol the hazard. Immediate flight diversion is- k& W: J* v: u- F necessary.2 j/ d. y a. p. ^* u IDENT- A request for a pilot to activate the aircraft. u" l5 q R5 N7 g, p transponder identification feature. This will help the 7 [# U' J1 p8 M" tcontroller to confirm an aircraft identity or to identify / u; |+ b' ?. d9 [; nan aircraft.5 K; c- M, {5 E (Refer to AIM.) . ~: _2 H; p8 s) r0 N$ y% ?IDENT FEATURE- The special feature in the Air 3 o9 U5 W2 [% C; R2 WTraffic Control Radar Beacon System (ATCRBS) ( x0 }% q. v! K/ V" c& Q. t' Q! Nequipment. It is used to immediately distinguish one 3 f7 m# s8 c* t0 Y( E0 T; x& C- B V' fdisplayed beacon target from other beacon targets.& u @. L& a6 w( i, t, K; ^' | (See IDENT.)" Q) n; p& {; c, }: c, f IF(See INTERMEDIATE FIX.)7 g% c6 [/ a8 F IFIM(See INTERNATIONAL FLIGHT INFORMATION 5 c# H" u& r5 @& q dMANUAL.)6 B# [5 G- U4 ^! N IF NO TRANSMISSION RECEIVED FOR7 n, |6 a* N! |' c. I/ B (TIME)- Used by ATC in radar approaches to prefix8 v; ]( ]$ _6 m; U" E* l, R8 I procedures which should be followed by the pilot in & j+ s5 r" V3 K' R& sevent of lost communications.' p- O1 e/ h1 N; Y (See LOST COMMUNICATIONS.) ) d* V/ Z9 v& r. Q9 {IFR(See INSTRUMENT FLIGHT RULES.) $ @$ m+ J/ L6 d( R4 P J1 jIFR AIRCRAFT- An aircraft conducting flight in# B6 v. |5 e$ Y; m accordance with instrument flight rules., y3 e- c! m: W4 Z IFR CONDITIONS- Weather conditions below the ) m6 h( o( j% n5 d, Mminimum for flight under visual flight rules. ) [* C7 F) J1 O* v(See INSTRUMENT METEOROLOGICAL ) {! s+ B9 _2 T8 T: @. u) Q9 dCONDITIONS.)- v7 [0 C# g5 g! c5 s5 H8 G# s IFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND 6 _- ~$ P# T* w9 _8 k' {DEPARTURE PROCEDURES.) , F2 u# `4 S0 u& C$ l(Refer to AIM.) 6 O5 C6 f3 o9 f1 ?IFR FLIGHT(See IFR AIRCRAFT.)* V( ^4 }) E: Z* V IFR LANDING MINIMUMS(See LANDING MINIMUMS.)+ _% b* M7 i, b! a& k IFR MILITARY TRAINING ROUTES (IR)- Routes: P5 X* }4 |1 K" A8 c& {" C% J used by the Department of Defense and associated* j, J1 u) ?2 o3 `0 f0 Q Reserve and Air Guard units for the purpose of & Z0 O( g9 Q2 d% B0 n- { _1 E" `conducting low‐altitude navigation and tactical ( q2 z6 P4 E$ U) p: p' ktraining in both IFR and VFR weather conditions % R" d' ~) r; t9 vbelow 10,000 feet MSL at airspeeds in excess of 250 ' L5 M: p8 @0 ?6 ` \) R, Xknots IAS.- s0 t+ y& a4 N, V% v$ L IFR TAKEOFF MINIMUMS AND DEPARTURE . Y; ~3 h2 }0 _. B7 WPROCEDURES- Title 14 Code of Federal N* ]; I% j2 z- I1 ]7 RPilot/Controller Glossary 2/14/08 K/ ~/ B: O8 i4 {2 a+ X PCG I-2

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Regulations Part 91, prescribes standard takeoff rules " i: X0 ? S( m/ H- p0 a H. Z" {7 l- ofor certain civil users. At some airports, obstructions + {0 q& p. i1 c' R/ ior other factors require the establishm ent of) e. O2 B+ e- W9 d0 x( }- ~+ ? nonstandard takeoff minimums, departure proce‐ + \9 [7 E" u3 [7 Y& [5 c$ Ldures, or both to assist pilots in avoiding obstacles + g4 D. e9 s$ I2 x% h0 X& Yduring climb to the minimum en route altitude. Those 7 V& D2 d6 ]* u& }6 M9 Tairports are listed in FAA/DOD Instrument Approach $ h* w# z6 ]) JProcedures (IAPs) Charts under a section entitled / m( |8 ~2 I. m: M: {“IFR Takeoff Minimums and Departure Procedures.” : W- Z! E9 a# k! X( Z2 S g4 MThe FAA/DOD IAP chart legend illustrates the5 f Z+ f6 h4 N symbol used to alert the pilot to nonstandard takeoff6 a' w' P y1 w( N/ O minimums and departure procedures. When depart‐ ) ]) Z! p0 K5 t9 Ying IFR from such airports or from any airports where # x0 V% ]/ z/ x: G3 a. c3 Jthere are no departure procedures, DPs, or ATC% l. l+ `( |* \. M facilities available, pilots should advise ATC of any ) |' M& T3 L: g& m1 P0 Ddeparture limitations. Controllers may query a pilot 1 H2 O9 g2 T. ~7 U2 jto determine acceptable departure directions, turns,! K7 n K8 F2 J& L9 s1 d or headings after takeoff. Pilots should be familiar # ]: B& m3 z7 jwith the departure procedures and must assure that ' \5 f* V1 W- dtheir aircraft can meet or exceed any specified climb$ `/ B8 N3 R+ K2 K& G% t5 B% r gradients. 8 |( t1 o$ V& sIF/IAWP- Intermediate Fix/Initial Approach Way‐ , {* I- h q; k2 T6 T: wpoint. The waypoint where the final approach course 2 @7 c7 l5 x2 P7 Pof a T approach meets the crossbar of the T. When, F8 y! O# Z7 S/ `% j: @ designated (in conjunction with a TAA) this+ m5 I/ A; h* W. f3 v$ M* k3 k waypoint will be used as an IAWP when approaching% x. b2 K. w- E$ E: ^3 y( R3 s9 @+ u5 p the airport from certain directions, and as an IFWP: }! k' V1 y- W9 V when beginning the approach from another IAWP. " ~; v5 I A; lIFWP- Intermediate Fix Waypoint + Z3 n3 j3 D. lILS(See INSTRUMENT LANDING SYSTEM.)7 E! o& a0 Y% t% c9 A ILS CATEGORIES- 1. ILS Category I. An ILS 0 P3 P4 ^! o* Y. u7 j9 Zapproach procedure which provides for approach to + m4 c8 x3 R- E/ Q2 k5 {a height above touchdown of not less than 200 feet O" ^1 l3 Z# N/ a- `# d( f3 C3 e and with runway visual range of not less than 1,800* q6 z& y0 t+ a5 u1 J! d1 Z feet.- 2. ILS Category II. An ILS approach procedure! V/ U9 H2 Q% T# P which provides for approach to a height above ) u( f! K5 `/ Ltouchdown of not less than 100 feet and with runway L1 X, B p) avisual range of not less than 1,200 feet.- 3. ILS v. Z; l( x) B# U Category III: & s0 D7 }7 w6 fa. IIIA.-An ILS approach procedure which 6 Y- ]! L% [" [* aprovides for approach without a decision height4 R: n( v! J0 s* Q% q) A7 x minimum and with runway visual range of not less8 }" B8 i! S3 l( e; P/ v than 700 feet.. ]1 @* o: F4 a* V. ~ b. IIIB.-An ILS approach procedure which" M: S1 }8 g/ p! L: L g" t+ _- i provides for approach without a decision height $ _, f* N% s) Mminimum and with runway visual range of not less + }6 e- c! b5 i1 l$ X% Nthan 150 feet. ( o! P5 K- }% ~1 a! ic. IIIC.-An ILS approach procedure which0 b8 k. ~6 I3 Z0 {6 U9 f+ w7 q- J provides for approach without a decision height- o3 _$ ]% g8 {" K. c. M. j minimum and without runway visual range & E+ a: n8 `: Uminimum.) q- M% |% p( h" g) n0 y$ O% j3 o& Q ILS PRM APPROACH- An instrument landing % ^3 Z3 l9 q. i; a! Bsystem (ILS) approach conducted to parallel runways( n* B. f& X5 m8 S: e; ?/ s whose extended centerlines are separated by less than 1 }! e5 q8 M! k* c% y( I. @4,300 feet and the parallel runways have a Precision - ~0 P: d" I9 }" m7 |8 w5 v" KRunway Monitoring (PRM) system that permits" ]9 u/ w; _+ z n' F simultaneous independent ILS approaches. Y: ?5 r* F8 P/ \& V% a IM(See INNER MARKER.)1 N# W9 Q1 r9 z/ P' W3 x3 L/ j' i. ` IMC(See INSTRUMENT METEOROLOGICAL 7 x+ b6 M: S% b' X: b8 m' {4 W& GCONDITIONS.) 9 o! q! s: _ [: J; zIMMEDIATELY- Used by ATC or pilots when such6 o: f$ x0 {% }3 A1 P, r action compliance is required to avoid an imminent- h6 c! u2 Z' ^ situation." V; }/ H- h, w INCERFA (Uncertainty Phase) [ICAO]- A situation6 y0 Z+ |* u# ?6 _5 f8 [ wherein uncertainty exists as to the safety of an- t, n, P* k# Z# A" E ^ ^( V8 o aircraft and its occupants.! V& {$ G0 @/ e) P; G INCREASE SPEED TO (SPEED)-. h2 \( f; {( H (See SPEED ADJUSTMENT.)3 j v2 ^5 ~( } INERTIAL NAVIGATION SYSTEM- An RNAV7 _ C8 J( Z, F6 ^4 o8 u1 b system which is a form of self‐contained navigation. " p) L1 p6 [6 H3 T4 N/ T(See Area Navigation/RNAV.) ! ~( k4 k# l' g, j) ?* iINFLIGHT REFUELING(See AERIAL REFUELING.)8 `- D9 Z0 d1 m% K% q9 _; F INFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.) - U E' ?+ Q. ^# N) Q% SINFORMATION REQUEST- A request originated 6 U* B; M" U. x' Mby an FSS for information concerning an overdue - C( p0 u& Z3 q- @$ tVFR aircraft. {2 p: G- e/ [; X INITIAL APPROACH FIX- The fixes depicted on2 f, { p1 V w/ D4 Q0 A" t instrument approach procedure charts that identify , L' y8 t! ~5 [* o; |; Lthe beginning of the initial approach segment(s). 5 U$ n4 p( Y$ p0 W$ z(See FIX.) ! A* b: D0 ]. i9 W& q3 n1 ~(See SEGMENTS OF AN INSTRUMENT4 O3 X& V. u+ z2 u APPROACH PROCEDURE.) + t6 n# |, f7 @- O% D- YINITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT + N9 x$ p) G# d" {4 _7 _" ZAPPROACH PROCEDURE.)7 U) O9 p3 T; u' e H INITIAL APPROACH SEGMENT [ICAO]- That ' X( [1 E* g4 ^+ a; x, esegment of an instrument approach procedure' f5 _5 u& \, o3 n between the initial approach fix and the intermediate1 b/ J! ^6 m0 C5 F' {/ P5 o approach fix or, where applicable, the final approach0 \9 [7 @- ?" s/ U& Q fix or point.- u$ J3 c* L5 F9 a- n4 J Pilot/Controller Glossary 2/14/08 ( p: L% U6 w' ^: yPCG I-3 ' q2 ]0 l8 d. l' V! XINLAND NAVIGATION FACILITY- A navigation 5 s1 n0 ^1 N1 gaid on a North American Route at which the common' t( n B5 O. n. F; Y! q3 B: @ route and/or the noncommon route begins or ends.0 Z7 d- ^, t6 {! ] INNER MARKER- A marker beacon used with an 5 s' c. o% n D6 X0 bILS (CAT II) precision approach located between the8 V7 j9 U; U8 @7 W3 U# y middle marker and the end of the ILS runway, 5 c8 f; I4 ~! p6 G9 \0 r+ t% ]transmitting a radiation pattern keyed at six dots per 9 m" f& c% n8 S% f, U4 D0 L; Ssecond and indicating to the pilot, both aurally and 3 a# s) f0 l/ J( avisually, that he/she is at the designated decision % H* W( ~. x# ]4 Y: Sheight (DH), normally 100 feet above the touchdown 0 @2 t9 h1 M; U) ozone elevation, on the ILS CAT II approach. It also7 S9 q' U3 U2 D# m& h marks progress during a CAT III approach.* V3 i1 `) w. E& ?! K: x (See INSTRUMENT LANDING SYSTEM.) * } o: D' f" A- y, D* q; z(Refer to AIM.)+ O: r7 J" D4 Y3 Q) E6 W5 V$ |- F INNER MARKER BEACON(See INNER MARKER.)* u8 h, v- N' C; p. L2 Y! e INREQ(See INFORMATION REQUEST.) . z4 g1 w# y. u/ {INS(See INERTIAL NAVIGATION SYSTEM.)# \4 s" X! E! y INSTRUMENT APPROACH(See INSTRUMENT APPROACH $ _( [+ d! U& {) V* wPROCEDURE.) , E5 i. ^( w6 }) `# I( ^( kINSTRUMENT APPROACH PROCEDURE- A1 d* H9 Y: B Z% u, S6 M series of predetermined maneuvers for the orderly) N# I# m/ B' f3 q8 V transfer of an aircraft under instrument flight$ S: j3 X! f0 ]0 A& h5 e1 y* f conditions from the beginning of the initial approach$ _8 s, v1 Z4 P6 t4 l" P to a landing or to a point from which a landing may ; J8 j' x6 l6 p0 J! d( ~0 @be made visually. It is prescribed and approved for a 2 h$ d" H' C& Vspecific airport by competent authority. $ h1 O& a- T, @9 B$ [1 c/ I(See SEGMENTS OF AN INSTRUMENT( g+ U, A/ l+ k) `4 h+ u APPROACH PROCEDURE.) 9 \3 o% V) V6 Y! `& ^(Refer to 14 CFR Part 91.), P, M' f" G! z, t% ?% H (Refer to AIM.) * G/ A& k3 X: z; Y* g7 x7 ua. U.S. civil standard instrument approach; x& c Q# f7 @7 _) |1 X procedures are approved by the FAA as prescribed- a6 J7 Q% Q6 _1 X+ m under 14 CFR Part 97 and are available for public6 O, s" ]% v# p1 _- H7 ~& V use. R# h2 o/ G8 ^/ c6 lb. U.S. military standard instrument approach 8 R' K9 c8 w! `' K; {1 p. T6 h* Cprocedures are approved and published by the q) N6 d1 ~2 qDepartment of Defense. 8 N& R. r8 p1 L8 [c. Special instrument approach procedures are6 B& J# M0 \3 Y$ \: j0 ~$ N approved by the FAA for individual operators but are O3 t3 u! W% y4 y/ }5 O& w not published in 14 CFR Part 97 for public use. ) G/ V7 q1 \! K(See ICAO term INSTRUMENT APPROACH! K& f: P& M! X& N' ~, O9 M% u8 @2 \ PROCEDURE.) ' s9 T# E. |: D; k* m6 qINSTRUMENT APPROACH PROCEDURE d. L) d+ b. N0 M5 z* y) y [ICAO]- A series of predetermined maneuvers by 6 u* \/ ^4 J) m7 l* [8 M4 preference to flight instruments with specified1 _! I/ u5 C" o/ g protection from obstacles from the initial approach ( K8 ?& q4 U" m9 N' Mfix, or where applicable, from the beginning of a3 R; W7 s' u: D d/ ?5 { defined arrival route to a point from which a landing! T4 d0 o, }! V) w( Y can be completed and thereafter, if a landing is not 9 X+ j, E8 b* Y! R1 zcompleted, to a position at which holding or en route" R9 N7 T" n! ~1 A2 d+ O obstacle clearance criteria apply.: y' ]* i# d p/ C* y/ x E( A INSTRUMENT APPROACH PROCEDURES # j$ ~$ [ e" r/ [: u, G( ]CHARTS(See AERONAUTICAL CHART.)9 D$ { u. O/ D C4 {- b; o# H! t INSTRUMENT DEPARTURE PROCEDURE+ G' U6 w0 @+ e) E3 E9 A (DP)- A preplanned instrument flight rule (IFR) + \0 J" U! s7 L! @$ ~1 ^# Y0 P' mdeparture procedure published for pilot use, in & `+ r$ d) R2 ~1 _: u3 q& ?graphic or textual format, that provides obstruction ( Y7 b- ^" s: {" r wclearance from the terminal area to the appropriate en0 s7 Q, c. p# G+ q" f K) T. i route structure. There are two types of DP, Obstacle- i) S. M3 B, c. }+ B Departure Procedure (ODP), printed either textually 3 [4 P$ [$ T5 r; d; u: b3 Q: Eor graphically, and, Standard Instrument Departure 1 {7 M1 ~; Y, J7 h' P$ |(SID), which is always printed graphically. $ q, b# j. ]4 t$ I(See IFR TAKEOFF MINIMUMS AND; }3 Z# g* n4 j+ A# L. o% \' z DEPARTURE PROCEDURES.)5 K# p# T9 X& T+ q* W (See OBSTACLE DEPARTURE PROCEDURES.) L' c! J) W3 \' ~5 q4 ]4 c, M(See STANDARD INSTRUMENT DEPARTURES.) 0 ~. g6 X, {8 T# |( X(Refer to AIM.) 8 x; S; _: M* w3 ] FINSTRUMENT DEPARTURE PROCEDURE (DP) - _. H9 w5 w! uCHARTS(See AERONAUTICAL CHART.)% z2 H* z8 ^) O) R8 z E INSTRUMENT FLIGHT RULES- Rules governing3 s$ @9 ?8 O* K- @. k- C. F1 q the procedures for conducting instrument flight. Also ! U/ C( C- `# v) D! a7 Oa term used by pilots and controllers to indicate type 7 F* F2 `% b! G- h1 D' F( b* Pof flight plan.( a$ Q( \5 g8 Y# A& w7 g (See INSTRUMENT METEOROLOGICAL 4 n, S9 \; p3 N- [CONDITIONS.) ) z1 [ _1 I% h( i(See VISUAL FLIGHT RULES.) , d0 `! U6 |9 {' y(See VISUAL METEOROLOGICAL1 L. \! {' a! b! z! I X CONDITIONS.) * i" B; _- e/ n1 j# j9 b. t(See ICAO term INSTRUMENT FLIGHT $ ?7 O/ T7 u. f* q( c: D+ {* ZRULES.) 1 k7 Q$ Y" g x% @3 C(Refer to AIM.) " u0 s. L. j2 W1 N5 ?6 a3 A p A4 JINSTRUMENT FLIGHT RULES [ICAO]- A set of6 B* A" R+ H& S& B: }, ~, T! @ rules governing the conduct of flight under, u& t) u) o8 |/ `; S& l instrument meteorological conditions. % u# g) l4 t# g5 yINSTRUMENT LANDING SYSTEM- A precision v! T; G) z8 v2 Q instrument approach system which normally consists ( u! P$ I+ L/ U" X! g6 v: Wof the following electronic components and visual( }$ f0 o7 A; p aids:" E( m+ M1 P/ s8 ~ Pilot/Controller Glossary 2/14/08 5 `. { O8 G# I% Y4 m/ uPCG I-4' k$ P8 _- ]8 L& c a. Localizer. , l9 O3 j! \ f(See LOCALIZER.) * u( l: b, P2 ab. Glideslope. 5 {% H, a8 G! r$ }1 m(See GLIDESLOPE.) 3 D: r2 v8 j' s* V M/ Fc. Outer Marker. : X4 R: }% @$ g(See OUTER MARKER.), W: Q" ?3 b, x* S7 ~) i8 i d. Middle Marker.' P' T- b7 S- r+ k7 k! Y (See MIDDLE MARKER.)5 v( t8 t! Q5 Q8 i( g. A" H e. Approach Lights. ' t( t* P% X' V# ?(See AIRPORT LIGHTING.) 4 t& ~8 X2 f/ |(Refer to 14 CFR Part 91.)) ?8 c, H" o1 M1 Z (Refer to AIM.) $ _* f" ~5 `$ M2 k# s* Y: ~) ]INSTRUMENT METEOROLOGICAL CONDI‐ 0 w5 E. F! Q( t$ D rTIONS- Meteorological conditions expressed in " h- `1 D6 U. I4 a+ Kterms of visibility, distance from cloud, and ceiling4 t! r. S! j% T2 {5 n+ {3 P6 I& E+ \1 K less than the minima specified for visual meteorolog‐8 t9 |2 K S8 @4 l( W J ical conditions.' i3 F7 H0 W1 u! N" J (See INSTRUMENT FLIGHT RULES.)2 k9 P' g$ A2 M (See VISUAL FLIGHT RULES.)/ U5 Z, [$ L7 ^" \" S (See VISUAL METEOROLOGICAL 6 l, d$ J" W1 @6 p: ECONDITIONS.) ! Q8 W8 ?3 [1 N3 b: _, T, k% M; \INSTRUMENT RUNWAY- A runway equipped 8 h$ c, t9 T ?, O2 b! Gwith electronic and visual navigation aids for which. o+ e( R1 C2 I* X a precision or nonprecision approach procedure9 ]" V( E4 s* v1 B) ^" A having straight‐in landing minimums has been, [3 D: X7 K8 w4 }2 R4 I approved.! h/ Q, [8 D$ _2 m (See ICAO term INSTRUMENT RUNWAY.)8 Z9 {0 @) p" T" H; v$ F0 U) H INSTRUMENT RUNWAY [ICAO]- One of the& d) v. m4 R8 U+ ]1 u following types of runways intended for the * W0 n0 r; S+ coperation of aircraft using instrument approach # L, v8 m9 s( \$ v5 F9 {: M8 n: rprocedures: 4 q2 @$ v$ H4 Y' d0 Da. Nonprecision Approach Runway-An instru‐ 9 G& n/ \( C7 r; I# s# sment runway served by visual aids and a nonvisual " H1 @& W# y' L# Raid providing at least directional guidance adequate: d _( f" N) i6 r1 O for a straight‐in approach. : _/ U8 n. p/ W ib. recision Approach Runway, Category I-An4 B+ I8 s) H& G instrument runway served by ILS and visual aids3 ] c9 A9 N3 p. Y* W0 p intended for operations down to 60 m (200 feet) - _6 | I/ r( \decision height and down to an RVR of the order of' a4 j3 g9 P2 r5 a, V 800 m.) N3 _/ a0 K5 Y6 G, r. u M2 Z* p c. recision Approach Runway, Category II-An & c( c D) q: d. t) @5 O. linstrument runway served by ILS and visual aids 4 L. Y6 R, m$ K& h5 Fintended for operations down to 30 m (100 feet) , E% M) t0 }2 p% P( xdecision height and down to an RVR of the order of Y; q( \( H* s9 S/ \* w9 K- C400 m.) D0 L% [- y* v& x7 a d. recision Approach Runway, Category III-An& p: f7 K: X' e9 Y0 d$ l instrument runway served by ILS to and along the 1 m. L* F3 r1 G$ `* ]/ Bsurface of the runway and:8 H( j" _9 A: s 1. Intended for operations down to an RVR of ! f; V: u$ F& W7 \- C5 m5 Uthe order of 200 m (no decision height being ]* m8 l/ @! y( a- M+ napplicable) using visual aids during the final phase of7 D7 u1 ? M$ S1 L$ B, y# v( E landing; * o( b$ f- \+ l; f* S/ K2. Intended for operations down to an RVR of0 d0 |1 b9 _$ Y2 p. P; k8 w the order of 50 m (no decision height being& ]! _* A" R( w6 t. b4 N applicable) using visual aids for taxiing;5 F* l5 J" k# I' b/ u! a 3. Intended for operations without reliance on 3 n, c; B/ f) r! Ovisual reference for landing or taxiing.& p R' `: q8 M/ p8 t Note 1:See Annex 10 Volume I, Part I, Chapter 3,8 }( d1 y( ?+ W4 i for related ILS specifications., |0 |- p9 C# z" c- j% | Note 2:Visual aids need not necessarily be - Q$ {" B' D& Amatched to the scale of nonvisual aids provided. 9 e; `6 P" G2 j( i; ?- Y: TThe criterion for the selection of visual aids is the# Q% H, ?: A7 u# B conditions in which operations are intended to be . W/ D% J9 A4 [conducted. ( C7 P2 N) e1 eINTEGRITY- The ability of a system to provide7 o( ]7 M1 _" f# G timely warnings to users when the system should not. U. }% z" U4 F- R) ? be used for navigation.. |' a4 C9 ?- ^* n INTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT7 j4 H6 t& u+ p, O, c! U APPROACH PROCEDURE.) - r" I( E$ ~/ N( i3 f7 a$ r4 CINTERMEDIATE APPROACH SEGMENT4 Y, F1 e4 u) f1 k [ICAO]- That segment of an instrument approach) k; g: m0 B9 t- B$ n procedure between either the intermediate approach * ]: @: g& d. U4 dfix and the final approach fix or point, or between the 8 [, o! w- ]5 ~8 B3 v- mend of a reversal, race track or dead reckoning track 8 d4 W$ [) Q1 {& Q0 t0 \0 Lprocedure and the final approach fix or point, as . I- w: I4 q4 o2 _2 x7 P) n4 Sappropriate.. t. Z+ {- n" @ INTERMEDIATE FIX- The fix that identifies the n6 N8 h% Z) s( N& e0 r7 e; U beginning of the intermediate approach segment of an / I7 T- I2 ]% ^& k- o/ |* m$ C: {instrument approach procedure. The fix is not 3 h! s- i @- G- B* M: wnormally identified on the instrument approach chart5 ?2 d# Y* F8 [! j3 r: o! ^/ s as an intermediate fix (IF). 9 |! D+ z1 X- j6 W; Y(See SEGMENTS OF AN INSTRUMENT ! T% ~) ^1 G( t$ V0 `4 Z' c" AAPPROACH PROCEDURE.)% `: }- e( `: p8 Y. b INTERMEDIATE LANDING- On the rare occasion 6 d; Q6 B2 _8 \8 h$ W& i8 m# {4 H7 ethat this option is requested, it should be approved.0 _/ H& P+ B3 u) } The departure center, however, must advise the4 z+ q8 G: m( a: @1 g; S ATCSCC so that the appropriate delay is carried over2 f# F. q* ~) v4 ^0 s0 `( d* u6 I and assigned at the interm ediate airport. An8 G; Q/ | ]3 T- D3 K; m0 ] intermediate landing airport within the arrival center* _7 _9 ]/ t, F1 {4 m) H will not be accepted without coordination with and) ?9 w4 i3 m( k" g1 @ the approval of the ATCSCC. . T$ m. c- _0 e, C+ p+ F) l! L) RINTERNATIONAL AIRPORT- Relating to interna‐" _+ s0 x- S/ {& k. e tional flight, it means:) F Q+ V+ F9 B* Z' x! H Pilot/Controller Glossary 2/14/08 & @. X2 _9 [' X0 p- I0 P& aPCG I-52 ^. y/ h4 e a+ X a. An airport of entry which has been designated. T$ V1 @4 U) p by the Secretary of Treasury or Commissioner of 4 i! K T$ w/ k, Z1 _; X& H; m8 ECustoms as an international airport for customs ) k2 g$ @2 u' l# V& ] I1 T& Lservice.1 ^- K( m3 G1 u. B) X4 L2 Y b. A landing rights airport at which specific 9 {! b; t7 s1 k- Q. {; Gpermission to land must be obtained from customs ; `, O, e+ U- x! P& ?authorities in advance of contemplated use. 5 o% v" ?1 t$ q/ }) v0 _% F3 y Jc. Airports designated under the Convention on/ K/ s0 s5 v5 P" q$ Q# |* R International Civil Aviation as an airport for use by7 i; i% A+ l/ ^6 w( i" p+ S international commercial air transport and/or interna‐6 L* v; u" n; V tional general aviation. , ]% W: j- r; U1 H9 l+ p(See ICAO term INTERNATIONAL AIRPORT.)" R$ @& J5 Q4 e2 l- K (Refer to AIRPORT/FACILITY DIRECTORY.)+ ~0 G' g5 X: l9 E (Refer to IFIM.)8 `$ U* U8 r+ W INTERNATIONAL AIRPORT [ICAO]- Any airport6 G) V4 i! }5 B" V: { designated by the Contracting State in whose) H3 r; e( s: G' O+ e territory it is situated as an airport of entry and9 _( l, u/ k3 C# x( c9 d departure for international air traffic, where the' y3 p# M4 y/ Q- m5 c7 J: } formalities incident to customs, immigration, public Z2 ^' C" E" C: n+ S4 k3 |( x' ~health, animal and plant quarantine and similar( m& g t: d( G0 U& x* r: Z( b8 \9 ]$ Z1 j procedures are carried out. 3 F1 `0 o. J( Z% c1 TINTERNATIONAL CIVIL AVIATION ORGA‐ ' ?6 Q8 m$ Z( A+ A B6 C* YNIZATION [ICAO]- A specialized agency of the 1 D% f' m5 w7 _7 HUnited Nations whose objective is to develop the ' y" j# T" J- j- N& w4 @2 {$ \principles and techniques of international air 5 t& a1 j; f0 e# l9 Znavigation and to foster planning and development of 9 @, r( R. |; X* J: d+ [international civil air transport.3 l9 c! w# ~- N a. Regions include: ! H8 x8 z1 x+ X# r6 q: G$ g1. African‐Indian Ocean Region3 k. f8 s, E7 M6 q8 v i 2. Caribbean Region9 j \; R, u7 B0 T2 j% Y 3. European Region ! b& c& T1 T: g0 q8 m4. Middle East/Asia Region0 s; k5 _! e2 z* ?! |% h 5. North American Region ! P2 ~; t( I- |, C8 r6. North Atlantic Region) I8 I( _6 A( p 7. acific Region 9 _( n+ H" y) g7 E. Z8. South American Region ) _/ \, E; M6 z% I1 LINTERNATIONAL FLIGHT INFORMATION+ [) S' ^- j) F; q: n/ a MANUAL- A publication designed primarily as a, t1 i3 m' ^, b* {; G' s pilot's preflight planning guide for flights into 7 [! t4 }1 W% a9 c' oforeign airspace and for flights returning to the U.S. 2 N: n0 Y8 } Efrom foreign locations. 5 p+ `: f2 i: }! k W9 g2 QINTERROGATOR- The ground‐based surveillance- N- d( [- L- }# M. s4 c4 a9 e radar beacon transmitter‐receiver, which normally 8 z) `* K/ u( q# Escans in synchronism with a prim ary radar, 4 v$ n/ |4 h9 g1 g, p* Ktransmitting discrete radio signals which repetitious‐ ' T8 D" [% m" H3 |) A, rly request all transponders on the mode being used to+ d& ^) B* R8 V& O. Z1 y reply. The replies received are mixed with the% ~1 }8 I! B% A: h8 c4 H( x; z primary radar returns and displayed on the same plan2 z) m) A) T1 U8 w' \( f5 E position indicator (radar scope). Also, applied to the 5 P4 e8 q9 H" L) nairborne element of the TACAN/DME system. / }& {+ W& y L; r8 D% @, F(See TRANSPONDER.) + Q0 t; w! g; V4 t# T/ p5 B6 K(Refer to AIM.) 9 |% m" R! e7 q% L, G0 FINTERSECTING RUNWAYS- Two or more/ t2 B, @2 }( _. Q6 g$ v2 Z' o3 z runways which cross or meet within their lengths. 9 O+ M! E' ?9 _9 A$ y, F0 ^/ E$ F5 e(See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses, ( z* j; w: u3 D% R" g. I3 v) Nradials, or bearings of two or more navigational aids. 2 E* L3 f( R5 ?: v' u7 m/ [4 e% n9 g) O4 sb. Used to describe the point where two runways, + b+ H) U* M3 D" u. ]" ~a runway and a taxiway, or two taxiways cross or # T1 |# F& ?/ [4 g7 dmeet.8 H5 c0 y- h0 P- B) g3 F) `) G& A INTERSECTION DEPARTURE- A departure from! U! D; C8 ^8 v( j& ` any runway intersection except the end of the runway.! O% O3 z$ Y% C x; [7 r6 y8 b/ \, E (See INTERSECTION.) , m1 Y/ v- i0 b6 R( f, n6 }INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.)) V0 a* v2 v2 v! E0 s" l( | IR(See IFR MILITARY TRAINING ROUTES.)) @/ t: J5 k- [! _, y+ L Pilot/Controller Glossary 2/14/08 / Y4 f+ c b9 u3 f, UPCG J-1" K9 I' D2 [+ z8 c* K J

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发表于 2008-12-28 14:15:29 |只看该作者
JAMMING- Electronic or mechanical interference * I, i O& g# o6 n5 `which may disrupt the display of aircraft on radar or ! c: e0 Z& I5 x8 \- U' ]the transmission/reception of radio communications/ 3 o3 U A0 S) Y- y: l( N+ e3 onavigation. ) l2 C4 v/ I$ H0 J- b& ^: LJET BLAST- Jet engine exhaust (thrust stream4 G9 E% v! F+ b turbulence).& Y2 q% F7 O' c9 O (See WAKE TURBULENCE.) ; q# }& v% u/ \) }& |JET ROUTE- A route designed to serve aircraft + x v e. P: [operations from 18,000 feet MSL up to and including1 f8 d: j8 j( \/ {! N, P flight level 450. The routes are referred to as “J”# Y' Y7 u/ V2 H% h( c& w+ J& q routes with numbering to identify the designated# \0 z& |4 Z: E$ M1 y$ W route; e.g., J105. ( \+ R6 @: H4 ?9 V- G* _( K) r1 d(See Class A AIRSPACE.)3 z& ]8 [* \9 B (Refer to 14 CFR Part 71.) % k% G z T- o9 ~6 A6 C7 UJET STREAM- A migrating stream of high‐speed7 y: ~* F1 |) t/ o winds present at high altitudes. $ J# c, d& K/ U0 RJETTISONING OF EXTERNAL STORES- Air‐' |: r3 |* ~0 C1 a borne release of external stores; e.g., tiptanks, , k1 T/ v. S( Y; Z0 P2 H5 u5 Kordnance.! }; @* C2 X0 O5 H1 s! Z0 f( i6 Q (See FUEL DUMPING.)4 U# V3 T" ]# h( g" X) X. L (Refer to 14 CFR Part 91.)) y9 a; I4 \7 r" k4 J: E: K/ R( C JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)/ z4 ^; j% r/ L. n Pilot/Controller Glossary 2/14/08* D; k2 f3 @% F5 l PCG K-1 2 s5 L6 }; X% J# X: m6 n* cK 7 O6 b9 g1 Q* t, a( I0 ZKNOWN TRAFFIC- With respect to ATC clear‐ / \; a( y& b- d" v; _/ @) Z) @, ~7 lances, means aircraft whose altitude, position, and6 x! O! ?# x8 {2 Q4 U# n8 W# A; H intentions are known to ATC.! S0 e$ H7 Z9 ~& J3 u& ?+ p: C* h Pilot/Controller Glossary 2/14/08$ v: w4 q& b5 H9 L/ \0 j; |4 o( s( D PCG L-1 % U! Z. }7 M! ?6 C0 V( n( _9 l3 KL; {* ]1 o/ a: Y6 G0 I LAA(See LOCAL AIRPORT ADVISORY.) , I8 ~" V' d/ J$ }7 s4 j$ BLAAS(See LOW ALTITUDE ALERT SYSTEM.) 9 k$ w5 [' @& M+ t7 k; Y7 TLAHSO- An acronym for “Land and Hold Short * R( U8 ]6 K% K8 \: KOperation.” These operations include landing and9 T* G2 }4 j3 A9 Z8 r ? holding short of an intersecting runway, a taxiway, a( c% w) {, i' k$ e6 S o3 Y predetermined point, or an approach/departure l$ {7 l" ?" z3 E7 W5 lflightpath.! ^$ ~6 G1 m n- j/ c4 c) H R LAHSO‐DRY- Land and hold short operations on ; }2 M$ Q C7 W2 W1 trunways that are dry.4 Y' x- t) L. T+ g9 F LAHSO‐WET- Land and hold short operations on ; G6 J5 e) T5 p5 X' X( erunways that are wet (but not contaminated).' L7 H4 \) F8 w2 Y& L k LAND AND HOLD SHORT OPERATIONS - 6 }$ F. n4 G$ NOperations which include simultaneous takeoffs and ) O7 y1 k1 {8 E( E! O% U7 C% h) ylandings and/or simultaneous landings when a4 n T3 K: x, {8 a z* Y; i' w landing aircraft is able and is instructed by the9 n, Z( r' H3 P: @1 {; g controller to hold‐short of the intersecting runway/ w: Z5 g5 e; D( b/ _" ] taxiway or designated hold‐short point. Pilots are L' r5 Q- l+ Q) b7 @expected to promptly inform the controller if the hold ! c4 z# O# l# w0 Mshort clearance cannot be accepted.# `5 j2 h( o: f, n+ g (See PARALLEL RUNWAYS.). T2 e9 i. F5 X6 }3 J6 q# B (Refer to AIM.)( K- {8 b5 j4 D+ W% s1 Q LANDING AREA- Any locality either on land, 4 h7 l. |3 [+ Y1 {& ]water, or structures, including airports/heliports and* A2 Y# @2 h; k7 n; [- K intermediate landing fields, which is used, or8 s! f7 o& C1 Z intended to be used, for the landing and takeoff of# U) f: d) }( @2 y. n' W aircraft whether or not facilities are provided for the: ?, t. X$ i1 e2 i+ J shelter, servicing, or for receiving or discharging4 }3 L: D, J8 G9 R passengers or cargo.8 Z# X9 F5 \- I (See ICAO term LANDING AREA.) 7 Z/ i5 D+ }0 p. K0 }LANDING AREA [ICAO]- That part of a movement8 q+ l4 v. T! o4 o2 W1 c+ k area intended for the landing or take‐off of aircraft.$ O& }% l7 z- r8 J0 Q$ ^( a. J8 S5 r! O LANDING DIRECTION INDICATOR- A device 2 E, a6 U" R. \; fwhich visually indicates the direction in which ( m; v; Q$ I$ p$ D2 \/ L2 J3 Zlandings and takeoffs should be made. 8 O0 i- K& G2 v( r(See TETRAHEDRON.)- S! x2 h! R5 w8 Y! T (Refer to AIM.)# j2 d* K( k: a$ J& y7 t G, y LANDING DISTANCE AVAILABLE [ICAO]- The ( @3 C7 x; P3 M3 d: k6 a+ Jlength of runway which is declared available and% X1 F7 K7 o7 x+ N' z- t suitable for the ground run of an aeroplane landing.( b) B" \, e9 a* h$ y8 G0 o LANDING MINIMUMS- The minimum visibility4 n q% g( h# B+ X7 P prescribed for landing a civil aircraft while using an 8 ~8 ]0 h3 Q0 I# |* L9 y' ginstrument approach procedure. The minimum; Z, O4 A5 L) H, V F* H applies with other limitations set forth in 14 CFR3 ^2 y; z. {* p3 W3 F1 T0 _ Part 91 with respect to the Minimum Descent$ }8 M% t. `8 I& c" q w0 L& } Altitude (MDA) or Decision Height (DH) prescribed# F& p5 C4 Y ?: m# i0 K in the instrument approach procedures as follows: 0 g' J1 W' I3 X; L' fa. Straight‐in landing minimums. A statement of! z9 m8 \ J) ~6 U MDA and visibility, or DH and visibility, required for- I; n. ]7 X/ h* @ a straight‐in landing on a specified runway, or , w3 o0 H5 v( u c; N2 |, R) B% |b. Circling minimums. A statement of MDA and 8 `, v( a# t7 e; e$ x8 G6 ^- y w" pvisibility required for the circle‐to‐land maneuver. 4 s$ l6 a/ ~) n# JNote:Descent below the established MDA or DH is # l( i/ B5 Q1 ~not authorized during an approach unless the / s$ B( I: x- @: k6 {aircraft is in a position from which a normal; Y1 x+ y( A% I) c approach to the runway of intended landing can be " Z, d, V! @3 Q) j# p. K" M, Hmade and adequate visual reference to required2 }$ _7 e, e, @4 D visual cues is maintained.9 q! s# Z! R S! @# d (See CIRCLE‐TO‐LAND MANEUVER.) 7 S7 ~$ q9 l; O' z(See DECISION HEIGHT.)" C, o' G" h( D( t! `) l3 l) Z( _ (See INSTRUMENT APPROACH 9 }5 V9 {, S2 x- r' F' M' S/ g5 q( oPROCEDURE.) " w- E/ W9 Z+ v" E8 m3 u(See MINIMUM DESCENT ALTITUDE.)( [4 v' m# E5 A (See STRAIGHT‐IN LANDING.) % \% Y: \, R( R+ U8 C& q7 {* W(See VISIBILITY.) 0 D7 A; @! e p5 ~(Refer to 14 CFR Part 91.)8 q b& |+ g# L5 u" p LANDING ROLL- The distance from the point of6 G" C0 [5 F1 B. W! U+ y- d) C touchdown to the point where the aircraft can be8 {# z( |0 T) v$ t& y* X brought to a stop or exit the runway. i% {# u* c U8 W4 n/ o$ J) lLANDING SEQUENCE- The order in which # s. b) ~. s$ l, @8 B7 P& aaircraft are positioned for landing. + W( f) l S! Z. L( ~3 g4 G(See APPROACH SEQUENCE.) / q- ^( B: O G) A+ {LAST ASSIGNED ALTITUDE- The last altitude/0 R% [+ l* h1 {0 Q! h" P- | flight level assigned by ATC and acknowledged by1 K' i( k; z/ ?& s2 x4 s the pilot. % v, T. x( F5 }4 ](See MAINTAIN.)) Y- `- s H( H) g9 e1 E7 W (Refer to 14 CFR Part 91.) + F' T, s3 z1 q* G! {LATERAL NAVIGATION (LNAV)– A function of. g# b+ {. I0 Y6 K3 H& m" N area navigation (RNAV) equipment which calculates," R4 b+ P b4 l _1 m$ |3 P2 E displays, and provides lateral guidance to a profile or ; Z( }0 Y- w9 |+ P. W; k& @5 C, Y4 k; ?path. 5 @4 S: O m& u9 S+ _. {LATERAL SEPARATION- The lateral spacing of % G, g z& h0 |aircraft at the same altitude by requiring operation on ! Q( d8 Y* W& \) k, {8 ~8 D2 Ydifferent routes or in different geographical locations. * R7 N% ?. f0 t: C0 P% `! a(See SEPARATION.) 1 ]- v" } P6 @% j* R8 ~Pilot/Controller Glossary 2/14/08& T4 d& i. @2 K, N/ ^ PCG L-2 % O5 d5 S2 V% `8 LLDA(See LOCALIZER TYPE DIRECTIONAL AID.)8 L) t" t! p& P( b( o" o0 t: A$ z (See ICAO Term LANDING DISTANCE # X9 P) T% K4 i) a% J" G7 aAVAILABLE.) $ K# D3 E" ]" Y& K$ [& Y0 q; v% FLF(See LOW FREQUENCY.)- I( w; U( U! z" K/ N LIGHTED AIRPORT- An airport where runway and , n z# y+ h5 j! |obstruction lighting is available. 7 \/ ?2 `5 e4 t(See AIRPORT LIGHTING.) - i. [4 U/ u6 D- k1 g(Refer to AIM.)/ Z% r4 O9 y0 d$ N1 ?7 a: V8 | LIGHT GUN- A handheld directional light signaling1 M0 l$ S& B* r& N- \0 _# W! [ device which emits a brilliant narrow beam of white," p' V" y7 T/ q0 ` green, or red light as selected by the tower controller.7 ^( h9 ^0 c9 U/ n The color and type of light transmitted can be used to : }3 Q8 O& o$ r; rapprove or disapprove anticipated pilot actions where% A2 S1 b- ]7 }4 Y4 [+ g radio communication is not available. The light gun 9 A* |* x" a) |; }is used for controlling traffic operating in the vicinity5 D2 X" B; ]0 d% F" _4 L4 p of the airport and on the airport movement area. * [0 D2 T# i% n$ W) @$ T(Refer to AIM.)( v$ P# R0 X, ^ LOCAL AIRPORT ADVISORY (LAA)- A service . F( r1 L2 H- m3 E' f8 r4 k: f8 H5 f+ qprovided by facilities, which are located on the2 ^3 _$ u6 [: C( S' _ landing airport, have a discrete ground-to-air' x; v7 a% `( L: S2 T& ~) T communication frequency or the tower frequency, I! l5 n) f- X( a) d when the tower is closed, automated weather 7 t$ T6 c+ j. i% S/ g, o" H8 h% |reporting with voice broadcasting, and a continuous 0 f1 O4 E% B% O$ N# g7 pASOS/AWOS data display, other continuous direct ' K5 E1 T* s$ e+ f. areading instruments, or manual observations avail‐$ D& I$ @: ]+ \ able to the specialist. + _3 K' d) V1 W0 C: V4 m(See AIRPORT ADVISORY AREA.) - r9 ^2 ~2 ~0 A; \! k1 aLOCAL TRAFFIC- Aircraft operating in the traffic6 |$ v) d4 P) u( U1 }# U# Q& D pattern or within sight of the tower, or aircraft known- I) y4 @6 O: ?: Z$ c" h to be departing or arriving from flight in local practice& T: Y( v4 I' Y* c, g areas, or aircraft executing practice instrument2 L) q) v9 |& P" a approaches at the airport. m- f8 ~; F. w0 H5 H7 E* c (See TRAFFIC PATTERN.): i) @& n6 [. c% N5 j LOCALIZER- The component of an ILS which 9 a) o+ ?" H: c" c) m5 C1 vprovides course guidance to the runway.* P) p7 q' A" k! V- G; j (See INSTRUMENT LANDING SYSTEM.)$ q# E) ]# M4 g2 t" t (See ICAO term LOCALIZER COURSE.)# Q! v; |' C3 E m' S/ P1 u (Refer to AIM.) 3 b% D; t2 t; W- o( C A L% ^% Z( LLOCALIZER COURSE [ICAO]- The locus of( l" o- s+ I' J# h points, in any given horizontal plane, at which the $ {+ E u+ Q7 M5 c" }' oDDM (difference in depth of modulation) is zero. $ t- F, r5 h8 l( f) h; c! }/ u8 LLOCALIZER OFFSET- An angular offset of the& i6 |. W2 }- A/ C: n localizer from the runway extended centerline in a# f, u3 e. K3 m: w* e2 g8 b4 @ direction away from the no transgression zone (NTZ)/ E9 W4 p/ I$ U$ U4 P5 A that increases the normal operating zone (NOZ) : P# E) K7 V3 P' O6 L6 ]7 G- o2 W0 wwidth. An offset requires a 50 foot increase in DH and 0 u. O3 m9 `% p8 \; o8 qis not authorized for CAT II and CAT III approaches. 2 X( a$ `" X; M! `# l0 S& O) iLOCALIZER TYPE DIRECTIONAL AID- A " k0 G* m# E* V5 R! kNAVAID used for nonprecision instrument ap‐) h3 J7 }3 B$ U) B- j proaches with utility and accuracy comparable to a5 n' P# W5 i. m localizer but which is not a part of a complete ILS and # s2 O8 x, h" m0 x4 E; dis not aligned with the runway. h) ]/ b7 |. F% |6 ~3 a( v: ? (Refer to AIM.) , k M7 C% K1 z/ X1 ~LOCALIZER USABLE DISTANCE- The maxi‐. V/ F: E1 m1 `/ q6 c( J2 ^* V mum distance from the localizer transmitter at a + L# W w$ ^$ U3 e+ _specified altitude, as verified by flight inspection, at4 g; \- W5 v2 W; f( V- ~6 M# e which reliable course information is continuously 6 O2 A, J! z3 ^7 Z' Rreceived.6 I6 g6 }0 |! v- N8 W' G (Refer to AIM.): y# ?6 O1 U5 g* M- J: l! A LOCATOR [ICAO]- An LM/MF NDB used as an aid " I( v* N( h6 e0 i3 ito final approach. * K7 ]( R# Q6 C* _, WNote:A locator usually has an average radius of : ]* N5 ]# S) J& n. Wrated coverage of between 18.5 and 46.3 km (10 3 E0 y$ `) T" i g" k# Eand 25 NM).1 q: h, L& B7 ^ LONG RANGE NAVIGATION(See LORAN.) ~: Q |' }! `! `; Z& R LONGITUDINAL SEPARATION- The longitudi‐ 7 {. V' k# I3 e% [8 z( ynal spacing of aircraft at the same altitude by a 0 t2 {2 V4 K9 z8 Q u6 I9 ~' Vminimum distance expressed in units of time or " x$ t' O9 P; ~: u0 p- Hmiles.2 \0 ?: [5 `9 S (See SEPARATION.) & b% j$ \" s7 u8 x, I1 {& ]2 i(Refer to AIM.) / V( h7 K; j: @- x# m( NLORAN- An electronic navigational system by ' d: o" n9 U9 Z2 t ywhich hyperbolic lines of position are determined by2 d2 N$ g0 [% W$ R- | measuring the difference in the time of reception of & k; u- [7 K5 zsynchronized pulse signals from two fixed transmit‐ 6 l: t: t) s4 [8 @, K) xters. Loran A operates in the 1750‐1950 kHz ) W1 g! n9 `+ {2 e. e. X4 Y3 Mfrequency band. Loran C and D operate in the" l1 @* |4 l) D& d8 N [+ @ 100‐110 kHz frequency band.+ p) w8 g- t( W7 a/ L4 N (Refer to AIM.) . t+ h W: h$ x1 C8 j. n4 ]8 vLOST COMMUNICATIONS- Loss of the ability to 0 H2 F, I/ u X$ {$ N+ p) dcommunicate by radio. Aircraft are sometimes ! j5 Z4 @; k$ v& G% a5 M' Ureferred to as NORDO (No Radio). Standard pilot 8 T8 l: U/ _$ k" B7 ?8 s( kprocedures are specified in 14 CFR Part 91. Radar1 j7 P5 t1 A: s" ~& s' u controllers issue procedures for pilots to follow in the6 x+ A: D/ C0 O% t event of lost communications during a radar approach& O/ N. U& J. l: |* _ when weather reports indicate that an aircraft will 3 u' r/ G) s" flikely encounter IFR weather conditions during the. p: {, j9 @5 E approach.9 @4 A' ]0 l' N" T* g$ Z6 D9 n T1 Y (Refer to 14 CFR Part 91.): [7 g6 W u8 ~6 U; m8 u (Refer AIM.) ' z. O9 D5 Y; k) l0 ~) H/ b' XPilot/Controller Glossary 2/14/08 0 L. t3 q. Q N1 A/ a8 y' cPCG L-3% t% u6 ?; n3 d- u LOW ALTITUDE AIRWAY STRUCTURE- The l- l6 }( r# |+ w network of airways serving aircraft operations up to {* b/ ^# a2 C7 \& D5 q" c but not including 18,000 feet MSL.1 R; Y/ n7 N2 P& r) ~2 R. U2 k (See AIRWAY.) , W, t- S" P, @8 W" r(Refer to AIM.)7 f8 b- K5 k! V' X: v LOW ALTITUDE ALERT, CHECK YOUR ALTI‐/ j4 U! z: _+ P TUDE IMMEDIATELY(See SAFETY ALERT.) 8 k( T0 }8 E* uLOW ALTITUDE ALERT SYSTEM- An auto‐6 ?; O7 Y2 d6 u) i4 G' h; a mated function of the TPX‐42 that alerts the Z7 j3 I! U& V3 k- x controller when a Mode C transponder equipped% v. s l3 v" G; [& c aircraft on an IFR flight plan is below a) e4 `; h: Z8 m" d. F predetermined minimum safe altitude. If requested- Q8 o- [: D) Z& [( E4 | by the pilot, Low Altitude Alert System monitoring7 p/ g! J2 Y+ F: L: Z; b: P is also available to VFR Mode C transponder9 J3 L: M5 J5 J, @+ T3 y equipped aircraft.) z; X d' j. H$ t LOW APPROACH- An approach over an airport or, ~$ k5 f4 {, c* y% k runway following an instrument approach or a VFR 7 `: G3 I8 f4 mapproach including the go‐around maneuver where, F, D9 B! c" N the pilot intentionally does not make contact with the : U* R/ D8 K) |8 F5 e: x1 crunway. 1 S0 V) w' U* @(Refer to AIM.). u5 y+ X; _' G5 I6 K1 ? LOW FREQUENCY- The frequency band between ( ~7 ~9 ]. @/ m8 n& U5 u7 |30 and 300 kHz.7 g1 [: q9 h( D6 [8 F# D (Refer to AIM.) 2 B9 L4 x6 q. K/ E1 }0 q2 u. q% aLPV- A type of approach with vertical guidance, t" M" B* ^. d. u" W/ |) f (APV) based on WAAS, published on RNAV (GPS)! K1 |* [5 z& y4 a approach charts. This procedure takes advantage of + y3 b7 l* ~+ i$ M- P, _the precise lateral guidance available from WAAS. 5 E- `- p, p0 a9 @, Z! YThe minima is published as a decision altitude (DA).1 \/ F3 I3 e- V) o Pilot/Controller Glossary 2/14/08% F2 @3 u2 a" l0 h$ g PCG M-1 8 `/ p+ [2 J& T9 }* A0 @: E! HM & a. u3 o1 Y) ?( yMAA(See MAXIMUM AUTHORIZED ALTITUDE.)- ~ a# @. V6 G3 x0 e& a9 R8 | MACH NUMBER- The ratio of true airspeed to the 6 v' S# g3 o0 y' h7 cspeed of sound; e.g., MACH .82, MACH 1.6.3 T0 G2 B: j4 `& e. ]( {, ~4 [2 Y7 h (See AIRSPEED.)( k1 Q9 a6 I; E5 A MACH TECHNIQUE [ICAO]- Describes a control9 `# m# v8 H+ Y technique used by air traffic control whereby turbojet : S0 k* c `" ~" t2 g) [4 {aircraft operating successively along suitable routes; m! S+ `4 v6 t& N+ Y are cleared to maintain appropriate MACH numbers & U$ d& u7 b2 e( k! \" Rfor a relevant portion of the en route phase of flight. & c4 p) r F0 a) m4 Y2 G. NThe principle objective is to achieve improved 7 f# K; g; V1 X( L9 V# Dutilization of the airspace and to ensure that6 |& U3 @6 D+ C b9 e1 H separation between successive aircraft does not 9 C3 N; D1 g+ X% L* z1 Q; `: ^decrease below the established minima. + }) Z6 M) i+ E2 {! J* p; eMAHWP- Missed Approach Holding Waypoint$ Z# h% R1 h! Y7 X- N5 s1 d# W, M* ~ MAINTAINa. Concerning altitude/flight level, the term + q# P- m& S& Tmeans to remain at the altitude/flight level specified. - R1 O0 h9 [1 J9 ~The phrase “climb and” or “descend and” normally1 Y' o+ Q6 @- [, o3 z4 X' U precedes “maintain” and the altitude assignment;0 d3 M! s7 A U; B% B7 a' h9 P# W e.g., “descend and maintain 5,000.”% E6 b4 R6 a& [8 Y b. Concerning other ATC instructions, the term is ! |# L/ G- L* n, M7 vused in its literal sense; e.g., maintain VFR.# i# `$ W: m+ E7 @- u. R MAINTENANCE PLANNING FRICTION. j" M3 \9 |3 z% o, `1 |0 G LEVEL- The friction level specified in 5 L; E! c- e! X) ?! D7 v: ]5 wAC 150/5320‐12, Measurement, Construction, and W2 n4 E! s7 o6 Y$ FMaintenance of Skid Resistant Airport Pavement% ^2 H+ o8 \$ k" f! L5 S# W( u3 M Surfaces, which represents the friction value below " P& \ |" ^! n* u2 q6 i& Ewhich the runway pavem ent surface rem ains; q5 N7 Q6 O& x' ?: @ acceptable for any category or class of aircraft% G" ^$ r S) U- h) K! T1 b/ Q' o8 Y operations but which is beginning to show signs of * b6 ]& E3 \/ ^( Ideterioration. This value will vary depending on the5 l- Z, Z; d- a particular friction measurement equipment used.; w# T% p; Z' D' K MAKE SHORT APPROACH- Used by ATC to : ?: ~6 E2 e9 V. `8 E* M$ Yinform a pilot to alter his/her traffic pattern so as to- B2 n/ F' u8 c+ z: Z8 u' ?1 U make a short final approach. + A; ~& A, ]9 t+ m% B0 x) A; W8 C: F(See TRAFFIC PATTERN.): Y; C" }) n7 J5 ] MAN PORTABLE AIR DEFENSE SYSTEMS. Y% I8 f2 D+ Z `! V( ^' c x (MANPADS)- MANPADS are lightweight, shoul‐ * ^. z4 M4 j! z: [, H+ ^der-launched, missile systems used to bring down8 E8 [' Y4 M/ } aircraft and create mass casualties. The potential for 7 r0 e) y# l( fMANPADS use against airborne aircraft is real and / t. v" w5 U1 q0 e* j3 B' r* v. mrequires familiarity with the subject. Terrorists 4 k# H, L! u- s; r( H! ~choose MANPADS because the weapons are low; n" `/ V/ h* m9 z7 N) Z cost, highly mobile, require minimal set-up time, and3 ^5 q0 c% G7 W3 ^) ^ are easy to use and maintain. Although the weapons9 l/ `/ a! r* p: s have limited range, and their accuracy is affected by% r+ A+ c g, [2 s+ [. ~ poor visibility and adverse weather, they can be fired 9 t m4 B4 N4 dfrom anywhere on land or from boats where there is% Y( t; M$ W% E- c: Y unrestricted visibility to the target.: b9 w- O' l0 e) Q' A8 S( ]$ n MANDATORY ALTITUDE- An altitude depicted / F" f- N2 P; G0 x3 `3 q! don an instrument Approach Procedure Chart2 J% x h- ]0 r0 Q5 C; T% M3 G requiring the aircraft to maintain altitude at the4 s; h1 G \2 p5 W4 o( N depicted value. 1 f$ R$ s9 [4 N2 w% GMANPADS(See MAN PORTABLE AIR DEFENSE 6 {& {8 b) I) G6 B6 F- O" T7 aSYSTEMS.) ?9 S# I K. ]# k. [ MAP(See MISSED APPROACH POINT.) " g! Z0 D5 }4 k0 Z2 X+ LMARKER BEACON- An electronic navigation : V0 U- I* p3 q0 Y! \1 T. b: t( ifacility transmitting a 75 MHz vertical fan or 8 |& ]8 [2 _4 Y: |& z( C" t7 e% Jboneshaped radiation pattern. Marker beacons are3 z1 V4 v9 T1 J4 Q identified by their modulation frequency and keying$ C6 b# s, k5 S3 M code, and when received by compatible airborne : a. ?1 j6 Q+ ^/ `equipment, indicate to the pilot, both aurally and - v- D0 W7 K: P; W# yvisually, that he/she is passing over the facility. 0 A- R1 @, c+ l: p) w( G: h(See INNER MARKER.)+ O+ |% d7 d, f9 y* _$ N (See MIDDLE MARKER.) O- @' N. r! F4 ?(See OUTER MARKER.) 1 H$ b" O0 d( V T# x& O) I(Refer to AIM.)

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发表于 2008-12-28 14:15:58 |只看该作者
MARSA(See MILITARY AUTHORITY ASSUMES1 u) i' |; Q3 y5 n( P RESPONSIBILITY FOR SEPARATION OF & f9 z5 C) r4 c9 OAIRCRAFT.)6 Z; i3 @( m* S/ R MAWP- Missed Approach Waypoint) A8 _4 D1 _( y3 g( n; T" @* t* u MAXIMUM AUTHORIZED ALTITUDE- A pub‐ 3 F8 G$ H7 K1 ~3 j# p' }lished altitude representing the maximum usable 0 {( ?2 S7 R! z/ ?altitude or flight level for an airspace structure or 0 i$ B4 z' b7 T4 c1 x" j. ]$ O' sroute segment. It is the highest altitude on a Federal5 I% _ p4 G2 s1 W. \ airway, jet route, area navigation low or high route, 6 O, |, j( D" Zor other direct route for which an MEA is designated) l. F0 `4 n' w" m3 B' b1 S; @ in 14 CFR Part 95 at which adequate reception of * o! X9 _) }$ e' i2 V$ W2 Hnavigation aid signals is assured.: M: g/ O6 S4 S7 u* B MAYDAY- The international radiotelephony distress $ c0 E& j4 H* w, [( O& _) `signal. When repeated three times, it indicates3 S+ P! l6 [) b8 S$ f Pilot/Controller Glossary 2/14/080 |6 |/ X$ R. v/ w6 e PCG M-2+ S& H4 i6 r" v9 W3 E imminent and grave danger and that immediate 3 y/ e. S! B& q6 i& M- ~; C0 S/ s- Fassistance is requested. % j/ a6 W8 ?, b(See PAN‐PAN.)# O2 l* o7 \- _; Q5 p# _ (Refer to AIM.): G$ t5 w* u% u1 M# N$ x* E" s: L MCA(See MINIMUM CROSSING ALTITUDE.)8 h8 R$ T y: n' X7 M" F MDA(See MINIMUM DESCENT ALTITUDE.) 0 X) X& L' A3 b$ \( v# }8 \! TMEA(See MINIMUM EN ROUTE IFR ALTITUDE.)& q. |7 N2 D" I$ Z2 J MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR % `2 F* \- I$ D) [0 O8 bTRACKING SYSTEM.) b# H) e: e9 {* h3 ^METEOROLOGICAL IMPACT STATEMENT-' G; H; k7 l: ^! k An unscheduled planning forecast describing . N' b/ b5 y" Y# Z1 k3 c- m* |' lconditions expected to begin within 4 to 12 hours+ t$ l$ k: B$ D R# m6 W4 ]1 F which may impact the flow of air traffic in a specific: f# k5 w8 \. ?0 @4 H center's (ARTCC) area.. @! P& @: H0 c$ a0 J' m METER FIX ARC- A semicircle, equidistant from & ^$ W1 }( c4 B' Wa meter fix, usually in low altitude relatively close to* ~% y" N6 c1 X8 |8 O2 t the meter fix, used to help CTAS/HOST calculate a % g' c* P8 j% Z7 C6 Wmeter time, and determine appropriate sector meter - ^$ ]; _5 \ alist assignments for aircraft not on an established- Y y& f: l3 T0 I& y! _1 s8 H arrival route or assigned a meter fix. a: k! T5 a: p/ A0 P METER FIX TIME/SLOT TIME- A calculated time( ]3 i7 \" Z% r$ J to depart the meter fix in order to cross the vertex at 1 `( C* D7 o/ c0 ~+ Ithe ACLT. This time reflects descent speed3 v+ }( K0 o$ x0 U5 B' [ adjustment and any applicable time that must be [; t# L9 @, ^4 p) R3 S/ Labsorbed prior to crossing the meter fix.7 C3 {( A+ l, i" L/ S9 ? METER LIST(See ARRIVAL SECTOR ADVISORY LIST.) 8 W$ C8 o! G+ O3 S: {9 s5 O o) sMETER LIST DISPLAY INTERVAL- A dynamic; G9 p, e' T; H: b R parameter which controls the number of minutes$ K5 w6 P- t; I/ x$ y/ |( u prior to the flight plan calculated time of arrival at the 1 U% x4 t2 m/ l) U- rmeter fix for each aircraft, at which time the TCLT is9 c5 j+ z, {7 \4 V) A7 B frozen and becomes an ACLT; i.e., the VTA is4 w" \- e$ }+ l. @ updated and consequently the TCLT modified as( z8 z/ A/ ^4 u# U* _. e# Y appropriate until frozen at which time updating is - Q0 K s& g2 B9 T; {suspended and an ACLT is assigned. When frozen,, Z+ f; ]- B. W' H5 f; v the flight entry is inserted into the arrival sector's+ j% _* f$ H f# I meter list for display on the sector PVD/MDM.! c. J" k8 Q8 I9 J& F S MLDI is used if filed true airspeed is less than or5 P9 P; Q) {. [* | equal to freeze speed parameters (FSPD).# _! B6 m3 w' N% {* T& _7 s% A METERING- A method of time‐regulating arrival % F8 h( w$ e" P. [; H- b+ _traffic flow into a terminal area so as not to exceed a - O2 `: t2 Z1 Z7 I% i* jpredetermined terminal acceptance rate.8 \7 @" {; T' U# \) F# q7 z5 p# K METERING AIRPORTS- Airports adapted for1 r$ j8 K5 c; u: o* a" Y# T metering and for which optimum flight paths are 7 f3 }+ `7 k udefined. A maximum of 15 airports may be adapted. ( Z4 ~9 p+ Y9 ^8 g- RMETERING FIX- A fix along an established route2 H7 ?. ~* i) [ from over which aircraft will be metered prior to " B$ p* [+ I* n( T* R" l$ K D- Oentering terminal airspace. Normally, this fix should* U0 g0 m5 ]& }+ j2 } be established at a distance from the airport which$ }1 p3 q4 e$ H" U- s! T will facilitate a profile descent 10,000 feet above9 x, w4 S/ ?+ ]& t airport elevation (AAE) or above.8 ^5 R; x0 i2 G/ V METERING POSITION(S )- Adapted PVDs/5 Y% V$ \# X) l' x: A9 W MDMs and associated “D” positions eligible for , t% K5 l6 D: }' J. u3 [5 Ldisplay of a metering position list. A maximum of. M6 F3 ^: W/ | four PVDs/MDMs may be adapted. 2 c, g$ {5 W4 ~4 c1 Z5 B* EMETERING POSITION LIST- An ordered list of * ]# S5 W! F: cdata on arrivals for a selected metering airport. ? h9 \% R& q/ G0 U displayed on a metering position PVD/MDM. # d9 k( C) u, \; IMFT(See METER FIX TIME/SLOT TIME.)' k: Q$ k* p" B% U MHA(See MINIMUM HOLDING ALTITUDE.) . H2 x5 K0 o* EMIA(See MINIMUM IFR ALTITUDES.)) h5 ]$ O5 n2 i& I" K' u MICROBURST- A small downburst with outbursts , \( _% j4 d, R4 ?7 x* zof damaging winds extending 2.5 miles or less. In ! w, l B$ Z5 d5 \$ Xspite of its small horizontal scale, an intense2 U# _: a8 ?) t+ Q, z% B5 {8 ^ microburst could induce wind speeds as high as 150 - q& u# p9 L( Bknots" V" A, {/ D. r0 i (Refer to AIM.) 9 l+ x6 f" u2 Y' N) _; uMIC RO‐EN ROUTE AUTOMATED RADAR+ r* U- l4 w! U. v# g TRACKING SYSTEM (MEARTS)- An automated 4 y( j" b0 M4 q M0 Zradar and radar beacon tracking system capable of $ u8 F6 p# B# [3 b8 A8 Pemploying both short‐range (ASR) and long‐range + U" A( l m; j" N& _(ARSR) radars. This microcomputer driven system6 m g& q2 \8 \+ e2 a provides improved tracking, continuous data record‐ ( `1 R& U# }' {ing, and use of full digital radar displays. 7 E! C. O! R: a% L$ Z) uMICROWAVE LANDING SYSTEM- A precision & u3 l' Q* |4 j& i) e" Xinstrument approach system operating in the6 u3 ?& T9 I4 h7 ?. D microwave spectrum which normally consists of the$ _. m% z3 |- y following components: $ |& j% E: l1 e! Ga. Azimuth Station. 6 r9 u9 B6 ^7 [( H ob. Elevation Station. * G7 O8 Z: r- e+ I4 ^0 i% A8 ic. recision Distance Measuring Equipment. / }8 i! G1 Z/ u3 F2 d(See MLS CATEGORIES.)5 |3 ~9 S i1 O! \; Q+ B MID RVR(See VISIBILITY.) 9 j) u# N7 Y w. [MIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.) " Q/ U0 ?) g- T* {3 ~1 {: b' S6 [7 `, lPilot/Controller Glossary 2/14/08 W( k* K# ?( m) g: B PCG M-3 ) e# w; J6 |4 A6 E3 X. w7 SMIDDLE MARKER- A marker beacon that defines : a6 z' j, C: H8 k4 b% P Ra point along the glideslope of an ILS normally: [4 R) w# P1 Y" s5 A& [* }/ U$ d' U located at or near the point of decision height (ILS7 x, I5 ~1 H) z+ ?, s Category I). It is keyed to transmit alternate dots and + E7 B* y& k( xdashes, with the alternate dots and dashes keyed at the$ M' d v% M4 \5 W rate of 95 dot/dash combinations per minute on a4 ]2 j X3 b$ w* S: T: d$ f 1300 Hz tone, which is received aurally and visually 6 {0 ?3 F+ L- p$ x' P0 y1 S- Lby compatible airborne equipment.( S. n9 V" X2 O- w( q9 T, I9 i* W (See INSTRUMENT LANDING SYSTEM.) 2 Y" ~8 U( f+ `. L6 p; O(See MARKER BEACON.) # a; B6 x" b( }7 @/ E(Refer to AIM.) - ?9 |: S Z- p. N! x+ [! OMILES‐IN‐TRAIL- A specified distance between " b$ s1 m: M3 r& @( V0 Xaircraft, normally, in the same stratum associated+ U$ p) G3 v- V3 Y; t$ D with the same destination or route of flight.+ V! ^0 W) J8 P MILITARY AUTHORITY ASSUMES RESPONSI‐& k2 @* M d) {9 B BILITY FOR SEPARATION OF AIRCRAFT- A2 L- c+ x' C; r1 v* l condition whereby the military services involved. [2 Z3 e+ S. n ~ assume responsibility for separation between8 ]; I3 z6 u' N# r( L" g participating military aircraft in the ATC system. It is - Z! N8 G0 U2 ^$ _7 v$ M8 N. c* Sused only for required IFR operations which are3 \6 X+ ]! P+ R# }; O8 ] specified in letters of agreement or other appropriate + q. L6 R3 ~2 A+ z0 ^) \ m# eFAA or military documents. % ]$ E4 h, b, o1 t( X. ?MILITARY LANDING ZONE- A landing strip used 0 C) i9 u* O# ~. d. ]5 `exclusively by the military for training. A military5 e Q0 W; A: C1 h) G# J landing zone does not carry a runway designation. ( @# h4 S- }& sMILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.); E, q/ s: h: \, k& y8 j" @ MILITARY TRAINING ROUTES- Airspace of . p; r+ ]+ M) {. Q, j) {2 @defined vertical and lateral dimensions established ; j' s M$ K t; k- d& B' l# _for the conduct of military flight training at airspeeds 9 U" W/ v/ Z @8 r) E. q- ein excess of 250 knots IAS. 2 v: p- s. _7 E# u(See IFR MILITARY TRAINING ROUTES.) / `- V6 m; _9 {$ z2 c: h6 T(See VFR MILITARY TRAINING ROUTES.)* P1 Q! \6 o* e* t MINIMA(See MINIMUMS.) 8 |$ y# F- p! k3 z# {' C' A* ZMINIMUM CROSSING ALTITUDE- The lowest/ H1 v8 [8 t- O5 G altitude at certain fixes at which an aircraft must cross F$ e8 Z$ `* s; z* m7 lwhen proceeding in the direction of a higher& y2 K3 C4 y1 l3 \: `( ?( b2 H1 n& ~ minimum en route IFR altitude (MEA).' Y- w$ ]' Q8 f, ^( i, H (See MINIMUM EN ROUTE IFR ALTITUDE.): F: f# t" s- [6 [2 Y MINIMUM DESCENT ALTITUDE- The lowest) m9 t/ r" u3 w7 S- C altitude, expressed in feet above mean sea level, to 7 v/ ^, ?# V5 D* b" S) Jwhich descent is authorized on final approach or; w' I) R+ g5 C- A during circle‐to‐land maneuvering in execution of a1 ^: J b2 Z/ q+ w# U! B standard instrument approach procedure where no 5 p7 {' G: k, H- g4 l1 ? D0 Gelectronic glideslope is provided. & w8 B) |' Y1 d' a9 O' [( `! Y1 `(See NONPRECISION APPROACH6 ?% t2 ]3 z. n+ \% F PROCEDURE.) - z- ]) {7 `, ]0 [% J- ~2 aMINIMUM EN ROUTE IFR ALTITUDE (MEA)-. x5 ^; U. B* e" F- I1 {% I0 D The lowest published altitude between radio fixes , a, w( U2 C3 S% iwhich assures acceptable navigational signal cover‐ 1 W" N& d2 d& W7 A* o# b9 T$ \age and meets obstacle clearance requirements4 s* T. f* [) H8 f between those fixes. The MEA prescribed for a: Z: M3 {$ l) V4 G7 D Federal airway or segment thereof, area navigation 9 @2 X9 X- D7 w8 s% |) p: c, xlow or high route, or other direct route applies to the ; d2 S9 t; V0 |. Q0 @) qentire width of the airway, segment, or route between0 o- |1 T: I. c2 N3 g% N$ h the radio fixes defining the airway, segment, or route.2 \1 v. n+ v1 o2 A/ m5 z (Refer to 14 CFR Part 91.) 0 Q$ {5 A' {) c; w( S0 B& Z( c(Refer to 14 CFR Part 95.)" o; k4 |3 y9 {% a (Refer to AIM.)# y0 S' `2 D$ f1 M& O2 N6 n P0 F MINIMUM FRICTION LEVEL- The friction level; h& l5 c u8 ?! x3 N: Y- Z specified in AC 150/5320‐12, Measurem ent, ; s2 j; [9 w2 V6 G5 K$ wConstruction, and Maintenance of Skid Resistant% C& _3 Q& N- S# n! d1 x; i Airport Pavement Surfaces, that represents the0 I& |. {3 J4 A6 c& {3 f# M minimum recommended wet pavement surface; ]1 U: y1 m! ?% @' ]5 O" `5 [ friction value for any turbojet aircraft engaged in 6 y8 ~3 w. M& p8 iLAHSO. This value will vary with the particular 6 h( i# C4 v" ~, y6 z# ffriction measurement equipment used.3 p% E* J7 q, F MINIMUM FUEL- Indicates that an aircraft's fuel% O$ _& L& b: I; j supply has reached a state where, upon reaching the 3 X j9 n {) X# udestination, it can accept little or no delay. This is not' ]2 K$ y0 k! y; P$ X& N1 H2 P1 A* Z an emergency situation but merely indicates an* ]& P/ _' O* A( S [ emergency situation is possible should any undue % |6 {5 }. z: T. \& u8 l& Wdelay occur. 6 [6 d" \' ~7 p' |2 x5 Q(Refer to AIM.) 9 K2 }* w* ^/ }3 ^MINIMUM HOLDING ALTITUDE- The lowest 1 f# z# G3 s- u" Aaltitude prescribed for a holding pattern which - `% \ ]' [4 n Gassures navigational signal coverage, communica‐( _: g9 R4 M- g& E" H/ [ tions, and meets obstacle clearance requirements. : o2 C* z5 V! T, m, f5 O3 VMINIMUM IFR ALTITUDES (MIA)- Minimum5 q8 G5 E& H$ X5 C altitudes for IFR operations as prescribed in 14 CFR & D1 |+ a+ s! m, Q' dPart 91. These altitudes are published on aeronautical& N' c! a% I* F, Q charts and prescribed in 14 CFR Part 95 for airways/ A1 X" B2 M/ z/ s6 V5 C and routes, and in 14 CFR Part 97 for standard + v* \) L" z0 Qinstrument approach procedures. If no applicable ! F2 l: |0 m* b7 J% O7 i9 y; z& i% nminimum altitude is prescribed in 14 CFR Part 95 or) T0 S; w$ z! X4 A- P 14 CFR Part 97, the following minimum IFR$ d6 Q5 O- h! ?& E7 Z altitude applies:3 A/ ^; n+ s4 j1 l a. In designated mountainous areas, 2,000 feet% r* j1 V+ k6 R3 I2 | above the highest obstacle within a horizontal* b3 }# S. |9 E `% Z7 y. t9 [ o distance of 4 nautical miles from the course to be' E0 d d( E; E- A0 t. g+ o: ^ flown; or/ J/ u6 G) k* W) U) B( V Pilot/Controller Glossary 2/14/08# D( E/ c" I9 v, t0 J PCG M-40 {9 m! x$ E: Q! } r5 p* i! A+ B b. Other than mountainous areas, 1,000 feet above' N; Q: D, t, {: _& B; Y the highest obstacle within a horizontal distance of 4/ m: D7 }' X$ @ nautical miles from the course to be flown; or9 n# b3 W( b( j c. As otherwise authorized by the Administrator ! w4 P& Q6 D4 X( N+ t: Eor assigned by ATC. ! x/ k+ n6 P3 I5 w* _: a# i(See MINIMUM CROSSING ALTITUDE.); ~9 h" S; u/ N0 a* |& x; E( g (See MINIMUM EN ROUTE IFR ALTITUDE.) 7 s* W9 d4 r( P; i( P8 W% ^(See MINIMUM OBSTRUCTION CLEARANCE 5 _) \( o; D. QALTITUDE.); U8 v" S0 S; _; y (See MINIMUM SAFE ALTITUDE.)2 V& M1 l8 u' k8 ~( ` (See MINIMUM VECTORING ALTITUDE.) 6 N+ H6 Z/ i8 ^' a(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# ~* K% B. c5 y- s SPECIFICATION- A set of standards which require7 H/ `1 o$ R3 k2 v9 a# _ aircraft to have a minimum navigation performance 2 o; p' [& ]* icapability in order to operate in MNPS designated4 D0 z$ Q" ^. N5 w* D; J airspace. In addition, aircraft must be certified by; Z/ S0 G; U4 Z: `% q their State of Registry for MNPS operation.8 B n' r, t. O3 z0 O MINIMUM NAVIGATION PERFORMANCE1 V4 i& l5 g4 m4 J SPECIFICATION AIRSPACE- Designated airspace - s. z8 ~) i2 O3 T. ]! Kin which MNPS procedures are applied between + s0 F( B( Z2 u* k f' U4 yMNPS certified and equipped aircraft. Under certain 8 V7 Z. B; s7 zconditions, non‐MNPS aircraft can operate in0 X) @8 U0 M" Z MNPSA. However, standard oceanic separation * f7 e( J Q" U* zminima is provided between the non‐MNPS aircraft 0 y" x5 i% Z+ ]" C6 y" h2 `* Gand other traffic. Currently, the only designated* Q& G* ?, D9 H MNPSA is described as follows: 8 y, W4 n8 x9 C. v1 r6 k: ^a. Between FL 285 and FL 420;1 d6 {/ E0 @6 N, e1 \+ A b. Between latitudes 27N and the North Pole;* m3 V9 y7 S6 j; X' O* @. k2 X c. In the east, the eastern boundaries of the CTAs & i7 z, Z8 N; H, N* A YSanta Maria Oceanic, Shanwick Oceanic, and1 R" G8 b4 l. n7 w Reykjavik; ! A) }* Y8 }$ F+ _. }" a Td. In the west, the western boundaries of CTAs . a6 \* c, S1 [" z5 O) n* C5 \9 d! gReykjavik and Gander Oceanic and New York ; D( Y3 s+ V2 \- y7 hOceanic excluding the area west of 60W and south r, u+ D+ g" v0 H/ z of 3830'N.6 \) p. y' l' n4 w9 y$ V) ? MINIMUM OBSTRUCTION CLEARANCE ALTI‐6 k( `; \0 E0 o! N- G H TUDE (MOCA)- The lowest published altitude in' w& E! |+ b! ~* i5 w effect between radio fixes on VOR airways, 3 P7 K8 U n2 \- Foff‐airway routes, or route segments which meets; b! y# ~9 {& A% s. k) z7 Y" x" T! ~) _ obstacle clearance requirements for the entire route 4 d0 B0 h% Z: isegment and which assures acceptable navigational & L% {4 ]$ g% Z- }/ I6 L( q0 v! Dsignal coverage only within 25 statute (22 nautical)- x+ f. N9 H2 I$ Q3 c1 [6 ^ miles of a VOR.) D) ?+ _, E- ~/ c* i7 C& m0 ~, t1 m2 \ (Refer to 14 CFR Part 91.) ( P( \8 o* z% k3 j(Refer to 14 CFR Part 95.), T: O/ e7 P, _4 t# g MINIMUM RECEPTION ALTITUDE- The lowest 1 B9 H3 B& c; s, ?" }altitude at which an intersection can be determined. 1 U5 o& w0 T* |3 I(Refer to 14 CFR Part 95.)5 q, W5 ~8 B- m p. I MINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR* x8 M, e, x" ^7 Z; w8 v Part 91 for various aircraft operations. ! R- s } G8 y+ k2 P9 x* S& fb. Altitudes depicted on approach charts which b1 E, R& \6 i$ k8 \. u provide at least 1,000 feet of obstacle clearance for % p' y e9 b- eemergency use within a specified distance from the4 K+ @5 }& Q- b! V navigation facility upon which a procedure is . w5 Y9 V2 M2 p, d$ U5 c2 f+ {predicated. These altitudes will be identified as: b' `; s# u" O- ~6 G1 G Minimum Sector Altitudes or Emergency Safe) D8 t) D2 w7 s! Y5 _3 e, @ Altitudes and are established as follows: 2 Y6 Y& Y7 d/ w5 M1. Minimum Sector Altitudes. Altitudes de‐, ?2 u5 C& F9 b' n4 C picted on approach charts which provide at least . @6 n7 [( y, x# s/ m7 e& K1,000 feet of obstacle clearance within a 25‐mile1 P6 |/ L- I+ i radius of the navigation facility upon which the ' c- z. o5 G' ^# X6 A% Y% Hprocedure is predicated. Sectors depicted on: G: D2 O( E- t Z0 d; Q approach charts must be at least 90 degrees in scope.( ?( A$ \: x! f9 Z- G1 q7 v These altitudes are for emergency use only and do not 5 } t" J/ r! ]9 t- onecessarily assure acceptable navigational signal 1 t; F* [4 D1 W2 R/ Bcoverage. m! r$ j, {2 A5 ? H (See ICAO term Minimum Sector Altitude.)8 c s, \$ k0 R# ~" g) n% L 2. Emergency Safe Altitudes. Altitudes de‐ 4 t1 x) G# q& k ?picted on approach charts which provide at least 8 w3 Z0 @" L K+ n7 Z: Q1,000 feet of obstacle clearance in nonmountainous & \; F) [8 b& }; f! K$ G& gareas and 2,000 feet of obstacle clearance in , Q( | E& s; _7 Q9 v2 Wdesignated mountainous areas within a 100‐mile; |" ~- R$ {% v6 `, i! | radius of the navigation facility upon which the $ V g, D R0 oprocedure is predicated and normally used only in ]4 e; } b+ a, d- o8 L) bmilitary procedures. These altitudes are identified on 7 q4 a5 M9 f. w; _published procedures as “Emergency Safe Alti‐ 0 L( S6 y2 q# g! k8 G# Rtudes.” 4 [& m5 s7 W1 c* t- e) b% NMINIMUM SAFE ALTITUDE WARNING- A ; O# g7 O; j$ E- d/ hfunction of the ARTS III computer that aids the T5 s' |( N0 U; l( o controller by alerting him/her when a tracked Mode 6 P& b" h* Y' \- jC equipped aircraft is below or is predicted by the$ p& q% Q& ^' w' [) O+ i computer to go below a predetermined minimum safe) H" K8 Z+ W3 `+ R2 k6 i altitude. . P& R( |( T; [+ T) P(Refer to AIM.)7 E5 S( ^! G2 q; V' m O MINIMUM SECTOR ALTITUDE [ICAO]- The( L" T4 D# v& `8 D e3 x: g* I+ ^ lowest altitude which may be used under emergency3 L- x1 ^' F7 ?$ {, m conditions which will provide a minimum clearance6 e( s% W# ]% v' ~4 Y# I of 300 m (1,000 feet) above all obstacles located in- _4 G9 z P; l( k: @8 n# P& W' t an area contained within a sector of a circle of 46 km . B+ ]4 S: ~% d(25 NM) radius centered on a radio aid to navigation.6 ?2 w6 T" G9 P9 S MINIMUMS- Weather condition requirements 9 f6 g1 U% A# _& D' K) kestablished for a particular operation or type of ' Q% t1 f' v5 A" ^Pilot/Controller Glossary 2/14/08. s6 E2 |$ E5 J2 J3 C2 } PCG M-5 0 |5 Q2 q* s' P# z B `! ?operation; e.g., IFR takeoff or landing, alternate 4 L7 e9 h' ~+ Qairport for IFR flight plans, VFR flight, etc.' C8 _- g1 i# f4 P( A* F9 `5 | (See IFR CONDITIONS.)3 Z3 \. R( M/ r, k1 A* s (See IFR TAKEOFF MINIMUMS AND 9 R7 o# e+ z# N# JDEPARTURE PROCEDURES.)9 k# j" v1 n7 ` b! @& O (See LANDING MINIMUMS.)8 y# F3 X5 N) p% |/ ] (See VFR CONDITIONS.)- Y$ T5 Q! z1 ?3 d (Refer to 14 CFR Part 91.)) z0 g3 r7 g* J3 @9 F' a (Refer to AIM.)0 V4 k; h/ a: L7 Z. t* s1 O* y MINIMUM VECTORING ALTITUDE (MVA)- 2 E( H/ L+ s0 E P v) Y$ aThe lowest MSL altitude at which an IFR aircraft will! f& R& ?8 \! K7 z4 W: i1 s- q3 S be vectored by a radar controller, except as otherwise4 A- {' }" Q4 | authorized for radar approaches, departures, and, M/ Z/ x6 l; M missed approaches. The altitude meets IFR obstacle" t F0 [, O3 ?0 i4 E clearance criteria. It may be lower than the published% y& k7 @5 d' j% C! {9 O0 P0 y7 @- P MEA along an airway or J‐route segment. It may be + L/ A' K* g3 T8 C5 \% Zutilized for radar vectoring only upon the controller's! s( Q6 ?3 G& N5 y0 ` determination that an adequate radar return is being " e( g6 g4 n- L% S8 _received from the aircraft being controlled. Charts9 w8 h; b: l7 Q1 J& T3 p* U depicting minimum vectoring altitudes are normally$ E$ {% d( f$ z! w: K5 L available only to the controllers and not to pilots.$ ~6 a: l* P1 C* k! q (Refer to AIM.)- O7 @; ]+ u1 h4 v) b$ G# K3 i MINUTES‐IN‐TRAIL- A specified interval be‐0 |0 F0 ]2 I% C6 Z; R8 V tween aircraft expressed in time. This method would5 N) j0 d2 n% I more likely be utilized regardless of altitude.. u1 S; H& M$ ]9 P5 e% r1 n MIS(See METEOROLOGICAL IMPACT3 v8 L4 Y, h2 y: H2 c STATEMENT.)7 Z1 O8 }# X- G% N& Y MISSED APPROACH- * ~. \1 ~( h1 Z0 ~a. A maneuver conducted by a pilot when an8 i3 q$ e" Z5 t- G% O instrument approach cannot be completed to a4 b, j2 C3 w# v+ i) w3 n landing. The route of flight and altitude are shown on 8 g. c7 `' {- e3 H7 y7 S3 B+ Zinstrument approach procedure charts. A pilot+ |( }+ p) y$ V. l executing a missed approach prior to the Missed [5 P" J. W( q1 `9 e: r- i: f( ^) x Approach Point (MAP) must continue along the final , N$ f8 B' c/ X& e. vapproach to the MAP.$ W# [- }: q* q6 \0 L4 h b. A term used by the pilot to inform ATC that0 Z% _4 d8 c8 `3 Z- j$ q he/she is executing the missed approach. ) J. m& o1 C' d, sc. At locations where ATC radar service is * e/ p6 C+ h9 Y- o5 aprovided, the pilot should conform to radar vectors; |; I7 V- {% L when provided by ATC in lieu of the published' E; `# ]4 H5 o( S2 E% T missed approach procedure.+ C" ^% H* {- b, ^ (See MISSED APPROACH POINT.)- G2 P# Z& U' H* ] (Refer to AIM.)* L7 o# ~: z1 ] MISSED APPROACH POINT- A point prescribed$ o4 U3 _ B$ y4 U, T# v# y; |! M in each instrument approach procedure at which a+ k1 ] b1 `1 r- {9 s D8 d t missed approach procedure shall be executed if the5 I; j( z$ W3 \& b required visual reference does not exist.* n" b8 R9 C' E (See MISSED APPROACH.)5 C7 t8 j( m0 z' P! b: i L (See SEGMENTS OF AN INSTRUMENT! } y3 Z8 Q. V APPROACH PROCEDURE.)6 F7 j1 U& U. i MISSED APPROACH PROCEDURE [ICAO]- The " @. O+ {1 u pprocedure to be followed if the approach cannot be 4 i( x- B$ e5 U; \! D! Xcontinued. 8 x0 G+ C. k2 Z- A4 a: r/ EMISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT 5 N) M1 ^6 R6 L# Y. B. S! ?7 DAPPROACH PROCEDURE.) N/ ], j: G' y7 I3 C% SMLDI(See METER LIST DISPLAY INTERVAL.) ) Z3 \7 I4 |$ K" B, [6 a) BMLS(See MICROWAVE LANDING SYSTEM.)& l" Z1 B7 c& b3 y1 I: V! H: j MLS CATEGORIESa. MLS Category I. An MLS approach procedure + k$ J1 u! A& T4 J* Zwhich provides for an approach to a height above 8 Y. I0 f1 S( c; x- ]$ dtouchdown of not less than 200 feet and a runway # @0 g: Y& l1 {: r* Z" V9 }9 r' `visual range of not less than 1,800 feet.9 U( ]5 n' q1 a2 \# } b. MLS Category II. Undefined until data gather‐ ' K3 F* U& w# c5 U x* ~- _* m eing/analysis completion.1 @: n6 N; z6 R; A% D c. MLS Category III. Undefined until data$ c0 X& I* N$ t, J$ P( s gathering/analysis completion. & T3 T" u) U! M8 OMM(See MIDDLE MARKER.) H) P, }4 W& k; M0 E MNPS(See MINIMUM NAVIGATION PERFORMANCE 0 W: y- ]3 T% X8 g& aSPECIFICATION.)3 ?! N- h$ ~2 s MNPSA(See MINIMUM NAVIGATION PERFORMANCE- ' U: m1 w) k$ U6 `$ WSPECIFICATION AIRSPACE.)( k* [ W+ g. z6 b: v8 D1 P MOA(See MILITARY OPERATIONS AREA.)1 r6 h/ b, b8 r5 u& J) s" R( U MOCA(See MINIMUM OBSTRUCTION CLEARANCE5 n& M/ Z6 b9 G9 v ALTITUDE.) ; y* x) ]. W0 n$ a0 Y1 u4 f8 TMODE- The letter or number assigned to a specific* F5 Z" ^! f6 k( A l/ I1 H pulse spacing of radio signals transmitted or received ' E7 L! l ~' O8 J* zby ground interrogator or airborne transponder . A/ {' r9 @. g# w: Z, o2 icomponents of the Air Traffic Control Radar Beacon 2 t8 S' x8 K; e2 {9 Z3 J% c+ ]Pilot/Controller Glossary 2/14/081 c9 Y/ M: v8 X8 ] PCG M-61 t0 o+ X$ f3 F" [ System (ATCRBS). Mode A (military Mode 3) and 3 r2 B4 Y( ~9 B; p# _5 @' vMode C (altitude reporting) are used in air traffic 0 H0 C# s9 `5 Z8 H* W6 M6 E) P# K0 _control.1 y. D7 C" W h4 f8 n" P5 f6 f (See INTERROGATOR.) 6 F3 F! r1 Z3 Z+ }6 X ]8 B(See RADAR.)( u$ e, Q3 ?3 R, r (See TRANSPONDER.)& w: R- B' u: a! e (See ICAO term MODE.)3 q5 `2 f) g$ }' a (Refer to AIM.) ; R+ c3 @+ M1 A2 F) k# a" l: ZMODE (SSR MODE) [ICAO]- The letter or number% x0 R' d+ P" N ` assigned to a specific pulse spacing of the . z; x1 H$ i5 l' c* \5 finterrogation signals transmitted by an interrogator.- h7 b% ~2 V7 A& x O6 i' g$ o There are 4 modes, A, B, C and D specified in Annex! O- C( a' Z T- k 10, corresponding to four different interrogation. |6 M: n6 R: f7 p% i. w7 s4 B pulse spacings.& s! D! I o W& m& z MODE C INTRUDER ALERT- A function of 0 R* g( H$ I6 P5 {& W. Wcertain air traffic control automated systems designed6 c! u' h& a4 r. S- C- X to alert radar controllers to existing or pending 4 f6 k/ x0 t1 H# }7 Psituations between a tracked target (known IFR or" j1 @5 S% {/ F% ~ VFR aircraft) and an untracked target (unknown IFR1 C) p0 E; M! X9 Q. | or VFR aircraft) that requires immediate attention/ # x( _$ J0 _- a5 Raction.1 R* ~, _& J* ]9 S: R; j: u (See CONFLICT ALERT.)

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MONITOR- (When used with communication# z" d* d8 h+ C+ J% ? transfer) listen on a specific frequency and stand by : x( N/ U7 V6 x- m afor instructions. Under normal circumstances do not( Y; x: k7 {( } G: R7 K establish communications.* m+ K# g5 k+ Y MONITOR ALERT (MA)- A function of the ETMS7 O/ @( Q) b7 y. ` that provides traffic management personnel with a J" Y- I* Q' ]& Z3 ] tool for predicting potential capacity problems in/ J( U9 |; S% v individual operational sectors. The MA is an 1 F. \# j8 r3 z0 f$ ?& r. N9 x: {indication that traffic management personnel need to) R) | {* s6 J* y, N analyze a particular sector for actual activity and to * S, D& v/ ^3 m f: ?6 w+ e8 ~determine the required action(s), if any, needed to8 x$ J+ A6 J: o7 f control the demand.& v" n2 M+ t3 C4 M: y MONITOR ALERT PARAMETER (MAP)- The( k2 D* k$ ]& V: B6 z/ C' U- g number designated for use in monitor alert' }) x# e% V7 D$ {# a processing by the ETMS. The MAP is designated for " x1 ]0 L2 o( [" S! g Seach operational sector for increments of 15 minutes.) e( b2 [8 F! m2 N MOSAIC/MULTI-SENSOR MODE- Accepts posi‐ ) ]/ F1 s4 m! l0 V$ B$ ftional data from multiple radar or ADS-B sites. + K# D% }& t z) Z2 H% `" vTargets are displayed from a single source within a- a i# M# B& O1 s* g radar sort box according to the hierarchy of the Y9 Y% C+ E+ H sources assigned. 4 U( I% b7 s/ C# uMOVEMENT AREA- The runways, taxiways, and ! N! i' R2 @9 p' W* Z# m: yother areas of an airport/heliport which are utilized / a7 x5 X/ i2 T, O5 t) S+ r1 pfor taxiing/hover taxiing, air taxiing, takeoff, and1 B" b. `9 B" }# O: I landing of aircraft, exclusive of loading ramps and- \2 @6 ~9 Y. j" E2 i7 O; h" P parking areas. At those airports/heliports with a o, g2 g5 y# v" w1 ? tower, specific approval for entry onto the movement" `% ~( y7 f0 j3 |$ F area must be obtained from ATC. 5 O$ D- F5 u1 Y; a9 B(See ICAO term MOVEMENT AREA.)2 H( Y. ^6 @; |0 T6 X MOVEMENT AREA [ICAO]- That part of an. h) H' c b- b5 m aerodrome to be used for the takeoff, landing and 1 `4 @2 {6 L' q9 q @taxiing of aircraft, consisting of the maneuvering area$ P( s4 ^* @! P% d6 T8 z and the apron(s)./ e Z% _6 @/ b% k8 F MOVING TARGET INDICATOR- An electronic . Q* n4 A! n' Y2 }device which will permit radar scope presentation ' @0 A+ _/ H4 A- w: }# m) k0 M7 Qonly from targets which are in motion. A partial, A7 Y5 J1 ?; T2 _( O remedy for ground clutter.! i. X$ |4 m/ J- r' B- X4 [0 C8 \) |6 K/ H MRA(See MINIMUM RECEPTION ALTITUDE.); e' O$ u: t( O/ _ Q6 q: y# [ MSA(See MINIMUM SAFE ALTITUDE.) & c! R# B7 h8 D: ^% q2 p) cMSAW(See MINIMUM SAFE ALTITUDE WARNING.) ) W ^7 F; s/ b% w* g8 DMTI(See MOVING TARGET INDICATOR.)) ?+ P/ A2 ~0 I0 h MTR(See MILITARY TRAINING ROUTES.)8 v. ] y5 K! C" z MULTICOM- A mobile service not open to public7 H6 [) l" [/ b* [0 e' A correspondence used to provide communications @# q% p1 R) U" pessential to conduct the activities being performed by% S9 l0 E, ]7 V/ l or directed from private aircraft. & ~# F* S2 E: Y% z2 |* ?) qMULTIPLE RUNWAYS- The utilization of a @1 |0 w" ~. M$ [ dedicated arrival runway(s) for departures and a# _- c! n0 L6 b9 d/ S' _ H: V dedicated departure runway(s) for arrivals when . b) [( N# S5 Ufeasible to reduce delays and enhance capacity.. B) A1 g$ X* p2 x MVA(See MINIMUM VECTORING ALTITUDE.) # W; v1 e8 q9 r% fPilot/Controller Glossary 2/14/08% V1 |9 B& i4 e/ D9 X0 E PCG N-1 ' C( P, R, \$ Z: n. I$ SN ! `$ H9 i" X; n# p @6 r9 ^NAS(See NATIONAL AIRSPACE SYSTEM.) 6 O/ h! z3 j+ rNATIONAL AIRSPACE SYSTEM- The common 4 o" `1 W4 t$ `8 I9 knetwork of U.S. airspace; air navigation facilities, ; e, {" h1 E( F" m/ ?" m; J# ^& Pequipment and services, airports or landing areas;" m. f( P, @0 b% h6 s$ g# e aeronautical charts, information and services; rules,. j( J3 d u* A/ }: w# \9 ~$ A regulations and procedures, technical information,3 l+ |( X0 D- k9 F" m W and manpower and material. Included are system * ?1 B( `0 Z. U, Gcomponents shared jointly with the military.2 \/ d; X P. r' T# [/ K NATIONAL BEACON CODE ALLOCATION# h+ }" x) z2 v7 \ PLAN AIRSPACE- Airspace over United States 6 b0 T7 H. v8 R5 qterritory located within the North American continent- q7 I) ?$ u5 A- m# p- I' { between Canada and Mexico, including adjacent . s5 j: S$ \* ?: q( pterritorial waters outward to about boundaries of 8 v: s2 E8 k1 @) C: s2 H8 Ioceanic control areas (CTA)/Flight Information3 q0 R X8 V% b0 d0 u Regions (FIR).- _9 o' _0 I1 H; p, T8 j (See FLIGHT INFORMATION REGION.)/ @% t/ l: ^) v NATIONAL FLIGHT DATA CENTER- A facility in# j5 M. x6 t, [0 D Washington D.C., established by FAA to operate a/ k1 j d9 ?6 I: E1 H+ W central aeronautical information service for the ) x$ X& ~+ u) N) m% ]4 Bcollection, validation, and dissemination of aeronau‐! {4 r4 j+ o! u9 \- T" P- M: Y tical data in support of the activities of government,/ m8 ?8 [, p: F; v, d" l industry, and the aviation community. The informa‐ 5 X2 w& L' d2 \: qtion is published in the National Flight Data Digest. C) h4 M+ H# Y! e4 U! a0 ]6 v(See NATIONAL FLIGHT DATA DIGEST.)! G0 |8 e4 T, G! e; x NATIONAL FLIGHT DATA DIGEST- A daily ' m$ T2 |3 d5 c0 Y. }(except weekends and Federal holidays) publication; i7 c7 o: t4 F2 k of flight information appropriate to aeronautical Y2 [* i3 L; B% d' }3 P charts, aeronautical publications, Notices to Airmen, R& {5 y& ~/ Ior other media serving the purpose of providing9 j6 v* Z7 m$ A+ X. M operational flight data essential to safe and efficient3 S9 m) `& A4 M, \5 N aircraft operations. N" `: ^0 V! V7 q NATIONAL SEARCH AND RESCUE PLAN- An* g/ S, X( `% ~6 J+ o9 T interagency agreement which provides for the ' K9 M& F, A) |& y7 p# f1 zeffective utilization of all available facilities in all @/ g4 L- Y; N n- i+ ], B& o5 u/ ltypes of search and rescue missions. ( ?* C. q) i2 Z0 dNAVAID(See NAVIGATIONAL AID.) ; d& p! U/ r3 gNAVAID CLASSES- VOR, VORTAC, and TACAN* U- T' J4 w; P: x+ ~+ j aids are classed according to their operational use.- g _) l: G3 o$ J: J' X+ F4 C/ s The three classes of NAVAIDs are: 7 g& [) {2 c) c }a. T- Terminal. ( I5 \5 V6 ]7 l/ K$ e+ Fb. L- Low altitude.; }5 V. P4 x7 {* x) E J. ~: G c. H- High altitude.1 J& j! t, _1 K2 }8 ]1 \ Note:The normal service range for T, L, and H class ) m: {8 E! @: e8 B7 A8 b( H, S7 iaids is found in the AIM. Certain operational , K* I$ u% m( G! `; [2 n6 Frequirements make it necessary to use some of $ e9 B1 j, N. i1 d* wthese aids at greater service ranges than: U( M/ W' b7 I: q! j specified. Extended range is made possible 9 [0 B, ?) e9 L1 g* Jthrough flight inspection determinations. Some% t( y, j1 ]4 {7 b& s4 O- J8 r' {/ Y aids also have lesser service range due to location,4 m- }$ {8 x* Y: |$ E2 c terrain, frequency protection, etc. Restrictions to ) j+ \" { O& C* `service range are listed in Airport/Facility 9 l0 d8 I: |# uDirectory.% D7 o. W, f3 j, T1 t R NAVIGABLE AIRSPACE- Airspace at and above+ X( s' Z* c! N. o the minimum flight altitudes prescribed in the CFRs " M& e# L% _; a0 E8 uincluding airspace needed for safe takeoff and . ^+ b& v& ]" e3 Y' mlanding. 4 ^( \0 k& P6 b; k, r(Refer to 14 CFR Part 91.) ! }7 A7 s T2 y+ R; a% aNAVIGATION REFERENCE SYSTEM (NRS)- - T. W! e+ }# K6 @( W" CThe NRS is a system of waypoints developed for use8 Y/ ]" I; z+ H# c; V) g% ]7 P within the United States for flight planning and 0 x5 |) n9 M8 a! s* unavigation without reference to ground based7 q9 P0 z7 t/ G' i# K& c; @& C navigational aids. The NRS waypoints are located in # \3 a2 D! b9 x; k! ka grid pattern along defined latitude and longitude + \& [0 M: b- xlines. The initial use of the NRS will be in the high + q! v; Q- ~) M5 ^& N7 D' {altitude environment in conjunction with the High# t' F z( _5 y/ _; X Altitude Redesign initiative. The NRS waypoints are ! v6 E- t. j" w2 Eintended for use by aircraft capable of point-to-point . F$ @% Z5 n2 \- B- D9 z) Nnavigation. 6 W/ E" s) s t# k; yNAVIGATIONAL AID- Any visual or electronic $ [2 m% \; [9 Y) [, \9 X# }device airborne or on the surface which provides' t* _5 A) g' [: x point‐to‐point guidance information or position data" V5 N+ |4 V% g, v. z7 ~8 x0 x& Z to aircraft in flight. 3 C3 _. X6 V% X9 @(See AIR NAVIGATION FACILITY.), h5 [6 f' ^) n$ K0 }3 a5 w3 ~ NBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION4 q* }+ G5 Y* R$ L! u PLAN AIRSPACE.)- `2 l+ Q1 W% d5 W4 |; [# k NDB(See NONDIRECTIONAL BEACON.)1 n+ }$ s5 B; P NEGATIVE- “No,” or “permission not granted,” or & p6 G1 J4 X) h3 }0 j8 w“that is not correct.”' R! x0 e" B; ]( R7 V8 T8 K( x& Z/ D NEGATIVE CONTACT- Used by pilots to inform 3 T7 B2 J8 C- bATC that:! |/ \. N- A+ O1 A9 f a. reviously issued traffic is not in sight. It may ) t# L/ \! l' W( J; J5 `be followed by the pilot's request for the controller to, U; b2 M+ ^. { provide assistance in avoiding the traffic. : Q0 B; I" ~5 D2 G4 }b. They were unable to contact ATC on a 9 s3 l' w+ h$ s8 Jparticular frequency. 9 x/ e% O$ p& H6 ~Pilot/Controller Glossary 2/14/08 ' r; e) ]+ }! c# ^" mPCG N-2. B' `( Y5 G0 I% n O NFDC(See NATIONAL FLIGHT DATA CENTER.)% d. B3 M, L/ X0 A0 E1 o% r; [ NFDD(See NATIONAL FLIGHT DATA DIGEST.)6 K* u/ @- j. B, L _0 s7 r8 k NIGHT- The time between the end of evening civil $ K2 E# i: x2 ~2 |9 ?9 ?- }# Jtwilight and the beginning of morning civil twilight,- f* g1 o7 A! F; L as published in the American Air Almanac, converted . A7 }5 | n5 kto local time. ' J0 q$ d6 F( ~ W4 {9 I9 b. x(See ICAO term NIGHT.)) P5 w- y' n( z; x" _6 X NIGHT [ICAO]- The hours between the end of : H" j+ u, n! S7 a3 [* [' X, `' _evening civil twilight and the beginning of morning5 n$ O) i$ V* o% z9 n+ o civil twilight or such other period between sunset and; P/ l( ]& m0 \- F0 o sunrise as may be specified by the appropriate ! v3 S q. S, bauthority.8 c' W" R) c2 |. I; f$ t' L1 N7 ] Note:Civil twilight ends in the evening when the; f+ Z1 U2 Q+ W0 i9 m, W center of the sun's disk is 6 degrees below the0 \5 Z3 o% w6 M! r horizon and begins in the morning when the center3 r, N- ? V. [# p of the sun's disk is 6 degrees below the horizon. . k8 O8 o) X# p* g! s' YNO GYRO APPROACH- A radar approach/vector 8 R* q( H9 h, d; V- ^+ R' Yprovided in case of a malfunctioning gyro‐compass) E9 Q7 Z8 V4 d; k% q1 O( N8 u or directional gyro. Instead of providing the pilot. v, D7 T X6 y5 I with headings to be flown, the controller observes the ; l. d' N% P5 ?. l- C- uradar track and issues control instructions “turn. L5 m" S+ a; Y; y, u1 H+ { right/left” or “stop turn” as appropriate. 3 E& G# Q+ v2 d' V1 r(Refer to AIM.)% _( H3 l& ~1 c NO GYRO VECTOR(See NO GYRO APPROACH.)5 o( @0 ? g1 e0 D, ] NO TRANSGRESSION ZONE (NTZ)- The NTZ is% o$ d$ a8 J- ^6 s a 2,000 foot wide zone, located equidistant between 6 E# i7 E, B' J9 E s5 S" [) Iparallel runway final approach courses in which1 Z5 u% h5 Y3 x% S3 A flight is not allowed.& @7 W! }. Z4 y; \( B8 W0 c NONAPPROACH CONTROL TOWER- Author‐8 q9 T7 _' J0 g' t7 N0 @9 h+ j, I) k izes aircraft to land or takeoff at the airport controlled + y/ ], z' h* q. G$ hby the tower or to transit the Class D airspace. The 8 p- j, ~; a {, F o' M0 L& ]primary function of a nonapproach control tower is* D3 F6 o {& u- p* k5 a$ P1 } the sequencing of aircraft in the traffic pattern and on6 Q, [3 _% m9 u. [" P( t5 q9 Q' } the landing area. Nonapproach control towers also2 O0 K" x' V2 s+ v) q separate aircraft operating under instrument flight" l2 X. W& |" a- ]& }: C! @ rules clearances from approach controls and centers.. p* g" R0 P9 \: V, k2 R They provide ground control services to aircraft, / F6 `6 f! g$ {) Jvehicles, personnel, and equipment on the airport " l: r# Q( ~( Vmovement area. " h% B4 N0 L% C7 F% ?NONCOMMON ROUTE/PORTION- That segment2 e/ h& x$ H1 t of a North American Route between the inland * ]- f4 M' ^5 k [: w! bnavigation facility and a designated North American 3 i9 u) K. y1 O V# R8 nterminal.: ~- ^5 d/ j. T9 `) w% { NONCOMPOSITE SEPARATION- Separation in8 {# B6 G( s% s/ u5 H6 w4 P, M accordance with minima other than the composite- F1 z4 i/ `( N! Q. [ separation minimum specified for the area con‐% Z7 j j" T x' y% `! |# V$ r cerned. . x, x; q& X" L% g8 K' w o; Z7 J' gNONDIRECTIONAL BEACON- An L/MF or UHF 0 Y! L* `6 K) M" s0 v3 Y+ C% Iradio beacon transmitting nondirectional signals/ u+ f6 i1 x( _3 D7 @, ?, P whereby the pilot of an aircraft equipped with ) C( l) K3 K6 {6 {direction finding equipment can determine his/her9 M* p3 u0 T4 b bearing to or from the radio beacon and “home” on or ( R- ]9 X2 I2 o! o2 w5 \track to or from the station. When the radio beacon is $ R& Z) j! h) d h# v, Hinstalled in conjunction with the Instrument Landing : H3 ~8 {4 ^; d1 C, GSystem marker, it is normally called a Compass * x" U% w7 N* m, HLocator.8 ]' @: D- N' _$ ~ (See AUTOMATIC DIRECTION FINDER.)# u( H y+ W6 g9 x (See COMPASS LOCATOR.)

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