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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‐' n- |2 O9 P6 b2 J! f6 ~ ing aircraft in a composite route system where, by) B. b2 d( T' n& [# _3 G* V management of route and altitude assignments, a) X k4 G% E! q combination of half the lateral minimum specified for9 c% v% r) e0 T( m& L the area concerned and half the vertical minimum is; N. E4 U5 U& D* [! h8 S. O applied. . [. c8 n' U, M3 \5 d6 \- s; oCOMPULSORY REPORTING POINTS- Reporting7 ~: N7 }6 Q* G, X, |$ F& p1 w points which must be reported to ATC. They are 2 g: D% |* Z( \" Ddesignated on aeronautical charts by solid triangles or / K7 w1 V; J6 I% v) B, m7 Dfiled in a flight plan as fixes selected to define direct8 c4 ]+ T! g" Y" K) j routes. These points are geographical locations7 ~- \$ O3 e+ }3 {8 l which are defined by navigation aids/fixes. Pilots 3 u, \ l( F# {( Cshould discontinue position reporting over compul‐ 6 Y$ @& k, b) q7 a/ Dsory reporting points when informed by ATC that3 b: _; y5 r3 Z m+ I. [# Z their aircraft is in “radar contact.” : C8 k* n# u8 Y# UCONFLICT ALERT- A function of certain air traffic " _- f% L2 l4 ]control automated systems designed to alert radar 5 E4 g* K s ?! |2 l3 Lcontrollers to existing or pending situations between; ^% q$ M3 h6 o% w1 a- U tracked targets (known IFR or VFR aircraft) that 6 E7 w* Y' d4 x* Crequire his/her immediate attention/action.$ c. J& }0 Y+ P4 P( O9 L (See MODE C INTRUDER ALERT.)0 Q( {9 y$ d" Z1 m( U0 g" [ CONFLICT RESOLUTION- The resolution of ; k0 W4 {8 u7 \& s, F* npotential conflictions between aircraft that are radar9 u8 `% i" n( B8 @! E3 L9 @ identified and in communication with ATC by / c s7 b' H% e; \4 Aensuring that radar targets do not touch. Pertinent 4 s' }* u! C# p& v( }9 }1 Ftraffic advisories shall be issued when this procedure ' e6 f+ c1 X! C: v, F. V @is applied.2 C9 d7 l2 s6 R$ u- S: ~7 a Note:This procedure shall not be provided utilizing 4 j' i7 v7 w& j/ l cmosaic radar systems.6 P2 s4 z6 Q2 i- m5 M | CONFORMANCE- The condition established when / r8 z8 ?- q7 n6 s$ J: T2 ~) man aircraft's actual position is within the conformance3 Q: T# d. J8 S2 } region constructed around that aircraft at its position,& R: O2 a/ i" i/ g7 K. I according to the trajectory associated with the 7 y8 n8 l( B% z/ Jaircraft's Current Plan. 2 [! ~+ l$ x7 T/ _# L5 y" YCONFORMANCE REGION- A volume, bounded 7 \# C, @) L, j% H: L# flaterally, vertically, and longitudinally, within which% `% n! d7 l' a0 g/ r9 \ n an aircraft must be at a given time in order to be in # J( ^6 R+ V* Fconformance with the Current Plan Trajectory for that ( R2 G3 Z. M D8 \4 K+ x) `aircraft. At a given time, the conformance region is( c$ F9 H7 E# | determined by the simultaneous application of the ; h, c) ?" V) O, _ ulateral, vertical, and longitudinal conformance 3 p! i% H) o( t" o5 l, Ubounds for the aircraft at the position defined by time : y5 H W4 w" v8 pand aircraft's trajectory. + \6 Q1 H; q5 M) ECONSOLAN- A low frequency, long‐distance/ D# S2 m( A5 x1 p& Y8 D$ { NAVAID used principally for transoceanic naviga‐ : v. \) v0 m4 x! xtions. - R4 E; l" H5 e" LCONTACTa. Establish communication with (followed by the. K# }' i c a/ ] ?0 w4 D name of the facility and, if appropriate, the frequency( G& F' T8 c/ q0 p' g" z to be used).: A/ Y' _/ i2 S4 D4 }% l. D b. A flight condition wherein the pilot ascertains % @+ x; T2 l$ k( J0 Pthe attitude of his/her aircraft and navigates by visual % v+ y; k& a# q; Y5 p# W2 Sreference to the surface. : G: Q1 O6 G. z" V f& q(See CONTACT APPROACH.) ( P' m! B) U- w# }2 k2 v) D% g9 i(See RADAR CONTACT.)" s# E; u! ~ [9 ^7 d6 ?+ R# @( ~: |9 j CONTACT APPROACH- An approach wherein an8 R) g% i( d& ^, [3 c# i aircraft on an IFR flight plan, having an air traffic; ?7 A# I3 V1 t5 Z- E% `3 C control authorization, operating clear of clouds with " d; c- F5 T$ @! wat least 1 mile flight visibility and a reasonable c$ c M8 F! s# o expectation of continuing to the destination airport in 3 E, _" U1 f- hthose conditions, may deviate from the instrument6 ]+ P m. t/ S' o9 A& ?0 h2 l approach procedure and proceed to the destination 4 `# ]4 Y- Q+ [. yairport by visual reference to the surface. This 9 a7 [3 v% x+ h6 j2 |* ~$ qapproach will only be authorized when requested by 8 X& j% }5 z) [the pilot and the reported ground visibility at the 6 i/ n9 |# ]7 M: j# E( u% Hdestination airport is at least 1 statute mile. 0 M9 [) L) z; T' L8 V(Refer to AIM.) I) @# B5 s) g6 H0 r; \3 K, |% g CONTAMINATED RUNWAY- A runway is / B, g! D9 ~6 D5 {2 W5 b2 pconsidered contaminated whenever standing water, ) `4 l8 R5 z7 `, f1 ?ice, snow, slush, frost in any form, heavy rubber, or) U, {2 k* O$ l other substances are present. A runway is contami‐) h: d; D0 e2 E* Q& y m' u; I nated with respect to rubber deposits or other % C) A6 x# s* D, G. k1 E1 Y. V* Sfriction‐degrading substances when the average w) u1 q9 r k5 \/ y2 z friction value for any 500‐foot segment of the runway - s' G+ ]$ F6 r2 n6 g' {+ Y) awithin the ALD fails below the recommended! M* h( X' {( t minimum friction level and the average friction value - {8 p) j9 J1 t- _0 }0 Xin the adjacent 500‐foot segments falls below the% I/ _/ a0 ]# |0 m9 H6 O maintenance planning friction level. : O7 ^5 N' u7 {9 E+ f+ yCONTERMINOUS U.S.- The 48 adjoining States# p" \* p2 [' I+ V and the District of Columbia. 5 i; a% q* B! ]8 D3 t3 V8 t' w1 xPilot/Controller Glossary 2/14/080 B3 v N7 v! S! v% j' U PCG C-6( u8 @/ c3 p- s, g: c9 I CONTINENTAL UNITED STATES- The 49 States ! U h; Y: E& h3 Q: w( y- elocated on the continent of North America and the+ P8 O( G2 [, W) ?. d District of Columbia.* k% n; U3 `2 h6 T' H/ L6 Q1 v4 ]+ R+ h CONTINUE- When used as a control instruction ) L& {: N' C0 g2 ]3 |4 wshould be followed by another word or words ; b6 x4 F" P7 Mclarifying what is expected of the pilot. Example:8 f7 T. t# R% X! ? “continue taxi,” “continue descent,” “continue- M, I; j5 k& h# r6 ? g inbound,” etc.$ b( x' b1 X" z5 B( R' Z/ i CONTROL AREA [ICAO]- A controlled airspace 8 n* M8 P% C! v# z- Yextending upwards from a specified limit above the, I0 x5 a* z+ F0 o- _5 l earth.2 b1 f0 S9 R, b ^/ R' g& I7 v CONTROL SECTOR- An airspace area of defined 9 V' Z( ~3 P6 Dhorizontal and vertical dimensions for which a! a) o, j: r+ @2 g# H, \9 U' } controller or group of controllers has air traffic 4 p" f% d Z; C* |- F" zcontrol responsibility, normally within an air route- r8 ]: n$ P0 B, X! h+ R traffic control center or an approach control facility. : b2 l( T0 P5 o$ @Sectors are established based on predominant traffic+ y9 n& o/ G6 u flows, altitude strata, and controller workload.9 `& V+ ^% P2 C5 |4 p/ f Pilot‐communications during operations within a" D/ Z& B* F4 s& X3 ~4 f7 f% r sector are normally maintained on discrete frequen‐9 T4 d7 e% c$ @! P cies assigned to the sector." q0 }; l/ P- d( A9 u4 K (See DISCRETE FREQUENCY.)7 S5 W' h. z+ ^+ T2 n CONTROL SLASH- A radar beacon slash repre‐ ) Q6 u! p( O. k i3 ?$ Usenting the actual position of the associated aircraft. % \) \1 f4 b1 }* QNormally, the control slash is the one closest to the1 F. U6 Y5 @, _ interrogating radar beacon site. When ARTCC radar + L; N! g& |- I) ~. his operating in narrowband (digitized) mode, the - j6 v* F s$ L& N, f% Rcontrol slash is converted to a target symbol.$ S1 e& V, ]+ b" E. Z CONTROLLED AIR SPACE- An airspace of 3 f. q( O# k, m2 wdefined dimensions within which air traffic control : r0 @* X! C, b. l+ Y% ]8 Kservice is provided to IFR flights and to VFR flights/ x: `$ k# @; `5 L& h$ ?4 |+ }. E in accordance with the airspace classification. 8 V" ^% ^1 J4 b% l( r6 I4 A8 H7 la. Controlled airspace is a generic term that covers( z, [$ |- z4 ^' b, o* Z) g/ W Class A, Class B, Class C, Class D, and Class E * m8 ~2 I/ e4 Y0 ~/ a: i6 m& v5 }airspace. ; a% a8 h$ ^5 s yb. Controlled airspace is also that airspace within; W! [. e, c! Z7 I which all aircraft operators are subject to certain pilot : |5 U) b# @, H- M2 equalifications, operating rules, and equipment: @) x4 W! d. F requirem ents in 14 CFR Part 91 (for specific# q4 A7 O3 \. Y1 [, ` operating requirements, please refer to 14 CFR1 E- R. V& u, H# x6 j4 D) T Part 91). For IFR operations in any class of controlled& R: G0 M& U) k5 Q# W3 i l! K' R airspace, a pilot must file an IFR flight plan and9 v/ q! F. y* ?! r: c receive an appropriate ATC clearance. Each Class B,- o n, {& V2 N Class C, and Class D airspace area designated for an ( K5 y4 K5 x' \4 Y0 h5 K0 Tairport contains at least one primary airport around5 _( J+ ~! L( a; a+ {; F which the airspace is designated (for specific 7 }& p- V# X( w3 C+ x$ E6 @3 Ndesignations and descriptions of the airspace classes, 2 s6 U4 l8 ~7 U% t- vplease refer to 14 CFR Part 71).: N& |5 _/ }2 j* M6 ` c. Controlled airspace in the United States is( S$ F. P. G c" F6 D, q- k designated as follows:. k/ u# E P* e 1. CLASS A- Generally, that airspace from ! g s; {3 H( {" I9 q7 }18,000 feet MSL up to and including FL 600, ' V! g5 i0 a7 X' y) y# z# Q. Z0 qincluding the airspace overlying the waters within 12 - x y t0 d& {, O& m6 s. Dnautical miles of the coast of the 48 contiguous States 3 M3 N4 c6 A" ~& A9 P3 Tand Alaska. Unless otherwise authorized, all persons1 Z3 y% M x# N5 l4 M' x2 m must operate their aircraft under IFR.1 L3 |; B3 j+ u& K0 v" F3 n W2 I7 U5 s 2. CLASS B- Generally, that airspace from the - k1 J' E. S; p7 M8 asurface to 10,000 feet MSL surrounding the nation's + {1 ^4 Q* V) f. w; Zbusiest airports in terms of airport operations or4 r* o+ z! ~. R3 p# | passenger enplanements. The configuration of each3 s% W# W1 j, T2 S, ?+ Y5 z Class B airspace area is individually tailored and ! k; S, p8 [& p+ D% \consists of a surface area and two or more layers - }$ A- D& N( D$ w0 {7 Y0 N2 j(some Class B airspaces areas resemble upside‐down 5 p) I1 a+ O. B5 awedding cakes), and is designed to contain all - b# d; |/ N: O' [$ Hpublished instrument procedures once an aircraft7 H8 e; f4 B5 v n enters the airspace. An ATC clearance is required for" k7 d4 ?; m/ R% s all aircraft to operate in the area, and all aircraft that2 t4 ~* u, g; w are so cleared receive separation services within the " F' j/ A9 x+ _airspace. The cloud clearance requirement for VFR! z* X# D! W) l. o7 s2 O) I* K0 J, U operations is “clear of clouds.”. k8 A1 O: x) M2 D1 \5 J 3. CLASS C- Generally, that airspace from the # F8 j' I; C. Y; v6 \: L) Msurface to 4,000 feet above the airport elevation! U7 J2 N: _* Y- q6 p8 K' A- I8 f (charted in MSL) surrounding those airports that# o* D' d! T: z" K, T have an operational control tower, are serviced by a! g! }, q: _% K& ^ radar approach control, and that have a certain 3 Z; s" \- N b( l* l( ]number of IFR operations or passenger enplane‐% Y0 y2 e( Y9 r ments. Although the configuration of each Class C+ r/ k* M ^6 _4 l7 a area is individually tailored, the airspace usually# J; S' Z+ i& q' l3 d0 l0 h$ k/ y! b consists of a surface area with a 5 nautical mile (NM) 4 D* t; N, f4 b$ Xradius, a circle with a 10NM radius that extends no+ O% X3 k+ ?8 P' t lower than 1,200 feet up to 4,000 feet above the0 U$ `5 d. [ B. d& Y/ l0 f$ ~ airport elevation and an outer area that is not charted.4 n; {. W$ n( ~4 G Each person must establish two‐way radio commu‐9 ^" Z# @$ Q/ Z! ?3 I- K- M/ [3 \/ X nications with the ATC facility providing air traffic 3 a/ L3 i: F2 U+ ?services prior to entering the airspace and thereafter: b5 t$ O" N; U) N! R- b! q, Q: ~ maintain those communications while within the ! C! Y+ N6 ^) f$ h+ h2 Oairspace. VFR aircraft are only separated from IFR$ C" X/ u0 d6 Q) e) z. y* Y aircraft within the airspace. ' X" P7 }# V, R* c% P(See OUTER AREA.) & b8 u, Q& [) |1 X4. CLASS D- Generally, that airspace from the& [2 Y' i: Q" s, ]/ O3 J surface to 2,500 feet above the airport elevation 4 f/ ?- e! k6 }( Y7 P; h(charted in MSL) surrounding those airports that / Z6 l7 z: N' U1 N; T, [have an operational control tower. The configuration6 E1 O6 ^8 y- y" ]0 O of each Class D airspace area is individually tailored& u: x" h* q7 `( X x and when instrument procedures are published, the$ e$ g( Z9 [! h+ D. s; o airspace will normally be designed to contain the 2 l$ S* ^- L+ D# c0 V+ T& d4 i$ k9 kprocedures. Arrival extensions for instrument # L' s0 u0 ]; l( [9 ^& q: gapproach procedures may be Class D or Class E , |4 D- Z) a- i& r* z8 N( Z4 L+ wPilot/Controller Glossary 2/14/08 8 W. C2 g% _- B3 d/ BPCG C-7 . F: F3 Y; M5 B$ c7 }$ Y: bairspace. Unless otherwise authorized, each person/ d1 q) O' j, C7 @ must establish two‐way radio communications with/ j7 Q* C9 {: Z) @" p the ATC facility providing air traffic services prior to% R' U! C q# [5 h. d, f2 @ entering the airspace and thereafter maintain those ) E4 s" M' R% {: e) k1 A6 [$ ]communications while in the airspace. No separation 5 d+ Y+ f# I g' y( h% P6 jservices are provided to VFR aircraft. + F$ ` q8 V6 D% v: {5. CLASS E- Generally, if the airspace is not 7 n, _8 c3 ]! |. X: q; S3 JClass A, Class B, Class C, or Class D, and it is6 ]0 K! A- W$ I4 v2 R7 u' q9 g controlled airspace, it is Class E airspace. Class E 3 j( t7 F" P3 L" p, O7 q0 jairspace extends upward from either the surface or a ; ` N7 h/ E. W+ ?9 m Gdesignated altitude to the overlying or adjacent - @$ r+ F$ h: N: m4 p+ ~controlled airspace. When designated as a surface 7 D2 H/ v. X9 I' {" @area, the airspace will be configured to contain all" z- J/ B2 ^4 ? instrument procedures. Also in this class are Federal1 V$ ?5 P( t) D3 h3 n airways, airspace beginning at either 700 or 1,2002 B. H2 v m" o) U5 Q4 | feet AGL used to transition to/from the terminal or en( `5 k* l' o4 T) j/ m6 y, g route environment, en route domestic, and offshore & S! [) G% U& G mairspace areas designated below 18,000 feet MSL. + b* i6 L$ ^6 }7 e+ ]Unless designated at a lower altitude, Class E 0 H$ Y4 V& F* L J9 @! {7 kairspace begins at 14,500 MSL over the United5 a! ?% J9 \6 ^# y/ D" { States, including that airspace overlying the waters 0 N( V5 l9 B) l1 Lwithin 12 nautical miles of the coast of the 48 / I6 H" j1 t& L7 e8 }contiguous States and Alaska, up to, but not * m9 O9 X8 a6 y1 q" l/ e* E- y, R) gincluding 18,000 feet MSL, and the airspace above 7 w+ F) v, I$ k* T/ WFL 600.0 ~$ L8 E7 x5 ~- A$ v+ ~6 D. N! d CONTROLLED AIRSPACE [ICAO]- An airspace + W8 T' F0 s8 u/ `! l _* kof defined dimensions within which air traffic control % \1 r5 t: }4 o; X x# W# oservice is provided to IFR flights and to VFR flights- U. I% {8 I- R: O- X# P in accordance with the airspace classification. 1 U) G7 z9 h9 x6 j! WNote:Controlled airspace is a generic term which + Z( s8 ^9 e# I: W$ c" c& xcovers ATS airspace Classes A, B, C, D, and E. 8 T! [- S+ V- r: x5 wCONTROLLED TIME OF ARRIVAL- Arrival time8 U# n. q6 |( T, o7 I assigned during a Traffic Management Program. This2 E. x/ C8 S/ X, T7 F time may be modified due to adjustments or user ; h: @2 {+ G9 v( s) Yoptions. 5 R* ~; T. m, Z6 {. @CONTROLLER(See AIR TRAFFIC CONTROL SPECIALIST.)$ h% X [6 U" K4 T: y CONTROLLER [ICAO]- A person authorized to% w* W3 y8 h* ^ provide air traffic control services. @) _. s: ^: r5 G- HCONTROLLER PILOT DATA LINK COMMU‐ / K6 C2 T; H+ f( z7 l7 r1 y [NICATIONS (CPDLC)- A two-way digital very* e" ^. V, r6 {- i high frequency (VHF) air/ground communications Z% L0 P Z' q; [- ~ system that conveys textual air traffic control 0 z3 J( o% q: u( w9 l* l; ymessages between controllers and pilots. e8 W' z1 J$ R. T0 }CONVECTIVE SIGMET- A weather advisory 8 \) f3 p# E. i- _/ R) vconcerning convective weather significant to the 5 P& B/ Y$ h$ a {( F0 D* F& D1 esafety of all aircraft. Convective SIGMETs are issued 3 S0 e/ _' ?0 G- H1 mfor tornadoes, lines of thunderstorms, embedded' _+ W2 V/ P7 _. |3 `, x6 Y: L thunderstorms of any intensity level, areas of. C: \: E+ u9 Q) X) z thunderstorms greater than or equal to VIP level 4& @. v1 K& W; b$ r with an area coverage of 45 y1 V; E" ]6 o# L4 w /10 (40%) or more, and hail3 R H/ ]: U. l* H% X! v. t" Z 3- {8 K7 \$ s `5 g2 G& ~3 k, j" p /4 inch or greater. + ?6 {. P9 G" o" a' s(See AIRMET.) 7 ?5 T( a" c* Q3 o S(See AWW.) ' y$ C9 {! u& n. G! C* S(See CWA.) 5 R; {0 K% R J" Y. E2 h, s(See SIGMET.) # ?. j8 u. _. Y) |+ |(Refer to AIM.)- w& p* k2 X9 B2 E: t' K; t CONVECTIVE SIGNIFICANT METEOROLOG‐/ b2 ^& L( i; B2 y2 v4 l$ Z ICAL INFORMATION(See CONVECTIVE SIGMET.)8 `# ]. e* q8 Q4 y" `" r) I5 Z1 c COORDINATES- The intersection of lines of 5 W3 }3 f5 x- b# Q: q: \) freference, usually expressed in degrees/minutes/ # ~2 ?9 j1 l8 S' x/ ~* ~seconds of latitude and longitude, used to determine , J t: D1 }. _+ w! T* u' @position or location. , X; n7 O1 Z- e8 \/ D' p n2 nCOORDINATION FIX- The fix in relation to which ; Z E0 C2 b2 ^facilities will handoff, transfer control of an aircraft, F- i: i" e# s F) nor coordinate flight progress data. For terminal, P: b# Y. u. u i( J& i( R# E facilities, it may also serve as a clearance for arriving 6 }; p% {" P, _7 G; jaircraft.. i2 U8 c. P8 g3 b COPTER(See HELICOPTER.)3 N% l- q3 H- X; B' d- X CORRECTION- An error has been made in the 1 {8 J) ^: n1 A3 x- c4 q# Utransmission and the correct version follows. ; f8 v, k6 @( k7 J6 O7 dCOUPLED APPROACH- A coupled approach is an * r: C7 ~* K9 W' A; }) sinstrument approach performed by the aircraft5 n* g6 W8 U& e$ d3 d4 I7 o autopilot which is receiving position information ; Y, e- D, p$ E0 S- a" @. cand/or steering commands from onboard navigation - N7 z+ ?+ {! c8 k0 eequipment. In general, coupled nonprecision ap‐ % n/ }$ n3 ` J2 w. Rproaches must be discontinued and flown manually4 A1 o9 u6 l* @; a; @5 K at altitudes lower than 50 feet below the minimum / t |7 v1 P) @7 }4 e4 @! Sdescent altitude, and coupled precision approaches# u) P: s- n' b3 J6 ^& G; s$ w must be flown manually below 50 feet AGL. 7 l6 N0 J" {; Z& Q/ N/ t( B* LNote:Coupled and autoland approaches are flown 7 f0 y; k9 m; @ H$ Z0 hin VFR and IFR. It is common for carriers to require6 `' N" F# B- H0 O. {) d their crews to fly coupled approaches and autoland& s( B2 {& I1 \8 X approaches (if certified) when the weather. s+ y: ~6 h+ o8 x6 M6 Z+ Q O% [/ g) B conditions are less than approximately 4,000 RVR. : T4 n4 Y m; K% d(See AUTOLAND APPROACH.) # h" H# H' I3 e* j/ G2 Q7 V! gCOURSEa. The intended direction of flight in the horizontal " U6 w( S1 @+ l6 C2 iplane measured in degrees from north.! m: @* h, }3 D1 z b. The ILS localizer signal pattern usually . i/ ?; T5 ^ U) wspecified as the front course or the back course. & {' x7 n1 j7 U5 U7 ~! V* ~Pilot/Controller Glossary 2/14/08 - u8 |. c7 V: s! OPCG C-8 2 X" d7 w( h0 n/ P) Xc. The intended track along a straight, curved, or, p# K) C! d2 x9 z segmented MLS path.& M) U0 K6 x. a+ {" E" o; x (See BEARING.) $ m8 V, N" r% p$ b7 B. P(See INSTRUMENT LANDING SYSTEM.) ; \* Y$ P3 c5 ]+ k! d(See MICROWAVE LANDING SYSTEM.)$ [" [/ T0 U! l; l o1 s6 B (See RADIAL.) : P5 y# k. _# B6 p6 N2 NCPDLC(See CONTROLLER PILOT DATA LINK + @' ?8 E. l7 s6 n$ dCOMMUNICATIONS.) & q8 g N. e" X7 {# n* s0 ] _CPL [ICAO]- - m) T% U1 y3 B6 B" O* J(See ICAO term CURRENT FLIGHT PLAN.) * o4 ?; r4 G3 n$ O+ XCRITICAL ENGINE- The engine which, upon - z V9 N, \) p( qfailure, would most adversely affect the performance ( S9 O; \" P' D1 Y0 Q9 |6 vor handling qualities of an aircraft. 3 a; a0 d9 e8 GCROSS (FIX) AT (ALTITUDE)- Used by ATC" ?9 O. ?. V) \0 n, r g+ q when a specific altitude restriction at a specified fix % b& ]/ ]# k: Z) I' \* O, Sis required. 1 F& X, N( n: Z% U+ x4 j c) k6 JCROSS (FIX) AT OR ABOVE (ALTITUDE)- Used ; _* b, C, W" j- K# L3 Uby ATC when an altitude restriction at a specified fix8 o+ V: h7 d3 J is required. It does not prohibit the aircraft from 7 _9 Y. j( s) S p- r1 Hcrossing the fix at a higher altitude than specified;$ l1 z: x# A% f) Y. I however, the higher altitude may not be one that will7 G% i/ x1 C4 m3 b* j6 M& d, y violate a succeeding altitude restriction or altitude ! n( ]% Y% o! W: d8 Jassignment.# X V$ e. `/ i9 Q8 i( D, A) ] (See ALTITUDE RESTRICTION.) ; F8 p8 s2 J' ^( c4 N9 Z(Refer to AIM.) ! T5 V% O( Q* k0 O7 `5 TCROSS (FIX) AT OR BELOW (ALTITUDE)- 4 d g @- f$ L3 G. u4 K- B6 pUsed by ATC when a maximum crossing altitude at4 S. W. \3 y/ z, l4 v) U a specific fix is required. It does not prohibit the1 K& K, h- w: d aircraft from crossing the fix at a lower altitude;7 N6 ?" Z4 B5 } E1 r however, it must be at or above the minimum IFR 1 ?; n8 S6 z- S1 B! ?' Faltitude. $ M( P3 a* m, U- ~$ v9 V0 z( ?" X' ^(See ALTITUDE RESTRICTION.) 8 _4 K c O+ ?. y/ K3 J(See MINIMUM IFR ALTITUDES.), ?3 L6 [6 i1 K, F0 j( v (Refer to 14 CFR Part 91.), `9 U* h; @1 z8 q7 j1 i CROSSWINDa. When used concerning the traffic pattern, the 6 p4 m: y& b \* a iword means “crosswind leg.” ' l# g% V9 Y7 A2 T, ^(See TRAFFIC PATTERN.) : R% B- B* r; jb. When used concerning wind conditions, the & V+ m, x' c' B- X. C N7 Uword means a wind not parallel to the runway or the2 @2 w4 \) `2 t3 `9 z4 ~ T7 ] path of an aircraft. - [3 S$ E8 } ?( `. ]1 ~1 r(See CROSSWIND COMPONENT.) 9 ^6 Y9 ?- ]6 f, Z7 hCROSSWIND COMPONENT- The wind compo‐ # `) \8 d) X8 R9 Jnent measured in knots at 90 degrees to the & Z& r2 D* K* x# q3 ?$ wlongitudinal axis of the runway./ W/ Y+ t( ~/ Q- A. g& S0 Z CRUISE- Used in an ATC clearance to authorize a 2 i) _) d/ q; }9 dpilot to conduct flight at any altitude from the 9 w% T) I6 S' B* m# ^minimum IFR altitude up to and including the 0 B+ r4 K6 l4 o+ c+ x! ^3 laltitude specified in the clearance. The pilot may2 B* X( m( o/ ] level off at any intermediate altitude within this block2 ], [3 W1 j. z of airspace. Climb/descent within the block is to be6 H5 Q, L: i' R/ C# j3 i made at the discretion of the pilot. However, once the& s( u, y. g j" Y9 m( P6 k" v/ q pilot starts descent and verbally reports leaving an 8 ?5 }9 S3 {5 e0 Yaltitude in the block, he/she may not return to that ' L& M$ S4 [6 ]altitude without additional ATC clearance. Further, it 9 A/ Q+ }8 n2 b3 _* Ris approval for the pilot to proceed to and make an $ K2 W4 ~* s" Q# F$ p4 Y7 b k5 W iapproach at destination airport and can be used in 7 l# P$ i9 Q# F0 K% nconjunction with:; p: B* \+ _7 ~; C1 H3 C, M8 c. l; \" j" [ a. An airport clearance limit at locations with a' m, j) _! ^8 Z: Q standard/special instrument approach procedure. The6 X$ v# s+ C+ K% Y3 s2 h CFRs require that if an instrument letdown to an, P/ |* d/ `6 z6 d1 W airport is necessary, the pilot shall make the letdown * G4 y9 Z% d' gin accordance with a standard/special instrument* D- c- ^$ I) Q+ | approach procedure for that airport, or( E6 E/ ^, R" I& P% k! J b. An airport clearance limit at locations that are' v7 l& W9 `! N3 H4 [$ L$ x2 n within/below/outside controlled airspace and with‐ : g( N# C* v9 d) p b( o( gout a standard/special instrument approach$ D" N9 g: `1 V procedure. Such a clearance is NOT AUTHORIZA‐$ m+ t5 L* h7 W& B. L9 n TION for the pilot to descend under IFR conditions " r; T+ R$ l" V& K1 K# `% d! [below the applicable minimum IFR altitude nor does, [' j7 ^4 a" t6 Z" ` it imply that ATC is exercising control over aircraft* ~3 r. i: b+ N, p( u$ \$ s in Class G airspace; however, it provides a means for ) d2 L( _3 j% C7 zthe aircraft to proceed to destination airport, descend, 7 j$ _- H. W# a1 Z% N7 e$ T7 a7 v5 c- Dand land in accordance with applicable CFRs4 f3 N& f, a @: Z+ m governing VFR flight operations. Also, this provides. R8 K0 t$ [6 u) [1 d7 S/ a search and rescue protection until such time as the- W, s" }8 h! l7 p5 ?! u- e IFR flight plan is closed. 7 j( Q+ i% O2 W" T: s1 P(See INSTRUMENT APPROACH ! l0 a1 ^5 g: T+ l/ }PROCEDURE.) 5 M& T7 c0 H0 y! h' WCRUISE CLIMB- A climb technique employed by ' M: W {. n, o0 i8 L1 Z" B* U2 Xaircraft, usually at a constant power setting, resulting * q+ ?$ W, c1 s1 Ein an increase of altitude as the aircraft weight4 x! U) v& a1 v, @" s7 i1 D decreases.7 S1 k8 K ^! I& a& j- c. l CRUISING ALTITUDE- An altitude or flight level 7 b! g# y0 G$ x" R9 y1 \maintained during en route level flight. This is a * u: u) B- a6 ^) ]5 zconstant altitude and should not be confused with a 3 I* a; |/ ?! U$ qcruise clearance. 9 q! p+ f# F" F ~# G4 b2 t- O9 X" [(See ALTITUDE.)5 m/ \' n. u. c: U b (See ICAO term CRUISING LEVEL.) * a9 _$ ?- @/ g' B6 P: bCRUISING LEVEL(See CRUISING ALTITUDE.). ~% R$ h( k7 i CRUISING LEVEL [ICAO]- A level maintained; \: {/ u! e/ N7 w4 I( {' b5 \ during a significant portion of a flight. 1 `3 l' T7 p4 M6 w. C6 APilot/Controller Glossary 2/14/08( n; g/ h! m: Z$ @, J PCG C-92 A' B+ J( ~1 o$ Z; [0 c0 p CT MESSAGE- An EDCT time generated by the8 T4 D/ B& l- L) a# n2 C ATCSCC to regulate traffic at arrival airports. ' e$ a6 |" F7 n1 aNormally, a CT message is automatically transferred: D) c0 ]0 @1 R+ ?1 _% M+ ]4 r# h from the Traffic Management System computer to the% W3 P% b0 d7 k k) Q NAS en route computer and appears as an EDCT. In$ v: ]; F; e* V: H( [& M( Z the event of a communication failure between the. I; X, d- [9 T% \4 }; D; c6 ^; m TMS and the NAS, the CT message can be manually $ Q' o8 k) ^& v9 b8 [$ u5 ventered by the TMC at the en route facility. . {# v2 N( ~" b4 R1 RCTA(See CONTROLLED TIME OF ARRIVAL.). d$ k& D6 C" r0 Y# g3 l, M- U% I (See ICAO term CONTROL AREA.) * L H0 V: ~8 Q* HCTAF(See COMMON TRAFFIC ADVISORY) x9 {' s7 b6 X c FREQUENCY.)' z1 A. z: M J# U0 Y CTAS(See CENTER TRACON AUTOMATION - Y8 @/ p( o9 p0 [* T0 r) o) y. X! eSYSTEM.)9 e K. \4 l' |2 \! k. x CTRD(See CERTIFIED TOWER RADAR DISPLAY.) 3 b( v0 g) M( {2 b1 n. w8 ACURRENT FLIGHT PLAN [ICAO]- The flight , E" @- L+ ]! i' M. T, ^+ x* tplan, including changes, if any, brought about by 2 [4 } V. O. ^# K2 psubsequent clearances.) K8 p E; t' { CURRENT PLAN- The ATC clearance the aircraft+ ?7 H/ P8 q# I; ?+ U+ O, ` has received and is expected to fly.' q& M7 d9 c( q CVFP APPROACH(See CHARTED VISUAL FLIGHT PROCEDURE- h$ w) \; [. q! e APPROACH.)+ h. I7 [& L2 F& ^) F8 D CWA(See CENTER WEATHER ADVISORY and4 U) z- a) r( I! J' _4 k f WEATHER ADVISORY.)$ p* R7 J! r% u9 q: ~- z( `3 i Pilot/Controller Glossary 2/14/08 4 J: ]! l5 o2 w, \. jPCG D-1 : M# S, K0 M R, ND : M8 K# [- J. J. `3 rD‐ATIS(See DIGITAL‐AUTOMATIC TERMINAL7 _% \1 u9 G$ y" v* c INFORMATION SERVICE.). N$ M: O/ A: \ D* _ DA [ICAO]-9 F7 w5 c) i% X: {, `4 m8 b% \ (See ICAO Term DECISION% n0 C+ G0 T/ e9 l0 y4 R2 B ALTITUDE/DECISION HEIGHT.)# }7 | u N2 R$ n4 \ DAIR(See DIRECT ALTITUDE AND IDENTITY 2 s- B: ^) G, E, u; p BREADOUT.) 4 w* k3 _" J: p8 g- Z( [* vDANGER AREA [ICAO]- An airspace of defined1 _% p" d. N& i- ?5 @4 V. m dimensions within which activities dangerous to the - V( n0 g( P( W# Y4 z' I* @flight of aircraft may exist at specified times.7 O, b/ f+ o, B% Z1 L Note:The term “Danger Area” is not used in& ^3 `! L4 h% b* f u+ T: F: i1 E: h reference to areas within the United States or any ( v6 N% K+ ~: h \of its possessions or territories./ \1 m# V% l5 `7 e! g DAS(See DELAY ASSIGNMENT.)' V; J' f! O; s9 e, v2 m" G DATA BLOCK(See ALPHANUMERIC DISPLAY.) $ x6 g5 d( q* h: P+ f+ Q- U! `DEAD RECKONING- Dead reckoning, as applied/ [2 B0 g1 f: V; B to flying, is the navigation of an airplane solely by ( n4 n3 z7 M) I1 ^6 I# {9 gmeans of computations based on airspeed, course, ; V3 x# ^7 `6 F# |0 F# u+ `heading, wind direction, and speed, groundspeed, ; {! ?# D ?/ b8 C% R7 b( A2 zand elapsed time. # b6 C0 ?1 E1 p: M. a3 Y; R8 O# |DECIS ION ALTITUDE/DECIS ION HEIGHT 0 M1 U: N6 V7 Y1 N Y. M, U[ICAO]- A specified altitude or height (A/H) in the; c4 n0 f) R+ H$ C: A. i precision approach at which a missed approach must 8 L& l* `+ w9 A0 b3 C0 e8 o% W$ ]* abe initiated if the required visual reference to - q3 i. R! V$ H& [0 a7 [5 scontinue the approach has not been established. , \8 b5 `1 i9 ZNote 1:Decision altitude [DA] is referenced to* ]6 Q# I' ^, O) o1 {" N3 F mean sea level [MSL] and decision height [DH] is2 H; W8 f7 v( [: Y7 g referenced to the threshold elevation. ; ]* l8 O6 w z1 PNote 2:The required visual reference means that: K& t, E% b3 D2 q0 n+ [$ Z section of the visual aids or of the approach area- X6 D" {1 R# U5 d$ f which should have been in view for sufficient time, S8 o- h2 x$ J1 v. p for the pilot to have made an assessment of the % q# v8 F, \/ k# C/ }9 b) d' k4 Xaircraft position and rate of change of position, in ! v( |" ^3 s9 M7 krelation to the desired flight path. / u1 ]$ h1 l$ A6 E: }5 @3 F1 ?DECISION HEIGHT- With respect to the operation- W$ L: U4 }- ~7 C4 K( Z of aircraft, means the height at which a decision must0 v1 o7 T V ^) z be made during an ILS, MLS, or PAR instrument" ^8 i4 j+ l& ^# X8 I" y approach to either continue the approach or to execute0 K+ A; z0 |" I& b a missed approach.- y, t' m, }% { (See ICAO term DECISION 2 ^* g$ w0 L; F! o2 pALTITUDE/DECISION HEIGHT.)0 p* q2 A) i7 k4 ~" Z DECODER- The device used to decipher signals 7 e0 ~; O8 C# w8 e9 zreceived from ATCRBS transponders to effect their ) b2 p6 x D/ @- q3 I& ~display as select codes. * S$ W0 s5 L+ j' t/ F2 M(See CODES.) 6 S0 t( U2 e; O(See RADAR.) ) @6 Y- S! A2 @DEFENSE VIS UAL FLIGHT RULES- Rules& s2 Y# [" |) l applicable to flights within an ADIZ conducted under ; v/ P( Q# d0 [% M* p1 Z1 kthe visual flight rules in 14 CFR Part 91. , B! f5 I/ s7 O6 o1 V# g(See AIR DEFENSE IDENTIFICATION ZONE.) n9 n: ?# x; Q; r3 S(Refer to 14 CFR Part 91.); u, j$ Z: G5 \/ h( W (Refer to 14 CFR Part 99.)+ v4 n. T% A8 l3 |- I1 }% U: @ DELAY ASSIGNMENT (DAS)- Delays are distrib‐ # F; T" R, I8 zuted to aircraft based on the traffic management ) h8 Z' G- J! v1 c+ |/ h1 D* D @program parameters. The delay assignment is 3 i/ q- l' |; {+ z2 bcalculated in 15-minute increments and appears as a3 N n8 v+ T9 R table in Enhanced Traffic Management System 2 ^: a) U- l/ r6 N) i" P(ETMS).; X4 G. ?2 i$ s: q( G# b. @0 p DELAY INDEFINITE (REASON IF KNOWN)' c/ _7 S" I0 T" q1 A; B EXPECT FURTHER CLEARANCE (TIME)- Used9 u7 B6 ]7 d* Y" A5 X: F by ATC to inform a pilot when an accurate estimate 2 ^3 c+ L9 X* yof the delay time and the reason for the delay cannot) i' g. D1 P- \1 j) [ immediately be determined; e.g., a disabled aircraft$ a, ~/ r; t' z, k' W on the runway, terminal or center area saturation,1 s; R4 U& v% N8 Z$ B2 G' J weather below landing minimums, etc.' D6 y/ M! S. K, _8 A (See EXPECT FURTHER CLEARANCE (TIME).)' y$ j& K& Y: ~5 Z3 Z5 X, `) A+ P DELAY TIME- The amount of time that the arrival 5 P) J6 G0 |6 e4 g; amust lose to cross the meter fix at the assigned meter + v( H' y$ O: f* F+ C0 v, ufix time. This is the difference between ACLT and* _. J' A; ^2 _ VTA.+ q u' K2 ` u$ J( r1 o DEPARTURE CENTER- The ARTCC having6 w4 w, D# i, _# x' g* t$ A1 G jurisdiction for the airspace that generates a flight to2 _( t$ M# T% Q" M+ Y0 R' s the impacted airport. r2 e3 Z: U, f8 t& O! }' L DEPARTURE CONTROL- A function of an ; v! j# a' s1 japproach control facility providing air traffic control / N: U: V, R3 ?1 Z! G' z) fservice for departing IFR and, under certain) b& S# ]) J# r, t* j conditions, VFR aircraft. ( h# j. s# d/ o2 k6 `& Y0 Q(See APPROACH CONTROL FACILITY.) $ |7 N- ^4 t. A7 P$ n(Refer to AIM.)+ n% m. E$ w* F9 f DEPARTURE SEQUENCING PROGRAM- A 6 l7 y' M1 y" X" i1 K* Nprogram designed to assist in achieving a specified ! A- {" X" s5 vinterval over a common point for departures. - P) C7 T& C) t" uPilot/Controller Glossary 2/14/08, W5 `1 H+ {5 _2 R: i& ~: J0 K PCG D-23 u; ]# b* O& r( E DEPARTURE TIME- The time an aircraft becomes - l/ L4 g, X j) U* H" i4 Y) f: |6 Sairborne.7 N( N! y8 O# E n2 \0 O8 w3 H DESCENT SPEED ADJUSTMENTS- Speed decel‐! h: o5 v9 L" d7 v eration calculations made to determine an accurate" O6 R4 T0 G! N+ O8 B3 h. V VTA. These calculations start at the transition point/ y' M5 P' I# c R/ j" P; ] and use arrival speed segments to the vertex.8 H; j# ?2 d7 g; { DESIRED COURSEa. True- A predetermined desired course direction 6 y, {) z, t+ J! {' S3 e1 A' G& N7 \to be followed (measured in degrees from true north). P- q& |* y: o' |! Z" K! n3 p b. Magnetic- A predetermined desired course # ~: Z% Y$ y4 F) ~! S% D. T/ Qdirection to be followed (measured in degrees from7 Y* b& S4 {( J local magnetic north). 7 f' H; ?! S' r) K- G$ u2 jDESIRED TRACK- The planned or intended track & Y( z7 a& W( W% s0 W( gbetween two waypoints. It is measured in degrees/ g# Q, N: O6 O8 g from either magnetic or true north. The instantaneous& I/ ?; p6 b- H$ J" G2 C1 m angle may change from point to point along the great- p: r% @6 Q1 B4 m- W; }; b5 i# B circle track between waypoints.0 \* S$ G; h+ B1 G: H4 E$ b0 O DETRESFA (DISTRESS PHASE) [ICAO]- The' E* W/ n# U, `; p5 \9 G- f& d code word used to designate an emergency phase $ o, p$ A- C& Xwherein there is reasonable certainty that an aircraft 5 U( i3 T& ~* a. E8 u- eand its occupants are threatened by grave and - j. t7 B* f, Q4 c' O; D& \3 J! Yimminent danger or require immediate assistance.7 s5 b; z, x k% p) h- \ DEVIATIONSa. A departure from a current clearance, such as an( g' S) x+ m! Y; \0 P off course maneuver to avoid weather or turbulence.3 z: U: E/ S, b5 N4 v P$ x b. Where specifically authorized in the CFRs and - D1 h: W0 U. G! X) ~ zrequested by the pilot, ATC may permit pilots to 0 D4 l2 \3 S' `3 [: H; w9 D cdeviate from certain regulations.- z0 \7 g9 N4 m$ r; | (Refer to AIM.) 2 R; t* c3 ]2 X, k3 cDF(See DIRECTION FINDER.) * k# c. N |$ [( ]' x: ?& z) g5 GDF APPROACH PROCEDURE- Used under' n9 K. y: w3 u& Y# n0 f t emergency conditions where another instrument 5 s% d( ]7 o5 f( i& @2 \8 U; @: ^4 H' [approach procedure cannot be executed. DF guidance # [4 L l$ a/ V5 X8 E+ Pfor an instrument approach is given by ATC facilities ! l" O" W* D7 [1 J. |with DF capability.6 A1 ^( Y& j4 ^6 D# v* r$ t; T( W (See DF GUIDANCE.) 4 y8 x% k) u: O3 w% ~(See DIRECTION FINDER.) ! d2 Q9 i0 |3 _0 }(Refer to AIM.) 3 ?2 r% i' R p1 R, fDF FIX- The geographical location of an aircraft * l4 i* p' y- Dobtained by one or more direction finders.1 g! U; m$ y2 V7 K5 ] (See DIRECTION FINDER.) 0 |: m- }) {$ n& lDF GUIDANCE- Headings provided to aircraft by 8 e7 P' \ f& ufacilities equipped with direction finding equipment.$ i: ]0 Y" e' U; v, D These headings, if followed, will lead the aircraft to ) o4 N8 Z" r; P) O4 R% ^! Va predetermined point such as the DF station or an 6 q8 W6 w2 w9 Y/ ~/ Aairport. DF guidance is given to aircraft in distress or- T, g+ y" Y2 x' h to other aircraft which request the service. Practice6 H2 [* Y0 i2 X0 N# Q. t DF guidance is provided when workload permits. " u; u) }7 E- ](See DIRECTION FINDER.)8 b( T4 E; U* u3 `8 j% X (See DF FIX.) * c _5 z" z8 ^5 r/ b(Refer to AIM.)1 r/ R7 v9 p7 A! l. Y% B) Y DF STEER(See DF GUIDANCE.). ?" z) p8 F' z4 S' L DH(See DECISION HEIGHT.) ; [, F3 l4 z+ b5 p7 [DH [ICAO]- * S' a7 S4 Z. ^5 T9 A% _(See ICAO Term DECISION ALTITUDE/ , u% _( T# B6 A5 `2 n9 X- U- kDECISION HEIGHT.)' _& T' g+ t8 o' I DIGITAL‐AUTOMATIC TERMINAL INFORMA‐" M5 u7 V5 {4 c5 c7 d# y9 w TION SERVICE (D‐ATIS)- The service provides * l$ {* G K$ atext messages to aircraft, airlines, and other users2 K% L+ A- _ J/ B outside the standard reception range of conventional 4 P/ U* u, g K FATIS via landline and data link communications to 5 B( c& S: w+ F5 F, B. dthe cockpit. Also, the service provides a computersynthesized voice message that can be transmitted to. h' M# H3 g5 E- V) E. l+ D all aircraft within range of existing transmitters. The6 ~( s+ D' X- j3 `. s; d4 U Term inal Data Link System (TDLS) D‐ATIS0 T/ I% n3 k2 G( Q+ b* N application uses weather inputs from local automated ' u% a6 _, q5 z! w5 p; Lweather sources or manually entered meteorological) o( l" }& H1 J! q" } data together with preprogrammed menus to provide4 d: a2 \$ ^, h' N$ h8 q standard information to users. Airports with D‐ATIS6 z/ ]# F8 ^; k j9 K% R/ X# [ capability are listed in the Airport/Facility Directory.: V a, V# [' e& z0 g3 ?5 u DIGITAL TARGET- A computer-generated symbol' k) c* O' ?2 X3 C# @5 x% t8 j8 Y representing an aircraft's position, based on a primary# K) x. T- `3 x6 K5 T6 t return or radar beacon reply, shown on a digital ; @" N3 N% x# L3 K0 b: q6 ^- |display. M5 C! f/ n, DDIGITAL TERMINAL AUTOMATION SYSTEM) W# ]% F: l# p( w% \ (DTAS)- A system where digital radar and beacon8 b; [6 G% X- ?6 k* a- p data is presented on digital displays and the 5 o0 x0 [0 r' @ ~, r* f! Aoperational program monitors the system perfor‐3 {+ j. ]2 e; @# x9 k$ u+ C mance on a real-time basis.4 Z# B* v- y8 w1 T- \' u7 _6 ~( I DIGITIZED TARGET- A computer-generated , S: y; `9 {) _6 xindication shown on an analog radar display resulting2 z" ? o7 i2 n# L; D* t from a primary radar return or a radar beacon reply.: b3 s4 U+ l8 e+ y DIRECT- Straight line flight between two naviga‐ . F* Y; z+ ?& a* L& ntional aids, fixes, points, or any combination thereof. + w# K3 [5 v1 a+ {( IWhen used by pilots in describing off‐airway routes," f$ k; X( y/ Q" t8 `" ~" b points defining direct route segments become ( L# V1 P5 `+ n5 i+ M9 {compulsory reporting points unless the aircraft is 8 X$ V. B T3 Lunder radar contact./ ?: L5 W3 G! R( K5 h DIRECT ALTITUDE AND IDENTITY READ‐1 P% R& f% x( q& a3 t3 q OUT- The DAIR System is a modification to the* B2 s: C2 d% P+ L7 l& ] Pilot/Controller Glossary 2/14/08: F& f+ W, C4 J; E4 }- A PCG D-3 ; I& x, {' ?2 p4 e* WAN/TPX‐42 Interrogator System. The Navy has two ' Z( A6 j' J9 Z! _6 Vadaptations of the DAIR System‐Carrier Air Traffic # V4 a2 |( R4 i8 S8 R+ d% e# a7 _Control Direct Altitude and Identification Readout ' P7 E4 `8 r' j; [5 `: TSystem for Aircraft Carriers and Radar Air Traffic " Y% {+ y( }8 X' _6 w3 E! ~3 ZControl Facility Direct Altitude and Identity Readout 4 ]' D Y5 C- H) U# fSystem for land‐based terminal operations. The& B7 O. N0 R* @; k1 o% V, B DAIR detects, tracks, and predicts secondary radar 1 z( }' n* G+ b- d+ faircraft targets. Targets are displayed by means of4 @) n1 @6 v/ U. [6 p computer‐generated symbols and alphanumeric , _+ p: p* ^9 [characters depicting flight identification, altitude, 5 T4 W3 [0 N) i- b% w: bground speed, and flight plan data. The DAIR System ) K9 x m( C" Nis capable of interfacing with ARTCCs. ( G$ }: [; N( |* bDIRECTION FINDER- A radio receiver equipped ( h. F- o0 n* u8 ]( dwith a directional sensing antenna used to take 7 _* L6 _+ A! ?. t; H! m% S, z6 f& Nbearings on a radio transmitter. Specialized radio ! C7 p6 Q$ r( S3 E# l3 Kdirection finders are used in aircraft as air navigation" y* E6 f h0 B, S* c8 T( _0 h) s aids. Others are ground‐based, primarily to obtain a ( c, d" F m) Z# Z+ h“fix” on a pilot requesting orientation assistance or to6 b& j& k U$ Y$ @: Z4 g locate downed aircraft. A location “fix” is established9 V2 i- ` N, D! u1 q, D by the intersection of two or more bearing lines! A; g& [, d2 A, a; K4 y- k plotted on a navigational chart using either two' _! O9 Z- ^4 y+ b) M6 C/ y! H8 M separately located Direction Finders to obtain a fix on 2 w' t+ _9 j3 A- q6 V( T- Gan aircraft or by a pilot plotting the bearing }7 }0 p) _- K# i: Zindications of his/her DF on two separately located ) k% b3 c8 |( _/ Vground‐based transmitters, both of which can be 1 F$ v {) o/ P/ kidentified on his/her chart. UDFs receive signals in; G1 I% L6 V) ?5 u the ultra high frequency radio broadcast band; VDFs) L" n/ w, \9 O1 H8 H1 L in the very high frequency band; and UVDFs in both+ u" o! I Y, y1 a$ \ bands. ATC provides DF service at those air traffic 9 f4 i+ Y7 C& _control towers and flight service stations listed in the * u) s( }& ]9 x5 _6 zAirport/Facility Directory and the DOD FLIP IFR En - r! q2 C; O) l) g2 i8 \Route Supplement. 1 o+ x! U, s# G/ s4 A) H(See DF FIX.)) _4 D8 I7 D3 o. d (See DF GUIDANCE.)1 `9 c7 k6 q, @6 P; T DIRECTLY BEHIND- An aircraft is considered to 9 e5 v% `8 ]1 i8 Abe operating directly behind when it is following the7 K* x: T" S9 {5 m, r: O% | actual flight path of the lead aircraft over the surface % C* q) x. n( j5 v3 \of the earth except when applying wake turbulence 0 v2 W- S$ ` |6 K0 C" y( Iseparation criteria. , e0 }3 O0 @# \: R5 o% g% gDISCRETE BEACON CODE(See DISCRETE CODE.)* R2 @5 t- q6 \! n5 [1 K DISCRETE CODE- As used in the Air Traffic+ p- k6 ]- Y: x( V Control Radar Beacon System (ATCRBS), any one 6 [! s5 H/ Q5 E' V- n. fof the 4096 selectable Mode 3/A aircraft transponder n" d& W# c, g/ i- z4 ^codes except those ending in zero zero; e.g., discrete - m( s, p" E% Ecodes: 0010, 1201, 2317, 7777; nondiscrete codes:% e7 I2 O2 f/ m2 s9 u9 `; C8 d" F 0100, 1200, 7700. Nondiscrete codes are normally $ p9 V M* N) i0 m6 zreserved for radar facilities that are not equipped with5 H; S, d |; \% ? discrete decoding capability and for other purposes 9 R2 ?* j0 m* h# Osuch as emergencies (7700), VFR aircraft (1200), etc.1 S0 A( T; d& I& U" K K. e (See RADAR.)) t0 o4 n! e- }9 B4 q (Refer to AIM.) ' h* h" h/ U6 ?5 T/ ~) Q- p5 _DIS CRETE FREQUENCY- A separate radio ! r; i/ I' F, d5 A. U( p' x/ ifrequency for use in direct pilot‐controller commu‐* i3 q- e3 Y' b) k( W nications in air traffic control which reduces$ k+ K3 m" p6 k) Y frequency congestion by controlling the number of' k9 s0 y7 s. ]: ?! _/ a8 X4 P+ S aircraft operating on a particular frequency at one: Y- }6 `$ p# N4 x; b+ C5 n time. Discrete frequencies are normally designated ' `# K; X6 e8 z+ @- {; Ffor each control sector in en route/terminal ATC 3 v8 E! C. N/ Pfacilities. Discrete frequencies are listed in the 6 Y8 T5 d0 i JAirport/Facility Directory and the DOD FLIP IFR En ; T! d M! R0 ]* v/ M; E9 K. C7 HRoute Supplement. ; L0 ~, ?# V6 Q/ X. F% u9 Y(See CONTROL SECTOR.)* y9 [7 }1 q6 ]! k4 J7 i% \1 p! C9 p DISPLACED THRESHOLD- A threshold that is + S# u( E: ]" I. tlocated at a point on the runway other than the9 K- J4 D$ F0 T1 |3 H, t1 y1 F designated beginning of the runway. ) ^' ]4 w) p5 X! M(See THRESHOLD.)0 Z" [+ j. I2 m) W (Refer to AIM.) - }$ @6 Y4 I/ R9 z' G5 S5 ]" ?DISTANCE MEASURING EQUIPMENT- Equip‐ U0 z! v2 W* \$ R$ V ment (airborne and ground) used to measure, in: v8 g% Q' x; i6 ]8 q% k [ nautical miles, the slant range distance of an aircraft( [( N) K8 E4 J h7 u( E from the DME navigational aid. 2 W) ]2 R. \# A7 H% d(See MICROWAVE LANDING SYSTEM.) % Q4 k$ f+ {9 X7 J(See TACAN.)5 t) O1 N7 y3 {3 W# X: z! v7 Y (See VORTAC.)) y& p3 C2 O2 p" N, z: _$ X4 B DISTRESS- A condition of being threatened by! U5 T: @% P$ l serious and/or imminent danger and of requiring 7 V4 s- H4 A! ?5 b) N1 |9 {8 simmediate assistance.1 V; M- B! y) A7 B* A3 p DIVE BRAKES(See SPEED BRAKES.) " M5 J3 z8 k* N9 ?( qDIVERSE VECTOR AREA- In a radar environ‐ $ s6 W! Y, S& O) T1 Nment, that area in which a prescribed departure route , L( f$ t5 w! l) {9 O1 Y# ris not required as the only suitable route to avoid3 T7 l' [% t" K( c: I2 }& o+ m obstacles. The area in which random radar vectors/ F4 Y$ ~5 b: H) ]6 j& \: F below the MVA/MIA, established in accordance with + g& |. t7 l3 r7 E. | z+ }& W7 c) h4 ^the TERPS criteria for diverse departures, obstacles - d9 C6 x+ m! X: [! s' Z5 hand terrain avoidance, may be issued to departing % R$ K+ d3 X1 H+ Q9 p& ?aircraft. 8 _. B2 u# }, j* d8 G' F% IDIVERSION (DVRSN)- Flights that are required to0 R; d( N3 j; L$ h% C6 p3 R land at other than their original destination for $ l) R# h3 G, ^! q6 E1 ~# z# Areasons beyond the control of the pilot/company, e.g.' r, z& k+ \5 m( B5 @ periods of significant weather.4 o; r$ i t4 f7 X4 c8 M, @ DME(See DISTANCE MEASURING EQUIPMENT.) / S, w$ u7 L4 f2 tPilot/Controller Glossary 2/14/085 \1 E3 e( g' K) Q PCG D-40 b6 u4 i' C" q; `# S DME FIX- A geographical position determined by" w4 b& [$ G; n; m R; H/ Y reference to a navigational aid which provides 9 W1 W( S7 B" o8 o' ydistance and azimuth information. It is defined by a7 u, ^6 c- z& w9 q4 _ specific distance in nautical miles and a radial,9 e1 G/ X. N( n8 T2 T5 q* Y6 N azimuth, or course (i.e., localizer) in degrees o5 Z6 @0 n1 k3 Y magnetic from that aid.! v. Z( z3 y( \+ H0 A3 N3 n. q) K (See DISTANCE MEASURING EQUIPMENT.) Z1 g8 c5 G" s/ a, {* r(See FIX.) $ z) Q7 A( L4 h9 D(See MICROWAVE LANDING SYSTEM.) - w# a" y8 m( n7 aDME SEPARATION- Spacing of aircraft in terms of! m& m% g% I: i& ]) Z/ ~' u distances (nautical miles) determined by reference to2 C1 d% x& T2 L- Q; y distance measuring equipment (DME). y$ O1 K* \) I# W" I(See DISTANCE MEASURING EQUIPMENT.) 1 e8 ~6 G3 t$ uDOD FLIP- Department of Defense Flight Informa‐ o- }, y0 {8 ^" ytion Publications used for flight planning, en route,3 F; B: w! s# A( Z* G$ v1 C and terminal operations. FLIP is produced by the- w9 @# W3 B( g+ [% |, d* J; B National Imagery and Mapping Agency (NIMA) for* l; G9 ~3 }4 g: J8 F* J# T world‐wide use. United States Government Flight3 z0 w8 c# B) Y/ x1 u Information Publications (en route charts and : S, L% N5 k# f7 R/ Pinstrument approach procedure charts) are incorpo‐ " H- L* Z" ]% h5 r, p! prated in DOD FLIP for use in the National Airspace + l$ W0 m, `2 Q2 BSystem (NAS).- A4 ~: I$ J% ^& { DOMESTIC AIRSPACE- Airspace which overlies6 B) o, g' G2 Y5 ? the continental land mass of the United States plus + q. R, E" N: A8 W% {- ~Hawaii and U.S. possessions. Domestic airspace0 L, y+ \4 ]4 v+ \3 Z, L! ?+ ] extends to 12 miles offshore.* k! c" n& u4 L' o( ^ DOWNBURST- A strong downdraft which induces) p2 g$ ]1 [# a w& t2 D an outburst of damaging winds on or near the ground.! x3 P+ \' B6 K* P# L Damaging winds, either straight or curved, are highly 0 W2 \' y* a6 P: Jdivergent. The sizes of downbursts vary from 1/2 # I0 d% ~/ C% k% n: N' S8 k$ R% Xmile or less to more than 10 miles. An intense, m- L# P. |' [1 M0 k. B3 M2 a downburst often causes widespread damage. Damag‐ K* O5 _0 _6 W& l& Z0 @ing winds, lasting 5 to 30 minutes, could reach speeds4 y6 x) E4 U& f2 v* K/ x: Q as high as 120 knots.% g. s$ o6 C ^* }& q; m8 ` DOWNWIND LEG(See TRAFFIC PATTERN.) 4 `! i8 ~, J5 G0 X7 d! _3 q$ R2 mDP(See INSTRUMENT DEPARTURE PROCEDURE.)( e: K3 ]* e2 |7 P, W2 J DRAG CHUTE- A parachute device installed on $ p0 L5 `3 _; e. K3 h8 Ycertain aircraft which is deployed on landing roll to3 g6 ]- V* r: w ~# k" x1 y assist in deceleration of the aircraft. 5 y, z3 j& M8 oDSP(See DEPARTURE SEQUENCING PROGRAM.)2 J! }% I% t, i% V) ?9 m DT(See DELAY TIME.) r4 c8 T- y4 b8 C2 c, y DTAS(See DIGITAL TERMINAL AUTOMATION& F: {- ?5 [- }+ R SYSTEM.)- @" q5 H; _! t* b0 Y3 n DUE REGARD- A phase of flight wherein an " r9 t o3 t; B# k: C) naircraft commander of a State‐operated aircraft 4 F; a# c4 v; F! |0 s5 G& eassumes responsibility to separate his/her aircraft + \$ ?9 K' S2 |7 R& Kfrom all other aircraft. 2 n! h( ^& C+ I- ~* `(See also FAAO JO 7110.65, Para 1-2-1, WORD + {8 n1 r. c; F# `6 X( ~; N: ZMEANINGS.) 5 a. ]' \' g+ X9 C% i0 H! E; ^9 \DUTY RUNWAY(See RUNWAY IN USE/ACTIVE RUNWAY/DUTY# Z# g/ ^5 \1 Q: I4 P- W. U% } RUNWAY.)4 c0 ^, }$ ~' }: p( X9 ]* [* H3 u DVA(See DIVERSE VECTOR AREA.)$ D8 w; {% M1 `7 k DVFR(See DEFENSE VISUAL FLIGHT RULES.)7 j+ r$ p% y4 i. M& i1 o& ] DVFR FLIGHT PLAN- A flight plan filed for a VFR- _9 E9 U6 Q! \) Y! k4 r, n2 L aircraft which intends to operate in airspace within: n, B8 i( p8 k which the ready identification, location, and control2 w) |, v, n, Y! Y of aircraft are required in the interest of national, M, r$ u9 r; T- X4 R security.3 L, h+ r) [9 N2 R DVRSN(See DIVERSION.)2 L$ f) P" W* ^# l; @: ^ DYNAMIC- Continuous review, evaluation, and0 `' s: p6 H" c- p$ O+ Q change to meet demands.# B8 F1 Y" Y) y# t! T h! Z* c: O, {8 h DYNAMIC RESTRICTIONS- Those restrictions , t/ h6 g2 V# f* I, p5 b% y5 Wimposed by the local facility on an “as needed” basis* s, C, ^% d6 j to manage unpredictable fluctuations in traffic* x; _3 a- P6 q1 m) t3 W4 U demands.' a0 u3 c* p k Pilot/Controller Glossary 2/14/081 h; z/ a0 k: K. p# c/ z2 g$ a0 d# l PCG E-1 : u3 v; L# j4 i# ZE # A2 c# D& O) m: V7 e7 eEAS(See EN ROUTE AUTOMATION SYSTEM.)5 N o# a: h% V/ q EDCT(See EXPECT DEPARTURE CLEARANCE1 R/ {' E3 M# W9 `* o- F7 H0 r5 I8 Q1 X TIME.) / g3 m! j# z: v4 B, c) m$ b5 Z" \EFC(See EXPECT FURTHER CLEARANCE (TIME).) $ r5 u9 z* Z6 d0 fELT(See EMERGENCY LOCATOR TRANSMITTER.)' n H! d2 X4 a6 p EMERGENCY- A distress or an urgency condition. & [6 h$ f% q9 qEMERGENCY LOCATOR TRANSMITTER- A; V3 V8 ?' h3 b! L radio transmitter attached to the aircraft structure' [! O) f1 m4 m* K; g& ~ which operates from its own power source on5 P" M8 c; p, u6 D7 G' | 121.5 MHz and 243.0 MHz. It aids in locating * A$ R. x7 U) Y- A# Edowned aircraft by radiating a downward sweeping , `1 U8 O1 v2 y* Qaudio tone, 2‐4 times per second. It is designed to/ O9 S+ O% E; [: ^ function without human action after an accident.# A$ r/ ?1 O: W3 |, c) N (Refer to 14 CFR Part 91.)1 @+ }5 G- u( U* n T4 }$ Q, u (Refer to AIM.) 5 l" F- |! d: q( u, J7 XE‐MSAW(See EN ROUTE MINIMUM SAFE ALTITUDE / q2 }& w1 e! K4 |WARNING.) / {! z* D A/ A- WEN ROUTE AIR TRAFFIC CONTROL SER‐, `! Q1 z0 n6 R1 P1 f VICES- Air traffic control service provided aircraft . x- E+ j$ V4 N! `9 f" T9 t; r" oon IFR flight plans, generally by centers, when these + R8 B1 ?# E! x; Maircraft are operating between departure and6 E2 w$ e5 q/ Q. s destination terminal areas. When equipment, capa‐ 8 Y u+ W2 i4 ?bilities, and controller workload permit, certain; }+ ]! j0 {2 f advisory/assistance services may be provided to VFR3 y% ^1 E! ~# f; Q# }& a. `4 n aircraft. ) D9 u, E6 {, b d(See AIR ROUTE TRAFFIC CONTROL 6 B3 A5 |" j; XCENTER.)" Q* j8 M0 I/ r/ r. V5 P" H. p (Refer to AIM.)( C- `9 U0 w" A3 ?0 N# a. |$ _ EN ROUTE AUTOMATION SYSTEM (EAS)- The+ |: l9 i' l! f, c complex integrated environment consisting of7 ~2 ~ R/ T' G+ V situation display systems, surveillance systems and. J- X3 I2 y I0 @0 o flight data processing, remote devices, decision ( A h d- Y# t4 Jsupport tools, and the related communications 1 b y; ?& U& A! u% i# Q @equipment that form the heart of the automated IFR' L" o, Z7 `% D' T5 V) K( q' { air traffic control system. It interfaces with automated+ \5 J3 b. W9 S2 y, C terminal systems and is used in the control of en route" R. W5 m# v3 G3 e+ L IFR aircraft.$ [2 J* V- N8 z9 R2 g: X3 Q (Refer to AIM.)* J( i: U3 b* l/ J% X EN ROUTE CHARTS(See AERONAUTICAL CHART.); ]- j$ o! M( P2 c d; \ EN ROUTE DESCENT- Descent from the en route 5 O$ j5 I8 j- m& rcruising altitude which takes place along the route of : ]3 u! i5 f+ ~1 D4 Jflight. 1 ?. A* @0 C; i: |0 @' }$ MEN ROUTE FLIGHT ADVISORY SERVICE- A; W) Z k) @! G service specifically designed to provide, upon pilot 8 ?1 e( _: F& B# irequest, timely weather information pertinent to 4 n! h# ~' `. I: Q1 m1 C" A* Whis/her type of flight, intended route of flight, and( G9 \& ]* d" h; ^, M altitude. The FSSs providing this service are listed in , V1 q. }, q P: o% Zthe Airport/Facility Directory.& i- p, e* w4 r3 h4 c (See FLIGHT WATCH.)' C5 l* R0 k0 P) V! O1 c (Refer to AIM.) i9 ~3 W, {' aEN ROUTE HIGH ALTITUDE CHARTS(See AERONAUTICAL CHART.) ; y; i3 C* b! R9 YEN ROUTE LOW ALTITUDE CHARTS(See AERONAUTICAL CHART.) % d# v/ c& }- X% LEN ROUTE MINIMUM SAFE ALTITUDE WARN‐: f! X8 b% s" ]' a G# j ING- A function of the EAS that aids the controller 7 T" }4 k+ b) ^6 o/ V! eby providing an alert when a tracked aircraft is below2 B/ V5 K2 q# ^$ J or predicted by the computer to go below a: f M0 ?5 k/ n9 H) m predetermined minimum IFR altitude (MIA).: a; j$ x1 W4 x3 C4 j2 s: c EN ROUTE SPACING PROGRAM (ESP)- A , T5 ^" |% O; }7 P8 V- h. \% d9 \program designed to assist the exit sector in4 [4 o4 n' c4 I: j0 R3 {, D# v achieving the required in‐trail spacing. ( g7 S2 ^4 { [6 a* dEN ROUTE TRANSITIONa. Conventional STARs/SIDs. The portion of a1 J0 Q7 W/ k9 S1 u6 o5 C: t SID/STAR that connects to one or more en route* Z8 J- l) g* [% h# ?% _ airway/jet route.3 s( w; [" |* t' M b. RNAV STARs/SIDs. The portion of a STAR4 x: A! U( n1 v/ [ preceding the common route or point, or for a SID the 4 Y, u1 n2 K% a# }1 Fportion following, that is coded for a specific en route ! _& g2 W# u1 m: [ f/ I# B- xfix, airway or jet route. % s7 F' M8 N4 pESP(See EN ROUTE SPACING PROGRAM.)" f# Z# N- f" ^' g4 M" m) Q/ \3 s ESTABLISHED-To be stable or fixed on a route,, O0 i4 N# u0 p- `$ g route segment, altitude, heading, etc. ( Y8 L/ g, K. d* @5 cESTIMATED ELAPSED TIME [IC AO]- The 1 Y1 n$ S6 j1 S8 [0 w; H$ ]/ F2 V$ ~estimated time required to proceed from one2 b. V- f% l$ @" d* a. I significant point to another.2 b; m$ w0 V# J: D; h (See ICAO Term TOTAL ESTIMATED ELAPSED' Z3 F. W6 |% z, A* @& V# r3 I TIME.)0 F( s* Y4 _9 l Pilot/Controller Glossary 2/14/083 b7 B/ K# R7 ]9 k PCG E-2 + T& `# @2 ^4 j0 W; n4 H0 e8 |: [ESTIMATED OFF‐BLOCK TIME [ICAO]- The 5 Z6 w+ t7 G, M4 A" f% h( x. x% ]estimated time at which the aircraft will commence $ l4 s" p, e: I9 o1 ^% Omovement associated with departure. 9 z3 g3 m4 m0 K0 {& @' \ESTIMATED POSITION ERROR (EPE)-7 {# L' G1 ?$ C7 ? [* d8 B (See Required Navigation Performance) / C1 c7 x. j: ^3 j) ?/ D0 @1 s4 cESTIMATED TIME OF ARRIVAL- The time the ! }% f o5 g( h3 h+ Nflight is estimated to arrive at the gate (scheduled0 e5 H4 ~4 y2 ^5 I( ]7 Q b operators) or the actual runway on times for7 v; V" K" Z, v: {( B' H! y* { nonscheduled operators.* `. c8 ]2 C: t: s8 L ESTIMATED TIME EN ROUTE- The estimated 6 i' g1 [, ]1 y t$ y, Kflying time from departure point to destination G3 S" G7 i% d' ?* o(lift‐off to touchdown). : _1 u9 X* l$ f( j& q- X! |ETA(See ESTIMATED TIME OF ARRIVAL.) # z( u' ^/ b- `8 U% bETE(See ESTIMATED TIME EN ROUTE.)5 ?" o" E# Y5 p; a9 w# P+ _ EXECUTE MISSED APPROACH- Instructions, q& t( Y4 _- {, u issued to a pilot making an instrument approach V8 O2 y: j7 U' ]8 |which means continue inbound to the missed 4 a% b1 J/ n1 g9 |/ ^approach point and execute the missed approach " U, W; U- N1 S$ A. B2 {procedure as described on the Instrument Approach! ^* }0 O" Y& t3 g Procedure Chart or as previously assigned by ATC. b3 m/ ^7 C8 @/ y( ?/ I The pilot may climb immediately to the altitude8 p. g6 C, T; @/ m specified in the missed approach procedure upon' i* `1 o: X% x7 e% x, o making a missed approach. No turns should be2 ]! b" _% a8 R, j5 {% I initiated prior to reaching the missed approach point.( U2 o% x t, _6 D9 k' N2 _ When conducting an ASR or PAR approach, execute9 Z& `, b& h$ a# x/ ^, o the assigned missed approach procedure immediately 1 [# a/ x, i/ k. Dupon receiving instructions to “execute missed ) n5 C4 @# H- p$ japproach.”- U' G. g% M( n, K9 i7 ^ (Refer to AIM.)2 o. W" B% M' y EXPECT (ALTITUDE) AT (TIME) or (FIX)- Used) f6 }" ]/ D' f6 I4 w0 D* q under certain conditions to provide a pilot with an ; w% e0 t/ \; V9 V, g* }7 l% j$ Qaltitude to be used in the event of two‐way& p6 ?1 F/ ^' X3 `; R3 N3 F# N communications failure. It also provides altitude3 q6 m6 }- _% O4 Z/ g$ I8 l, a information to assist the pilot in planning.) e& U7 @! l" l8 n; l (Refer to AIM.) 4 g, V2 T% B, w* kEXPECT DEPARTURE CLEARANCE TIME0 f% C6 _- ?' e! p- A (EDCT)- The runway release time assigned to an " m5 ] g4 I# G9 G6 Y& X, daircraft in a traffic management program and shown 5 \3 W( g+ @! b6 I0 O0 u3 E1 ^on the flight progress strip as an EDCT. ) a$ I1 w; L8 p, P1 E(See GROUND DELAY PROGRAM.) ) t% V9 ^; b) H% ^! PEXPECT FURTHER CLEARANCE (TIME)- The j/ @5 h! m/ i$ d% S2 g; \ time a pilot can expect to receive clearance beyond a9 m6 x/ S! R) V% _' l clearance limit.7 M; v/ z1 X" x EXPECT FURTHER CLEARANCE VIA (AIR‐ ( A! I- Q8 P @) ~1 Q1 K" tWAYS, ROUTES OR FIXES)- Used to inform a3 j W0 w: n9 c; p, J# b9 G0 W7 J- k* b pilot of the routing he/she can expect if any part of the" l) T* V( I9 g) s route beyond a short range clearance limit differs! F7 u* j9 f$ C% B3 t& x) y from that filed.7 E- t- N% O. k EXPEDITE- Used by ATC when prompt com‐+ a& M. {: r4 {# V+ @1 X8 P2 | pliance is required to avoid the development of an2 H: z( C6 y( k; M imminent situation. Expedite climb/descent normal‐& o4 ~- S7 X k( Y4 C+ E1 R ly indicates to a pilot that the approximate best rate 3 @1 Z. E0 w" I- K$ a1 \3 hof climb/descent should be used without requiring an $ c! P$ n4 h. X: {exceptional change in aircraft handling characteris‐ 2 S, s% |5 f' A7 Utics. 1 C6 |: ^& n+ `; e: aPilot/Controller Glossary 2/14/08 / p2 G3 I1 Y" k% S1 |PCG F-1# t* j1 _8 k* |3 W$ K F ( q( T5 a0 J/ Y- W3 MFAF(See FINAL APPROACH FIX.) + q$ t: x7 K# W" i) qFAST FILE- A system whereby a pilot files a flight $ s- f; Y- C" u# }9 \+ e; Dplan via telephone that is tape recorded and then * B6 m! ~$ v m$ i7 |% t5 F. Itranscribed for transmission to the appropriate air $ e7 Q$ o$ w9 A! Y$ btraffic facility. Locations having a fast file capability! z4 I3 W7 _' d/ J4 a2 R are contained in the Airport/Facility Directory. 5 @4 {. W/ f) n2 G8 t(Refer to AIM.) : u) R' f8 C B: X4 k: E. v- |FAWP- Final Approach Waypoint; n8 j" I8 K0 O2 t$ a FCLT(See FREEZE CALCULATED LANDING TIME.)8 B8 I8 A6 a/ r FEATHERED PROPELLER- A propeller whose" W( d* m, K P# `1 [, N# f$ [ blades have been rotated so that the leading and: O1 L( f7 P. _+ K# V trailing edges are nearly parallel with the aircraft & w! f+ A; ^7 Vflight path to stop or minimize drag and engine - ^- l& u8 s$ Crotation. Normally used to indicate shutdown of a " g- c, f6 }$ q, C4 P. P9 V" ]5 H* ]reciprocating or turboprop engine due to malfunc‐ 4 m" i6 f% R$ ~! r2 e" vtion. # m5 r o) t7 q8 sFEDERAL AIRWAYS(See LOW ALTITUDE AIRWAY STRUCTURE.)" Q) E, {- l8 N) g& ~ FEEDER FIX- The fix depicted on Instrument 5 a) O# c& [3 s) l: \. B, u* oApproach Procedure Charts which establishes the1 L7 }# r8 N9 h. O1 W starting point of the feeder route. 2 X6 F6 W! U TFEEDER ROUTE- A route depicted on instrument 7 l3 p# }, @/ n" D5 c1 Japproach procedure charts to designate routes for / m7 Q* a' D; Gaircraft to proceed from the en route structure to the + j6 B7 Z0 J/ y, D7 a9 _initial approach fix (IAF). $ {) S2 W* Q4 |(See INSTRUMENT APPROACH" j- G, [( u) M' q, i6 h" T4 ` PROCEDURE.) ( N F7 m0 P6 Q, j l; hFERRY FLIGHT- A flight for the purpose of: O+ ?% [! x* L. `& ~! r% o a. Returning an aircraft to base.4 V) o+ @+ M; B) m b. Delivering an aircraft from one location to $ ^! h! D. m+ x$ V2 Ganother. 4 t; I/ [, ~* V" G" Z, i6 s' u2 uc. Moving an aircraft to and from a maintenance 2 b: M ~ m0 U& D" X% Rbase.- Ferry flights, under certain conditions, may be9 D6 ^& X4 e/ S$ K5 [+ ]( v7 e; ? conducted under terms of a special flight permit. 4 s7 l5 K) f" lFIELD ELEVATION(See AIRPORT ELEVATION.) ' x2 @( w% G4 K$ AFILED- Normally used in conjunction with flight ( L/ S" e( |7 J1 kplans, meaning a flight plan has been submitted to: L- L" |* T! C; p# P5 V8 e ATC.7 b# [; l5 K D- v# K I% L FILED EN ROUTE DELAY- Any of the following . g5 e( q: F% H o, Cpreplanned delays at points/areas along the route of & O1 H0 M! \4 ^; Sflight which require special flight plan filing and 7 u$ b; M7 o+ B- q. R' {/ p6 shandling techniques. ! Q* |! v% w4 r- ^8 p! qa. Terminal Area Delay. A delay within a terminal" o( X8 _$ t9 _/ g/ A. Z- X area for touch‐and‐go, low approach, or other) b( X! `4 ]' I% Z; M terminal area activity. , Q5 _, X, l: N( g3 g0 t8 Rb. Special Use Airspace Delay. A delay within a0 C* V3 |/ _" R* X Military Operations Area, Restricted Area, Warning% {- M0 f M s4 V Area, or ATC Assigned Airspace. 3 @5 g( r2 E5 H$ t$ U: l$ Lc. Aerial Refueling Delay. A delay within an ' N0 ~% O- I2 X* c$ W) |$ d& HAerial Refueling Track or Anchor./ A$ J* k% \# H" g FILED FLIGHT PLAN- The flight plan as filed with # s8 m; \; l' p( c4 { dan ATS unit by the pilot or his/her designated4 e! w1 t$ p" O7 w5 S; x$ K representative without any subsequent changes or+ k/ B) [9 B, L2 T/ m" A, [: ~ clearances.8 Y( j( Q, x& Y$ U# l% T" Q& Q; I FINAL- Commonly used to mean that an aircraft is 8 i6 n" d# ?0 e* K. fon the final approach course or is aligned with a; v( a* m9 m* D. W6 v; ]9 q landing area., v: [: {4 q- V0 H (See FINAL APPROACH COURSE.)5 `' y5 i6 ^/ p# E7 M7 {8 _ (See FINAL APPROACH‐IFR.)& v% G8 t* K* \0 {0 ~5 i (See SEGMENTS OF AN INSTRUMENT $ Y6 \: a1 w, m' ^0 ?APPROACH PROCEDURE.) 1 j# X/ l+ r5 V9 AFINAL APPROACH [ICAO]- That part of an6 ^% n& t9 |4 x C- u: h instrument approach procedure which commences at % ^0 U- |, j7 ~. u' `the specified final approach fix or point, or where+ c- L+ J" \2 P" ]- h0 |* J. f! U such a fix or point is not specified. - i+ ?1 Z y* H7 i: I% l# x0 K- Ra. At the end of the last procedure turn, base turn6 s7 D: l7 q: ?& @. m or inbound turn of a racetrack procedure, if specified;6 l( j: g5 X4 W' {5 D4 v0 ^% o* y or2 V7 Z( F' w7 \0 ^3 k6 i* Z- ^4 A b. At the point of interception of the last track& }: n+ I- @. n0 e$ a specified in the approach procedure; and ends at a 0 [0 G) G3 Q/ H' G, cpoint in the vicinity of an aerodrome from which: ?6 Y! V' ]" u$ Y* \ 1. A landing can be made; or4 J% s& V8 l8 a7 Q; j* R ~ p2 K 2. A missed approach procedure is initiated. U1 _/ X6 j1 A4 M+ j6 b: \* WFINAL APPROACH COURSE- A bearing/radial/ , j) U1 H k- m- otrack of an instrument approach leading to a runway " D: {3 D$ g8 r# s: Uor an extended runway centerline all without regard2 A8 m4 B. q9 H- ^) h to distance. ! W- ^7 ^9 b/ Q+ j2 SFINAL APPROACH FIX- The fix from which the D; s1 o, V: ~/ P1 y3 }% dfinal approach (IFR) to an airport is executed and ^* a8 ?3 r$ L2 X8 O+ P which identifies the beginning of the final approach * {; g5 z5 I9 o) `segment. It is designated on Government charts by 3 R9 V) W! K6 b5 {! r2 Rthe Maltese Cross symbol for nonprecision4 G$ ?2 L! X& ^7 |) F+ \2 t Pilot/Controller Glossary 2/14/083 X% ?9 `$ ?# V0 k, x! ] PCG F-24 o0 O) v5 p4 a' [( n approaches and the lightning bolt symbol for 2 W+ G1 F; z% V/ Aprecision approaches; or when ATC directs a $ @- A- z9 Q) I' p& ^lower‐than‐published glideslope/path intercept alti‐ 2 T! s2 r$ g% u/ S+ m! Btude, it is the resultant actual point of the& ^% h, A$ M8 j' N glideslope/path intercept. / J7 ^! f/ b1 d+ v(See FINAL APPROACH POINT.)- b# v; f% x5 V2 h; Z (See GLIDESLOPE INTERCEPT ALTITUDE.)3 C) c) i! X! H, `; F (See SEGMENTS OF AN INSTRUMENT 6 c' B! D! K, j% t( \3 u) KAPPROACH PROCEDURE.)0 `" T$ Y+ Y/ h/ J FINAL APPROACH‐IFR- The flight path of an ; h( ?* C4 I( H# q+ S8 t1 raircraft which is inbound to an airport on a final4 P0 E1 n6 `+ K instrument approach course, beginning at the final 2 h8 `9 v) x' `3 tapproach fix or point and extending to the airport or " L3 |& Q2 |: t6 |% D d, Nthe point where a circle‐to‐land maneuver or a missed 2 E5 i- P8 a/ h& ^approach is executed. , ]: [- A( W; c6 {% |! K) t(See FINAL APPROACH COURSE.)9 U+ k! x( E/ ]0 d: B (See FINAL APPROACH FIX.)7 w3 }+ A, W1 ~, ^1 _ (See FINAL APPROACH POINT.)/ ]+ e1 p. G: M( C (See SEGMENTS OF AN INSTRUMENT0 t: ?9 i" S6 Q& n9 S _; }5 B APPROACH PROCEDURE.) ' Z" c0 h% g& n1 K1 T2 S(See ICAO term FINAL APPROACH.) + {+ R5 {' t {/ TFINAL APPROACH POINT- The point, applicable- h$ |* p4 x# ~/ ] only to a nonprecision approach with no depicted , E s6 Y; p! u0 ?4 T8 @ eFAF (such as an on airport VOR), where the aircraft 9 M0 L; e& Z/ p! pis established inbound on the final approach course . ]7 j% L. b" l: d* i' q( Ffrom the procedure turn and where the final approach 7 h z" w! q/ c# idescent may be commenced. The FAP serves as the ; Q# R3 [( A4 [( }, t S% AFAF and identifies the beginning of the final( P) i4 d3 `# g3 J' \+ j approach segment. : R9 N; R4 F. ~$ c0 G4 G7 ^(See FINAL APPROACH FIX.) . E" n/ _! d% v" P" s7 P(See SEGMENTS OF AN INSTRUMENT* R- [/ Y8 G- { M APPROACH PROCEDURE.) / K0 K0 ?4 e. {/ ?7 r9 j9 uFINAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT " ~5 y8 }4 I U% D: x3 v! W+ z5 QAPPROACH PROCEDURE.), D! c, _1 ]# b FINAL APPROACH SEGMENT [ICAO]- That 4 I7 a1 s% g* ~( U) N' r5 xsegment of an instrument approach procedure in / Q( i8 s/ s( Iwhich alignment and descent for landing are) A' J! @6 P: |: N$ b% t accomplished./ b) ?6 _( o' c; n) n1 ~& ^ FINAL CONTROLLER- The controller providing& ]- K' P4 J* S0 V. z3 l, F" e4 E information and final approach guidance during PAR8 m1 @' I# }* ?# H+ j and ASR approaches utilizing radar equipment.0 x& |. q1 p0 C3 l4 c7 c (See RADAR APPROACH.)2 Y9 S% w# M5 V3 c1 E FINAL GUARD SERVICE- A value added service; H( M* I* S3 ~9 ]1 X& L$ h provided in conjunction with LAA/RAA only during9 o2 N2 f7 X% m7 O0 B periods of significant and fast changing weather3 k; J6 s# H% i. D5 x conditions that may affect landing and takeoff% `5 B; b0 j; P. j8 P" w6 _5 x9 P operations. / {5 B7 m4 t/ `! cFINAL MONITOR AID- A high resolution color 2 [4 I# w& D: T) Y. Ndisplay that is equipped with the controller alert 8 x/ ]7 J" W/ q3 A$ ]/ c: h: rsystem hardware/software which is used in the " o- p2 g) @# fprecision runway monitor (PRM) system. The, ^% |+ ~' ~- q0 [1 U: K4 G display includes alert algorithms providing the target: ^- H; t4 {% ?* E4 a4 P* c; _ predictors, a color change alert when a target1 M! g- W& K- o j+ B6 F9 V penetrates or is predicted to penetrate the no 4 p9 o) J: ]1 z4 m, C2 v* R& |$ V D* Xtransgression zone (NTZ), a color change alert if the9 e; q) R1 V1 c- s aircraft transponder becomes inoperative, synthe‐* o3 x( x% L1 h sized voice alerts, digital mapping, and like features. \9 D$ d5 ~ E7 A7 h' s; R/ T contained in the PRM system. ! `4 P5 b7 G: N U; i(See RADAR APPROACH.): N7 p+ S8 G8 x# N, f FINAL MONITOR CONTROLLER- Air Traffic 9 G/ b$ w6 u, q- Q r' n1 T( d2 E) kControl Specialist assigned to radar monitor the a- j. b& e7 _$ d6 nflight path of aircraft during simultaneous parallel ) J8 z( L$ B# S9 @; h3 Jand simultaneous close parallel ILS approach 2 M, b( k% G8 ~7 Moperations. Each runway is assigned a final monitor7 v- f9 H6 B3 P2 V4 Z& ~ controller during simultaneous parallel and simulta‐ % y: n- U+ O3 E" }$ X8 g* a8 Gneous close parallel ILS approaches. Final monitor 9 p j! X4 O6 d% E# [4 M# vcontrollers shall utilize the Precision Runway - k. j' i; q/ q* A7 n3 g7 ?- c. YMonitor (PRM) system during simultaneous close7 v8 G9 R, x% c9 m- g* Z) Y) M parallel ILS approaches. n' `0 w) J' ~, Z/ w9 O* QFIR(See FLIGHT INFORMATION REGION.)+ z# O) n& u4 D& q# l: ]5 M; W/ A FIRST TIER CENTER- The ARTCC immediately ( w/ M7 ]$ R1 P% oadjacent to the impacted center." {# l2 u" ^+ c4 }( B! [! E FIX- A geographical position determined by visual B7 y" m0 e5 S4 I( g reference to the surface, by reference to one or more3 R/ C- I+ o4 J! j9 M radio NAVAIDs, by celestial plotting, or by another; Y6 M" `7 N3 ^/ c9 w2 V5 k0 |. E navigational device.. h# ~1 ?9 z3 V FIX BALANCING- A process whereby aircraft are8 k8 `9 {3 y) g evenly distributed over several available arrival fixes ; b, q8 j: [1 e1 L2 }3 Y8 ireducing delays and controller workload. 7 z1 ^* M' e' ^' s8 L4 N) TFLAG- A warning device incorporated in certain, ` s+ A# Y) I6 e' {4 i airborne navigation and flight instruments indicating 8 c1 K' @: E$ E$ l; n! l) k9 d. C' rthat: S4 ~, }2 V1 j8 `6 {$ y4 l a. Instruments are inoperative or otherwise not ' v) r# Q1 K8 F) I; Y c2 X' Zoperating satisfactorily, or$ }7 W8 p& b9 h) ]! h1 q* |" i b. Signal strength or quality of the received signal 1 f2 S' x# K C* sfalls below acceptable values.- e" c; C% c d$ j% ?& D FLAG ALARM(See FLAG.)0 D' j _( u: j9 p: f FLAMEOUT- An emergency condition caused by a; f: X1 ]& y4 y# M& Q loss of engine power.) Q: ~* V6 d6 Z+ y FLAMEOUT PATTERN- An approach normally# ~6 Q3 }6 O; ?7 Y conducted by a single‐engine military aircraft6 V# B0 ]! ?/ g% T* P" o experiencing loss or anticipating loss of engine6 b5 l" R4 c! n, e7 l# V Pilot/Controller Glossary 2/14/08 ' K5 F1 p, s$ ^' WPCG F-3! d0 \ P4 N" {" F. P power or control. The standard overhead approach* R4 x% N: x7 i starts at a relatively high altitude over a runway 6 R% Y2 G$ b5 U" Y5 x(“high key”) followed by a continuous 180 degree1 g) m: j* n/ a) ]% Q turn to a high, wide position (“low key”) followed by " c- N/ n. q: A/ t0 G! L: P$ K# ^3 da continuous 180 degree turn final. The standard 2 F% w: U& Q" k( ^straight‐in pattern starts at a point that results in a 9 ]2 f8 l9 l$ }3 nstraight‐in approach with a high rate of descent to the $ q/ F* @' y% r( Hrunway. Flameout approaches terminate in the type ' _0 U( Z5 F; Q- Yapproach requested by the pilot (normally fullstop).$ J$ j/ P$ ^3 L- K+ j5 V: \0 [ FLIGHT CHECK- A call‐sign prefix used by FAA ' i+ u5 D. ~; Z9 v6 D' ?- j4 e$ waircraft engaged in flight inspection/certification of- Q& O5 c1 u! D8 t! G- J9 B navigational aids and flight procedures. The word, Y" d$ U3 q# q/ @ b% R% m. \ “recorded” may be added as a suffix; e.g., “Flight3 g2 [: J9 |9 U+ o I) p+ `3 ~& n( @ Check 320 recorded” to indicate that an automated' u7 V$ m! n' X+ m4 B flight inspection is in progress in terminal areas. 5 g! w) Q+ k; X. C9 @2 X2 N& A(See FLIGHT INSPECTION.)$ L% r* y9 `) u$ o$ C (Refer to AIM.)7 ^+ }- L) K- D' Z9 C( C9 }. ` FLIGHT FOLLOWING(See TRAFFIC ADVISORIES.) 2 o' c3 g7 L- Y0 jFLIGHT INFORMATION REGION- An airspace of( K1 w* ^& a. h defined dimensions within which Flight Information& ], L F5 c+ S/ f+ ]. U0 q Service and Alerting Service are provided.1 }' O$ J o7 v; N: t) F' m6 F a. Flight Information Service. A service provided# A0 d9 f R1 z1 B9 I2 @) e P for the purpose of giving advice and information" v) M# G8 V! _7 G& \/ q useful for the safe and efficient conduct of flights.1 @' `+ g0 P) F3 F b. Alerting Service. A service provided to notify o6 H/ o, |' o3 xappropriate organizations regarding aircraft in need$ T2 c6 J) Q' J* f$ ] O6 \ ? of search and rescue aid and to assist such ( _, k5 g% s6 s7 {2 Y3 }organizations as required.( F% S5 u% {! z% e5 D FLIGHT INFORMATION SERVICE- A service u' b/ h# P. ^; ~% V+ c7 q) w provided for the purpose of giving advice and 8 [ y1 ?! g2 k# y5 Q. s4 iinformation useful for the safe and efficient conduct( a* j9 a) C0 w: V of flights.! d B: }* i8 I3 l4 M, p FLIGHT INSPECTION- Inflight investigation and3 }$ u+ h2 r9 q+ i+ _+ `- r evaluation of a navigational aid to determine whether - `1 k1 D1 \& e& G( z# V* Vit meets established tolerances. ) x9 K) [7 b3 ]$ x. H(See FLIGHT CHECK.)" d7 m/ j% B' t9 i# N4 |& U6 [/ q: g (See NAVIGATIONAL AID.) 8 Z' n, H& h+ `1 [! {7 MFLIGHT LEVEL- A level of constant atmospheric$ B8 K9 k% q$ Y# C0 M pressure related to a reference datum of 29.92 inches $ o2 N0 F; x* _0 J5 kof mercury. Each is stated in three digits that represent - @$ z* @& B5 J- u) @' [! O; Khundreds of feet. For example, flight level (FL) 250 : R- R O0 p: yrepresents a barometric altimeter indication of" j: L2 B' g. ^ k7 l 25,000 feet; FL 255, an indication of 25,500 feet. ) U, y% |& W6 @- q(See ICAO term FLIGHT LEVEL.); U3 n4 z0 P$ b9 R/ A6 x Y FLIGHT LEVEL [ICAO]- A surface of constant $ Z {' U* [% Z! c/ aatmospheric pressure which is related to a specific/ M2 }3 x9 ~( H: ] pressure datum, 1013.2 hPa (1013.2 mb), and is 0 z! V0 V3 {5 zseparated from other such surfaces by specific ' d0 r2 L' ?( [pressure intervals.+ ?7 y' {0 u: {0 L Note 1:A pressure type altimeter calibrated in! l: }$ j, R. K& k3 B" s& J accordance with the standard atmosphere: 2 |. a0 o/ v, d0 Za. When set to a QNH altimeter setting, will 2 R8 j5 s, _& H% ]. t c: oindicate altitude; ! X V1 w6 d7 n' I- ^5 F8 rb. When set to a QFE altimeter setting, will ' U m$ K0 ?' x. dindicate height above the QFE reference datum; ! z2 c: o7 v; a7 \7 land$ v a s N5 \8 f9 X c. When set to a pressure of 1013.2 hPa ! K/ h0 ]: z" J* b(1013.2 mb), may be used to indicate flight levels.# @" W% A: R/ \" ^7 `0 T! H Note 2:The terms `height' and `altitude,' used in8 a$ S) `7 o6 w3 s8 w- Y Note 1 above, indicate altimetric rather than 2 B z9 N0 H3 H9 \" g7 S* {, ^geometric heights and altitudes. ) y' f7 i" @4 d4 W0 VFLIGHT LINE- A term used to describe the precise5 s" B0 J2 D& n4 T2 P movement of a civil photogrammetric aircraft along % N+ I5 x9 v6 L$ [ n$ r' fa predetermined course(s) at a predetermined altitude " l9 P W) _7 @5 ~, y. {during the actual photographic run. # a5 q) V, U9 p. pFLIGHT MANAGEMENT SYSTEMS- A comput‐( G+ x0 A. b: B- S er system that uses a large data base to allow routes3 L3 K; w- |5 w3 c/ O to be preprogrammed and fed into the system by ' u* ?- X0 t4 N9 r0 tmeans of a data loader. The system is constantly ! z1 A* W9 n3 K! ^updated with respect to position accuracy by3 f; k+ M0 Z4 I reference to conventional navigation aids. The0 |) u, ? T9 c sophisticated program and its associated data base4 I) G) s& k3 M' P+ C insures that the most appropriate aids are automati‐$ \; A0 v- z+ C1 |& ^ cally selected during the information update cycle. : L+ S1 ]8 S3 B- ?FLIGHT MANAGEMENT SYSTEM PROCE‐ 6 {# l1 ~7 Z3 G' GDURE- An arrival, departure, or approach procedure \ i+ A6 J8 m) B) S2 [ developed for use by aircraft with a slant (/) E or slant, \( z6 N- k" ]: J! \/ ~ (/) F equipment suffix.# A2 ^7 ^* T7 A" W Z4 V FLIGHT PATH- A line, course, or track along which9 Y& b" |- x) V1 B1 X an aircraft is flying or intended to be flown. ( n; V( o/ x; [) F& v1 o3 d: i6 ?(See COURSE.)" H: N0 z* z) ^7 A3 P3 J# e (See TRACK.) h- {7 y& B+ Y% E' |2 iFLIGHT PLAN- Specified information relating to , q6 X+ J% w0 X T5 A: y* `the intended flight of an aircraft that is filed orally or3 l0 k' t( P m: @5 `" D0 A in writing with an FSS or an ATC facility., A2 I# _& k% w) E! G (See FAST FILE.) 1 Q* \) ~2 B5 h B(See FILED.) + D& x2 m7 M5 B(Refer to AIM.) 9 C) F# [' S( }- `FLIGHT PLAN AREA- The geographical area i4 a: U' |/ K1 u$ lassigned by regional air traffic divisions to a flight: w3 Z6 {/ @8 o) C( d4 M6 L. P+ X service station for the purpose of search and rescue2 K" N7 N" `7 P- u" ` for VFR aircraft, issuance of NOTAMs, pilot & K9 d3 P& J" rbriefing, in‐flight services, broadcast, emergency% q9 q+ v: l6 t* E, R- @# v* ?: d services, flight data processing, international opera‐ % h8 H- y" X% b" gtions, and aviation weather services. Three letter / ?! z" V0 h# V" RPilot/Controller Glossary 2/14/08 + ~5 O$ x5 x2 X2 y$ o7 L- e" APCG F-4 5 |- {3 j: I. d) U* kidentifiers are assigned to every flight service station R% I! S' v% `4 C5 E R) j and are annotated in AFDs and FAAO JO 7350.8, 9 B# d" ]: L5 q3 C: E0 t- XLOCATION IDENTIFIERS, as tie‐in facilities.' n; K# z6 Y7 M9 W' c& S (See FAST FILE.)2 ^$ |/ {; d8 ~+ @& k, F (See FILED.)) Z8 o7 x; ?$ C% @, I8 T* \ (Refer to AIM.)- R* h6 z6 Z: p0 a: q FLIGHT RECORDER- A general term applied to ( O( S( H, e" P0 q% X4 Vany instrument or device that records information) a$ q" [+ w& i about the performance of an aircraft in flight or about; G/ i( i3 I0 I" i1 ]. q conditions encountered in flight. Flight recorders 6 a! ?" G" G! m* B- v0 Fmay make records of airspeed, outside air& a3 ` a+ |! j: S6 F6 b4 X0 _ temperature, vertical acceleration, engine RPM,; ^/ w; S! O: [2 S7 i3 ^ manifold pressure, and other pertinent variables for a1 U4 B6 Q; f' c2 s/ V9 I4 C7 x2 y0 c given flight. ! K4 X' I* K' q(See ICAO term FLIGHT RECORDER.) - k4 P0 n% k, a/ k2 C# O9 E RFLIGHT RECORDER [ICAO]- Any type of : Y/ D2 X7 I$ q8 u9 k. R1 z8 Drecorder installed in the aircraft for the purpose of $ n; r: Z( w1 }, m+ S ]) Xcomplementing accident/incident investigation.+ z: a5 z8 D! P+ S& B Note:See Annex 6 Part I, for specifications relating' E- a. C+ m% z9 _* V" X1 ` to flight recorders. $ i' F9 a+ n$ R sFLIGHT SERVICE STATION- Air traffic facilities3 c/ p7 J" y- R" U& T which provide pilot briefing, en route communica‐ b ^( I3 O! ^/ Z2 Q" ?* d tions and VFR search and rescue services, assist lost 3 `6 E/ F2 r/ {* haircraft and aircraft in emergency situations, relay 8 G/ { D H1 ^. {ATC clearances, originate Notices to Airmen, 0 ~- Q( Q2 t3 lbroadcast aviation weather and NAS information, ! i1 D; y; p6 gand receive and process IFR flight plans. In addition, - r5 g7 g6 ]" V1 B0 r$ h6 K: }at selected locations, FSSs provide En Route Flight1 [7 J7 q, g8 E Advisory Service (Flight Watch), issue airport0 A7 `4 A) d6 D( I3 Y) |8 ] advisories, and advise Customs and Immigration of 5 z9 H8 T! T7 J4 Ytransborder flights. Selected Flight Service Stations 8 F* t4 l$ A( c7 Nin Alaska also provide TWEB recordings and take; G& F; D. Q' x weather observations. 7 Q: f4 x* l% E(Refer to AIM.)& O2 ~* F' _& r) H6 s8 G+ f FLIGHT STANDARDS DISTRICT OFFICE- An 9 O) ]6 a R) H0 s- x7 FFAA field office serving an assigned geographical 8 f5 n; b) p$ U. a5 _# Qarea and staffed with Flight Standards personnel who " D3 B! W% p! w! P% @serve the aviation industry and the general public on * E# G [6 T/ N) z7 b4 Kmatters relating to the certification and operation of/ a ]/ W4 g7 q* ?% D air carrier and general aviation aircraft. Activities# w( c9 U: B; W) d( f8 x# B; ~5 o include general surveillance of operational safety,0 H1 B5 ]2 B' v1 ` certification of airmen and aircraft, accident * P1 i/ a: u; E0 g* O# W& Y$ yprevention, investigation, enforcement, etc.- u; A/ ^- u' `7 B+ ] FLIGHT TEST- A flight for the purpose of: 5 r$ S" e; ]" n! ka. Investigating the operation/flight characteris‐7 T+ b' j& E' @5 e tics of an aircraft or aircraft component./ i/ P. Y/ K; _9 L0 M5 s/ j1 K( e b. Evaluating an applicant for a pilot certificate or: r& o; Z; M' E7 |" f' k) s* H2 ^ rating. 3 @ H* v# G& h( k( ~FLIGHT VISIBILITY(See VISIBILITY.)* G) S K$ s8 `' T) ^8 k5 V FLIGHT WATCH- A shortened term for use in8 k$ C! D) e8 f& O' y air‐ground contacts to identify the flight service6 S- n) H2 V W1 t' L station providing En Route Flight Advisory Service;, F* v+ e1 i- F" m9 p e.g., “Oakland Flight Watch.” - J" u/ z6 J' U% s. n- ~(See EN ROUTE FLIGHT ADVISORY0 _2 j" t3 m8 h SERVICE.) @1 }' z- S5 F8 r: ^ FLIP(See DOD FLIP.)3 w* S# w5 C. D/ z* [ FLY HEADING (DEGREES)- Informs the pilot of* w9 M- J9 d4 t" a$ [) z# E the heading he/she should fly. The pilot may have to. b- R; t3 [0 X turn to, or continue on, a specific compass direction : V f* |% D8 Z( r1 zin order to comply with the instructions. The pilot is6 }2 x4 V4 M$ J Q- Z& S expected to turn in the shorter direction to the heading ) V8 e. O$ w* s m' x: A- }unless otherwise instructed by ATC. 5 P! B3 Q. E( ]: x o2 D1 EFLY‐BY WAYPOINT- A fly‐by waypoint requires" F- |6 ^3 e1 J* m( |. b+ E the use of turn anticipation to avoid overshoot of the- u2 _# y# e& Z! R% l7 n4 l next flight segment. 2 o4 W3 X3 I7 B( b4 E6 L6 g s0 d+ SFLY‐OVER WAYPOINT- A fly‐over waypoint1 n, \8 J$ P5 ~0 o precludes any turn until the waypoint is overflown N( D* J& ^1 m! t and is followed by an intercept maneuver of the next ( `( E+ `5 m$ C1 O8 U( gflight segment. , @8 k; N1 S. ]( W- {2 bFMA(See FINAL MONITOR AID.) ) Y0 F3 I0 I' [FMS(See FLIGHT MANAGEMENT SYSTEM.) ) u1 N2 g- l- h- L5 dFMSP(See FLIGHT MANAGEMENT SYSTEM# Y1 J, Z1 y2 x/ f! c0 N PROCEDURE.)/ I8 E, o" \0 `. H# _ FORMATION FLIGHT- More than one aircraft4 f" s2 M1 L& a which, by prior arrangement between the pilots,6 [% N; z7 E2 _( }3 R operate as a single aircraft with regard to navigation - ]9 B2 G) z: n" B2 yand position reporting. Separation between aircraft" u8 Y; p, R k- Z8 A* z within the formation is the responsibility of the flight" v6 p: J" N F& _ leader and the pilots of the other aircraft in the flight. + e4 y+ G7 v: gThis includes transition periods when aircraft within% U; i' J0 x! g- F1 E the formation are maneuvering to attain separation - f! s) i1 u8 K8 T5 Y8 F% L' Zfrom each other to effect individual control and6 f4 B0 {8 i2 r7 S+ W0 _% Q during join‐up and breakaway. R# [+ R$ D. H2 n8 t1 A a. A standard form ation is one in which a - ?/ {. T% T9 t; ?% J* m7 pproximity of no more than 1 mile laterally or 7 X+ i% _) b% U; T, Y, ~longitudinally and within 100 feet vertically from the ) r% P2 K8 w, Zflight leader is maintained by each wingman.8 o, n# W% G H$ m D b. Nonstandard formations are those operating ; c3 H; G. i$ N$ L* ]5 ?under any of the following conditions: / J7 [* }/ U( x1 A3 d* ]Pilot/Controller Glossary 2/14/086 e \9 N# X2 b+ t PCG F-5 8 A( R r; x; c4 r" J7 g6 P1. When the flight leader has requested and ATC . z6 Q, [, ?, V3 F* jhas approved other than standard form ation $ `& H2 ~. C( C; y& z3 edimensions.; L1 W& u/ k; l9 j8 G5 G- D 2. When operating within an authorized altitude * }) w% D- O) D0 V7 t6 e( Mreservation (ALTRV) or under the provisions of a( z# z5 W; t$ V letter of agreement. , B2 l4 _9 X+ y8 D1 Z Q6 f9 z2 l7 ~3. When the operations are conducted in1 |6 f. i+ D( i0 g airspace specifically designed for a special activity. O/ ?+ z, I; F$ Y(See ALTITUDE RESERVATION.) # v& p' H% O- }7 m(Refer to 14 CFR Part 91.)( ?/ o- Y2 v, F+ m+ q FRC(See REQUEST FULL ROUTE CLEARANCE.) * G9 o, d0 _( t2 h8 V- nFREEZE/FROZEN- Terms used in referring to7 R5 {' ?# j6 O, \ arrivals which have been assigned ACLTs and to the s M6 e! y+ x+ Q% U+ h; J+ { lists in which they are displayed. 9 P! w' T) n* {& S6 l& G G1 m8 Z! XFREEZE CALCULATED LANDING TIME- A6 B" r9 J) E# g dynamic parameter number of minutes prior to the ( i* G' S* [+ Y4 e. Nmeter fix calculated time of arrival for each aircraft ; @) v8 W& U' I/ Q0 _+ t( ?9 Iwhen the TCLT is frozen and becomes an ACLT (i.e.,: ?4 ]1 ^% m$ a the VTA is updated and consequently the TCLT is # E( Q, p( N$ q4 umodified as appropriate until FCLT minutes prior to7 a% p/ H, E6 s meter fix calculated time of arrival, at which time+ X& @$ s- r, h updating is suspended and an ACLT and a frozen " L: K: f" P1 X9 k1 V3 y4 \meter fix crossing time (MFT) is assigned). * {5 g6 I V1 _" P% zFREEZE HORIZON- The time or point at which an G3 d: k& V/ M. S2 {( ~ aircraft's STA becomes fixed and no longer fluctuates , Y; b% m* L8 _' q& c; b# Z2 ?with each radar update. This setting insures a constant ! G$ g+ y- `1 s' n+ t$ Itime for each aircraft, necessary for the metering 7 }" l# ]/ D$ O% J+ p4 Jcontroller to plan his/her delay technique. This 9 ~9 |$ }$ ?3 j% V* l. Osetting can be either in distance from the meter fix or % y% ^( J3 F* M& m( G% |/ n, fa prescribed flying time to the meter fix.+ y$ c+ _: R2 h$ { FREEZE SPEED PARAMETER- A speed adapted( [% f9 \( s1 W/ [ for each aircraft to determine fast and slow aircraft.* C W% u% J2 B7 A0 S- h Fast aircraft freeze on parameter FCLT and slow6 n8 C) ~/ z" P! K, L, Y aircraft freeze on parameter MLDI.4 T3 s2 n) h) u) W! m9 x FRICTION MEASUREMENT- A measurement of: u m9 m A: ~0 \( q5 D the friction characteristics of the runway pavement, E0 M4 }2 k% D% v surface using continuous self‐watering friction$ A; }6 d5 a& ^% [0 o9 P4 I, ] measurement equipment in accordance with the . C" g# O2 ^2 E. w, c! T5 ?/ xspecifications, procedures and schedules contained ! _- k, t$ I1 ~" lin AC 150/5320-12, Measurement, Construction, 9 I" l1 d- W4 B2 Kand Maintenance of Skid Resistant Airport Pavement) Q: p4 G/ K/ h Surfaces. P* B# P- I3 u1 q6 ?8 H/ bFSDO(See FLIGHT STANDARDS DISTRICT OFFICE.) # p; z& q) Y3 f' T2 p" X1 X5 ~FSPD(See FREEZE SPEED PARAMETER.) 9 l$ `' ~8 e8 \) P9 p( F! v8 QFSS(See FLIGHT SERVICE STATION.)) [7 o9 y) x$ }% T FUEL DUMPING- Airborne release of usable fuel. ' o( G% t3 d/ q' h% nThis does not include the dropping of fuel tanks. + a6 A! W! L! N& _0 \% B/ r(See JETTISONING OF EXTERNAL STORES.)6 X+ t2 h; y" V% X" ]% ], } FUEL REMAINING- A phrase used by either pilots, b$ d J# j& B4 O9 w$ H or controllers when relating to the fuel remaining on, K* m; D' {/ d( s7 o7 ` board until actual fuel exhaustion. When transmitting , g; J1 n) l- S N7 Csuch information in response to either a controller, O7 f: O; w# U+ p+ T, i question or pilot initiated cautionary advisory to air 5 A. C8 K, x# s! e& J! O; r5 |traffic control, pilots will state the APPROXIMATE $ Q& ~ Y; \3 T0 S7 LNUMBER OF MINUTES the flight can continue U# m7 Y% j# T0 q7 e: ?+ M& H, cwith the fuel remaining. All reserve fuel SHOULD ) m% \8 h, W" T, lBE INCLUDED in the time stated, as should an 5 D/ c4 N( f2 dallowance for established fuel gauge system error. % _; V2 f7 t" DFUEL SIPHONING- Unintentional release of fuel y: x) ~* n% w$ k& R0 a: N* L* b4 ~caused by overflow, puncture, loose cap, etc. + a! ^# W+ u5 Q8 d3 V) k! LFUEL VENTING(See FUEL SIPHONING.)! S: k3 I; [3 A Pilot/Controller Glossary 2/14/08" U/ X# f: B' C* Z0 g* a( | PCG G-1 3 w9 N- S) Q% Q+ jG

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发表于 2008-12-28 14:13:18 |只看该作者
GATE HOLD PROCEDURES- Procedures at + l" H1 K! R/ |$ @selected airports to hold aircraft at the gate or other - n9 }! B! k& Y @ground location whenever departure delays exceed or( Q3 N+ p1 d3 f$ u7 D# R are anticipated to exceed 15 minutes. The sequence , k3 K0 S8 S! v5 P% j) p# i, c' R8 sfor departure will be maintained in accordance with ; h5 ^: [' d2 I1 s2 Oinitial call‐up unless modified by flow control 3 n0 B% I( f1 {0 b! vrestrictions. Pilots should monitor the ground % { m( d4 i+ [2 `6 econtrol/clearance delivery frequency for engine & ^0 K1 V6 ^. z9 l9 K5 istart/taxi advisories or new proposed start/taxi time : O( J3 m/ ^! D1 s5 i, k9 D4 W8 p kif the delay changes.

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发表于 2008-12-28 14:14:19 |只看该作者
GBT(See GROUND-BASED TRANSCEIVER.)( K# z: X9 F+ ]- V/ X GCA(See GROUND CONTROLLED APPROACH.) ' U* j4 A l4 U9 Y: T2 L+ R8 hGDP(See GROUND DELAY PROGRAM.) 0 n: S0 v& l/ c0 Q3 j2 rGENERAL AVIATION- That portion of civil M `6 x# `/ I$ `" d) V aviation which encompasses all facets of aviation 5 f& N5 O' m2 `' xexcept air carriers holding a certificate of public. Z; r# K, z2 J; m6 i$ e& G2 [ convenience and necessity from the Civil Aeronau‐4 }9 }4 y* _- N tics Board and large aircraft commercial operators.5 O$ v2 u6 ~: x! E (See ICAO term GENERAL AVIATION.) - k8 @2 v$ G0 ]5 Q$ WGENERAL AVIATION [ICAO]- All civil aviation 6 s# R! a+ x2 Y& W1 @operations other than scheduled air services and1 t ~5 N3 U5 w: n( m nonscheduled air transport operations for remunera‐ 9 n: K0 p1 [, }) m% Z& g4 Ation or hire. 3 w" z! o! { w, u6 YGEO MAP- The digitized map markings associated 5 A5 L" [" J; bwith the ASR‐9 Radar System.8 |' p1 m+ k f; M( X1 T GLIDEPATH(See GLIDESLOPE.) ! \1 ?# F4 H' M( b3 j8 g2 j6 ZGLIDEPATH [ICAO]- A descent profile determined5 V4 }& B3 e+ {( `7 l, q6 d for vertical guidance during a final approach. 0 G4 {; k4 c% c: F2 a/ m& ~) OGLIDEPATH INTERCEPT ALTITUDE(See GLIDESLOPE INTERCEPT ALTITUDE.)" B- {% M4 T$ i; n GLIDESLOPE- Provides vertical guidance for. [% M$ _( `8 B9 n, u8 J aircraft during approach and landing. The glideslope/9 J3 ~4 u, L- V5 C glidepath is based on the following:. l3 X4 c, m/ G- D a. Electronic components emitting signals which- h% T! M/ }7 x3 U& S provide vertical guidance by reference to airborne + b& S( r5 Z" z4 q7 ninstruments during instrument approaches such as Z: Y) Y- m5 t" DILS/MLS, or, l: N+ d+ x* G7 { b. Visual ground aids, such as VASI, which5 R( {6 W- F9 J+ N provide vertical guidance for a VFR approach or for 4 U5 W4 \! d2 s1 o/ Z/ s4 mthe visual portion of an instrument approach and 9 s0 I# c9 v/ \ j- d9 T) h5 elanding. 9 R2 @8 ]9 Q( E3 f' ]# ic. AR. Used by ATC to inform an aircraft making 4 s8 v: l6 y. I; r1 Aa PAR approach of its vertical position (elevation) d% P8 C$ ?& y( T3 F6 j8 d relative to the descent profile.9 x# s4 i' O: w# w) y (See ICAO term GLIDEPATH.) + [2 L: w" i. k2 Q# M% HGLIDESLOPE INTERCEPT ALTITUDE- The' O6 \, a5 Z! Y, w9 c minimum altitude to intercept the glideslope/path on2 ?% S0 Q; Z9 Y2 @ a precision approach. The intersection of the! Y6 @: v& Y- x% u0 W9 o# c published intercept altitude with the glideslope/path, 6 t, m! `6 m7 S G7 mdesignated on Government charts by the lightning$ ~2 [7 u$ N( x5 }& C9 l bolt symbol, is the precision FAF; however, when the , j+ P, d) P/ Aapproach chart shows an alternative lower glideslope # v% k$ H. r6 L- q9 A" Gintercept altitude, and ATC directs a lower altitude, 7 b( S7 e7 h0 c5 J/ rthe resultant lower intercept position is then the FAF. . S& |/ g4 y) y; l(See FINAL APPROACH FIX.) 4 Z( U7 M) o9 j. f$ O(See SEGMENTS OF AN INSTRUMENT / U2 G8 k$ X& |7 L4 F/ cAPPROACH PROCEDURE.)- d9 M9 q0 a- u8 L6 | GLOBAL POSITIONING SYSTEM (GPS)- A% E* Z' `2 }% m" L0 A$ S! S space‐base radio positioning, navigation, and" K2 d1 W6 L# J: V f time‐transfer system. The system provides highly% W1 a) T v' u9 O% V9 R9 {( h accurate position and velocity information, and9 `1 i1 k V% u% q3 c4 ?6 y: u precise time, on a continuous global basis, to an" s/ B( V) N, d unlimited number of properly equipped users. The ' [" T* _6 e& J( }! }system is unaffected by weather, and provides a 1 X# u4 w! v( o6 |2 uworldwide common grid reference system. The GPS" ]/ S# a7 Z' C concept is predicated upon accurate and continuous " o0 U9 w7 j, j6 Z, S9 h( Qknowledge of the spatial position of each satellite in - J# k& y- l( j: [9 q2 o8 ]# q+ N" hthe system with respect to time and distance from a- d- A& L: F+ O4 s% ?0 ] transmitting satellite to the user. The GPS receiver # c9 Q+ P" q$ e1 l, o; B' z% Z: k/ Yautomatically selects appropriate signals from the * O6 ^2 K8 [+ N6 msatellites in view and translates these into three‐: |& D( D% I5 ~) B dimensional position, velocity, and time. System m* ?# f% \0 x# q- I5 L- N7 daccuracy for civil users is normally 100 meters. d* `# ]* z. Q7 p+ B horizontally.- _/ a0 z. W- ~' [6 Q c GO AHEAD- Proceed with your message. Not to be 4 f. _" l, L9 r( H( g& vused for any other purpose.* \: \6 i! b$ _6 Z4 R GO AROUND- Instructions for a pilot to abandon- y+ F' B$ X4 O ]/ \- o2 I! C u5 w: p his/her approach to landing. Additional instructions& I; o& s' b6 w+ J0 v+ J may follow. Unless otherwise advised by ATC, a # @" ]5 C- i# F& |VFR aircraft or an aircraft conducting visual. {7 l+ ?1 _: z( _5 L+ S" A; K approach should overfly the runway while climbing 9 o# d3 ~( z& B Bto traffic pattern altitude and enter the traffic pattern ! M d3 N# {8 Zvia the crosswind leg. A pilot on an IFR flight plan / T, N- R0 Y4 b: l1 BPilot/Controller Glossary 2/14/086 j: N' h2 n6 a/ Q PCG G-2/ A/ T. ]. o# y4 B! v4 M: N# o making an instrument approach should execute the ! ?& L8 y A; {4 j, d upublished missed approach procedure or proceed as6 \: z# y& f) x8 t3 @ instructed by ATC; e.g., “Go around” (additional+ Y% F/ j: ]# X9 A7 l1 C2 y$ F( D instructions if required). / \+ P' w7 o t0 N(See LOW APPROACH.) , o! `% _5 ^+ J/ Z(See MISSED APPROACH.) . T9 f6 b {4 `3 ^2 d! G) U4 KGPD(See GRAPHIC PLAN DISPLAY.) ) u$ L$ H5 R$ o4 YGPS(See GLOBAL POSITIONING SYSTEM.) C* w T# I0 u6 R, X! aGRAPHIC PLAN DIS PLAY (GPD)- A view # t3 o+ _; s, K0 T" Qavailable with URET that provides a graphic display6 j( k* F; X% b+ h; q# A2 z of aircraft, traffic, and notification of predicted 1 J" l3 p t+ Z7 C3 o5 Pconflicts. Graphic routes for Current Plans and Trial* e2 t U- d, v# J# l4 E Plans are displayed upon controller request./ u8 I! `8 V7 v8 \ Z! j S (See USER REQUEST EVALUATION TOOL.) & o" {+ R5 X6 q# V; K6 ?+ }& eGROUND-BASED TRANSCEIVER (GBT)- The7 e9 R1 u7 N \% F2 E ground-based transmitter/receiver (transceiver) re‐ 7 k# X" y0 R3 y% g0 M* A* D% Qceives automatic dependent surveillance-broadcast# f& `1 H w. [$ f messages, which are forwarded to an air traffic 4 {/ P; D0 R& A. Jcontrol facility for processing and display with other' C. b- |% o5 N7 [' M k% i radar targets on the plan position indicator (radar / |% U2 T! `: z2 K l; Wdisplay). 0 V; G5 R3 W w% `3 g(See AUTOMATIC DEPENDENT , _1 E% h/ @6 K& d( }SURVEILLANCE‐BROADCAST.) 0 p3 ~2 W$ v! P' TGROUND CLUTTER- A pattern produced on the D% r0 E( C; d7 c2 `# F. Z radar scope by ground returns which may degrade( s% ]; Z/ r# X0 w+ b0 `# I$ Q9 q other radar returns in the affected area. The effect of ! R: b' F- _1 q* `; Zground clutter is minimized by the use of moving I: ]3 ?5 J' x$ x0 y target indicator (MTI) circuits in the radar equipment " G g/ U) b Mresulting in a radar presentation which displays only! ~) l& p; N0 @ targets which are in motion.3 {( }7 q! m4 z7 X" k% o (See CLUTTER.)" n" X; g2 y: a. E8 R2 w7 S GROUND COMMUNICATION OUTLET (GCO)-, A+ `, i+ d# A# L An unstaffed, remotely controlled, ground/ground : W, k, g+ _0 \0 x, q1 ecommunications facility. Pilots at uncontrolled / v, T4 X7 D( ~) w. i% d# a+ q+ Vairports may contact ATC and FSS via VHF to a % c% L# U E: ~% a8 P; K; Ptelephone connection to obtain an instrument 6 x- G$ `+ G% _2 r" P8 ~7 Dclearance or close a VFR or IFR flight plan. They may 2 _7 Y6 B/ W) L" G" P6 k/ h; Falso get an updated weather briefing prior to takeoff. # f1 F! B; g$ VPilots will use four “key clicks” on the VHF radio to( S9 R6 W: \9 M- Y* s* \ contact the appropriate ATC facility or six “key ; D) Y( ?0 p2 S( M6 ^2 g6 o$ S) fclicks” to contact the FSS. The GCO system is4 D8 @3 r6 h+ ?# G5 A, A! m1 g7 _ intended to be used only on the ground.) a; S! `, P: Q& {$ U b& T GROUND CONTROLLED APPROACH- A radar 5 i! S4 F+ ~* K( w. f# Rapproach system operated from the ground by air0 s6 B- t9 M+ Y+ d$ S traffic control personnel transmitting instructions to: f0 O: ~0 u: H5 Q, n1 n the pilot by radio. The approach may be conducted 4 L- I2 o. x. g% z$ mwith surveillance radar (ASR) only or with both( |. R1 L9 N# E8 i% _: ]: i7 y o surveillance and precision approach radar (PAR). ' w6 F; q+ O" B+ s# @9 `0 `9 hUsage of the term “GCA” by pilots is discouraged $ M- ]. V, p! [+ k* N, Vexcept when referring to a GCA facility. Pilots should ! f( a: l9 I2 x8 e0 O# ^specifically request a “PAR” approach when a7 D+ R1 P7 |$ h: s% _& \7 V* j precision radar approach is desired or request an; r, d$ c0 ?( ` “ASR” or “surveillance” approach when a nonpreci‐7 y1 y5 H9 ^ L5 O- j; o- T sion radar approach is desired. 3 e" t) r) [% x) [ d( P$ x(See RADAR APPROACH.) / S3 E& \. l4 e$ m) [GROUND DELAY PROGRAM (GDP)- A traffic & c3 ~+ [' z& k4 i. Y# kmanagement process administered by the ATCSCC; 3 m& d" [( \: Lwhen aircraft are held on the ground. The purpose of: C* O6 E L3 u$ }4 K! A) h the program is to support the TM mission and limit 3 j% h/ j+ p6 ~; e+ @# m" eairborne holding. It is a flexible program and may be % Q, _ v5 y" k! S3 H7 fimplemented in various forms depending upon the % ^# B1 G q. z) }+ x5 j1 Lneeds of the AT system. Ground delay programs 6 @' D7 ?+ [# U( l. D7 r3 ]provide for equitable assignment of delays to all 7 p& j2 R5 w8 t- b, I: vsystem users.# w* B. [3 J1 l9 y& Q8 ~2 Z GROUND SPEED- The speed of an aircraft relative ' T0 r) J1 ^: j0 Nto the surface of the earth.; o- x) d. n5 @2 P7 @ GROUND STOP (GS)- The GS is a process that ) B8 o! Q# S p. F( Arequires aircraft that meet a specific criteria to remain , }" R# K$ N: }on the ground. The criteria may be airport specific,6 I+ ^: s+ w! a7 X airspace specific, or equipment specific; for example, * \3 i+ w* e! S7 F' [+ Wall departures to San Francisco, or all departures3 V. `7 @' h" Z# ]& M \ entering Yorktown sector, or all Category I and II% C: ~9 V7 e: v* d, N: A aircraft going to Charlotte. GSs normally occur with8 U, ]8 Y4 C: v+ ^! _' r% g little or no warning. 7 m# Y8 s- d% w' I0 i% e( sGROUND VISIBILITY(See VISIBILITY.) - n8 n1 |- X% |6 xGS(See GROUND STOP.) , G* m& K& m1 A$ G' ]Pilot/Controller Glossary 2/14/08 " }5 B, m3 a' f) y; o6 yPCG H-1 % e7 n; D# f# i4 k& Z8 {H h7 ^1 V+ v% i8 THAA(See HEIGHT ABOVE AIRPORT.)+ J" {, O" c! N7 l" T$ U3 d HAL(See HEIGHT ABOVE LANDING.) & f+ [) F4 f; N3 R1 e9 [9 Z+ uHANDOFF- An action taken to transfer the radar( c+ o8 O8 V' e& \ identification of an aircraft from one controller to& y% w. z" ]( }% q, i: C X' x another if the aircraft will enter the receiving ' R/ W; c+ T4 U" @ d/ hcontroller's airspace and radio communications with $ m+ b1 J) g) V Q2 Xthe aircraft will be transferred." h4 O; g9 `3 v* Z1 t) D HAR(See HIGH ALTITUDE REDESIGN.) 8 s& B" l+ u* c. UHAT(See HEIGHT ABOVE TOUCHDOWN.) " Z) x& ?; O/ |8 N" U2 [) [HAVE NUMBERS- Used by pilots to inform ATC1 Q% m- k9 t7 l5 x1 k- ]9 n b that they have received runway, wind, and altimeter* v8 f! G' o2 \" g, W information only.7 I6 Z$ y h& T3 f5 {9 I! |& R4 Z HAZARDOUS INFLIGHT WEATHER ADVISO‐ . b7 z$ @% W8 e( LRY SERVICE- Continuous recorded hazardous " B( s R9 {( ~" T, w, Q( Iinflight weather forecasts broadcasted to airborne & |9 g8 g0 I& I" P% |pilots over selected VOR outlets defined as an1 I( a( j) I \6 E HIWAS BROADCAST AREA.& F# S) ^4 U! m+ M! z9 k HAZARDOUS WEATHER INFORMATION- , M }$ v+ M; y7 mSummary of significant meteorological information , p+ n5 Q: U1 ^5 k& J# B(SIGMET/WS), convective significant meteorologi‐3 M( i8 Y9 [0 `2 M9 g cal information (convective SIGMET/WST), urgent % r( e( `/ w+ f& {1 r) Vpilot weather reports (urgent PIREP/UUA), center5 T9 v! N0 ~) j" C% t weather advisories (CWA), airmen's meteorological # P5 k6 a7 Q1 y* s& c4 Rinformation (AIRMET/WA) and any other weather6 r/ P) P# L' w such as isolated thunderstorms that are rapidly. j0 O3 O* u/ ~; C developing and increasing in intensity, or low * _$ T7 A0 i+ o+ O. U; ^! ?! Gceilings and visibilities that are becoming wide‐ U$ Z/ m: E& f1 v1 t# _spread which is considered significant and are not 2 k; {( j0 I0 o; G+ ?3 p. mincluded in a current hazardous weather advisory. 4 g" c1 B1 S. V: WHEAVY (AIRCRAFT)- & r7 V" O( R: d6 ~' s5 [$ b(See AIRCRAFT CLASSES.)& S2 w1 F5 X- C, B HEIGHT ABOVE AIRPORT- The height of the! d( r7 z: p0 a4 m8 a z Minimum Descent Altitude above the published8 |' T7 N' i) Z( j- o& S X; E airport elevation. This is published in conjunction2 c2 b0 C/ | q# @# r with circling minimums.* m. E6 F2 G) ^% @0 Y" W- q0 K (See MINIMUM DESCENT ALTITUDE.)# T, x+ x; x- Q/ x HEIGHT ABOVE LANDING- The height above a1 I7 s, x' N( v) F# [& o& x designated helicopter landing area used for helicopter8 w. Q0 P1 u7 U& F' c: I instrument approach procedures. ( w# w# P5 }( o" d(Refer to 14 CFR Part 97.) , k& i2 |5 K9 x/ r- @0 X! A- qHEIGHT ABOVE TOUCHDOWN- The height of' |# ]5 \: k2 ` U5 V& E$ n* b0 `1 ? the Decision Height or Minimum Descent Altitude ( d4 e1 P4 j0 L9 pabove the highest runway elevation in the touchdown# ?- u, }* i+ ?' B zone (first 3,000 feet of the runway). HAT is) M+ C; c) m2 i& l published on instrument approach charts in conjunc‐ 8 ~% \) I- C! I2 [tion with all straight‐in minimums.+ g0 {( X$ j* Q- U; ^ (See DECISION HEIGHT.)7 k8 N: f4 [: l! N (See MINIMUM DESCENT ALTITUDE.) k6 F' g) G& KHELICOPTER- Rotorcraft that, for its horizontal0 S0 f) P9 ~* M C& Q motion, depends principally on its engine‐driven) }& w+ s2 G9 ^ rotors. 9 |/ T) C/ f, U& _) Y( A+ j+ p(See ICAO term HELICOPTER.)

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发表于 2008-12-28 14:14:39 |只看该作者
HELICOPTER [ICAO]- A heavier‐than‐air aircraft ) a* s8 k5 F: Z8 C zsupported in flight chiefly by the reactions of the air 6 D' Q2 J5 r mon one or more power‐driven rotors on substantially" [3 L( |2 w9 b: s- u vertical axes.9 P6 J, K o! t0 A, K HELIPAD- A small, designated area, usually with a 2 ?& x; x2 k K8 ?5 E2 [$ ]0 Cprepared surface, on a heliport, airport, landing/take‐ ( v8 H5 o4 ~$ e8 c9 X( \, |* coff area, apron/ramp, or movement area used for9 p$ o% m! D9 a/ t8 s takeoff, landing, or parking of helicopters.) _1 x( M6 l2 V- t4 `3 f) E4 [) Z HELIPORT- An area of land, water, or structure used% d, t5 c2 i2 N" O6 c' z or intended to be used for the landing and takeoff of * P, \* P1 E6 J& K2 s! e* qhelicopters and includes its buildings and facilities if+ l4 g& G: A9 k$ [! e0 _ any.7 d& v" W; f W: i) i. w" T HELIPORT REFERENCE POINT (HRP)- The( }6 g7 m" b! J" C& T) r' q geographic center of a heliport. 9 |( x6 b, I8 gHERTZ- The standard radio equivalent of frequency O6 Z& e `' m" A* z in cycles per second of an electromagnetic wave.8 l P' \! p* l( h9 a Kilohertz (kHz) is a frequency of one thousand cycles/ @4 f5 A! P r per second. Megahertz (MHz) is a frequency of one 7 T+ A, |, D7 j8 Q! [9 o' C, [+ zmillion cycles per second. & L" y& ]0 {5 @8 n' Y+ N/ SHF(See HIGH FREQUENCY.)5 {5 y8 B e0 p, q, m1 `7 p" | HF COMMUNICATIONS(See HIGH FREQUENCY COMMUNICATIONS.)% A, U6 B$ a6 g6 q* R6 s HIGH ALTITUDE REDESIGN (HAR)- A level of * A( o9 f3 W8 g( F' j/ n6 Cnon-restrictive routing (NRR) service for aircraft. X$ T- j3 i6 O2 j; A0 ~ that have all waypoints associated with the HAR ! D3 W; s6 `' K/ j1 V; ]' f9 _" Fprogram in their flight management systems or$ a& ~- [, n$ v3 h& q4 r RNAV equipage.7 ]* [6 f9 O. q% Z' M# k0 \# k Pilot/Controller Glossary 2/14/08( M& n1 ]7 d0 n9 c- O PCG H-21 `) D7 ?& @( B: S7 h HIGH FREQUENCY- The frequency band between$ `3 C" b0 v! Q0 ? 3 and 30 MHz. 9 c+ \# `: F/ M( m6 c( t(See HIGH FREQUENCY COMMUNICATIONS.) 5 \0 S* d3 Z5 f/ lHIGH FREQUENCY COMMUNICATIONS- High$ ~1 y- P; n! o7 i! j radio frequencies (HF) between 3 and 30 MHz used , u0 E5 u. F$ A$ m! ?for air‐to‐ground voice communication in overseas4 L* s! v+ ~0 A; [ ]' y" _3 ~ operations.1 O& t0 O: z# r+ x5 v3 o9 I- j HIGH SPEED EXIT(See HIGH SPEED TAXIWAY.) 0 C2 [3 v z/ i5 tHIGH SPEED TAXIWAY- A long radius taxiway; S9 W% Z6 n, ]8 L. @$ _2 A designed and provided with lighting or marking to. o# U5 Q ~: L; j0 |% t define the path of aircraft, traveling at high speed (up 3 G8 W. }! n n5 F2 G4 cto 60 knots), from the runway center to a point on the) p2 {% O1 K" D2 |/ g center of a taxiway. Also referred to as long radius 8 Z D8 @7 S4 D& sexit or turn‐off taxiway. The high speed taxiway is * b1 u+ k4 I2 A% q# Qdesigned to expedite aircraft turning off the runway3 @0 B: u! k4 b2 w/ X' k after landing, thus reducing runway occupancy time. 7 Z* w/ @* _" O5 Q0 U# }$ s( CHIGH SPEED TURNOFF(See HIGH SPEED TAXIWAY.): g9 V' ~3 m7 ^& Y' `# u HIWAS(See HAZARDOUS INFLIGHT WEATHER# G! n9 E: \* |0 o! | ADVISORY SERVICE.) 9 E, ~) C; ]% z5 c5 WHIWAS AREA(See HAZARDOUS INFLIGHT WEATHER + f) J" n9 X* q2 c5 x' Z2 H, L2 Y0 s5 uADVISORY SERVICE.)2 T! F8 c8 j$ Q& I1 e# g. v HIWAS BROADCAST AREA- A geographical area# D3 r& K N/ R6 s* V$ k9 M+ [ of responsibility including one or more HIWAS , }9 t% o' H1 ?3 t% J4 coutlet areas assigned to an AFSS/FSS for hazardous9 S, g4 z' _. v) u weather advisory broadcasting. G: E, z% w6 Y5 ^7 H% F" x5 N9 QHIWAS OUTLET AREA- An area defined as a 150/ e* d |( l( J& x G$ _ NM radius of a HIWAS outlet, expanded as necessary % \$ e9 R8 r2 i; m! m3 U4 Zto provide coverage.0 |3 Q3 R$ [% ~! j. B HOLD FOR RELEASE- Used by ATC to delay an 1 }4 |8 u" f3 r$ ~6 qaircraft for traffic management reasons; i.e., weather, ! n' E9 `% c s6 ytraffic volume, etc. Hold for release instructions0 B0 v2 g4 N- x. N$ Y (including departure delay information) are used to . O( n' }' s! k/ `: yinform a pilot or a controller (either directly or 0 z7 [0 q2 L1 A2 O" othrough an authorized relay) that an IFR departure7 s9 U' g% {3 M( q; \- W, q' e$ r clearance is not valid until a release time or additional : }; x7 f% a. J2 y6 ~instructions have been received.6 G4 M* Y) G" q* L# z, h (See ICAO term HOLDING POINT.) ! F9 L1 O% w. I# Y) D& rHOLD IN LIEU OF PROCEDURE TURN- A hold/ t6 R9 a' f: y in lieu of procedure turn shall be established over a9 L: D5 @5 b3 ]6 `* N5 F) g: D final or intermediate fix when an approach can be 7 ]8 U& Q* ]7 b0 ?* ~made from a properly aligned holding pattern. The 8 J5 D+ i! t7 z6 d( I$ yhold in lieu of procedure turn permits the pilot to1 H/ j7 K2 m- P' ~7 k7 \* Q align with the final or intermediate segment of the + o; M( f! Z6 m/ T. Lapproach and/or descend in the holding pattern to an c' {% Z ~) ^5 E altitude that will permit a normal descent to the final; M3 |9 I2 M( q% G- A* J* G6 T approach fix altitude. The hold in lieu of procedure % e1 U; x% k7 n; |8 {turn is a required maneuver (the same as a procedure 4 ]2 E" a: {7 b0 ~; s Fturn) unless the aircraft is being radar vectored to the+ C# Q( a& J) [1 {& } final approach course, when “NoPT” is shown on the $ L1 L+ z4 N6 Q+ j& C& H* o8 _# Lapproach chart, or when the pilot requests or the * o# ? y/ f* u" M5 H: Vcontroller advises the pilot to make a “straight-in” & ?# E, T4 c9 g Fapproach. ! K' f+ R5 M6 T2 GHOLD PROCEDURE- A predetermined maneuver % {3 R: p% l9 l# B5 V7 lwhich keeps aircraft within a specified airspace while' ^7 f/ `6 x& a6 R awaiting further clearance from air traffic control. % ?, S; n5 l; J! v) }1 o# S; c+ {Also used during ground operations to keep aircraft - z. h; J6 M* W0 Uwithin a specified area or at a specified point while1 { A8 w# U# a& _9 W awaiting further clearance from air traffic control.3 E' h; w1 P" U: @( D J (See HOLDING FIX.); C& B8 F9 h. k6 A (Refer to AIM.); a/ ~, `4 w2 N HOLDING FIX- A specified fix identifiable to a, f/ d4 A8 g; B5 C( m. I5 N8 ] pilot by NAVAIDs or visual reference to the ground 3 I; z* l% x+ |7 i/ {used as a reference point in establishing and0 j) E; ? D' i maintaining the position of an aircraft while holding. 4 {( j* m- L0 {! k" G$ c1 P2 D(See FIX.)7 q# P% q% |( O$ E (See VISUAL HOLDING.)' ?6 H) R1 m* z/ W$ [ (Refer to AIM.)9 l) Q5 w4 r0 p. i1 F4 L HOLDING POINT [ICAO]- A specified location,4 V- N: B! F- L' Q* S( k3 d identified by visual or other means, in the vicinity of ( ~ L+ \3 k8 ?6 Bwhich the position of an aircraft in flight is ! D$ y+ S- o/ s; k8 O% H! Smaintained in accordance with air traffic control ( [/ i0 J9 ]4 x* @clearances. & z1 v5 Y( U! s9 _$ u) f% k8 h4 |HOLDING PROCEDURE(See HOLD PROCEDURE.)5 x, n4 ~0 v$ G5 ^7 q1 u1 H6 k HOLD‐SHORT POINT- A point on the runway " Q, ~6 a/ z; E8 R% ubeyond which a landing aircraft with a LAHSO% ]$ t( J |4 ]/ s clearance is not authorized to proceed. This point& {- A. g3 P1 X may be located prior to an intersecting runway,# o& q7 i& O5 K taxiway, predetermined point, or approach/departure . A' l3 D6 w3 x* j, N0 ?flight path. + A# L) a# k1 H# zHOLD‐SHORT POSITION LIGHTS- Flashing& Q( D, d) \/ [9 H in‐pavement white lights located at specified 5 i8 f( l0 M( j0 c: m- lhold‐short points.8 d5 F0 {% j3 m3 {1 o HOLD‐SHORT POSITION MARKING- The # ]2 j( f; }1 Y- d) `7 y9 M* [painted runway marking located at the hold‐short- r9 j7 R2 B1 m0 b+ t point on all LAHSO runways.5 I9 {& |9 t6 x6 j HOLD‐SHORT POSITION SIGNS- Red and white 6 y- e" O/ R4 {& U9 y# L- Bholding position signs located alongside the 3 e& R2 M. p# T# f% rhold‐short point.9 O" i3 b4 {2 ? { Pilot/Controller Glossary 2/14/084 V1 O; a( N3 |7 P' ^0 | PCG H-3" \- A" p% V/ Y9 I HOMING- Flight toward a NAVAID, without 5 W' X$ W3 M0 H+ u& u2 D1 zcorrecting for wind, by adjusting the aircraft heading 2 W ~! D$ T3 e1 nto maintain a relative bearing of zero degrees. 6 w# d% E/ w5 r(See BEARING.) 7 D% l5 |: p3 v4 e- k(See ICAO term HOMING.)# i1 S- ~; o/ | HOMING [ICAO]- The procedure of using the : t o/ ]; e5 K) Edirection‐finding equipment of one radio station with8 k/ Y8 h# p2 }2 V7 m+ n- d the emission of another radio station, where at least( a4 x2 f: W x one of the stations is mobile, and whereby the mobile( G. `3 q3 S. r) r* w station proceeds continuously towards the other2 R6 K9 ] C% F" w8 G9 i station.( D- Y7 i4 K8 G0 Y7 t HOVER CHECK- Used to describe when a! L& a4 M0 R9 P8 s# v8 }) ~; z helicopter/VTOL aircraft requires a stabilized hover5 ]- I `% @" J to conduct a performance/power check prior to hover : E% J' P7 s9 N1 ltaxi, air taxi, or takeoff. Altitude of the hover will 4 N7 R; c# ^8 F1 h* k8 n2 yvary based on the purpose of the check. 9 D' m+ C' ~7 |" P% SHOVER TAXI- Used to describe a helicopter/VTOL2 |& s3 D/ l1 |2 E2 a9 O5 Z. t! r aircraft movement conducted above the surface and ! L) A3 p5 u- {. u: \in ground effect at airspeeds less than approximately4 n/ D- m+ G4 ?: n5 e 20 knots. The actual height may vary, and some4 O# ^! T$ w4 n l l; ]$ j helicopters may require hover taxi above 25 feet AGL. p% }2 [. ~4 w* o& y to reduce ground effect turbulence or provide# ]6 H! q Q; N5 v" W clearance for cargo slingloads.# ]3 I- u, Y0 R, P1 e (See AIR TAXI.) 5 g+ x4 E' |/ E(See HOVER CHECK.)+ p V! s" O- O" t2 }8 J% e (Refer to AIM.) ) z7 X, F' t# t% rHOW DO YOU HEAR ME?- A question relating to' |3 t: p- ]; ^2 K( Z the quality of the transmission or to determine how , f u, w# E9 V" U; x9 b& t+ R' o9 nwell the transmission is being received. % S$ i* w8 s+ m7 n" _! C% sHZ(See HERTZ.) T8 N9 c: |6 m" _. m Pilot/Controller Glossary 2/14/085 d2 R: G# M$ x2 v0 N Q PCG I-1 / P/ k( I. V$ \' H0 i1 V5 [, x: pI" V! q7 m3 G# V* n. U6 J$ A1 K I SAY AGAIN- The message will be repeated.& z6 e; B$ O( Q( d! D/ [5 A4 i IAF(See INITIAL APPROACH FIX.) 2 R* o8 i) j7 NIAP(See INSTRUMENT APPROACH% \0 q' Q: j& v! l$ a3 I, v( Y PROCEDURE.)7 m0 N# V" a% i, G IAWP- Initial Approach Waypoint 8 l% h5 i4 E$ J6 o0 dICAO(See ICAO Term INTERNATIONAL CIVIL $ _9 s. f; v/ N( ?AVIATION ORGANIZATION.)3 e+ W8 B u) S) E4 v9 ^ ICING- The accumulation of airframe ice.2 L8 C7 @3 l6 t! @* Q Types of icing are:0 v7 T1 w4 Z, w: U, h a. Rime Ice- Rough, milky, opaque ice formed by' p2 Q6 {: k+ \- v9 F6 D( y' D' E7 A the instantaneous freezing of small supercooled% M: M# y4 r, z+ j0 i9 q( K( ^ water droplets.- E, y8 C4 t; Z1 N9 A6 p1 {/ R b. Clear Ice- A glossy, clear, or translucent ice- x; t1 v5 O. k G# m# k# ~0 y formed by the relatively slow freezing or large p8 P5 x) `% }2 L5 R( ^supercooled water droplets. 7 y2 Q5 I9 O! C+ gc. Mixed- A mixture of clear ice and rime ice. # i1 `( b) B2 x3 J3 SIntensity of icing:! F+ _, W: J S a. Trace- Ice becomes perceptible. Rate of: I. s8 G7 o* o2 ^8 r accumulation is slightly greater than the rate of / V; H( p( S: xsublimation. Deicing/anti‐icing equipment is not) ^, I. H/ L( ]5 | utilized unless encountered for an extended period of+ h% K# g0 V2 Q5 x2 _ time (over 1 hour). 2 y$ O$ O2 k9 Tb. Light- The rate of accumulation may create a 1 K( @9 J7 b5 X+ e' t" a, Qproblem if flight is prolonged in this environment2 F; u- `! X U6 d5 q5 U (over 1 hour). Occasional use of deicing/anti‐icing . @: H' _: H1 S, J0 @' N0 v3 j9 cequipment removes/prevents accumulation. It does* j7 _$ u$ a( |4 [. b9 d not present a problem if the deicing/anti‐icing( I2 r0 e$ _4 j- t. N2 ^ equipment is used. ; Q5 D3 A& n. y+ \* i _c. Moderate- The rate of accumulation is such that ! u r, u9 w1 D, o. xeven short encounters become potentially hazardous/ B0 Q: q5 n/ x0 C) k8 _+ n and use of deicing/anti‐icing equipment or flight* P3 k% e9 w; D4 X& S# K7 m diversion is necessary. ; Q& E& I' \, y# a7 Cd. Severe- The rate of accumulation is such that( g7 W2 w: R5 G! ]* @! g( }/ H deicing/anti‐icing equipment fails to reduce or0 Y" R* h% o9 j% V$ } control the hazard. Immediate flight diversion is 1 p! R/ e) H6 \3 \2 Ynecessary., y3 I% F+ t$ s5 ? IDENT- A request for a pilot to activate the aircraft 1 m4 u( ?& c2 J, c7 B2 r# ~transponder identification feature. This will help the6 n/ l) A- @+ C controller to confirm an aircraft identity or to identify; u7 \- C: o! t; J6 C+ P an aircraft.- }8 p7 ^0 c$ E, k5 C7 o (Refer to AIM.) 3 d- s1 {6 O2 J9 Q* c' `) AIDENT FEATURE- The special feature in the Air6 ]) w0 m! a" H3 h. i( ^ Traffic Control Radar Beacon System (ATCRBS) / S8 r r9 v; P0 ~/ i, Nequipment. It is used to immediately distinguish one ( Z6 f! ^; N9 z( [( |displayed beacon target from other beacon targets. ! Z' q: N) U |(See IDENT.)1 b/ L4 W. w2 Z6 B4 ~+ c1 j IF(See INTERMEDIATE FIX.) 9 r9 l3 \5 U4 o4 h3 ~7 N6 t- H6 PIFIM(See INTERNATIONAL FLIGHT INFORMATION 3 W$ `" x" \2 L k) X0 M$ E' C6 ^MANUAL.)7 w5 Z: u+ }8 i IF NO TRANSMISSION RECEIVED FOR , e7 a6 e7 J1 @0 v: P7 e(TIME)- Used by ATC in radar approaches to prefix ! e7 m$ Z) ?! M( u) H4 I+ ]9 Z6 U. |procedures which should be followed by the pilot in $ q5 g& r* u% f" t' k7 yevent of lost communications. 3 E- K+ v+ l+ R) r* x- B(See LOST COMMUNICATIONS.) - C! {& l& E% _IFR(See INSTRUMENT FLIGHT RULES.) 2 U6 u5 |; n% _1 q6 v& J& \IFR AIRCRAFT- An aircraft conducting flight in5 F3 M2 ~( b4 m) R8 w! U5 p( Z+ ~ accordance with instrument flight rules. 0 N& U7 n: \, l! QIFR CONDITIONS- Weather conditions below the ! {' k) N: q, q* aminimum for flight under visual flight rules. * N+ Y+ |* K2 q) u' {8 v! W: H(See INSTRUMENT METEOROLOGICAL; U L5 C& `2 p3 E CONDITIONS.); N( u. Z4 {+ ?4 [ @ IFR DEPARTURE PROCEDURE(See IFR TAKEOFF MINIMUMS AND5 h* H/ g/ z, d2 H1 P DEPARTURE PROCEDURES.)7 D# c2 f! e9 S* B (Refer to AIM.)7 z2 E: C% F" z0 p% g O; @( U5 ?) G IFR FLIGHT(See IFR AIRCRAFT.)8 K- U' k( ]! A6 t$ O IFR LANDING MINIMUMS(See LANDING MINIMUMS.)5 V- U$ J4 g5 g& Q6 `& e" u7 \* c! w* T8 O IFR MILITARY TRAINING ROUTES (IR)- Routes % E7 r' I. j) l2 Z1 r" ^ o( wused by the Department of Defense and associated ) v! s" D* G$ mReserve and Air Guard units for the purpose of ( N4 ]' e8 H) S @- wconducting low‐altitude navigation and tactical8 S) A/ B z7 {& s' J( D, C training in both IFR and VFR weather conditions & }- F. `1 m0 g6 u' [below 10,000 feet MSL at airspeeds in excess of 250 ( M+ X6 {$ a7 M! z# Nknots IAS. 0 k3 _4 @5 K- rIFR TAKEOFF MINIMUMS AND DEPARTURE . [8 R' [# k5 H. lPROCEDURES- Title 14 Code of Federal" u; b; ]% e1 @6 V# ~ Pilot/Controller Glossary 2/14/08 ! Y6 F, `0 q6 E2 r* \& M4 v7 N, FPCG I-2

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发表于 2008-12-28 14:14:55 |只看该作者
Regulations Part 91, prescribes standard takeoff rules 1 f: S) `) f$ e3 ?+ H- qfor certain civil users. At some airports, obstructions 6 z# G h' v4 |. t: \- I# s, lor other factors require the establishm ent of " B$ }% [6 V O# B! C# n& Nnonstandard takeoff minimums, departure proce‐, [9 A/ [9 W$ q' ~9 R9 ` dures, or both to assist pilots in avoiding obstacles/ z* b. w* N: l during climb to the minimum en route altitude. Those Q6 m9 d1 C# _( Jairports are listed in FAA/DOD Instrument Approach 0 j) y. J! k) ~# H8 `Procedures (IAPs) Charts under a section entitled, L# `$ j! H7 u# H7 O9 y “IFR Takeoff Minimums and Departure Procedures.”! r5 y+ M2 ^6 I7 G The FAA/DOD IAP chart legend illustrates the 8 J, D0 ? [( o% p2 Esymbol used to alert the pilot to nonstandard takeoff' h4 l: a0 [! o. l0 M8 ]3 s. e- W minimums and departure procedures. When depart‐$ a7 b" T7 t* x3 n X3 } V: v ing IFR from such airports or from any airports where) ~# F7 F) U, ?) n3 S S" G there are no departure procedures, DPs, or ATC $ v5 }' m$ v7 ?: H4 g" R# }& lfacilities available, pilots should advise ATC of any 7 [1 ~" Q5 h6 u3 Cdeparture limitations. Controllers may query a pilot# _8 Z" ^$ a3 I5 S* N/ u g# d to determine acceptable departure directions, turns, . i M" V0 P* g0 X% O# ]or headings after takeoff. Pilots should be familiar" i- ^- `, N/ O6 ^+ U8 f. p with the departure procedures and must assure that 0 R7 N% u: b' } q8 ltheir aircraft can meet or exceed any specified climb - {! G; I: h0 @+ h* O1 Mgradients. * @) H3 N/ \4 GIF/IAWP- Intermediate Fix/Initial Approach Way‐ # p/ x$ P3 H( b# ^5 I0 n% K! jpoint. The waypoint where the final approach course * G* |# @& O6 F' dof a T approach meets the crossbar of the T. When 4 s* T# s& C" Ydesignated (in conjunction with a TAA) this # c" b3 ?$ H0 O* @$ Y( Hwaypoint will be used as an IAWP when approaching* r& ^ N% q2 I! u: G2 G the airport from certain directions, and as an IFWP: w! [/ E' G. ^& w3 ]6 ~+ I$ v when beginning the approach from another IAWP., z2 I9 F* S; Z0 O IFWP- Intermediate Fix Waypoint7 w o; |5 j) t" ` ILS(See INSTRUMENT LANDING SYSTEM.) + B. d7 z) o! a1 yILS CATEGORIES- 1. ILS Category I. An ILS; E% E4 p9 ^8 i5 n( c approach procedure which provides for approach to $ L! E1 P* o# U- K h, va height above touchdown of not less than 200 feet : ^3 I$ |/ j7 r; J4 b- W9 R0 dand with runway visual range of not less than 1,800 1 F U1 h0 @" Pfeet.- 2. ILS Category II. An ILS approach procedure $ M/ {+ y* V' e6 _which provides for approach to a height above 1 ]8 E! _. Q5 ^touchdown of not less than 100 feet and with runway+ q! ?6 F, f: L+ i6 m1 p visual range of not less than 1,200 feet.- 3. ILS3 u) C& N. C4 q Category III:6 f1 x( I( M$ } a. IIIA.-An ILS approach procedure which # n5 g ?5 N" Q/ Sprovides for approach without a decision height0 e) d# |! h3 H6 w l minimum and with runway visual range of not less8 X9 [7 B* _# H; K. I) L3 x than 700 feet.% N; j# K( }; c( w9 `* M1 p b. IIIB.-An ILS approach procedure which j9 K- p0 o% B" C8 l provides for approach without a decision height 4 W0 e$ t+ ?8 ]3 N) E* nminimum and with runway visual range of not less! e N. U' \. l7 U than 150 feet.) F: M+ _& O- `' M( d c. IIIC.-An ILS approach procedure which$ ?) d- X5 n5 M provides for approach without a decision height 1 }/ g h: S+ a, g5 b, Rminimum and without runway visual range 2 Q6 b, e+ ?! a: h. s; v1 j+ d0 f* c* Dminimum. / D$ _) s! f/ t5 S1 YILS PRM APPROACH- An instrument landing q% p7 u1 q& S% b/ P2 v system (ILS) approach conducted to parallel runways 3 ?) ] _& x" mwhose extended centerlines are separated by less than 0 _( p$ v% k `( b& @7 u* u4,300 feet and the parallel runways have a Precision" v& I. t) G, W* s Runway Monitoring (PRM) system that permits : V2 N( g u3 z/ t3 isimultaneous independent ILS approaches.5 ^$ f9 K3 E. i; t" G! b IM(See INNER MARKER.) 2 w2 ]0 I3 a9 p: u! p; BIMC(See INSTRUMENT METEOROLOGICAL4 t7 r- \) h2 }1 H) J7 a, p CONDITIONS.) ' B7 P9 a& X3 Q) B8 ^IMMEDIATELY- Used by ATC or pilots when such9 w$ Y& m: C" M. v5 a& F2 @( i action compliance is required to avoid an imminent 2 t, J/ h( n' B- O( g0 bsituation.6 C/ O* k* l, ]& Y& E INCERFA (Uncertainty Phase) [ICAO]- A situation: W; G% [" {0 F3 H E- l wherein uncertainty exists as to the safety of an ( X1 C3 u- @/ J3 P7 U5 [: Naircraft and its occupants. % {# q {# e8 BINCREASE SPEED TO (SPEED)- & n1 `$ P/ k4 ^: `) N(See SPEED ADJUSTMENT.) % D! P* e% b, C8 ~% q% O$ iINERTIAL NAVIGATION SYSTEM- An RNAV$ N' M3 y) e$ H/ _. ?4 f system which is a form of self‐contained navigation.' X- `3 E6 y% Q7 |+ q$ [* U (See Area Navigation/RNAV.)+ K. g( _2 s+ e: P( j INFLIGHT REFUELING(See AERIAL REFUELING.) 5 T8 u. D$ J+ q a! O* x! mINFLIGHT WEATHER ADVISORY(See WEATHER ADVISORY.) & s, V2 p0 ^* K1 R# y$ _4 JINFORMATION REQUEST- A request originated. F" @& W' o6 p by an FSS for information concerning an overdue % o& o5 Y/ ?& a2 ^8 bVFR aircraft. ; V* Z. K; k9 AINITIAL APPROACH FIX- The fixes depicted on 5 p$ U3 {; t" W! t% Jinstrument approach procedure charts that identify2 C& F Z% h, z r0 P, u the beginning of the initial approach segment(s). ) u2 r: s4 s1 W# r# Y(See FIX.) 6 g( |0 U: |1 a& ~$ J" |(See SEGMENTS OF AN INSTRUMENT ( N p$ D" d9 V# e2 b8 dAPPROACH PROCEDURE.) 8 N, [3 _3 o7 _7 hINITIAL APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT 5 c8 P; ^" |6 F+ h: o. V+ l: ~" V8 EAPPROACH PROCEDURE.)" P- ?& R) x {; l INITIAL APPROACH SEGMENT [ICAO]- That- f# f: S. W8 L* F: P( |/ \ segment of an instrument approach procedure( s& f/ @9 s9 t6 ]0 Q6 K between the initial approach fix and the intermediate 0 q1 `5 E9 l6 h" K/ O, Gapproach fix or, where applicable, the final approach : T" j' T1 `2 i' l- dfix or point.- ~- U5 _- m$ q6 l" C7 L Pilot/Controller Glossary 2/14/08' Y! O4 E( x5 `, P% @9 K ~ PCG I-3 # [" O; v I, ^& H$ N7 M% A) yINLAND NAVIGATION FACILITY- A navigation ( r# E- N) I! K2 uaid on a North American Route at which the common, j; r6 o$ k5 _: m9 N route and/or the noncommon route begins or ends.( F4 k5 X( x' c7 N INNER MARKER- A marker beacon used with an5 }7 Q$ s5 {! o2 t" C1 b1 q) V w ILS (CAT II) precision approach located between the' q9 x# I- `! K E# O middle marker and the end of the ILS runway,( S4 S" W9 N8 H! F3 r& w transmitting a radiation pattern keyed at six dots per2 W# g+ W$ k2 L3 D+ D- E/ k) L second and indicating to the pilot, both aurally and. f3 ^. s; ~9 K7 g4 O' n8 j$ P visually, that he/she is at the designated decision4 G8 ^6 M. D \/ v# w height (DH), normally 100 feet above the touchdown3 X, o$ H9 v8 s zone elevation, on the ILS CAT II approach. It also# x! e" f5 l( h, L# \7 Y: T7 F marks progress during a CAT III approach. # f- g$ n8 C3 [. @9 s5 K v# @$ H(See INSTRUMENT LANDING SYSTEM.)* D* u" D) q0 ?2 r' V+ v/ ^1 j (Refer to AIM.). B( P; r& R9 j+ s/ d1 | INNER MARKER BEACON(See INNER MARKER.) / x' p* q& S4 KINREQ(See INFORMATION REQUEST.) : j7 t+ b& s( @" e0 T2 S; `+ XINS(See INERTIAL NAVIGATION SYSTEM.) 2 ^; y# T0 y& a/ Q8 i% b+ A! iINSTRUMENT APPROACH(See INSTRUMENT APPROACH" ^( U8 n w1 Z2 Y2 c/ Y2 ` PROCEDURE.)! m- q K: V$ E; J+ I( L INSTRUMENT APPROACH PROCEDURE- A % s- ^% H9 S/ {series of predetermined maneuvers for the orderly / y# {' r% E6 gtransfer of an aircraft under instrument flight * b- q9 g. _% p& Wconditions from the beginning of the initial approach 6 T# u& z. X7 U* J& Hto a landing or to a point from which a landing may & D \7 A0 [6 L/ h4 obe made visually. It is prescribed and approved for a2 f3 u, I" _& M; W& ^% I& [- ]& T: H) ] specific airport by competent authority. 1 [- w& X2 ^; [' [" _9 H' O6 q(See SEGMENTS OF AN INSTRUMENT# B4 W Z! |4 x APPROACH PROCEDURE.) T7 p1 k, y5 E" Y* c1 L9 q; o(Refer to 14 CFR Part 91.)5 d9 @1 H6 @( E& C9 M (Refer to AIM.); F3 @. W( U- e' Z; ] a. U.S. civil standard instrument approach k2 c0 G2 R& f7 a" Iprocedures are approved by the FAA as prescribed $ p3 i+ I k" X0 Z) M3 i. R8 Lunder 14 CFR Part 97 and are available for public . B/ E# j4 k n' j0 n% xuse.; S* Y4 x- y6 ?' Q+ V2 z9 V; l4 n b. U.S. military standard instrument approach 2 u r" o, O) D. S( bprocedures are approved and published by the 1 d* m9 s7 [( J8 d) [Department of Defense. " u5 i0 q, i" X# tc. Special instrument approach procedures are 4 D2 I) A& ~3 z7 L. [approved by the FAA for individual operators but are # v" M+ ^8 \) U+ H* i/ Nnot published in 14 CFR Part 97 for public use. \/ n! `- p4 w. V4 M& U4 R(See ICAO term INSTRUMENT APPROACH ; {9 [+ n- ^/ d3 k! ^PROCEDURE.)7 M8 t7 [1 D! v: _: s+ } INSTRUMENT APPROACH PROCEDURE 0 F; \2 }" R3 ^4 S9 _" R[ICAO]- A series of predetermined maneuvers by# O8 H" K, F7 }3 g9 f- | reference to flight instruments with specified ( W+ p; I2 a6 g2 h ^, `protection from obstacles from the initial approach2 R( q$ _ _) A$ i fix, or where applicable, from the beginning of a ' ~; |- ~. A. Qdefined arrival route to a point from which a landing 5 i/ b# h% `0 b6 F/ [* @# mcan be completed and thereafter, if a landing is not 9 V! i/ C+ Y/ d! |% k9 mcompleted, to a position at which holding or en route . Y! e. d$ B# K1 k x# jobstacle clearance criteria apply. 0 F" b7 i A; k* D+ PINSTRUMENT APPROACH PROCEDURES7 K7 A) ~% Z4 c CHARTS(See AERONAUTICAL CHART.) 6 y7 ]6 j+ r. M c P$ x7 ]INSTRUMENT DEPARTURE PROCEDURE + P A1 v* {! L" D9 U(DP)- A preplanned instrument flight rule (IFR)2 V. A) c! V; G5 {$ \) t9 Z( A departure procedure published for pilot use, in& r2 H3 n5 m6 W graphic or textual format, that provides obstruction + z5 X) |2 K( a1 m7 Z! V# Oclearance from the terminal area to the appropriate en, t2 A8 R- o1 }0 j# I% T8 ?: E% k route structure. There are two types of DP, Obstacle & q) e ?* ?+ \Departure Procedure (ODP), printed either textually / t5 o! i% E+ y" Vor graphically, and, Standard Instrument Departure9 T) v, J4 p+ B8 c (SID), which is always printed graphically. 4 p3 a1 B1 Z- F; o1 o0 S2 B1 C(See IFR TAKEOFF MINIMUMS AND& J# Q8 W9 v! K4 |0 [. G& | DEPARTURE PROCEDURES.)/ C; {$ ~' w m$ w) V: D1 T( d (See OBSTACLE DEPARTURE PROCEDURES.) ( O( k0 @4 N* m(See STANDARD INSTRUMENT DEPARTURES.) ; ^. h$ _) l' t(Refer to AIM.) 1 B7 ]: X8 [7 w8 O% fINSTRUMENT DEPARTURE PROCEDURE (DP)2 I, U# ^% v* y$ Z. \) L: V2 ? CHARTS(See AERONAUTICAL CHART.)+ C7 G9 W) O& [+ H INSTRUMENT FLIGHT RULES- Rules governing 3 R4 F+ t' T, H# t3 u8 kthe procedures for conducting instrument flight. Also 7 w: O0 N; i! B$ f+ U( z6 p( za term used by pilots and controllers to indicate type' s2 g- \8 {- z4 R2 {, g of flight plan. 2 ~$ B+ E6 V6 c/ D1 f$ f* b(See INSTRUMENT METEOROLOGICAL ' q7 ?) O$ B+ _CONDITIONS.)9 p* ^4 N' E4 x+ r. j. g (See VISUAL FLIGHT RULES.)! l4 t# O, ]7 f( U! N `. E (See VISUAL METEOROLOGICAL 6 R0 N, _8 |1 [- [1 Y5 S( F3 b/ zCONDITIONS.) I, V& w* h5 q7 H! x/ {(See ICAO term INSTRUMENT FLIGHT2 o2 n1 g7 u6 ? RULES.) : j( X6 U9 f) q+ {, L(Refer to AIM.) ; `: J5 \$ C' BINSTRUMENT FLIGHT RULES [ICAO]- A set of4 m5 d- | B6 W( S+ a& N rules governing the conduct of flight under, U) _; k- F. G h1 Q instrument meteorological conditions. $ F& e4 R1 Y( o U6 E' G- uINSTRUMENT LANDING SYSTEM- A precision2 ?+ D6 W1 {" V instrument approach system which normally consists' N% }7 O9 M4 W6 W of the following electronic components and visual+ Q- K7 E& B, W s/ i, O! y0 f* i5 g5 s aids: * p2 y: b9 d6 U0 iPilot/Controller Glossary 2/14/08 + X8 d: ]3 T1 G/ _& mPCG I-4 j, }: N2 t: s: La. Localizer.1 u r, ?1 Z. B; S, d" \: w0 X (See LOCALIZER.) 4 K& m' W# J- P8 a! K# q' h0 Cb. Glideslope.0 ]+ g G% e% ^ (See GLIDESLOPE.) 8 F* {( w0 R1 \* J, r. ^c. Outer Marker.$ e9 N* G, O. W (See OUTER MARKER.) * f r) z$ F/ jd. Middle Marker.0 w0 n5 c- L! c) m9 [& `' S (See MIDDLE MARKER.)- k; A$ E7 [( A3 h5 _4 z/ P4 s/ E e. Approach Lights.9 |+ F0 p, w# r) R B5 O (See AIRPORT LIGHTING.)+ T0 c7 y G- g% N: n (Refer to 14 CFR Part 91.) / o4 Z0 B0 p; r' A6 F(Refer to AIM.) ; }) b7 V3 M. P7 NINSTRUMENT METEOROLOGICAL CONDI‐ 9 [9 S* f- e: A/ R* F! R' p) NTIONS- Meteorological conditions expressed in$ h2 r) b& V2 W8 S1 A' m. j* U terms of visibility, distance from cloud, and ceiling $ g( e+ o: t& W+ iless than the minima specified for visual meteorolog‐ # F+ u/ G8 p. C1 P# m u# m; f% `ical conditions. 2 T" ^9 a6 A5 ~4 N- }$ A& P# c(See INSTRUMENT FLIGHT RULES.)& d% q, _; y5 k& i6 X (See VISUAL FLIGHT RULES.); \5 f, i1 |8 R l# d* J! `9 G/ j2 ` (See VISUAL METEOROLOGICAL + L5 X/ i+ k+ M2 CCONDITIONS.) % V0 I+ M% n$ J. ^$ D v, I2 G6 FINSTRUMENT RUNWAY- A runway equipped, r" V! h) P2 R* O+ x5 g1 I with electronic and visual navigation aids for which1 |4 c6 C# I0 I4 L a precision or nonprecision approach procedure , Y0 R% L; ^# o0 A; e) @having straight‐in landing minimums has been + \5 g+ o2 C1 q3 [3 ?approved. ) V: y" F% M; ~(See ICAO term INSTRUMENT RUNWAY.) / ` q5 p/ h& BINSTRUMENT RUNWAY [ICAO]- One of the 8 V6 ?7 Y5 K6 B) L0 f2 Wfollowing types of runways intended for the 0 v( n: l, M2 m. ~0 g; g( coperation of aircraft using instrument approach$ c( r5 ^$ p( F8 ?9 L% y! S, Y" i procedures: ' S G8 G' ~' C8 F! Ea. Nonprecision Approach Runway-An instru‐ 5 Y! K p6 V0 ^' A, \/ ament runway served by visual aids and a nonvisual" L5 K* n3 T& L1 E aid providing at least directional guidance adequate 3 K2 f! B8 S+ P; Rfor a straight‐in approach.* q4 G, v6 d: y% Y b. recision Approach Runway, Category I-An, C0 R9 p, R& |4 b$ s! a7 [, Z instrument runway served by ILS and visual aids " Z8 Z- K/ h/ @9 u+ J% h- I+ bintended for operations down to 60 m (200 feet) / K8 z. C8 @; ` w% {decision height and down to an RVR of the order of; R' _& Z2 c0 X) r8 m7 F 800 m. 3 H ~/ a- M# W! xc. recision Approach Runway, Category II-An 0 R+ b# j7 M+ t) y) x# [* E2 v) ^instrument runway served by ILS and visual aids# _( P. U* _& }+ ~' |0 ?6 z intended for operations down to 30 m (100 feet)" d3 w% F1 {" d% p1 ~" Z0 t7 _ decision height and down to an RVR of the order of3 A" ?6 D5 P* R 400 m. " O# M; x4 P; i; c4 O, Xd. recision Approach Runway, Category III-An - E8 r! d) G4 B& F: u6 ]. ]" Xinstrument runway served by ILS to and along the 3 Z- P( S/ n. C2 hsurface of the runway and:: F6 ` {. R& ?2 `9 f4 a" ]! a 1. Intended for operations down to an RVR of8 H. d4 k8 W9 C9 D" [ the order of 200 m (no decision height being* e5 E+ d9 p: p: j" A7 `0 K+ y applicable) using visual aids during the final phase of 3 X2 ^3 T0 e, z# t- ]( @8 c, r5 elanding;0 V% U4 g% l5 Z 2. Intended for operations down to an RVR of ) q$ k" Y8 q8 e1 M+ ethe order of 50 m (no decision height being / T4 X0 c* Q% C5 D$ b* N2 @applicable) using visual aids for taxiing; , D. M) J7 m2 k' D3. Intended for operations without reliance on! ~: T, b F! z5 h visual reference for landing or taxiing. 3 M1 \- j! s5 JNote 1:See Annex 10 Volume I, Part I, Chapter 3, ; D- Y. c) b7 Q F0 \/ Sfor related ILS specifications. / |, t' @8 e$ ]( _0 I- q6 }- }Note 2:Visual aids need not necessarily be ! K. X0 B, ~8 i9 |& h6 Qmatched to the scale of nonvisual aids provided.1 [) M* ^! _- q& T% T6 C$ M+ H' g The criterion for the selection of visual aids is the * l9 s4 W0 I4 E: Y% Yconditions in which operations are intended to be% z0 z, t2 R* x! t1 ^! e9 ^ conducted. , a( w6 F3 ?6 K8 E3 Q, zINTEGRITY- The ability of a system to provide , {6 q! n# E% p' v+ ^. p/ F) utimely warnings to users when the system should not8 w1 q0 ~$ [: }. D be used for navigation.$ l+ f2 M$ N0 \6 @, } INTERMEDIATE APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT & W* e+ Q5 M. J- Y" x, J9 m* yAPPROACH PROCEDURE.) ! A/ S( l- Q1 c1 d+ CINTERMEDIATE APPROACH SEGMENT ( I) ?/ `; V. V& T[ICAO]- That segment of an instrument approach4 @7 N4 G6 }3 q( N+ L6 o procedure between either the intermediate approach: T* W F; }4 |6 \- h6 j fix and the final approach fix or point, or between the% x3 |4 I9 ?0 b6 O( J8 @$ s. ^ end of a reversal, race track or dead reckoning track 4 I: }4 J$ X' T- Zprocedure and the final approach fix or point, as $ J/ {& p9 H- P# E9 I$ }appropriate. , [' v4 B1 y: U$ ?! m/ bINTERMEDIATE FIX- The fix that identifies the% R9 b0 [$ a' N% M: `5 C: ]3 C beginning of the intermediate approach segment of an 0 o9 v7 E. H+ g' O" m! T( @( N9 f) T' Finstrument approach procedure. The fix is not5 x/ I; {1 l, D5 i" J normally identified on the instrument approach chart6 c) @9 d9 `/ C8 Q2 I2 n as an intermediate fix (IF). i7 U6 u5 a% d. m( S' f$ z (See SEGMENTS OF AN INSTRUMENT2 P6 O! x# w+ X# r; P; Q0 k APPROACH PROCEDURE.) g$ g) {* w; C4 w6 k6 G6 K( HINTERMEDIATE LANDING- On the rare occasion4 m) N# v0 V! z$ \9 g0 m that this option is requested, it should be approved.( O' ~% `2 q8 n5 K( _2 p The departure center, however, must advise the d9 `( x4 m$ H ATCSCC so that the appropriate delay is carried over . y" V; W5 ]3 n# |and assigned at the interm ediate airport. An 1 x1 ?( u: [7 B3 Qintermediate landing airport within the arrival center 9 a o9 l: Z6 hwill not be accepted without coordination with and' | }4 T9 Q7 ?& U1 b9 X0 q the approval of the ATCSCC.8 V& `. s' D: G" k* N) { INTERNATIONAL AIRPORT- Relating to interna‐ & \& V L. M+ z6 [3 y. Ntional flight, it means:: ~' P5 j) e2 f9 ]9 }3 s& S Pilot/Controller Glossary 2/14/08( N% e! K1 ^6 J$ j2 {9 a# F PCG I-5* J' b- Y$ U( m/ S a. An airport of entry which has been designated8 j' \* g- f( b# [0 ` by the Secretary of Treasury or Commissioner of4 {6 b1 I0 Q" J4 t' \3 u% L Customs as an international airport for customs 8 c% b3 ^& f* X% \+ Eservice.3 }9 q1 F, R& q b. A landing rights airport at which specific % V* |( g5 ^ T/ B3 o+ {1 z9 Gpermission to land must be obtained from customs/ ~# w! H' p N l; a! Q authorities in advance of contemplated use. ! ^/ f! o* u6 Z" m4 Kc. Airports designated under the Convention on " a3 B* T0 n' Y) ^International Civil Aviation as an airport for use by ! a: h5 g- C- ^1 }8 { b! binternational commercial air transport and/or interna‐ , n8 i; v" i: Z) K$ B/ Dtional general aviation. 8 l& z5 b9 L) V% c(See ICAO term INTERNATIONAL AIRPORT.)# K, x) t _ N* l (Refer to AIRPORT/FACILITY DIRECTORY.)9 k% g8 q: i% E (Refer to IFIM.) 6 g, ^. i9 m& }' `) f: N2 r, Y, ^2 AINTERNATIONAL AIRPORT [ICAO]- Any airport * L) e2 J* Y8 x) @% x* k3 g( p0 \* Pdesignated by the Contracting State in whose 3 S$ v \# m/ F+ `5 Uterritory it is situated as an airport of entry and 1 F2 f+ F4 }# `departure for international air traffic, where the + \3 Q* N1 P- \0 }/ tformalities incident to customs, immigration, public% i; v a) i- @7 M7 M+ C: F health, animal and plant quarantine and similar # L* n. r, w* C' G: m. D% [procedures are carried out. a- \7 M3 r# h6 G2 c' P* V; p L INTERNATIONAL CIVIL AVIATION ORGA‐' X# ]' G1 J, b& f6 p NIZATION [ICAO]- A specialized agency of the 0 k1 T! f/ {7 G! VUnited Nations whose objective is to develop the( ]. d% y5 X& i principles and techniques of international air p/ h) a3 k% R4 a) w% F h8 z" ^navigation and to foster planning and development of ( s: t( M0 ?! f8 ?$ [! C) ^international civil air transport. ! |9 F$ a5 ?' X& Za. Regions include: & [. Q* m+ L. e3 f1. African‐Indian Ocean Region1 N, M+ t E' I' U* n2 j# q* H 2. Caribbean Region , V9 b9 o* S& z3. European Region / S- v& X% U9 w4. Middle East/Asia Region7 ^- U+ W9 u7 i 5. North American Region9 [' E6 j3 y/ S3 M 6. North Atlantic Region" y' P" ~: M4 P 7. acific Region/ o6 a+ y9 e2 ]7 D* N 8. South American Region 3 i3 }4 P. u j' v7 z5 @1 LINTERNATIONAL FLIGHT INFORMATION ( T' W. w# T* _/ a) lMANUAL- A publication designed primarily as a ; }) {1 C3 b: Y q" W1 f# g& Hpilot's preflight planning guide for flights into6 f! C; |' Y- N% `% B! C foreign airspace and for flights returning to the U.S. ' V6 d) T5 A1 }5 I" Tfrom foreign locations.3 _* v4 l6 l' d- B( z! c6 Q9 l INTERROGATOR- The ground‐based surveillance 4 F; g1 w. W8 A- R1 \5 }9 Xradar beacon transmitter‐receiver, which normally . q1 c7 C8 C5 c3 s7 J2 v5 \' O. oscans in synchronism with a prim ary radar, # k- C/ s' \8 Wtransmitting discrete radio signals which repetitious‐' U/ N9 z/ e5 F ly request all transponders on the mode being used to: O/ C$ M& G9 u2 F) [" x reply. The replies received are mixed with the $ N, J, D3 }8 B. n) u% _2 d. Eprimary radar returns and displayed on the same plan% _6 l* R4 u# f+ F position indicator (radar scope). Also, applied to the2 S& u* y; p6 X! X& j+ Z& i: Y airborne element of the TACAN/DME system.* ~- \+ T1 w* R5 u6 r (See TRANSPONDER.) . a- f* @. k, m(Refer to AIM.)! s$ ^* p* p3 |( o- @ INTERSECTING RUNWAYS- Two or more ( Y1 }2 d4 Y: @2 p' O* trunways which cross or meet within their lengths.- Z1 H& D+ S# v F, ~5 O (See INTERSECTION.)

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INTERSECTIONa. A point defined by any combination of courses, n( k3 X& T( ? U n6 Vradials, or bearings of two or more navigational aids.% H' b3 N5 C) x+ t, Z b. Used to describe the point where two runways, 9 [/ [- C8 _0 Ca runway and a taxiway, or two taxiways cross or' L0 L, M2 C- F8 t' F meet.3 X2 X( {$ k4 R INTERSECTION DEPARTURE- A departure from ! r0 a: E9 ]0 u* many runway intersection except the end of the runway. 2 y9 g( |1 L% j# O3 d5 x(See INTERSECTION.)( R9 _4 C6 Q9 q8 P INTERSECTION TAKEOFF(See INTERSECTION DEPARTURE.) . A% @6 A8 \" t" q6 O8 P- aIR(See IFR MILITARY TRAINING ROUTES.) - z* \& x: g: A3 _; EPilot/Controller Glossary 2/14/08 Q4 ?; @! ?6 P+ y6 jPCG J-1' n9 q( H: _3 s4 _6 c4 _ J

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JAMMING- Electronic or mechanical interference " e# H- _: ^& K2 twhich may disrupt the display of aircraft on radar or 4 @+ J; L# H* fthe transmission/reception of radio communications/- i" q9 y4 L+ M9 ~# \; v navigation. . G5 V% |) s" Z! O2 V+ P+ ^JET BLAST- Jet engine exhaust (thrust stream8 L( E4 U1 p% ]$ Q) f0 c% U( E7 ? turbulence).1 z: v, X4 y) S (See WAKE TURBULENCE.)3 M( Y& ?: B$ i. `; M2 j JET ROUTE- A route designed to serve aircraft % ?0 c! D( b: Woperations from 18,000 feet MSL up to and including' C2 R9 |6 n/ U6 m8 P8 T7 X flight level 450. The routes are referred to as “J” : g5 g3 ?" j$ J" E% `$ m. z P0 kroutes with numbering to identify the designated 1 q1 C* {. s4 {3 k# ] N) e) yroute; e.g., J105." U: d, I5 q4 Z/ u+ G (See Class A AIRSPACE.)3 h1 n7 D) g& y+ u* R5 T (Refer to 14 CFR Part 71.)4 _3 ^. z* b; h# Q' M& E+ A3 | JET STREAM- A migrating stream of high‐speed* l: s& z5 T7 A) L7 [" ~ winds present at high altitudes. G v" r3 H3 D1 \JETTISONING OF EXTERNAL STORES- Air‐" t8 d @2 X8 R1 w borne release of external stores; e.g., tiptanks, ; B) {# j3 f* Y7 B2 iordnance.. ]/ x# t2 _; I/ e/ [" x1 a (See FUEL DUMPING.)5 j: B* l9 h4 L6 R (Refer to 14 CFR Part 91.): d, B3 A, _, z$ W9 j JOINT USE RESTRICTED AREA(See RESTRICTED AREA.)3 v) c( h# w* R7 g2 t! B9 @ Pilot/Controller Glossary 2/14/08 2 F1 C' D, ?, QPCG K-1% \0 o3 c# z& G) @! Z K5 N. c% |6 j: F( l3 i! p3 ?5 E KNOWN TRAFFIC- With respect to ATC clear‐ ! f. @: ^) @! e( @1 E# f+ N: fances, means aircraft whose altitude, position, and% S( }: J2 @7 L6 K( f% K+ M! q intentions are known to ATC.7 ^( T* n' Y0 X2 a F& z Pilot/Controller Glossary 2/14/08( D1 O, O& J' s PCG L-1 & q, ]: j3 Q4 O, P4 J" c5 XL ! E& \, ]5 @7 nLAA(See LOCAL AIRPORT ADVISORY.)4 ^' Q4 I! `6 m1 e- _1 c LAAS(See LOW ALTITUDE ALERT SYSTEM.)- T S, K0 H- c6 h LAHSO- An acronym for “Land and Hold Short 5 l% ]9 ~3 Y2 S& ^ COperation.” These operations include landing and ' h1 ~2 X$ P/ Z8 Zholding short of an intersecting runway, a taxiway, a , Y$ z. L ?0 G ~3 |) ^1 ipredetermined point, or an approach/departure! ]+ F: p9 v$ k/ n/ j5 X+ j flightpath., C7 F9 i: J! o1 o( B LAHSO‐DRY- Land and hold short operations on: a! L6 v! ], R* `+ t runways that are dry. 5 c8 H* h, l/ b. J8 sLAHSO‐WET- Land and hold short operations on ! E% g5 a/ e! Y* Srunways that are wet (but not contaminated). ( h% M1 Y2 g& D4 D/ n: H: _" }" @LAND AND HOLD SHORT OPERATIONS -8 a3 Q J# s! c( A7 Q Operations which include simultaneous takeoffs and " x. y4 Y, R! ~+ S! elandings and/or simultaneous landings when a 2 a5 O2 _- }" d* }landing aircraft is able and is instructed by the( e: [! ]; O9 n5 n7 h# v; U# y: a* p controller to hold‐short of the intersecting runway/ " l0 o: }5 w/ H5 z" B$ \" k( Ztaxiway or designated hold‐short point. Pilots are% b) R' p' F; L. i3 R5 z: R+ W* L- e. z expected to promptly inform the controller if the hold* H8 r2 F {& d! g) a; u short clearance cannot be accepted. # [3 A' }( w- t) y0 I(See PARALLEL RUNWAYS.). Q& P3 A% a' \ (Refer to AIM.)9 m- `; B5 G' R4 ~ LANDING AREA- Any locality either on land, 1 j* W0 a# A* X: K5 _' a" }water, or structures, including airports/heliports and ) W* U) }! h _ iintermediate landing fields, which is used, or ]9 p4 `. H9 M3 |5 U$ f intended to be used, for the landing and takeoff of& ^1 Q' x/ V1 o' O5 ^ aircraft whether or not facilities are provided for the L! C* U: R4 w) I0 `1 \ shelter, servicing, or for receiving or discharging 7 C: ?8 k' ` F7 zpassengers or cargo. * M( G4 q8 d% U z(See ICAO term LANDING AREA.) 5 i; J5 |5 k( f: bLANDING AREA [ICAO]- That part of a movement7 T& `6 w, u( D, F) Z% u area intended for the landing or take‐off of aircraft.& G$ H: M- `. R4 A$ ]) N LANDING DIRECTION INDICATOR- A device 0 ~. I/ Z% ~2 ?( `1 w5 v1 xwhich visually indicates the direction in which $ a9 O: O4 o4 e. Slandings and takeoffs should be made. 3 T; R5 @0 v, J(See TETRAHEDRON.)1 G8 @4 I" G/ ?( e+ F (Refer to AIM.)1 r2 u( f: b4 Z. z LANDING DISTANCE AVAILABLE [ICAO]- The, i; Y% P9 |8 Y; K" G length of runway which is declared available and/ ?) s( b6 e7 H5 Y4 G3 ] l/ A# z suitable for the ground run of an aeroplane landing.1 o% p" A9 T# u: Z8 b0 V LANDING MINIMUMS- The minimum visibility- I3 t! {/ ~# ^. Q1 B2 w prescribed for landing a civil aircraft while using an ; m- b9 i+ e3 E: ^4 a* N- ]instrument approach procedure. The minimum 2 F0 X( |& i8 G7 i7 P( }& o: U/ S! ?applies with other limitations set forth in 14 CFR * L; Y( L+ h' J8 s' i0 KPart 91 with respect to the Minimum Descent # D7 P6 M, I mAltitude (MDA) or Decision Height (DH) prescribed - _$ J' | y; x4 h8 g: }in the instrument approach procedures as follows:) d7 U7 ?2 O' C P5 M a. Straight‐in landing minimums. A statement of; p6 G( P" i# f3 k- ]& p0 L MDA and visibility, or DH and visibility, required for 6 j( x' w$ x9 Ma straight‐in landing on a specified runway, or 7 V7 A4 k/ O. U& `+ ^b. Circling minimums. A statement of MDA and 3 P: Q7 O- l* O+ I8 C* ^6 O" Y% j& K! Ivisibility required for the circle‐to‐land maneuver. " E, p& Z% a- C' GNote:Descent below the established MDA or DH is / o) b6 H0 H- L6 @; G' dnot authorized during an approach unless the . z( O# C9 s9 K. ~! E& t4 }aircraft is in a position from which a normal, Q6 w3 W" A7 t7 [+ c approach to the runway of intended landing can be % c! o& t4 j Y1 s8 Omade and adequate visual reference to required8 s- q: j, ^9 ~7 F visual cues is maintained. 2 p2 \: e! ?2 R5 Z(See CIRCLE‐TO‐LAND MANEUVER.) & b/ K* B* F. Z+ E" w9 ?& O(See DECISION HEIGHT.)4 X0 F5 ?1 _9 w5 r/ p (See INSTRUMENT APPROACH ) G T8 s& @7 W3 G3 B Q6 L. [PROCEDURE.)4 c% r5 t! O6 _! ]2 }# Y (See MINIMUM DESCENT ALTITUDE.)3 S4 R% N1 I5 P* Q. j (See STRAIGHT‐IN LANDING.) - z* F8 v6 T1 R; L2 v- J, ~) R(See VISIBILITY.)' ^7 E( l" }' E% [& I (Refer to 14 CFR Part 91.)0 p' |* b! w) V" S2 R LANDING ROLL- The distance from the point of0 P2 u% f2 l+ W% Z$ C touchdown to the point where the aircraft can be % A: R: e$ N* m2 Y8 e8 j5 Tbrought to a stop or exit the runway. 1 p' g# K0 }6 M2 q8 NLANDING SEQUENCE- The order in which " Z }: a! R6 ?! y# e$ Uaircraft are positioned for landing.9 z, d/ r' b4 e5 J# i (See APPROACH SEQUENCE.) ) H9 v) j6 k) n, u( @$ ]4 \- KLAST ASSIGNED ALTITUDE- The last altitude/9 g: c0 f6 t$ v# z8 b: Z7 W flight level assigned by ATC and acknowledged by; g: _0 Q5 ]* }* N' \# F the pilot.0 V: p0 ?, u( |) a (See MAINTAIN.)& l- T( ^/ J2 X) _0 \ (Refer to 14 CFR Part 91.) * F! u# ~) }+ {) e$ ?$ r, g& ^4 E5 SLATERAL NAVIGATION (LNAV)– A function of" m5 r! M, C: u% ]. {. V) b9 f w g area navigation (RNAV) equipment which calculates,. z5 u+ s) J$ J" v" [3 t displays, and provides lateral guidance to a profile or8 M: e9 b' n# m+ v, O7 ?9 [3 `7 G2 S path.- s. f* K' \# E0 z LATERAL SEPARATION- The lateral spacing of + s& \! V. X/ @, C- k; s5 ~( zaircraft at the same altitude by requiring operation on 8 S. `( `6 z! m! Udifferent routes or in different geographical locations.: w) b' z! n. }2 M5 u& E (See SEPARATION.)* W _* w! z' Q% @5 ?+ t: f Pilot/Controller Glossary 2/14/08 2 W% r! a% D; y5 u1 ~( p2 U# ^8 _5 x) jPCG L-29 ~7 W7 u& G W0 J LDA(See LOCALIZER TYPE DIRECTIONAL AID.); @+ ?/ r" y% c5 u6 k (See ICAO Term LANDING DISTANCE0 C& S5 Z) V/ S% C& k5 z: e. y AVAILABLE.) ' }2 j; B9 p; {9 \' SLF(See LOW FREQUENCY.) ' k m. ^. m& g, DLIGHTED AIRPORT- An airport where runway and 8 w: o9 O( p: f$ D9 w+ i: Robstruction lighting is available.) k; m% l W4 Q$ \8 P (See AIRPORT LIGHTING.)/ b( P+ }, q, g' Z5 @: R (Refer to AIM.)8 t7 w/ D' J# R; H$ S& i9 z LIGHT GUN- A handheld directional light signaling) H5 c) r: ?% _$ K' M device which emits a brilliant narrow beam of white,8 \/ f, G3 |, O S. u green, or red light as selected by the tower controller. 8 k& C6 X3 l' Z. x; fThe color and type of light transmitted can be used to- z. ^. _( h% O approve or disapprove anticipated pilot actions where4 H5 M" S" W" C; o: h radio communication is not available. The light gun& p: {; q( L; m, [: P4 c is used for controlling traffic operating in the vicinity 5 t3 X8 |; ^8 z9 J( W5 n4 U; vof the airport and on the airport movement area. & e- y9 K' t- [) f- j(Refer to AIM.)1 J u5 X6 g( b$ S LOCAL AIRPORT ADVISORY (LAA)- A service 0 H; a7 n% ]7 f5 ?: }+ w6 kprovided by facilities, which are located on the/ _+ y* E$ i2 O3 _6 T( w+ l landing airport, have a discrete ground-to-air1 `. Z* {: ~% @ communication frequency or the tower frequency # {1 z q; }& @; |. }5 ~5 pwhen the tower is closed, automated weather( A1 a" g( b" N5 M$ y0 X reporting with voice broadcasting, and a continuous e5 f; B# `0 |- ^ ASOS/AWOS data display, other continuous direct6 _% T. C' q+ F2 x/ U3 \1 e6 R reading instruments, or manual observations avail‐ $ d; Q/ G& I, j- x. ?able to the specialist. * w: V' c& C1 G6 O6 e- G1 S( R(See AIRPORT ADVISORY AREA.)6 H$ @; N6 \0 t9 R4 p$ p LOCAL TRAFFIC- Aircraft operating in the traffic! T- S, y3 G7 ?& J; Z( S9 ] pattern or within sight of the tower, or aircraft known9 s5 y" u: @* O) M& z3 C to be departing or arriving from flight in local practice 5 t. m3 N& F. W* t W/ y$ T4 G1 Jareas, or aircraft executing practice instrument % }- k- ?2 n) a* F' [2 Gapproaches at the airport., Z+ B. f; q) m5 O0 ] (See TRAFFIC PATTERN.) 3 D& d# ^9 O4 N' h- I0 H( Q5 P3 xLOCALIZER- The component of an ILS which . S5 O- U) |6 n' n/ x4 t7 Oprovides course guidance to the runway. / a, Y5 X2 h! u# j9 x( N(See INSTRUMENT LANDING SYSTEM.)) X1 T5 T# `0 p: T/ M0 p' p (See ICAO term LOCALIZER COURSE.)3 E! k% B/ `2 {6 E (Refer to AIM.); k: r. c& b0 w LOCALIZER COURSE [ICAO]- The locus of . L" ~; E# P# Z: ~( u: Spoints, in any given horizontal plane, at which the : u: c6 t8 \4 q; Q" JDDM (difference in depth of modulation) is zero.4 k" d- Z9 u* a+ |+ z' w9 ^6 G0 N2 T LOCALIZER OFFSET- An angular offset of the ( Q2 g7 t8 Y& H. klocalizer from the runway extended centerline in a 5 i2 D$ d. C1 rdirection away from the no transgression zone (NTZ) # P7 h, |& F$ n8 r0 X5 fthat increases the normal operating zone (NOZ) " B; r) e3 S' t awidth. An offset requires a 50 foot increase in DH and ' ~& N3 a; d( O' [4 f! u f# xis not authorized for CAT II and CAT III approaches. 9 e. A5 z \1 j( m6 F0 [" o7 gLOCALIZER TYPE DIRECTIONAL AID- A 4 S' l) R$ H. Z1 VNAVAID used for nonprecision instrument ap‐ 1 d! @1 V. E! ], m4 b; Tproaches with utility and accuracy comparable to a& A# c; k0 I& _, A: | @# ] localizer but which is not a part of a complete ILS and 5 V& o" u1 q1 T# ris not aligned with the runway. : H1 Y, c) v$ u* ?; d(Refer to AIM.)0 ?) p( K% D% @2 \6 |6 ^ LOCALIZER USABLE DISTANCE- The maxi‐$ t7 M5 V0 K, ], w, \7 n mum distance from the localizer transmitter at a ( A6 ]5 F' R3 [specified altitude, as verified by flight inspection, at ) C) l( r. Q2 R Hwhich reliable course information is continuously 3 N/ a0 l/ a7 w# Q) x" Zreceived. ! n( \' c3 I9 B" Z0 Y(Refer to AIM.) & d5 `/ Y' W; s* _ GLOCATOR [ICAO]- An LM/MF NDB used as an aid ' l/ a- I$ [& f1 w# M3 W( P! R n T; Qto final approach. 7 a* c- k" p6 \Note:A locator usually has an average radius of: c$ C+ r" h) _2 T rated coverage of between 18.5 and 46.3 km (109 G/ Y O' r4 u n8 k q and 25 NM). 7 _6 @( P! C: o! z7 ZLONG RANGE NAVIGATION(See LORAN.) ' n8 x# L. h+ \! v/ hLONGITUDINAL SEPARATION- The longitudi‐4 d' z: d+ F! A% o nal spacing of aircraft at the same altitude by a8 [' c! u" T9 o) Z9 G1 [ minimum distance expressed in units of time or ; B2 q5 [( g( h/ Mmiles. 5 V0 Q( B3 x3 L(See SEPARATION.) 4 F( g8 t7 i5 t% R(Refer to AIM.)0 n" y7 z5 ]0 t LORAN- An electronic navigational system by 0 T% J+ n6 k2 H4 K# z* v& jwhich hyperbolic lines of position are determined by: Q7 v8 `1 W: d' M) l1 T3 R measuring the difference in the time of reception of7 ?- V7 m2 a% ?0 @1 s/ k0 Q synchronized pulse signals from two fixed transmit‐ 0 f: H s" ~& j8 n5 ]; Fters. Loran A operates in the 1750‐1950 kHz 4 N0 H5 l( x; x& [1 Y( u% s+ |frequency band. Loran C and D operate in the7 Z8 b0 |, R& B3 P& A 100‐110 kHz frequency band. 2 N$ P6 ^6 }( w6 S(Refer to AIM.)$ z0 q0 M5 s. _9 l- K: Z LOST COMMUNICATIONS- Loss of the ability to' I! ^8 ?: J/ m; ~) r7 j9 h# f communicate by radio. Aircraft are sometimes4 v/ g% g) O% z' W. j& Z0 | referred to as NORDO (No Radio). Standard pilot % c& S. N+ q h! O7 \2 S2 mprocedures are specified in 14 CFR Part 91. Radar 3 ?9 K% l9 U* B8 K8 E" Kcontrollers issue procedures for pilots to follow in the * M$ I- O# I2 w& M+ Jevent of lost communications during a radar approach; Z0 r! E! L: J8 b. j& ? when weather reports indicate that an aircraft will ! ]2 n% a u, {9 n& `likely encounter IFR weather conditions during the' k, s% R4 n( @6 X approach.1 y7 l# w0 R2 t; d (Refer to 14 CFR Part 91.) . r. W3 r7 h& y(Refer AIM.)' C6 ?! T) i9 C$ ^. K& Y1 g, X- d Pilot/Controller Glossary 2/14/08 4 s E/ p+ G2 q1 ^2 W0 C0 x" oPCG L-3 ( ?7 ~$ T5 K' r( g/ `LOW ALTITUDE AIRWAY STRUCTURE- The 8 O8 J H0 |3 A0 E) Y6 Y$ E2 Knetwork of airways serving aircraft operations up to, m' t% V' E% v but not including 18,000 feet MSL.$ K8 c* c7 m6 D# N& f' Y( X% A (See AIRWAY.)3 k" U% ^( l4 W- j (Refer to AIM.) ) }% Q D: A- z1 iLOW ALTITUDE ALERT, CHECK YOUR ALTI‐7 g; f6 V4 I/ n# |' j* K b TUDE IMMEDIATELY(See SAFETY ALERT.) " C. X# x% @) Y3 ~2 f: pLOW ALTITUDE ALERT SYSTEM- An auto‐ ( @6 Z, n1 L; ^mated function of the TPX‐42 that alerts the + |9 G1 ^# [( G7 `) @2 B$ Z& icontroller when a Mode C transponder equipped 1 v- i$ ^ P% B1 R! Y' @aircraft on an IFR flight plan is below a+ E/ t5 U ^- r/ K predetermined minimum safe altitude. If requested . O7 C6 Q; n& r1 w' mby the pilot, Low Altitude Alert System monitoring * p& C. k ^+ n S7 J7 bis also available to VFR Mode C transponder3 N9 B- W/ S: r, y; W( K3 @- A equipped aircraft.! q# Y8 z% P- i# R LOW APPROACH- An approach over an airport or 0 S E! A0 Y% M! V+ O w# `* Jrunway following an instrument approach or a VFR) N4 q" S" Q! G5 |4 q* C% y! u. L$ m approach including the go‐around maneuver where! h4 U7 n6 I( h the pilot intentionally does not make contact with the * N% V8 d) D8 ]+ s/ }runway.! P/ F: C$ D9 t; o \$ N (Refer to AIM.) + i9 v9 C2 s" Y& B6 V; F. uLOW FREQUENCY- The frequency band between9 Q( o3 e4 A+ N9 ]# G, C 30 and 300 kHz.8 ?7 w7 q t1 c" Y" [- @- N. U/ m (Refer to AIM.). Q0 U7 `+ L0 ^7 t, a1 i1 L LPV- A type of approach with vertical guidance3 \" t$ j% n7 [) x9 b (APV) based on WAAS, published on RNAV (GPS) / B( P6 p9 O) K2 n n7 w! Mapproach charts. This procedure takes advantage of l" D; W9 U) X4 ethe precise lateral guidance available from WAAS." S* @# S. w6 { r3 m The minima is published as a decision altitude (DA). 1 _, ?. q: F! q& K7 a5 TPilot/Controller Glossary 2/14/08 7 ^+ J$ _! `+ S% s% c% [PCG M-17 F* T" X6 h; [% q: w M. V- B' y8 D5 ~0 e MAA(See MAXIMUM AUTHORIZED ALTITUDE.) ! Q, e( E8 d2 TMACH NUMBER- The ratio of true airspeed to the " M1 d3 u+ {0 d) Gspeed of sound; e.g., MACH .82, MACH 1.6.: g$ b% m4 I: q (See AIRSPEED.) m0 m: N ^8 d# Z) T) m MACH TECHNIQUE [ICAO]- Describes a control $ Y) X( ~( Q, \technique used by air traffic control whereby turbojet 8 b: F5 x. R; i6 x- k4 Naircraft operating successively along suitable routes ! H' z! O/ d! ~0 {$ V1 H% aare cleared to maintain appropriate MACH numbers 2 K0 X9 a+ t' afor a relevant portion of the en route phase of flight.( |# m7 P1 E6 X$ r The principle objective is to achieve improved9 E# G. ] I( K utilization of the airspace and to ensure that. }8 b7 |3 I& `1 E3 Y8 H* c$ I separation between successive aircraft does not 4 H+ m1 {, @1 z5 w, |7 P% R" sdecrease below the established minima. ) O: {* B. }5 s! B" m' [MAHWP- Missed Approach Holding Waypoint L6 D+ p; d* Y- i& I0 \MAINTAINa. Concerning altitude/flight level, the term 6 ~/ j$ c* X# d5 cmeans to remain at the altitude/flight level specified. 6 ~8 B, h3 G% v3 MThe phrase “climb and” or “descend and” normally M, U: H, `: z9 N* j4 Y Sprecedes “maintain” and the altitude assignment; - }" @" f9 S( ]1 o) Je.g., “descend and maintain 5,000.” ) w4 g) f' {& C9 b. m8 qb. Concerning other ATC instructions, the term is ! {0 R5 m+ p [! D$ C& k: A$ \used in its literal sense; e.g., maintain VFR. 2 h; B# n+ |+ _5 L' B4 d& pMAINTENANCE PLANNING FRICTION 8 S/ J& }% g& fLEVEL- The friction level specified in# Q0 r% y Q. r9 w0 x" R; V) E- ` AC 150/5320‐12, Measurement, Construction, and 6 ]" \# m. A% c2 ~# L5 jMaintenance of Skid Resistant Airport Pavement( j9 W K& g2 m- l/ A) q W6 T Surfaces, which represents the friction value below 8 T) H% ?4 O; e6 Kwhich the runway pavem ent surface rem ains7 ]6 ~/ q- V4 z% c) {- U acceptable for any category or class of aircraft 2 z: i$ b# |, U# c3 doperations but which is beginning to show signs of2 p" B$ Z3 v6 r+ t, y- o deterioration. This value will vary depending on the : g1 R4 z9 J% v. R, \particular friction measurement equipment used.8 g3 w. S# |! w7 j( ~ MAKE SHORT APPROACH- Used by ATC to0 j* d- h. ], r" l1 Y) b8 { l2 D. l inform a pilot to alter his/her traffic pattern so as to# B# f7 @4 ? Q$ b make a short final approach. % Q7 E0 f( B9 g$ x(See TRAFFIC PATTERN.)% Z- }3 E- ^+ H3 D' g7 G" U MAN PORTABLE AIR DEFENSE SYSTEMS F. Y# j5 V# b j(MANPADS)- MANPADS are lightweight, shoul‐$ g a# l, ~- l$ _ der-launched, missile systems used to bring down; U% S" ^% s+ e aircraft and create mass casualties. The potential for! H j; l1 q i MANPADS use against airborne aircraft is real and ; D" `* ^- z1 d: n9 E/ Arequires familiarity with the subject. Terrorists$ r9 u2 E& z; |' w choose MANPADS because the weapons are low$ {2 L/ X: G: t! W8 ~5 V9 c cost, highly mobile, require minimal set-up time, and 1 P" U4 i, G3 D- i) N/ R% e# z; vare easy to use and maintain. Although the weapons8 [( u: S7 k: d+ ~6 ^ have limited range, and their accuracy is affected by 1 V9 j# g3 g' i( s, ~9 |) [poor visibility and adverse weather, they can be fired 3 o, n/ x; V( o; u3 ofrom anywhere on land or from boats where there is7 P) B! n; P1 b, d: C0 f unrestricted visibility to the target.& @! C" Z' E6 d/ _$ _) C MANDATORY ALTITUDE- An altitude depicted8 G! w9 y p& h8 h' i8 ` on an instrument Approach Procedure Chart 6 D* k$ N j- }+ J: F: Grequiring the aircraft to maintain altitude at the7 o$ e. X8 E B. S0 m depicted value. 5 u3 Q I; V+ D" SMANPADS(See MAN PORTABLE AIR DEFENSE 2 [4 x) u" k- L2 d- Z) z( CSYSTEMS.) ) b4 D [9 \/ c( y) c( vMAP(See MISSED APPROACH POINT.) & x- h: B& T) qMARKER BEACON- An electronic navigation ]! | q) Z' ?) w& e& e# Tfacility transmitting a 75 MHz vertical fan or( G; V1 q$ T7 L, S boneshaped radiation pattern. Marker beacons are; q0 r: R- G7 ] identified by their modulation frequency and keying7 T0 D, @, e& ~$ { code, and when received by compatible airborne8 p( O z, B G8 n) O0 l* [! z9 X equipment, indicate to the pilot, both aurally and ( m! D- a5 P' a$ |, q1 U$ Z0 \2 ~7 c) fvisually, that he/she is passing over the facility. 2 Q" _/ a5 { t(See INNER MARKER.) ; g5 X- N( W" S8 g' L- [(See MIDDLE MARKER.) ( I4 X9 k1 Z8 `) n0 v2 {& p; k" H(See OUTER MARKER.)7 ?9 n- ?- @* V3 @( \6 M0 o+ j (Refer to AIM.)

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MARSA(See MILITARY AUTHORITY ASSUMES . @ a( z+ x: |: ^ s& D2 v. ERESPONSIBILITY FOR SEPARATION OF , Q5 M0 d0 a4 t- d) s0 y) \7 M! m7 ?AIRCRAFT.) $ b2 q, Y1 y+ O9 \MAWP- Missed Approach Waypoint * p2 T" s, _" C- ^ f% qMAXIMUM AUTHORIZED ALTITUDE- A pub‐6 U) ^8 U6 `: }; m _ lished altitude representing the maximum usable' r: ^' K: r% ?! S altitude or flight level for an airspace structure or , _) y! F4 {& p groute segment. It is the highest altitude on a Federal6 }3 ]5 {& W% w* F3 ]( U: @+ s' c airway, jet route, area navigation low or high route,# N/ s8 L2 P& j2 [5 q0 \ or other direct route for which an MEA is designated 8 ]# W& t, R$ q+ ^7 ~. Oin 14 CFR Part 95 at which adequate reception of( T% g- d0 l- k: ^ navigation aid signals is assured.$ } V) R7 r! p6 a, [ MAYDAY- The international radiotelephony distress, ~4 T4 q1 Z( x' Y. B+ T8 ^& ^ signal. When repeated three times, it indicates 4 p n$ x, a4 CPilot/Controller Glossary 2/14/08 8 V6 M7 U# I2 MPCG M-2 5 p3 o! K9 j: L) s& `) W6 k& F; Dimminent and grave danger and that immediate& R' G+ b/ s% }; i/ @# a; ~ assistance is requested.7 f$ i, q: L1 B6 N0 s$ U (See PAN‐PAN.) ; v. Q4 h4 i) L5 x6 F" C(Refer to AIM.)$ `" Q8 K4 w& Z4 k ^ MCA(See MINIMUM CROSSING ALTITUDE.)% d6 j9 I! x; r4 E; a* A5 x' d MDA(See MINIMUM DESCENT ALTITUDE.): }/ Z q1 N9 J/ R. X MEA(See MINIMUM EN ROUTE IFR ALTITUDE.)* H' j2 i) q3 `+ B+ \" Q MEARTS(See MICRO‐EN ROUTE AUTOMATED RADAR 9 F. D& B9 ]$ T& |4 ATRACKING SYSTEM.) 2 R" _) F7 I7 [0 MMETEOROLOGICAL IMPACT STATEMENT- * Z% x% L' O% g V* U7 b/ ~, W2 ] W4 VAn unscheduled planning forecast describing* x$ ~: D7 V4 m" Q3 d conditions expected to begin within 4 to 12 hours : U6 u1 Q" d1 [, q( Uwhich may impact the flow of air traffic in a specific+ Y$ O4 s9 D, W+ c# ~6 J center's (ARTCC) area.( A i* a& t) p4 g$ }5 H' w& ~& J METER FIX ARC- A semicircle, equidistant from9 Y+ X" L1 ^: A& ]5 Y: n: A a meter fix, usually in low altitude relatively close to' c! S# \- V. b6 O5 \ the meter fix, used to help CTAS/HOST calculate a ' w R5 d8 w" y8 t8 Umeter time, and determine appropriate sector meter- M6 ?& x3 r h* T; Z% M* ^ list assignments for aircraft not on an established1 v: I3 g/ _7 Q: X! v, g9 T. f arrival route or assigned a meter fix.& ~% Q% V! q- n8 G METER FIX TIME/SLOT TIME- A calculated time# c3 ?) N2 O5 e+ |0 T to depart the meter fix in order to cross the vertex at, z% _- C/ z( Q+ `. ]; u- ?) T7 c the ACLT. This time reflects descent speed& t" {% F) x2 d9 q3 Z6 ^ adjustment and any applicable time that must be 2 G. w3 |6 Y" z0 u: mabsorbed prior to crossing the meter fix. . u2 f+ K# e) W' Q! w9 g6 QMETER LIST(See ARRIVAL SECTOR ADVISORY LIST.) - ^4 G. m' Q6 {0 O. u/ v( r. xMETER LIST DISPLAY INTERVAL- A dynamic0 T* j8 L' {: D/ q. i parameter which controls the number of minutes ; u2 K9 {: A+ o5 |* v+ D6 U% v3 t1 zprior to the flight plan calculated time of arrival at the2 a( Y6 U% {4 w: d meter fix for each aircraft, at which time the TCLT is + `2 U( K6 F% A2 M lfrozen and becomes an ACLT; i.e., the VTA is4 D9 P0 f1 @+ {9 |8 o updated and consequently the TCLT modified as* V1 [3 ~0 T- _4 V9 ]! R appropriate until frozen at which time updating is6 C! c: v0 {2 A0 x suspended and an ACLT is assigned. When frozen,1 j" M. t W) v0 c+ ?2 P! d) f# P the flight entry is inserted into the arrival sector's ( Q/ W7 Q; ?0 o% |6 k6 n emeter list for display on the sector PVD/MDM.8 B9 C+ }$ A- i" \7 C' q MLDI is used if filed true airspeed is less than or # x/ t) y9 \# E8 _' m: K$ vequal to freeze speed parameters (FSPD). / v# L1 c4 y3 C0 K0 K8 @7 AMETERING- A method of time‐regulating arrival, V& X8 D, c# Z$ V0 h traffic flow into a terminal area so as not to exceed a 0 _3 A0 {" h* j+ |/ y& A3 {& spredetermined terminal acceptance rate.* Q$ k y) U2 A( k; m6 J# I2 \ METERING AIRPORTS- Airports adapted for7 }8 J$ n Y. C metering and for which optimum flight paths are * T2 \6 k9 t# tdefined. A maximum of 15 airports may be adapted. ! o- ]' Z3 _' W' q3 x: ^METERING FIX- A fix along an established route- _8 O2 w* E7 e+ w, [) U from over which aircraft will be metered prior to 3 D& f" q3 X: s: M' M. P$ G* Ientering terminal airspace. Normally, this fix should / y3 V8 u9 ?: B$ [; C: fbe established at a distance from the airport which1 a5 V- W! U0 H5 I! \; Z v. _ will facilitate a profile descent 10,000 feet above t3 }2 h d! T+ ]! hairport elevation (AAE) or above. 1 e4 m6 M) w0 U" r zMETERING POSITION(S )- Adapted PVDs/4 ~0 v" r# G& U/ ]: [. }; i ?* r$ r MDMs and associated “D” positions eligible for& R! ~ p% K) f) d- h0 @; d& d1 c display of a metering position list. A maximum of ) Z9 q/ v+ i4 T9 Q4 v/ ^2 Z5 afour PVDs/MDMs may be adapted. , |& o6 V. `) D: x9 ^: _* C+ o4 @METERING POSITION LIST- An ordered list of . a6 h/ J0 D# d, a! H# O- m4 L y6 Wdata on arrivals for a selected metering airport + }& P( Q2 l, gdisplayed on a metering position PVD/MDM. 9 y2 e: Y) j, t+ J2 `1 FMFT(See METER FIX TIME/SLOT TIME.)# H+ {/ R7 y0 X- l% S7 D# B MHA(See MINIMUM HOLDING ALTITUDE.) z4 C2 W4 h( d1 t9 cMIA(See MINIMUM IFR ALTITUDES.); i4 W2 ?7 k! Y# ?& y \0 M. H- r3 | p MICROBURST- A small downburst with outbursts$ q- J6 y% _$ I5 T0 w: s, N of damaging winds extending 2.5 miles or less. In, @ @ T# b+ F+ \' b+ z spite of its small horizontal scale, an intense 4 Q X( O5 I/ Y( _6 G' Y' ]microburst could induce wind speeds as high as 150 . K: }0 z& J( D4 A$ W5 |8 Mknots - V" |' T) U% e9 I6 y+ l F(Refer to AIM.)+ l- C' ^3 b( Z: w MIC RO‐EN ROUTE AUTOMATED RADAR6 R6 H; e4 v& f3 m; I, M TRACKING SYSTEM (MEARTS)- An automated / M# H) F: i( i+ p- P# kradar and radar beacon tracking system capable of% q( O- h2 F1 M( G, E" j5 E employing both short‐range (ASR) and long‐range 9 g, p! D& r0 _7 X; b2 G4 _$ P! b4 G; n(ARSR) radars. This microcomputer driven system 8 f" k) m* v/ X# N4 Q5 P& p' }2 _7 q4 a. zprovides improved tracking, continuous data record‐ * }! T6 }+ U8 z" _2 o8 ?1 C# F0 y+ Jing, and use of full digital radar displays. ; w2 f# P5 a0 _$ [; @: i4 kMICROWAVE LANDING SYSTEM- A precision# U0 H9 ]8 P( d/ I( m+ w instrument approach system operating in the * C5 D% b2 T1 z* t. A2 F" W$ omicrowave spectrum which normally consists of the) u% m# w6 P, u: ? following components:% E0 |2 H# X% i: ?8 n2 [ a. Azimuth Station.! {8 h% b1 Q4 I2 r b. Elevation Station. 2 r. e% G2 H' ^8 A# cc. recision Distance Measuring Equipment.1 X0 M8 G8 j1 h& m% \9 k- [: _6 R (See MLS CATEGORIES.)7 J' R) a% c% ?1 u. @ MID RVR(See VISIBILITY.): x+ ]2 n0 f q: P MIDDLE COMPASS LOCATOR(See COMPASS LOCATOR.)2 E4 z7 b! `, }' D# f+ w Pilot/Controller Glossary 2/14/08( Q: v* X2 j' K8 X( p PCG M-38 C& J5 w6 q9 p7 Y MIDDLE MARKER- A marker beacon that defines 4 R0 w$ i1 P5 Ya point along the glideslope of an ILS normally5 p) q; z: p: k' Z2 f {, K4 G8 L located at or near the point of decision height (ILS6 H4 H- y- ?! b3 I7 l) d Category I). It is keyed to transmit alternate dots and " F. p& l9 F9 v8 t/ cdashes, with the alternate dots and dashes keyed at the `5 u, w, b. M0 e6 X6 H; P rate of 95 dot/dash combinations per minute on a ( b& I, f; Z7 G4 A, c1300 Hz tone, which is received aurally and visually. g/ P# _: \2 ?/ Z* w by compatible airborne equipment. * [ r4 h! `2 `$ y' a(See INSTRUMENT LANDING SYSTEM.)2 y$ N& @/ X( d: x8 F. y( x! J+ M+ Y (See MARKER BEACON.) + T4 l0 T+ `$ n) [8 K; W: ^1 z2 p(Refer to AIM.) 9 m' g3 H' ]8 qMILES‐IN‐TRAIL- A specified distance between+ ^- C R) ^0 X2 P aircraft, normally, in the same stratum associated( q o0 [/ T$ E. M v/ t with the same destination or route of flight.: F0 Y# _3 v9 O+ r4 Q2 J# f MILITARY AUTHORITY ASSUMES RESPONSI‐' H' n$ L& s/ w) C6 w' P5 ] BILITY FOR SEPARATION OF AIRCRAFT- A$ A Y3 Y) X2 h/ }6 ~ condition whereby the military services involved 5 k$ j6 Q0 l3 R" yassume responsibility for separation between+ W; g$ k, X/ q m, y participating military aircraft in the ATC system. It is # l; k( {3 u( \! iused only for required IFR operations which are& K$ A2 Q" N& P specified in letters of agreement or other appropriate y; K) g6 e( d# `# \/ H& f FAA or military documents. " w9 s/ P) K* o: J4 s, N* ~: bMILITARY LANDING ZONE- A landing strip used; w. Q" Q% f0 z exclusively by the military for training. A military * ~, b3 j% |- Z! `3 }' K& w4 K/ ^' Qlanding zone does not carry a runway designation.8 C8 m3 y/ _& I! T( q! m MILITARY OPERATIONS AREA(See SPECIAL USE AIRSPACE.)4 \% g: @6 v8 N3 B' x MILITARY TRAINING ROUTES- Airspace of ! n1 R! J; a0 h, Z& t, m% M9 Bdefined vertical and lateral dimensions established) R; U+ e4 @6 F; F1 z, x" e for the conduct of military flight training at airspeeds+ J; i8 R0 v5 ]6 w' ?- _' O+ O6 [4 \; a in excess of 250 knots IAS. $ q4 M. O7 e& `3 r$ w, y(See IFR MILITARY TRAINING ROUTES.): Q8 [7 g1 k T4 Q2 k+ {/ c; p (See VFR MILITARY TRAINING ROUTES.)) R) X& K3 F: O. ^1 {9 Y& G MINIMA(See MINIMUMS.) ; {0 h! M. d% ?5 S6 V; ^: HMINIMUM CROSSING ALTITUDE- The lowest- {& O* m) G3 t: F3 Y altitude at certain fixes at which an aircraft must cross 0 {6 s* L5 U- m1 o: v, o nwhen proceeding in the direction of a higher - Y7 N5 m7 |: ]2 K2 M5 o, {+ {$ _minimum en route IFR altitude (MEA). . a) ~( x; ]& I. ^7 b: L4 ?(See MINIMUM EN ROUTE IFR ALTITUDE.)7 Q$ v" f- R) r, g( t' X& e MINIMUM DESCENT ALTITUDE- The lowest' W+ b+ P# g2 Y" _( Q* t% l( T altitude, expressed in feet above mean sea level, to8 n1 L7 @9 X+ x2 ~; }# m/ r" {4 g which descent is authorized on final approach or ( y. f* z& w7 z7 Z8 S$ F1 ]during circle‐to‐land maneuvering in execution of a I* n# P7 e9 l* E+ n standard instrument approach procedure where no % Q G& {; h1 x& _ \% T7 nelectronic glideslope is provided. ; Z/ ?' L& K# a" X(See NONPRECISION APPROACH * @, }+ t, m6 z$ r/ \PROCEDURE.)) R# o6 O; W- T MINIMUM EN ROUTE IFR ALTITUDE (MEA)- $ z$ h1 ]) G( q. SThe lowest published altitude between radio fixes 7 f( `+ m+ s, H* o/ B7 q0 G2 fwhich assures acceptable navigational signal cover‐/ b/ m7 G' L; P E age and meets obstacle clearance requirements! j8 G( w' b4 q7 T) u. t8 C between those fixes. The MEA prescribed for a " v2 H1 F- }0 ]Federal airway or segment thereof, area navigation, X" s: k. g' r/ d8 Z1 l/ `5 n$ R low or high route, or other direct route applies to the( ^& Q+ n, d9 p6 ]( w4 ~ entire width of the airway, segment, or route between! e M3 ]! X& v* @* b: y the radio fixes defining the airway, segment, or route.8 `4 d m& V' u$ W3 d$ u/ u% G (Refer to 14 CFR Part 91.) P' M$ t! c& H f, u6 c1 R4 O3 ^ (Refer to 14 CFR Part 95.) 4 ]0 N7 m6 A9 v7 o2 U, T$ ](Refer to AIM.)) Y# |! n' q: N$ m. E MINIMUM FRICTION LEVEL- The friction level: G( G: q, v2 n6 h, p0 t1 } specified in AC 150/5320‐12, Measurem ent,$ Q% D& s: q' S1 H+ x# @ Construction, and Maintenance of Skid Resistant 5 P' L" D. w1 D2 P5 HAirport Pavement Surfaces, that represents the " k+ O4 n3 g9 [0 bminimum recommended wet pavement surface % |" x: u- k( U2 d& m+ \9 N% ~- ]friction value for any turbojet aircraft engaged in , }4 J* p- a6 SLAHSO. This value will vary with the particular * H+ `2 x* t8 T% wfriction measurement equipment used. 7 b" v( S# v( B# WMINIMUM FUEL- Indicates that an aircraft's fuel # S" U1 h. b( tsupply has reached a state where, upon reaching the * Z F0 p$ ]6 k) @$ _destination, it can accept little or no delay. This is not3 C' k% r% l5 q7 C3 y9 q( w an emergency situation but merely indicates an* s% g" f% k* B" _3 J* H6 v emergency situation is possible should any undue / s9 x! {+ r, k" \$ cdelay occur.1 m8 U+ i! B i6 C. @6 x3 U (Refer to AIM.) $ v; n4 a6 d+ f$ i: KMINIMUM HOLDING ALTITUDE- The lowest 8 j0 x3 K; r8 A' e5 L' Z- o( i" |- paltitude prescribed for a holding pattern which 3 G' R0 m$ P& Hassures navigational signal coverage, communica‐# i$ V2 u* h! L! ?6 J tions, and meets obstacle clearance requirements.4 j5 S% H7 J% U( _ MINIMUM IFR ALTITUDES (MIA)- Minimum5 A# j, r8 K& [* z! v3 | altitudes for IFR operations as prescribed in 14 CFR 4 Z0 M/ E `- d dPart 91. These altitudes are published on aeronautical' ^# S, R E% \$ H2 p) e charts and prescribed in 14 CFR Part 95 for airways 6 d8 v* i. q" T! yand routes, and in 14 CFR Part 97 for standard % h% N3 J2 A. O' F: Ainstrument approach procedures. If no applicable l! Y4 @/ D$ U4 }0 S% q D# ?9 {minimum altitude is prescribed in 14 CFR Part 95 or 1 C% u; F% l, p0 g8 c14 CFR Part 97, the following minimum IFR3 C. O Z% T) l" r) ]( E altitude applies: 9 j0 Q. F% E% T; \2 W+ W) [2 s! H% n) oa. In designated mountainous areas, 2,000 feet ! j$ Y) r0 ?) E% habove the highest obstacle within a horizontal / v9 O- H/ Q. }- c: N2 U/ ]distance of 4 nautical miles from the course to be' B* @7 O' I( ?- X( Z flown; or6 k* A7 ^' F% y( O2 e Pilot/Controller Glossary 2/14/08 ' I& o% S4 g" C" `3 |2 v8 }PCG M-4 1 f7 e$ V8 K+ U# ?b. Other than mountainous areas, 1,000 feet above0 T# d. Q$ W1 E* A% N, U- X the highest obstacle within a horizontal distance of 4 B6 F2 g V6 Y0 y& | nautical miles from the course to be flown; or( _% E7 m" n% _ c. As otherwise authorized by the Administrator , D5 e Y1 f+ n$ k& Z' Hor assigned by ATC. 3 a! D2 G( o) `4 {% ?7 G2 M# ~2 n' m(See MINIMUM CROSSING ALTITUDE.) - ` T) ^" `8 g; M5 W(See MINIMUM EN ROUTE IFR ALTITUDE.) # ~+ j+ p+ x" d& A(See MINIMUM OBSTRUCTION CLEARANCE # C) i$ y- n4 F" o5 b( M, _, RALTITUDE.)5 C) G8 A. k( |" ] (See MINIMUM SAFE ALTITUDE.). x" H& a$ C5 S4 a (See MINIMUM VECTORING ALTITUDE.) $ L) x9 o- N2 c1 R(Refer to 14 CFR Part 91.)

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MINIMUM NAVIGATION PERFORMANCE 6 U1 ]' s9 o! TSPECIFICATION- A set of standards which require , ?5 W: U' x" u+ G2 _2 U, Uaircraft to have a minimum navigation performance; j6 g9 x- e+ k% @ capability in order to operate in MNPS designated / @9 n* x, }# {9 X+ T# } Kairspace. In addition, aircraft must be certified by & E l9 d6 I0 |7 D6 |. \4 O6 Ttheir State of Registry for MNPS operation.5 V' h6 u5 V! _) W# C) m9 q MINIMUM NAVIGATION PERFORMANCE 6 T( U9 a0 w6 m- K4 c5 p6 USPECIFICATION AIRSPACE- Designated airspace1 \3 |' K$ Q, @. j7 ]7 H in which MNPS procedures are applied between 4 {) n6 Q, M1 T, }* B4 g# a _MNPS certified and equipped aircraft. Under certain 2 M# C& }1 Z- Pconditions, non‐MNPS aircraft can operate in$ Y- `" O' F m O' v, P MNPSA. However, standard oceanic separation 8 B2 q2 z4 e: k! j. Z$ B5 zminima is provided between the non‐MNPS aircraft- H" \# t2 r5 z" g and other traffic. Currently, the only designated# ]( ?* J9 \. Z. G# ^ MNPSA is described as follows: 0 u6 i* G- F3 _% m, ia. Between FL 285 and FL 420;' u% h+ [$ b, {5 N i- \ b. Between latitudes 27N and the North Pole; \( d% N5 y s" j9 D: B c. In the east, the eastern boundaries of the CTAs & v' Q& y L0 D0 I9 L E+ TSanta Maria Oceanic, Shanwick Oceanic, and ; j- d( w8 n. C5 {3 P, n; Y; Q) T. }Reykjavik;" k+ g- m! O3 X0 [3 I5 P d. In the west, the western boundaries of CTAs - l9 M) i/ p: E( F' j. Q4 L, TReykjavik and Gander Oceanic and New York5 q% t# i& n- D Oceanic excluding the area west of 60W and south9 Z9 [: C& _- }6 f% O6 e8 D of 3830'N. 9 d3 O/ k) X7 H7 t8 M2 |MINIMUM OBSTRUCTION CLEARANCE ALTI‐ ( G! {9 m% a M5 r6 l0 k, JTUDE (MOCA)- The lowest published altitude in ) e7 d/ n6 {" H: k- veffect between radio fixes on VOR airways,2 f4 }2 X! p) P! n3 V* H off‐airway routes, or route segments which meets . k; u7 q* h8 C8 m* \; ]: L1 ~obstacle clearance requirements for the entire route4 ?) |( ]- {8 c. @ h+ w segment and which assures acceptable navigational4 v5 P( @5 g# J% u signal coverage only within 25 statute (22 nautical)+ _6 {! ~ [, k9 v# K miles of a VOR. " d2 P5 l* q; z2 X9 _(Refer to 14 CFR Part 91.) 0 j' b" Y, j3 j' m(Refer to 14 CFR Part 95.) ( F+ [8 _; D, w a" B$ T! vMINIMUM RECEPTION ALTITUDE- The lowest* E& n% `# x& n$ ~& z) P2 t altitude at which an intersection can be determined. 5 o' g' `3 a! z3 O$ R; Z' d(Refer to 14 CFR Part 95.) % I0 {0 b* G: X) I3 r) b" nMINIMUM SAFE ALTITUDEa. The minimum altitude specified in 14 CFR - a, d0 J# Q& Q4 p. DPart 91 for various aircraft operations. L6 Z' Y! m9 O5 C b. Altitudes depicted on approach charts which 1 G: ~( M' M% E: fprovide at least 1,000 feet of obstacle clearance for % m3 b+ X" R+ k7 f' q. wemergency use within a specified distance from the. p# u. P! Y: S+ J0 h navigation facility upon which a procedure is 5 t% o7 F/ s; a% U0 g/ n/ epredicated. These altitudes will be identified as 4 C2 L- i$ h6 r" ` f; G- pMinimum Sector Altitudes or Emergency Safe + }4 R8 m% q, x" y* h- wAltitudes and are established as follows: ; t7 n! t6 y% g1. Minimum Sector Altitudes. Altitudes de‐# l t1 ^9 b# o- @ picted on approach charts which provide at least. P( Q. l- x8 h 1,000 feet of obstacle clearance within a 25‐mile . L+ d; T/ `; sradius of the navigation facility upon which the : y, m& h7 T" z/ Pprocedure is predicated. Sectors depicted on2 }/ e, j9 S2 P9 c" ?7 x% n: D approach charts must be at least 90 degrees in scope.) I) L- J! c) J; ^ These altitudes are for emergency use only and do not, p6 F7 L- g$ h) h* \! V necessarily assure acceptable navigational signal3 c, @. k! F, B& ~5 }# F coverage.1 N3 I7 f2 B9 X, z5 x" \: _" M% B (See ICAO term Minimum Sector Altitude.) 2 [: X8 b9 y) I, i2. Emergency Safe Altitudes. Altitudes de‐ D9 B0 F3 U$ o H7 c$ p picted on approach charts which provide at least+ s8 ?0 p5 ?9 E1 o& _4 }( ^ 1,000 feet of obstacle clearance in nonmountainous 1 I+ j& f- Q: N* s! r, z; ?5 |areas and 2,000 feet of obstacle clearance in 5 `( Z8 R+ }- G# N+ l( sdesignated mountainous areas within a 100‐mile 9 @# H8 N0 v( Cradius of the navigation facility upon which the 3 ]# |% Z, n$ t" h' g3 ?' pprocedure is predicated and normally used only in; Q3 k& B' A5 o' `0 I military procedures. These altitudes are identified on / O `" z# t$ U- |6 A# Ypublished procedures as “Emergency Safe Alti‐% ~1 A6 l% [! ^& I8 h tudes.”+ o7 h3 o1 u- r1 a MINIMUM SAFE ALTITUDE WARNING- A ; j$ q9 r/ A( c8 T: xfunction of the ARTS III computer that aids the " }8 b: L8 C2 ccontroller by alerting him/her when a tracked Mode8 B' W/ f- a' O) Q+ N2 T6 d5 o C equipped aircraft is below or is predicted by the6 N; `1 k9 m4 h computer to go below a predetermined minimum safe ( z" e% ^, I( g. _! a* saltitude. & q! K N! a3 {; L0 W(Refer to AIM.) # G& v% a4 Z0 ~5 IMINIMUM SECTOR ALTITUDE [ICAO]- The, P; G* j/ M9 U2 X9 D, P& t lowest altitude which may be used under emergency S- F$ ~3 K1 |9 A% a2 N conditions which will provide a minimum clearance3 }6 t3 x2 A6 v1 P4 i# t4 ` of 300 m (1,000 feet) above all obstacles located in. j) {* F4 i( R- D& j an area contained within a sector of a circle of 46 km ' ^" n) n6 N3 O' k# b0 D, S0 u5 J(25 NM) radius centered on a radio aid to navigation. $ L% ?% |% U3 c2 S* f TMINIMUMS- Weather condition requirements$ H7 j, m" N1 C' M0 X" e! A established for a particular operation or type of & |. f% U, u- e) ^Pilot/Controller Glossary 2/14/08 , x( ]/ ^6 u- K }( aPCG M-5- e: u7 y* ?4 Q# ]. Z operation; e.g., IFR takeoff or landing, alternate 5 {+ f: @6 [& y5 e! kairport for IFR flight plans, VFR flight, etc.6 x1 a1 U% q3 I: A T$ p/ _# t& t* D (See IFR CONDITIONS.): o: c! w1 z6 Z, E (See IFR TAKEOFF MINIMUMS AND: ]2 N" \* ~7 P* K) z$ C0 P DEPARTURE PROCEDURES.) % n7 o3 z8 }" ?; s" ]3 j(See LANDING MINIMUMS.)% A% x1 X) {2 b m) |* T; a (See VFR CONDITIONS.) ' @9 j7 O$ u- j(Refer to 14 CFR Part 91.) 9 }" V1 j6 D0 B) p7 _0 \9 ~(Refer to AIM.) % U' D5 n5 c7 x- d% |0 kMINIMUM VECTORING ALTITUDE (MVA)-& t ~7 ~5 ~/ r2 z3 \; I The lowest MSL altitude at which an IFR aircraft will/ v% D1 B7 b$ v# [6 S4 ` be vectored by a radar controller, except as otherwise4 [: @' v, S$ p: Q3 A. a* ? authorized for radar approaches, departures, and % ]# ~5 q5 |1 Q3 h" Zmissed approaches. The altitude meets IFR obstacle , _& z) Z" c) z1 M! {clearance criteria. It may be lower than the published / `7 O- ?" ^. Y; P* f: Z vMEA along an airway or J‐route segment. It may be 0 Y2 t8 M9 ?+ y, B; a2 y+ s3 P4 Rutilized for radar vectoring only upon the controller's+ I" `# r7 I1 c i, V, o determination that an adequate radar return is being ( A' G( i6 [3 e3 t. \received from the aircraft being controlled. Charts 9 W$ F6 q8 u1 f9 p Rdepicting minimum vectoring altitudes are normally3 _; d( l) {2 c* Q" S z# S available only to the controllers and not to pilots.. ~$ Y8 @6 \4 _ (Refer to AIM.)/ _" P% f. }1 O2 h- D! s MINUTES‐IN‐TRAIL- A specified interval be‐# S6 D- [ N+ I9 k tween aircraft expressed in time. This method would 6 k y! o$ \( `/ amore likely be utilized regardless of altitude.1 J4 Q* p( f" c5 v/ S: m1 O% V/ W8 W; g MIS(See METEOROLOGICAL IMPACT ( N. o' C( m9 \STATEMENT.)" e9 ~* \' S) @2 f MISSED APPROACH- $ Z+ D$ t! {& r6 ja. A maneuver conducted by a pilot when an) t9 o; Q# ?+ l$ M) _! L instrument approach cannot be completed to a% |6 k3 w& w4 L. V S; x4 P landing. The route of flight and altitude are shown on * k, {3 }: E$ _6 vinstrument approach procedure charts. A pilot # E, r! s. u! t/ K# Oexecuting a missed approach prior to the Missed( P0 J$ E6 J. R; H$ b Approach Point (MAP) must continue along the final+ W( Y0 ^* K' r$ X4 `' b" H% E6 C7 } approach to the MAP.' X& _/ d3 I4 P2 ~: Y& j b. A term used by the pilot to inform ATC that z s+ H7 Y6 L he/she is executing the missed approach.3 I6 S5 n1 M+ E2 t c. At locations where ATC radar service is, j8 H, R4 P5 Q5 p8 l# H provided, the pilot should conform to radar vectors; V6 R* L# X( d0 E' l when provided by ATC in lieu of the published, x3 h3 c$ I, ]- p3 d) o* R. E9 m" B/ X missed approach procedure. + m* M% n+ l1 U5 q, @6 ](See MISSED APPROACH POINT.)" D2 t4 Q, j. h/ z6 K4 k4 C7 u' y* u (Refer to AIM.)$ v) t" @. P: a MISSED APPROACH POINT- A point prescribed) m2 M- {) S( Q) U/ b2 f; @ in each instrument approach procedure at which a 2 P' K- D$ z( |8 |0 P; L5 g+ C( qmissed approach procedure shall be executed if the # f# g4 ^" \: V9 A4 `( d4 }& Y7 W3 qrequired visual reference does not exist. % o+ @+ C& I& J) p6 {, V& S' i(See MISSED APPROACH.)# A5 C6 Z' ]# I3 i (See SEGMENTS OF AN INSTRUMENT; D* J) y {2 [5 o0 X# z, x+ a APPROACH PROCEDURE.) # B! k9 a1 K- X! O* N* [ F/ LMISSED APPROACH PROCEDURE [ICAO]- The* ^6 b* d, X7 m+ m( M \& ~ procedure to be followed if the approach cannot be ; M& y7 Y: R. f5 ~1 t fcontinued. 4 N- r2 U4 s5 M% R$ }: N/ \/ N$ DMISSED APPROACH SEGMENT(See SEGMENTS OF AN INSTRUMENT! T7 p+ x; Y2 s1 ` APPROACH PROCEDURE.)& c# q% B' |6 ^- e MLDI(See METER LIST DISPLAY INTERVAL.) 1 M N9 g( m8 x" w$ ?1 l* L9 ?8 l; KMLS(See MICROWAVE LANDING SYSTEM.)- V) Y1 Q: s2 p0 m6 D MLS CATEGORIESa. MLS Category I. An MLS approach procedure , a" P" r( l. x" w, l) O% cwhich provides for an approach to a height above : h. A* o3 D) otouchdown of not less than 200 feet and a runway4 v/ `) i8 ^1 L, ` visual range of not less than 1,800 feet. * V: U( V; i5 v% s6 W5 u( Cb. MLS Category II. Undefined until data gather‐ ' @# D) k5 z. G% u4 I; l8 V$ ming/analysis completion. # e2 J+ q) @; o: z# Kc. MLS Category III. Undefined until data ( Y/ i9 B- U9 h! d2 g& a4 vgathering/analysis completion. & K. |# ~' _0 A0 n: V: ]" qMM(See MIDDLE MARKER.) , y( J0 [, n; V) LMNPS(See MINIMUM NAVIGATION PERFORMANCE& x! A! b; W' _/ U3 o' P& i7 `) f& g SPECIFICATION.) ) F3 ?& q( J7 GMNPSA(See MINIMUM NAVIGATION PERFORMANCE- # } V/ e8 H+ F" E- V% wSPECIFICATION AIRSPACE.) $ L* s3 C2 H( x& T) t0 VMOA(See MILITARY OPERATIONS AREA.)$ R& \3 y: e3 D& H% P1 e5 ^9 e( G MOCA(See MINIMUM OBSTRUCTION CLEARANCE% Z( y& s6 ^7 Y. t( d4 m ALTITUDE.) : T7 ?4 a; I3 lMODE- The letter or number assigned to a specific & h) p+ g5 _) Upulse spacing of radio signals transmitted or received, M8 P9 ]5 w0 |7 A. \ by ground interrogator or airborne transponder ' {" M) g+ }4 Ocomponents of the Air Traffic Control Radar Beacon$ G& x: A; i( ]7 K- m q Pilot/Controller Glossary 2/14/080 K( l- o# o. t/ {6 w( _ PCG M-6" U; e# |8 {2 e9 r6 T2 h System (ATCRBS). Mode A (military Mode 3) and , A( n3 K5 c4 Z8 \( l! O+ DMode C (altitude reporting) are used in air traffic * d! R+ P K1 l2 s, Z& [: xcontrol.- u4 p I2 j' a }1 s (See INTERROGATOR.) # ?; }, L/ A7 C5 T9 N2 x(See RADAR.) # Q: ?6 w) U* x5 ?: m(See TRANSPONDER.) d5 z0 t: |( m(See ICAO term MODE.) $ y& y" ? w1 p+ ~6 B(Refer to AIM.) 7 x. c' Y9 l) J9 ]8 ]: x' JMODE (SSR MODE) [ICAO]- The letter or number! g/ Z8 G7 U. U7 ^ @ assigned to a specific pulse spacing of the8 K( P- C0 F7 ~6 u% p/ o: ? interrogation signals transmitted by an interrogator. , x% c2 Q- a/ |4 V6 P8 ^0 ~5 ]There are 4 modes, A, B, C and D specified in Annex( p6 j9 u/ ` l0 P( I( _- S0 q+ c1 S 10, corresponding to four different interrogation0 n/ |- O+ ~5 F$ C1 x pulse spacings. $ U9 y+ e0 M8 y" G5 X. C4 `( GMODE C INTRUDER ALERT- A function of % \! b J3 q* H' z! Fcertain air traffic control automated systems designed $ b, q j1 P( d, lto alert radar controllers to existing or pending& u E/ m' o- v* V situations between a tracked target (known IFR or" ~" x# O2 m9 t. [# R VFR aircraft) and an untracked target (unknown IFR! D9 p8 i/ @! a2 ^ or VFR aircraft) that requires immediate attention/4 h' n7 t; t& v& p0 S% X action. Q3 o" w' E& C8 w9 ?. n7 K2 e% M! m( y (See CONFLICT ALERT.)

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发表于 2008-12-28 14:16:29 |只看该作者
MONITOR- (When used with communication ) k x& _$ F: m. L: w. Ctransfer) listen on a specific frequency and stand by 8 N0 P( A2 I" O4 h5 pfor instructions. Under normal circumstances do not7 s7 K6 P* X- j- |6 T2 E establish communications. - E2 y. Z# Z! TMONITOR ALERT (MA)- A function of the ETMS - ]$ I9 T' }3 g- tthat provides traffic management personnel with a' l( U6 y z3 T4 y2 D+ L" {3 b1 _ tool for predicting potential capacity problems in 9 O( v( L) ^9 e6 [5 oindividual operational sectors. The MA is an / Y' s p( V8 f7 \; aindication that traffic management personnel need to- ?' h; e9 t' {) T8 y analyze a particular sector for actual activity and to. b8 Q2 W. ?3 N( D; ~+ u2 p, ? determine the required action(s), if any, needed to& J% T. b2 z5 t @ m control the demand.% h% I$ Q3 P! R3 \1 A# c8 B MONITOR ALERT PARAMETER (MAP)- The : a# r1 U T/ J1 ^/ Onumber designated for use in monitor alert5 V+ R4 v7 Z O, d2 `. @+ X6 `7 g processing by the ETMS. The MAP is designated for& G2 D" N {; X- O0 w2 l5 P4 Q* D3 v each operational sector for increments of 15 minutes.: ^8 }/ s2 ?/ s4 {- r$ A' ?8 J MOSAIC/MULTI-SENSOR MODE- Accepts posi‐ , N2 q1 \0 K" j& G* r( [3 y# ftional data from multiple radar or ADS-B sites. ! V& m" N. p1 ]* U8 s! STargets are displayed from a single source within a 5 u, o: M# |# ]* |$ Z! J0 r% I Kradar sort box according to the hierarchy of the- K; J- V0 Q& J% l sources assigned.4 R5 l& O! Y a# G$ j MOVEMENT AREA- The runways, taxiways, and9 [! p! p( |/ ` other areas of an airport/heliport which are utilized - O% c5 H% `6 M9 p% ?) nfor taxiing/hover taxiing, air taxiing, takeoff, and # K3 H+ j% b& U8 d* ^& Wlanding of aircraft, exclusive of loading ramps and: _2 t1 X2 T+ E* V, _; ] parking areas. At those airports/heliports with a / n1 q, V) ~0 Y0 q C" X) p& ?tower, specific approval for entry onto the movement 1 l$ ]- B6 E' g) harea must be obtained from ATC. / Q7 C# J u$ v2 Q(See ICAO term MOVEMENT AREA.) X/ u% C; H% w$ m' S MOVEMENT AREA [ICAO]- That part of an, [# T, ]7 C5 S* P! J6 | aerodrome to be used for the takeoff, landing and6 C% o- T* x( C3 k, V! B taxiing of aircraft, consisting of the maneuvering area* y' Y# w( s1 k# |, h: |5 [ and the apron(s). 2 r; C8 x9 c; r& FMOVING TARGET INDICATOR- An electronic+ B% H* n V% g/ O8 B9 e device which will permit radar scope presentation: q6 [8 R6 e0 t4 N, | only from targets which are in motion. A partial4 p' b6 y+ z+ \7 X remedy for ground clutter.5 ^* F; ?7 T! G7 K" F MRA(See MINIMUM RECEPTION ALTITUDE.)* K: B. r. E/ ]2 G7 d6 X+ H MSA(See MINIMUM SAFE ALTITUDE.) $ Y/ G& f. l2 w7 C" i# bMSAW(See MINIMUM SAFE ALTITUDE WARNING.)8 n" o' J0 Q( i) p7 }) R MTI(See MOVING TARGET INDICATOR.) 9 u' A) z: A& L. r! I! R% @0 xMTR(See MILITARY TRAINING ROUTES.)0 R6 M! b l8 D MULTICOM- A mobile service not open to public5 ?3 s( t8 y" G; ^ Z% \# w correspondence used to provide communications w; ]3 G F4 n K. M, w) sessential to conduct the activities being performed by; S8 Q$ ?- N. `/ v( t3 o6 G6 ]; t, T or directed from private aircraft.! X) M3 Z9 c* [ MULTIPLE RUNWAYS- The utilization of a* i4 j+ h& @/ K0 M& o( ]3 V dedicated arrival runway(s) for departures and a% W1 F$ ~2 v& e dedicated departure runway(s) for arrivals when: T t* T, k" L7 s feasible to reduce delays and enhance capacity. : }' C- @1 ^& XMVA(See MINIMUM VECTORING ALTITUDE.), H [/ r. F0 G7 z1 R6 g Pilot/Controller Glossary 2/14/08 6 N }6 m; H' NPCG N-15 y- R1 h% h6 k) y) D6 a+ w5 P N - N$ f, x5 a* X: Z, M) r0 lNAS(See NATIONAL AIRSPACE SYSTEM.) 5 }- U1 H" p) W) B8 hNATIONAL AIRSPACE SYSTEM- The common 4 [6 s% c0 E$ }) s* ?network of U.S. airspace; air navigation facilities,, F2 ]+ D/ d' g' c4 u9 B equipment and services, airports or landing areas;% p# t9 C6 g/ f aeronautical charts, information and services; rules,. y# ]6 g ]# h( h9 K regulations and procedures, technical information, 5 g' q/ `/ S9 land manpower and material. Included are system$ w& f: C1 ^* x- j. r: _/ U: O y components shared jointly with the military. 8 C6 i8 q3 _/ L; Q9 G, X7 T- j9 S8 w7 ?NATIONAL BEACON CODE ALLOCATION% P0 O7 a( P1 c3 g l" u PLAN AIRSPACE- Airspace over United States) }. f( _/ r# j. I. Y; {4 Q territory located within the North American continent ! [3 p3 x9 y# q. z* Ibetween Canada and Mexico, including adjacent ! ? H) p8 z3 f5 v. ?+ R9 jterritorial waters outward to about boundaries of 7 }6 e0 \+ q' O; C3 M: f d, k d% Qoceanic control areas (CTA)/Flight Information4 E0 h" |& s5 R$ @4 I2 A4 [ v+ l Regions (FIR).: V& t) T+ A( k% M/ J; b# Q" x (See FLIGHT INFORMATION REGION.) % X/ W4 F, G* ?) \/ {, \ }NATIONAL FLIGHT DATA CENTER- A facility in 2 w0 V( k+ h/ _6 R9 B. h$ b1 jWashington D.C., established by FAA to operate a 8 m' |. T2 M3 P. |$ Kcentral aeronautical information service for the 0 q G% O- s) ncollection, validation, and dissemination of aeronau‐ $ [- Q3 w1 y2 i* Y9 Utical data in support of the activities of government,0 k2 |' @+ k7 |! f( i3 n. v industry, and the aviation community. The informa‐ 9 @" d2 _ A7 b- Qtion is published in the National Flight Data Digest. 0 X1 G$ a' f4 }* ~; d(See NATIONAL FLIGHT DATA DIGEST.), d U& q7 D0 P! @* v NATIONAL FLIGHT DATA DIGEST- A daily , T3 I- w i1 K0 F7 R(except weekends and Federal holidays) publication; r% c! X4 L' q) {$ d( ? of flight information appropriate to aeronautical U; L1 R' H1 e r$ I charts, aeronautical publications, Notices to Airmen,7 _! P, s" R: ~% [) k3 U or other media serving the purpose of providing : M% |+ z' C+ I* Toperational flight data essential to safe and efficient5 ]7 U4 {5 @+ ?3 _* d1 n aircraft operations.! }! e; x$ v. y$ f NATIONAL SEARCH AND RESCUE PLAN- An" d, `8 C8 S# a+ r$ P interagency agreement which provides for the8 L9 s. ^$ N. K6 T) Z effective utilization of all available facilities in all / ]8 {2 y( W. B2 u) d+ [0 }6 m. S1 Jtypes of search and rescue missions. 6 `+ P5 \( G/ }# ]7 d- g8 [NAVAID(See NAVIGATIONAL AID.) 6 ]; `, |# s, b. G2 M1 iNAVAID CLASSES- VOR, VORTAC, and TACAN# P5 p {2 ^! Q$ E: i5 K aids are classed according to their operational use." \$ G% d- ]" ?8 ]0 [ l. A The three classes of NAVAIDs are: ) |; `9 \9 N- m1 \1 u) G* T1 O7 l8 Ea. T- Terminal. . ]6 L( v2 Y, L @. Nb. L- Low altitude.- {9 p* ?) f a c. H- High altitude. . J/ g1 W; r' z5 v+ {$ `( m7 [Note:The normal service range for T, L, and H class) a7 r- ~ I& |) K+ U aids is found in the AIM. Certain operational - t* s; v7 Q. b- Brequirements make it necessary to use some of* l" y6 T2 v. o* |( i+ P3 Z1 G- i these aids at greater service ranges than 5 F/ K, y$ {+ D* X/ J+ Y. [$ u3 ^specified. Extended range is made possible # B( T9 A" T' \( I7 Bthrough flight inspection determinations. Some ! H! p* @, F- Raids also have lesser service range due to location,& x! J" c- x" |, |6 b7 F terrain, frequency protection, etc. Restrictions to3 K/ e2 u u p# z3 i4 H3 h service range are listed in Airport/Facility/ S7 [$ S" s, P. P9 k% d: j Directory. % F' E0 j5 }( c: s! e- M3 {; |NAVIGABLE AIRSPACE- Airspace at and above : e: z1 H" `1 J/ Q/ Jthe minimum flight altitudes prescribed in the CFRs # u" r( H; i( c- nincluding airspace needed for safe takeoff and 6 R5 v% I7 `2 ]& G( Blanding. % ?' n; }) s: l' F3 {(Refer to 14 CFR Part 91.)3 q( p1 z x$ A8 J NAVIGATION REFERENCE SYSTEM (NRS)-0 s: a) |! ^7 }2 a9 q( m The NRS is a system of waypoints developed for use3 n$ A6 o- O: ]! v within the United States for flight planning and ! W; z% s+ _# P+ x Z# bnavigation without reference to ground based 2 ^: d# n* m+ z4 \1 [8 J& [navigational aids. The NRS waypoints are located in $ y5 d/ V: V( Oa grid pattern along defined latitude and longitude6 k3 Q0 r+ D$ X& D+ Z& u lines. The initial use of the NRS will be in the high7 H" a9 g4 Z5 `8 p altitude environment in conjunction with the High( T' i7 s- m: }& k' U' ^2 J Altitude Redesign initiative. The NRS waypoints are % a' e# g4 E& i2 O3 i+ F6 s/ {intended for use by aircraft capable of point-to-point * a8 V1 z3 n5 @2 h7 [: Mnavigation. 8 x% d% X% y- w/ m- QNAVIGATIONAL AID- Any visual or electronic 9 l4 U, I Q6 a- Q6 G" sdevice airborne or on the surface which provides6 h. c g% R9 m+ d- p point‐to‐point guidance information or position data * z7 l5 X: `1 n uto aircraft in flight.# Y. h5 G8 Q2 n. l! Q (See AIR NAVIGATION FACILITY.)+ c2 B- R, u1 K5 _( U1 m. v NBCAP AIRSPACE(See NATIONAL BEACON CODE ALLOCATION & Q9 j+ p. f( k4 IPLAN AIRSPACE.)& _6 B$ Y) T @% [% s. U NDB(See NONDIRECTIONAL BEACON.) E9 u" x0 u; v3 X" d9 X& Z& MNEGATIVE- “No,” or “permission not granted,” or & Q' g2 @8 S* f* x“that is not correct.”( i7 S; I9 T) ^; V( N NEGATIVE CONTACT- Used by pilots to inform1 k5 |' F% ~9 \3 x8 B ATC that:1 _# {3 d7 x R# u a. reviously issued traffic is not in sight. It may( j9 E, Z; i% N3 g3 c: I9 ^ be followed by the pilot's request for the controller to5 Q8 A/ v9 y7 A7 ?+ l provide assistance in avoiding the traffic. ( e$ }9 l, C- Yb. They were unable to contact ATC on a 1 Y* e4 U* j, Hparticular frequency. " g4 f7 Q3 l* _* [Pilot/Controller Glossary 2/14/08 $ C/ t+ d2 q' l+ ]$ |( @" aPCG N-2 , m1 R5 D7 m& z* ^ fNFDC(See NATIONAL FLIGHT DATA CENTER.) 8 c8 |- v9 O. dNFDD(See NATIONAL FLIGHT DATA DIGEST.)$ o; B, D1 {+ j3 i2 k$ Y% j NIGHT- The time between the end of evening civil' M1 C/ j7 M2 T* |' J+ j- k twilight and the beginning of morning civil twilight,/ o2 e9 h; T- O' ?0 T- ?8 s- f( v$ u as published in the American Air Almanac, converted $ G8 ~; n/ z- C8 R% M3 S% @' cto local time. & |& C# L/ ?; E K# D1 ?5 k(See ICAO term NIGHT.) + U5 \: ?: P% h6 w* ?NIGHT [ICAO]- The hours between the end of 2 Y5 g7 ^$ X( ]- i# }0 [evening civil twilight and the beginning of morning3 d! @/ w, S- p( j+ _3 R civil twilight or such other period between sunset and ; Y3 F) }* k7 P. @sunrise as may be specified by the appropriate h) H3 P h7 `/ r. F/ w8 Q% Hauthority. 1 h2 G- S# y$ CNote:Civil twilight ends in the evening when the ( y9 E2 a! P" E: y/ mcenter of the sun's disk is 6 degrees below the ' m) |. A* K7 [4 H. N/ M3 shorizon and begins in the morning when the center# R' A: m6 A0 S of the sun's disk is 6 degrees below the horizon.* R6 {. w( E9 V$ ?) y$ G NO GYRO APPROACH- A radar approach/vector# L; g. P) l- L) W provided in case of a malfunctioning gyro‐compass : Y) Y+ x2 D( z Por directional gyro. Instead of providing the pilot g1 L+ _8 K$ B9 _$ U* Kwith headings to be flown, the controller observes the : }- H9 i5 M2 ]2 U) Y, Yradar track and issues control instructions “turn 5 ?; ?! \5 r$ i+ R; c% wright/left” or “stop turn” as appropriate. 3 ?7 f; k" P7 y1 J& T# L(Refer to AIM.) - w2 j3 j3 U3 m% h2 ^+ uNO GYRO VECTOR(See NO GYRO APPROACH.)' A4 R1 K' q' d1 s$ I NO TRANSGRESSION ZONE (NTZ)- The NTZ is$ q ?( T+ k1 Y* M a 2,000 foot wide zone, located equidistant between ' S; S6 N$ A( {8 K4 M8 B# Pparallel runway final approach courses in which ! |$ c8 Q" D# U; {. U) m; pflight is not allowed. k0 k! n- E8 j& F NONAPPROACH CONTROL TOWER- Author‐3 x. K' m5 R/ m" E4 S0 w$ m izes aircraft to land or takeoff at the airport controlled" G8 ^* [4 p/ [ by the tower or to transit the Class D airspace. The 9 V% v K8 b7 wprimary function of a nonapproach control tower is ; U0 }& @& d9 j% C# B. E% A- cthe sequencing of aircraft in the traffic pattern and on$ H& D. A* @; p6 D5 v$ g- B+ W the landing area. Nonapproach control towers also' X" _! n% u& E7 o separate aircraft operating under instrument flight 0 \: f+ q c& zrules clearances from approach controls and centers. & `( z0 z! G% @9 GThey provide ground control services to aircraft,( B+ V" d% \3 S8 U" [& Q( I vehicles, personnel, and equipment on the airport ) d8 D- P0 r$ |/ [! b r% gmovement area. 8 ^2 R) Q* c, p6 ANONCOMMON ROUTE/PORTION- That segment& F" s1 D6 v, R+ S, n! ` of a North American Route between the inland& I) Q0 |7 _2 m0 r Q navigation facility and a designated North American ( x2 K7 a* P: b0 Lterminal. 9 i0 r; c& `+ G3 J5 K- T$ U7 S* }NONCOMPOSITE SEPARATION- Separation in 1 h" ~* f$ U$ U1 R" _8 S) Haccordance with minima other than the composite% F- S/ Q# a1 j4 l7 S separation minimum specified for the area con‐ ( U- `9 s' n( ?+ o6 J# }cerned. b0 F; o$ z3 \" \0 O i9 |NONDIRECTIONAL BEACON- An L/MF or UHF # F3 }: `% ~# Lradio beacon transmitting nondirectional signals, Z6 G1 j7 W% C8 E/ e' i1 U6 z f whereby the pilot of an aircraft equipped with3 }9 h# s' c! J3 s# u! C direction finding equipment can determine his/her & E8 Q- F6 m- M- s8 Q: y8 Zbearing to or from the radio beacon and “home” on or' X1 a2 r1 ]: m) M0 ^ track to or from the station. When the radio beacon is- q4 F& r3 c' v. V4 I installed in conjunction with the Instrument Landing 8 v4 v/ |$ |. r1 |; ESystem marker, it is normally called a Compass8 x I a. w5 ^; e/ E Locator.% i0 Q- \+ z9 P$ V7 r (See AUTOMATIC DIRECTION FINDER.)3 N* n. c. m& Q/ N6 t" J7 \ (See COMPASS LOCATOR.)

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