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1. For runways serving large airplanes, the
/ h8 W- D0 Q" Agreater of:$ j9 d1 a# p! d, p0 K
(a) 400 feet, or
, @6 I( l' Z; K% b(b) 180 feet, plus the wingspan of the most
1 P0 G" N0 }+ r% B+ W7 idemanding airplane, plus 20 feet per 1,000 feet of
% b; W1 x2 [( _airport elevation.6 x$ c6 [- L' I4 R
2. For runways serving only small airplanes:
$ Z" }4 {( G5 g; J" @7 M(a) 300 feet for precision instrument run‐
8 v; j h+ z& v+ Iways.
" h+ L% ~ b3 V' b(b) 250 feet for other runways serving small3 p1 X! N7 B7 W5 Z
airplanes with approach speeds of 50 knots, or more.
3 [( v" |7 D1 ^+ ^! h4 v" I) C(c) 120 feet for other runways serving small
2 W7 }, y2 s& j' P' E7 Fairplanes with approach speeds of less than 50 knots.+ K# r8 o0 U) E, H- k t# ]* J
b. Inner‐approach OFZ. The inner‐approach OFZ
6 o" g# F2 }7 l4 C8 [is a defined volume of airspace centered on the& @: w, T9 m3 V( R7 @
approach area. The inner‐approach OFZ applies only0 N- h- ]: }' K4 R3 G
to runways with an approach lighting system. The, B1 K. _; @2 n% z
inner‐approach OFZ begins 200 feet from the runway
) E, D* q- O7 f% Rthreshold at the same elevation as the runway
0 X5 C z/ r2 othreshold and extends 200 feet beyond the last light
* h& O( v4 }2 `0 p3 y8 G1 Y- \unit in the approach lighting system. The width of the
5 G- `/ Y" M7 f- Y9 P6 o$ Qinner‐approach OFZ is the same as the runway OFZ8 d5 B# y% x. D
and rises at a slope of 50 (horizontal) to 1 (vertical)/ s! Z$ N" m/ Y. u' m) V' s
from the beginning.! z, o& G, y. R* D4 f
c. Inner‐transitional OFZ. The inner transitional, o) `( s" S. s! U: d% i
surface OFZ is a defined volume of airspace along the
6 I. P% E6 d( _4 n& Nsides of the runway and inner‐approach OFZ and
; p/ O! A2 m, N9 @0 Tapplies only to precision instrument runways. The' L, U) Y3 l/ } m
inner‐transitional surface OFZ slopes 3 (horizontal)' g% u5 d2 J& M
to 1 (vertical) out from the edges of the runway OFZ
& `' a+ \- w# l( q2 G' R0 Mand inner‐approach OFZ to a height of 150 feet above, X( ?/ R2 p/ v5 {( n: I4 s
the established airport elevation.7 l9 m: g6 |3 M4 _6 j' @
(Refer to AC 150/5300‐13, Chapter 3.): L$ g+ l: L2 y* ~
(Refer to FAAO JO 7110.65, Para 3-1-5,
6 T+ s- |* b, q% a4 o; LVEHICLES/EQUIPMENT/PERSONNEL ON
: {1 u8 D9 y( JRUNWAYS.)
8 t7 l' f( j* M: f5 _/ k \OBSTRUCTION- Any object/obstacle exceeding3 w0 h! G4 I. W! E
the obstruction standards specified by 14 CFR a! V$ B; x8 n
Part 77, Subpart C.
, {* @7 z' i VOBSTRUCTION LIGHT- A light or one of a group
; `* ~3 H0 z- sof lights, usually red or white, frequently mounted on2 z3 C) h! u" w4 C( o
a surface structure or natural terrain to warn pilots of
! b2 B8 W6 [' ^9 ` {" _4 G( }the presence of an obstruction.
# k+ F+ G3 c# k# h: Z6 Z( nOCEANIC AIRSPACE- Airspace over the oceans of
/ M/ E' o& ]0 p+ othe world, considered international airspace, where' Q8 j- f, W2 D/ K9 E7 H l" Q' P
oceanic separation and procedures per the Interna‐
: @ c5 }1 ?$ D w- s# D& @) vtional Civil Aviation Organization are applied.5 Q+ Q% b$ H% f+ C4 w
Responsibility for the provisions of air traffic control
! h2 a6 w+ }2 V, M5 mPilot/Controller Glossary 2/14/081 x; ~3 {" [: U
PCG O-2, a9 j5 q8 |3 h# H# g
service in this airspace is delegated to various
F8 W2 S7 _% b8 V% v/ Ccountries, based generally upon geographic proximi‐
8 d* J: O- g9 E" F! lty and the availability of the required resources.2 Z& J2 _5 R6 [- c6 a) z# m
OCEANIC DISPLAY AND PLANNING SYS‐
% I9 ^- y& K( wTEM- An automated digital display system which
8 A* x. T2 n4 ]' {3 j" L4 f0 xprovides flight data processing, conflict probe, and
! P& [2 S n% k7 U2 R+ j8 O. Bsituation display for oceanic air traffic control.
. }& @' F+ Z1 j( ~OCEANIC NAVIGATIONAL ERROR REPORT- A$ S5 S5 q1 _1 @7 H) W: I
report filed when an aircraft exiting oceanic airspace' C y8 u. {' O( u9 P" C! Q) E. l9 E
has been observed by radar to be off course. ONER
0 n! l( ^+ L$ @& j9 g* A; l: |reporting parameters and procedures are contained in( |0 s( s4 k. C. w. O
FAAO 7110.82, Monitoring of Navigational Perfor‐% _' x1 z8 b# m, R
mance In Oceanic Areas.
2 F) G1 j# b9 a: X: r! J7 VOCEANIC PUBLISHED ROUTE- A route estab‐
3 L1 B2 \$ ]$ I# v: klished in international airspace and charted or' c; L0 k8 H' x+ n k; `
described in flight information publications, such as6 s( a4 J ], c' J9 S) r
Route Charts, DOD Enroute Charts, Chart Supple‐+ r, n! q! t/ Q, y* J4 m
ments, NOTAMs, and Track Messages.
) E$ }+ ^. k; P6 COCEANIC TRANSITION ROUTE- An ATS route
7 d+ [* J6 K! J8 j5 r9 oestablished for the purpose of transitioning aircraft3 A5 p. ~+ p; O! ?8 r4 |
to/from an organized track system.' p2 K- @8 v4 T
ODAPS(See OCEANIC DISPLAY AND PLANNING
' f% q3 V! E$ d& v5 @: |! w' bSYSTEM.)
4 q H" q: s, o* |! T# e+ ^# m* ]' ]ODP(See OBSTACLE DEPARTURE PROCEDURE.)
+ o, D: q3 N6 r ^! P8 L2 LOFF COURSE- A term used to describe a situation& |1 }# g- s8 ]1 }
where an aircraft has reported a position fix or is7 {* W3 R9 Y; Q1 F
observed on radar at a point not on the ATC‐approved
; R( o" A6 ~% L8 Vroute of flight.
" U& z! e* a: P/ {6 G+ eOFF‐ROUTE VECTOR- A vector by ATC which8 h( J- t! Q/ C: \9 L* D' b
takes an aircraft off a previously assigned route." C4 u; R7 }4 w
Altitudes assigned by ATC during such vectors
' f. t' B6 V; j% R1 @- Z' [* y- O+ Bprovide required obstacle clearance.( Y3 D% P$ R; C+ t" \* H# G4 g s
OFFSET PARALLEL RUNWAYS- Staggered% q$ s* _) m: n) E$ U
runways having centerlines which are parallel.
; m5 E; \& h' B0 C% F, P' mOFFSHORE/CONTROL AIRSPACE AREA- That) C2 G& j7 I0 ?# U& i0 P- Y
portion of airspace between the U.S. 12 NM limit and
2 y) ?+ F2 d, b* a8 Zthe oceanic CTA/FIR boundary within which air( Q9 B3 u3 Q: l8 g. a
traffic control is exercised. These areas are
- J" w! w, X! M/ Pestablished to provide air traffic control services.
2 H3 T( K( z% jOffshore/Control Airspace Areas may be classified& E; r( ?, e& f4 m+ T
as either Class A airspace or Class E airspace.+ U* _4 i$ `! g8 ?7 U& x- ~
OFT(See OUTER FIX TIME.)- ~ b. j' _. l! G' g
OM(See OUTER MARKER.)& U3 z2 Q o& v2 x
OMEGA- An RNAV system designed for long‐range
$ T! _: G1 Y9 y- Enavigation based upon ground‐based electronic9 @' T$ S, G, V+ F; k! ?, c1 z
navigational aid signals.
6 ?$ i# B) n- O m2 oON COURSEa. Used to indicate that an aircraft is established on5 H7 X6 I# n8 ^% ]; e; N" g
the route centerline.* ^ L9 k! e) @
b. Used by ATC to advise a pilot making a radar, C, P' Q9 ^* ^ M1 t7 |& T4 |
approach that his/her aircraft is lined up on the final9 r- p, M+ F* U" P h& L
approach course.$ B/ _" M N; |8 i4 i
(See ON‐COURSE INDICATION.): g! t, V% _! ]. D
ON‐COURSE INDICATION- An indication on an
( i2 @+ ]: ^, Y0 k! rinstrument, which provides the pilot a visual means2 D( c3 o& ^# R# S3 E3 \: L% A
of determining that the aircraft is located on the' E1 p0 O! A8 h. k7 w
centerline of a given navigational track, or an" f: s( m# w- M2 n: ]# v
indication on a radar scope that an aircraft is on a s* Z6 p: F1 Z/ i8 r T _
given track.
. b& q# ~" ]+ ~ONE‐MINUTE WEATHER- The most recent one* ?) t9 l2 |! n D9 l# {7 [9 q+ u
minute updated weather broadcast received by a pilot2 y/ @/ F& C! m6 V* y5 u
from an uncontrolled airport ASOS/AWOS.
: ^$ l) N' ?# M- W2 WONER(See OCEANIC NAVIGATIONAL ERROR3 ?+ Z+ [: H$ _/ ^7 y0 n
REPORT.)
z6 S/ K( D+ T/ d" QOPERATIONAL(See DUE REGARD.)
- o0 C R3 c6 OOPPOSITE DIRECTION AIRCRAFT- Aircraft are) d( |* j {% d! c |4 o1 |% z
operating in opposite directions when:" T3 t+ J" X- V- z n) O' f
a. They are following the same track in reciprocal
' U2 K% g1 C D2 Jdirections; or
/ G4 S9 ]4 g2 C+ ]: j" ob. Their tracks are parallel and the aircraft are$ U6 \# t8 j" X& {
flying in reciprocal directions; or3 S& E! D% O; R/ ]3 n
c. Their tracks intersect at an angle of more than$ L- `- k9 z; z& M" x1 }! [* g
135.
- u" m* s- o. G7 X+ eOPTION APPROACH- An approach requested and
! f& ]0 X% J% N2 L, B8 I& fconducted by a pilot which will result in either a& {! \4 @" g/ _* v; X4 D7 n
touch‐and‐go, missed approach, low approach,- ]; H' ^4 }8 M9 R' b* @$ x
stop‐and‐go, or full stop landing.( ?1 C1 t7 T% H; }
(See CLEARED FOR THE OPTION.)
3 J/ W9 A( `' `( ]' W* I' t(Refer to AIM.)
; ?, X* V, ?% b/ jORGANIZED TRACK SYSTEM- A series of ATS
- Q7 p2 v5 J+ vroutes which are fixed and charted; i.e., CEP,
4 ]1 o& c( l6 \! |0 n/ LNOPAC, or flexible and described by NOTAM; i.e.,: z7 F0 ^' g: U
NAT TRACK MESSAGE.7 c, ^+ |) z" b* i9 p3 u
OROCA- An off‐route altitude which provides
1 d6 X9 G3 E5 }obstruction clearance with a 1,000 foot buffer in
7 v7 j) f+ M' N7 `* vPilot/Controller Glossary 2/14/085 ]- r% M' k0 B5 B9 l
PCG O-35 O5 r1 ?* i0 K5 [$ f% T: U) D% ?5 e
nonmountainous terrain areas and a 2,000 foot buffer: y e9 N4 D' ?) m* D, D7 S
in designated mountainous areas within the United
# U# b/ J) S' e k7 Q: qStates. This altitude may not provide signal coverage7 C% k! u. U* Q# U- K" E W
from ground‐based navigational aids, air traffic
7 R0 j* k/ P/ D9 W# L: M/ X; b* qcontrol radar, or communications coverage.
1 X, P( ?( p4 A5 G$ J+ h% S0 TOTR(See OCEANIC TRANSITION ROUTE.)
& M( `, W0 G& f2 ?2 @& `, ^) `, pOTS(See ORGANIZED TRACK SYSTEM.)
$ J9 A. _5 R2 f3 ?& r. E/ JOUT- The conversation is ended and no response is
% ] F0 k5 m9 V1 X: r n, aexpected.
7 K# o" L9 s2 y& W( L0 Z- EOUTER AREA (associated with Class C airspace)-. V& G/ P% c/ _) I/ U
Nonregulatory airspace surrounding designated. L# G( K/ n1 |5 ~5 C" X* p- L
Class C airspace airports wherein ATC provides radar# U0 B8 o1 x2 J) y
vectoring and sequencing on a full‐time basis for all
- T; m; d5 c' l$ wIFR and participating VFR aircraft. The service% E( s. M- l8 h' A* L7 C
provided in the outer area is called Class C service
& a9 n/ K% g0 o7 R" Qwhich includes: IFR/IFR-standard IFR separation;7 `8 [6 ^! \. h( P
IFR/VFR-traffic advisories and conflict resolution;2 C' N- ~& |. _. L) w
and VFR/VFR-traffic advisories and, as appropriate,
+ L' R2 l& w: N' psafety alerts. The normal radius will be 20 nautical ^# ?. W% [' s P
miles with some variations based on site‐specific
4 i" g+ j( h9 z9 y- `6 Zrequirements. The outer area extends outward from
) L& I& M. R7 }( c" [) f- othe primary Class C airspace airport and extends from6 ?/ K; E8 P7 O+ @* U
the lower limits of radar/radio coverage up to the
" M% s* S# L R; V! R; n; _2 Jceiling of the approach control's delegated airspace& V. P* @7 {$ W" k
excluding the Class C charted area and other airspace: I7 v, q( q3 s& ?1 D- l g3 G9 r
as appropriate.3 S( [4 R" q# m" n2 H" `& ^
(See CONFLICT RESOLUTION.)( R* d. p, P: R' B; z4 t
(See CONTROLLED AIRSPACE.)+ V0 O2 @: s8 L/ j
OUTER COMPASS LOCATOR(See COMPASS LOCATOR.)9 N" D) |' J9 r2 ^: I
OUTER FIX- A general term used within ATC to: {, W) c8 Y% x: {5 w; a4 S
describe fixes in the terminal area, other than the final
) P' }0 \1 f$ X, U, }approach fix. Aircraft are normally cleared to these
/ c- k8 b$ U! k! [( k+ ?( Kfixes by an Air Route Traffic Control Center or an
4 g! N6 N# P& N% GApproach Control Facility. Aircraft are normally
6 a" r' |$ V, B% v/ [( R+ Bcleared from these fixes to the final approach fix or
- F# T+ O; F# r. u* Ufinal approach course.
9 k Z% G0 w$ \ hOR
# V8 {3 h: z: F4 ?6 U' WOUTER FIX- An adapted fix along the converted2 w' ~" z- Z; e' Z' w
route of flight, prior to the meter fix, for which4 e# ]$ K0 Q6 T0 F( j& O! ~7 \. ]
crossing times are calculated and displayed in the
3 [2 u3 i' p; cmetering position list.8 E) f8 l3 {% d
OUTER FIX ARC- A semicircle, usually about a
6 j: ^. c! Y4 x( Q3 I" ^50-70 mile radius from a meter fix, usually in high2 S* Z) J( p. g3 z
altitude, which is used by CTAS/HOST to calculate6 {! k& P8 r3 n9 B Y
outer fix times and determine appropriate sector
% a8 Y3 k0 i4 A8 j4 smeter list assignments for aircraft on an established( g& Z. Y" t+ r8 V
arrival route that will traverse the arc.
& v3 @- ]5 B& sOUTER FIX TIME- A calculated time to depart the
m9 [$ m0 Y6 q |* p4 J( g3 Zouter fix in order to cross the vertex at the ACLT. The: r" x( M# b9 b3 |% F U
time reflects descent speed adjustments and any
1 M4 M! S% z4 M$ ^applicable delay time that must be absorbed prior to
" z- f ]: i2 ycrossing the meter fix.% m1 u: N F' n$ j+ T4 r* e
OUTER MARKER- A marker beacon at or near the" ]& j5 k0 Q( b
glideslope intercept altitude of an ILS approach. It is
6 l6 ?* s+ i9 r9 x7 ^7 o; S% H8 Bkeyed to transmit two dashes per second on a 400 Hz9 ~5 m. A7 h: J
tone, which is received aurally and visually by
9 @* e' j+ \8 b$ x |5 y: h6 Tcompatible airborne equipment. The OM is normally
$ r/ d4 D4 K6 Y( e7 Plocated four to seven miles from the runway threshold
6 {* Q8 }3 _6 v2 |- l* b5 N% t/ fon the extended centerline of the runway.
! v" u* v3 p8 h0 d" |1 V# _+ V(See INSTRUMENT LANDING SYSTEM.)
8 x; r" S( D! A8 e, S(See MARKER BEACON.)9 z4 d0 p7 Y" v& w( b
(Refer to AIM.)
6 W& W) X" e* v% V& K" B6 o) zOVER- My transmission is ended; I expect a
0 W; [" }/ G' J$ u7 P: e& Eresponse.* Z: x+ B! k4 q6 N5 x0 {- e; b
OVERHEAD MANEUVER- A series of predeter‐1 x V& S% t( |
mined maneuvers prescribed for aircraft (often in# [( P+ u; K$ o2 M
formation) for entry into the visual flight rules (VFR)
: y) {9 l+ b) |& G) p: z! Ktraffic pattern and to proceed to a landing. An4 q; R9 f2 R' L7 W* C
overhead maneuver is not an instrument flight rules
; q9 n- t7 H: X6 ?8 `(IFR) approach procedure. An aircraft executing an
; v7 v! A1 j+ D( R# J& Z6 ^overhead maneuver is considered VFR and the IFR$ \) n" _. |* `9 O+ u3 T9 ?4 m% i
flight plan is cancelled when the aircraft reaches the7 p* t3 W' y; J& M0 k$ a) `
“initial point” on the initial approach portion of the* w1 y! \2 p0 N1 l/ D) L6 X! H5 q
maneuver. The pattern usually specifies the
' n8 `. x/ n% ~& zfollowing:' `& i3 z* C$ E' \7 w! S) }
a. The radio contact required of the pilot.9 b" C/ S. I/ p) S5 X: M& i4 P
b. The speed to be maintained.8 v. [1 V- w5 f, V% ~
c. An initial approach 3 to 5 miles in length.
! G( [4 [2 L5 Gd. An elliptical pattern consisting of two 180
" h& a, g2 o' a" r7 R3 ndegree turns., }, s8 E+ B$ [$ v* v) W
e. A break point at which the first 180 degree turn8 d8 \( ~/ M1 Q- T
is started.
* `& h; J8 h* `) e0 Rf. The direction of turns.
" \, ?- A$ V( ?0 o2 A3 M4 k+ mg. Altitude (at least 500 feet above the convention‐
b$ X+ P6 P% ral pattern).; Z# L- @% j2 G2 o1 k9 ^
h. A “Roll‐out” on final approach not less than 1/4
) X9 T) f5 e0 b# u5 _. ?mile from the landing threshold and not less than 300
! C9 s* D9 Z; e) x s- E0 ifeet above the ground.
2 k2 b# X* d9 H7 FPilot/Controller Glossary 2/14/08
/ z% L7 a' r9 X( r+ _PCG O-4
' x; v u! S2 @+ Q2 eOVERLYING CENTER- The ARTCC facility that$ V& Q5 l7 X3 a( Q! @5 O% g
is responsible for arrival/departure operations at a
- A/ T0 x9 \& o; j$ J: b, especific terminal.7 o8 `' a% H% E2 x8 ]
Pilot/Controller Glossary 2/14/08
( A5 \/ b0 k# P% g, M; \PCG P-1
1 ]2 c6 Y. O/ y# g/ m8 `P
& e& O0 e+ o4 }8 L+ P) zP TIME(See PROPOSED DEPARTURE TIME.)
) U" S1 F; K2 f6 f4 zP‐ACP(See PREARRANGED COORDINATION2 Z% Z4 l! I2 A) U: Z
PROCEDURES.)
5 q# W7 k( w: c' V. o/ QPAN‐PAN- The international radio‐telephony urgen‐ K' U' @. | _% {% L
cy signal. When repeated three times, indicates
7 G0 ~; n3 P# e2 g6 Q4 ~uncertainty or alert followed by the nature of the! e+ |- d3 a5 |% @/ j9 u. v9 B
urgency., S0 L* ~: {/ K
(See MAYDAY.)5 z. o+ ^8 k: r+ D" Z/ Z0 Q7 i9 c
(Refer to AIM.)
7 ^/ P3 x$ j. B; Q. P# k5 E$ xPAR(See PRECISION APPROACH RADAR.)( Z) o3 t: g- }( s5 M' U# a8 n) e
PAR [ICAO]-
$ S, v7 L# c7 v3 Z* t2 Q(See ICAO Term PRECISION APPROACH) I" R! g$ B5 e
RADAR.)1 q; r4 }$ V' X T. a) [5 s
PARALLEL ILS APPROACHES- Approaches to: v3 M' S+ e9 h2 f/ V) X
parallel runways by IFR aircraft which, when
8 |1 ]. L$ z. u; d destablished inbound toward the airport on the
2 d5 O0 y5 f& K$ Eadjacent final approach courses, are radar‐separated7 ?" `* n* X: i9 l
by at least 2 miles.
: `* c1 J7 e. y9 v) t' G/ }: p# X(See FINAL APPROACH COURSE.)+ ^4 l$ E1 Z: D/ z4 s6 R% k5 R$ i
(See SIMULTANEOUS ILS APPROACHES.)
9 Z: U I+ f2 @: TPARALLEL MLS APPROACHES(See PARALLEL ILS APPROACHES.)1 i+ ]9 W+ Q5 W5 f3 N; j$ w
PARALLEL OFFSET ROUTE- A parallel track to8 A! {8 l# ^; f" Q* u' [
the left or right of the designated or established
- u( \. y3 a8 l/ ?airway/route. Normally associated with Area Navi‐: x. Q. N* g, L0 A
gation (RNAV) operations.' G8 _6 ?' t6 U4 t
(See AREA NAVIGATION.): A6 A& I' {# x5 l! X- O
PARALLEL RUNWAYS- Two or more runways at3 ~3 W) a6 l+ p8 i% i1 w) e8 ] }0 ~3 a
the same airport whose centerlines are parallel. In, I; e8 w- _6 Y, h
addition to runway number, parallel runways are
+ t4 q' T8 t% F# f2 vdesignated as L (left) and R (right) or, if three parallel8 V) b: w8 G) J2 J# O8 n
runways exist, L (left), C (center), and R (right).3 L+ ?; I( G+ b. o& t
PBCT(See PROPOSED BOUNDARY CROSSING
4 b. R ^" n9 V2 P' y) mTIME.)7 u& D( o8 K) d1 m- |
PDC(See PRE-DEPARTURE CLEARANCE.)8 |0 f+ Q" ]! H' P3 k
PERMANENT ECHO- Radar signals reflected from- j5 H( K' k9 O% j( E* D: W7 U
fixed objects on the earth's surface; e.g., buildings,& B1 _5 H# n$ S: t( }' Z
towers, terrain. Permanent echoes are distinguished& i1 K8 ~' D# p7 X
from “ground clutter” by being definable locations
, i$ |4 X6 Q; srather than large areas. Under certain conditions they4 ` V3 K8 |1 u. y& r: ]3 O0 r
may be used to check radar alignment.
1 l" D/ q6 C2 RPHOTO RECONNAISSANCE- Military activity
: s7 K6 y% d) g- \; M, l! O: Jthat requires locating individual photo targets and
0 c. B2 |9 u2 Qnavigating to the targets at a preplanned angle and
: ?; M9 Q- t/ W8 M0 z1 W1 i( ^altitude. The activity normally requires a lateral route
8 X8 |1 B$ x' u% ]* D0 awidth of 16 NM and altitude range of 1,500 feet to
- T2 J/ S2 X' O) ?( |, d* P10,000 feet AGL.$ l5 s% n& J2 `0 X ?
PILOT BRIEFING- A service provided by the FSS
) o9 m b$ f5 K' I+ r- Fto assist pilots in flight planning. Briefing items may
0 L+ @8 J: e3 h8 Vinclude weather information, NOTAMS, military; h% f- g% a" \/ m. X9 ~+ M
activities, flow control information, and other items
D5 `6 N6 j N* aas requested.8 {! v6 D' v0 C: @
(Refer to AIM.)9 z+ \% v$ Z+ ?: }0 U; {! p6 Y9 t3 k
PILOT IN COMMAND- The pilot responsible for
: ^& c- {' |( ]3 [+ bthe operation and safety of an aircraft during flight' u0 p% B5 P! g+ h1 E* q8 @8 |
time.
+ p: s) _/ Y# V/ z% l4 `8 ]2 z) H+ ^(Refer to 14 CFR Part 91.)
2 {) ~+ v. R% yPILOT WEATHER REPORT- A report of meteoro‐* E. Q8 K! P/ U( n
logical phenomena encountered by aircraft in flight. c/ q: s2 [3 C, I% X$ _
(Refer to AIM.)
5 s( h$ v+ V! a, IPILOT'S DISCRETION- When used in conjunc‐5 _ Y5 o4 B. n
tion with altitude assignments, means that ATC has
# V1 E# g3 Q5 Z5 Ooffered the pilot the option of starting climb or
+ U% g8 E5 i9 }$ O. q& p: _descent whenever he/she wishes and conducting the
7 Z& \6 Z$ f4 C+ Wclimb or descent at any rate he/she wishes. He/she& i# r4 o4 S( k: J% `
may temporarily level off at any intermediate/ t ]5 `: {* L7 z9 h n5 a
altitude. However, once he/she has vacated an
1 F# f S# V" j: {+ Kaltitude, he/she may not return to that altitude.
7 ~: S9 ~+ j* K. K+ Q2 T1 `PIREP(See PILOT WEATHER REPORT.)
" f1 S8 A6 c9 X9 F% RPITCH POINT- A fix/waypoint that serves as a, Y6 N+ y+ T$ Z* H; B0 f; c, I4 D) @
transition point from a departure procedure or the low
; Z' j# r* R% R- C4 Y( Jaltitude ground-based navigation structure into the
4 w7 ?8 p& W7 P$ @0 Chigh altitude waypoint system.
) p. \! G; z- A2 qPLANS DISPLAY- A display available in URET
( ^- \/ R6 Z$ v& \that provides detailed flight plan and predicted+ V8 S/ x/ g" q0 R3 N S
conflict information in textual format for requested) @0 n5 a) j) |: G7 g
Current Plans and all Trial Plans./ }! _9 m3 Q! ~& t
(See USER REQUEST EVALUATION TOOL.)
, M7 J0 I' o* U" x) BPilot/Controller Glossary 2/14/08' \; \, B8 ~6 @& g/ `! g$ E
PCG P-2
0 K i q. x. f3 yPOFZ(See PRECISION OBSTACLE FREE ZONE.), R7 V/ K9 {+ G, k
POINT OUT(See RADAR POINT OUT.)
' O4 S6 o- d# T( c1 _1 l. bPOINT-TO-POINT (PTP)- A level of NRR service
0 l/ A/ K6 w8 F+ U! Yfor aircraft that is based on traditional waypoints in
. F( }( N$ ?4 b" t4 a( X4 O. {( ?their FMSs or RNAV equipage.
& ?4 m* N* t9 X$ DPOLAR TRACK STRUCTURE- A system of" n) `9 U1 c$ E- e8 A* K
organized routes between Iceland and Alaska which
, Z* r0 d# W, \7 u0 |3 W7 joverlie Canadian MNPS Airspace.
' z9 X* |2 ]! A( `( b% {3 q& cPOSITION AND HOLD- Used by ATC to inform a' K/ [' l! l- K- d4 u _% I2 D$ ~
pilot to taxi onto the departure runway in takeoff; ]; s+ o+ S- U: V1 a v- T2 @+ ^9 ^
position and hold. It is not authorization for takeoff.
% Q3 @7 F& z' B% c; J# e' Z; pIt is used when takeoff clearance cannot immediately
$ A" i$ @3 ]0 D5 abe issued because of traffic or other reasons.( A# G- A; m" F
(See CLEARED FOR TAKEOFF.)% O# w" y3 P- s$ J7 ?/ [
POSITION REPORT- A report over a known- b G' D' S* E/ D8 z
location as transmitted by an aircraft to ATC.
5 q7 G; e% u: O: j1 ]/ e(Refer to AIM.)
0 ^$ L, I T0 r: Z: KPOSITION SYMBOL- A computer‐generated Y# F+ w/ e/ D. ~: e
indication shown on a radar display to indicate the
# K- X% H& g% s8 v8 amode of tracking.4 ~# x; n ?! Z8 p3 [. {
POSITIVE CONTROL- The separation of all air
' q6 Y8 e8 v6 J. u/ itraffic within designated airspace by air traffic
m- y, s0 b/ q* [, \7 Econtrol.
1 w) `7 Y9 M' R1 O8 @5 QPRACTICE INSTRUMENT APPROACH- An9 W0 a: g5 K" a2 r
instrument approach procedure conducted by a VFR
6 x7 m3 `8 c3 X: x+ \' {or an IFR aircraft for the purpose of pilot training or" ^$ X$ R' {: D# l9 @# Y
proficiency demonstrations.
4 Q( ?8 q) B* \5 r: mPRE-DEPARTURE CLEARANCE- An application
) B7 v0 `0 N) K* s g bwith the Terminal Data Link System (TDLS) that0 }3 i. |7 K. v3 u/ v0 ^6 F
provides clearance information to subscribers,+ a; g# i F1 D2 }( ~: f3 J0 O
through a service provider, in text to the cockpit or" g0 B+ o9 y S* D, q; p
gate printer.; h2 s5 X0 T8 r" w4 f
PREARRANGED COORDINATION- A standard‐
& | y d4 L( d0 U# k U) l2 o2 }ized procedure which permits an air traffic controller
) h) y+ F4 P& B! mto enter the airspace assigned to another air traffic# J$ g& l2 _% |) s5 l7 w4 ^
controller without verbal coordination. The proce‐" t' k. \! N3 x5 V
dures are defined in a facility directive which ensures4 g) }( ]4 ]. Q9 a+ U# {
standard separation between aircraft.
' r; e W4 i$ z+ h/ {, j& HPREARRANGED COORDINATION PROCE‐
& j7 H% n! k& P- x9 JDURES- A facility's standardized procedure that* a2 r3 m1 z7 l1 m
describes the process by which one controller shall3 g7 g0 m9 I L$ I
allow an aircraft to penetrate or transit another/ Y2 S3 E3 s3 ~- L7 b" o
controller's airspace in a manner that assures standard2 b% A. Q4 K$ S: ^
separation without individual coordination for each
: b- i# d; j9 m; ~4 Qaircraft.
! t8 t0 b( ~$ N9 N' G# P ~PRECIP ITATION- Any or all form s of water
. {7 k3 P; I9 R- y& k( _' v0 gparticles (rain, sleet, hail, or snow) that fall from the; M1 k' y5 I- D% o6 U: N7 {5 j
atmosphere and reach the surface.# B5 n h6 i: e+ y9 e
PRECIPITATION RADAR WEATHER DE‐" j3 B# N$ F" G& z0 U% n
SCRIPTIONS - Existing radar systems cannot detect
5 u, T& y) p2 @( P6 hturbulence. However, there is a direct correlation
" d# d$ _+ c. B+ r# J; E: T6 ~* Ebetween the degree of turbulence and other weather p( N2 t/ B$ S% Z' C/ ~
features associated with thunderstorms and the5 j/ Q. z* p f3 i2 R
weather radar precipitation intensity. Controllers will
1 D5 a4 q) I1 w H3 G, ^9 ]issue (where capable) precipitation intensity as
( l3 J+ T7 ~/ X7 L8 X- k& l8 ?5 iobserved by radar when using weather and radar
" X: ~) }3 R( r V5 ~% z6 uprocessor (WARP) or NAS ground based digital
1 B+ d, o q% _) u8 y+ s) W M- r4 X$ aradars with weather capabilities. When precipitation |0 `" ]6 K+ q R8 k
intensity information is not available, the intensity
9 d3 Y3 v6 _! o" e3 k6 iwill be described as UNKNOWN. When intensity
1 m9 m% @0 G0 W# i. S" B P: Olevels can be determined, they shall be described as:' |6 O. A" B* C# ~
a. LIGHT (< 30 dBZ)
% [- o! d* S1 j0 m. |2 P7 |b. MODERATE (30 to 40 dBZ)0 ~0 ^9 [% O# D B S
c. HEAVY (> 40 to 50 dBZ)& o* O2 [5 @$ g' f
d. EXTREME (> 50 dBZ)5 ]" o6 b- i# Z2 Q/ `- z
(Refer to AC 00-45, Aviation Weather Services.)
: t: d% ?+ r1 V i+ s v( S5 jPRECISION APPROACH(See PRECISION APPROACH PROCEDURE.)$ a+ B0 @+ J6 ]. G2 R# |7 v
PRECISION APPROACH PROCEDURE- A stan‐. H. Z' R# Z+ m$ w) U, |
dard instrument approach procedure in which an7 z) H$ l" ~% A0 [" Y. z
electronic glideslope/glidepath is provided; e.g., ILS,
! o+ I$ r7 t1 H: h0 K) s" a$ QMLS, and PAR.
4 Z' H( ~8 z* w; u+ Z4 y(See INSTRUMENT LANDING SYSTEM.)+ y" Q) o: L+ t9 O) o; r$ `2 H
(See MICROWAVE LANDING SYSTEM.)
! W8 e) @' E' M1 o: g(See PRECISION APPROACH RADAR.)
2 P: T: _4 j( [8 K) |, _7 bPRECISION APPROACH RADAR- Radar equip‐
o# D1 M: b6 n7 Sment in some ATC facilities operated by the FAA
2 f5 H) ?1 n( e; ]5 O- dand/or the military services at joint‐use civil/military
) p4 y7 v6 V. c; N9 Alocations and separate military installations to detect
U, S& j8 c4 T. @9 c8 _% Hand display azimuth, elevation, and range of aircraft
}* ^: t5 w3 @on the final approach course to a runway. This
+ N5 J- B: Z2 `7 F4 y4 Vequipment may be used to monitor certain nonradar
* x3 C) { I7 j3 u# ^- s6 H6 w" Qapproaches, but is primarily used to conduct a: A7 D9 i" H# m# B* b
precision instrument approach (PAR) wherein the
! W9 B" z1 @& B" ` k# Zcontroller issues guidance instructions to the pilot; \7 a0 P% H' W% f
based on the aircraft's position in relation to the final. @- B1 e9 C" |4 d
approach course (azimuth), the glidepath (elevation),/ l1 Y. }! R# g# `) ]3 g
Pilot/Controller Glossary 2/14/08! K1 u& s' M3 |
PCG P-3
9 f$ ]# O3 P- z Cand the distance (range) from the touchdown point on
! d( n" m; D2 L8 M9 qthe runway as displayed on the radar scope.
1 e% F2 p- N% ]Note:The abbreviation “PAR” is also used to
9 c1 ^3 g/ A! n2 W: x6 @ ydenote preferential arrival routes in ARTCC; S; b9 {7 K9 f1 d5 |! n4 m$ K" G
computers.* w' G8 y4 C7 B; s9 U, E1 V- _# l
(See GLIDEPATH.)
; B% v" s* P6 |! N* h& U- x X; c(See PAR.)" X4 q" b' z$ ?8 o! ~- u
(See PREFERENTIAL ROUTES.)
$ A% f7 A0 \# O o(See ICAO term PRECISION APPROACH
4 T. w4 |( U" U, nRADAR.)0 B2 @2 }% N7 a- x! O
(Refer to AIM.)- i9 |9 o4 D. f( c
PRECISION APPROACH RADAR [ICAO]- Pri‐
, X4 Z7 y% U! i) G/ Bmary radar equipment used to determine the position
! g% k- T: {1 g1 D9 K& lof an aircraft during final approach, in terms of lateral
5 |" G: `" ?# _" g6 u7 Pand vertical deviations relative to a nominal approach1 ]6 t# _% X' V
path, and in range relative to touchdown." B. K( B j O9 A1 y, T
Note:Precision approach radars are designed to
0 e- ~& C4 ^; o! h8 Jenable pilots of aircraft to be given guidance by. q. e# J+ S7 h3 o) Q1 S
radio communication during the final stages of the
& w3 @$ ^# f' ~3 h( P5 fapproach to land.
7 B6 j- |# [, _) E4 Q" hPRECISION OBSTACLE FREE ZONE (POFZ)-
0 L) l( E0 Q- k. X k, G0 SAn 800 foot wide by 200 foot long area centered on4 S) h( b$ x+ \6 T
the runway centerline adjacent to the threshold
# K9 ~/ z2 F# Wdesigned to protect aircraft flying precision0 a0 V& s a, \0 u: v
approaches from ground vehicles and other aircraft7 r( U6 _1 p, Y! @, w# k( b
when ceiling is less than 250 feet or visibility is less
$ }1 i/ d' r. j2 K3 K; C8 Vthan 3/4 statute mile (or runway visual range below) E" L$ q3 F6 }; p% j
4,000 feet.)
4 z$ ?) p6 s8 v9 j, P7 H) RPRECISION RUNWAY MONITOR (PRM)- Pro‐
! O, e" q* a2 \0 o( n# G: R4 pvides air traffic controllers with high precision
5 G h9 ^1 Z: x% [) p. |0 Msecondary surveillance data for aircraft on final
6 ^1 |: n1 q# b0 ?- \1 sapproach to parallel runways that have extended% v: K+ M: L1 y; c" _0 j& D
centerlines separated by less than 4,300 feet. High. e6 l* w E$ [0 z5 I
resolution color monitoring displays (FMA) are7 J4 i* t# d2 v, E7 y+ E0 \
required to present surveillance track data to
) C: W' ?# y3 b/ q3 o' z5 y/ Zcontrollers along with detailed maps depicting1 I- H2 d7 q4 _# G0 \
approaches and no transgression zone.
4 Y1 ^8 B9 \ p. f# M" h, YPREFERENTIAL ROUTES- Preferential routes
. c' x. Y; D% Z4 t! O(PDRs, PARs, and PDARs) are adapted in ARTCC, |& l* a( g& m3 p# j
computers to accomplish inter/intrafacility controller
8 X9 K: k. F O/ pcoordination and to assure that flight data is posted at `% g8 K) i& i# P. d- P$ u
the proper control positions. Locations having a need5 B7 W y1 R y7 R
for these specific inbound and outbound routes
' y" z4 \4 x/ e1 x5 C2 knormally publish such routes in local facility
; H: p3 d- @: B0 Bbulletins, and their use by pilots minimizes flight
. ~& d! ]$ W* p6 Qplan route amendments. When the workload or traffic
1 h' f. G! y+ {7 Z# r+ g6 o. psituation permits, controllers normally provide radar5 b9 d1 t6 U: J/ J' ?+ X
vectors or assign requested routes to minimize5 g% g3 k; j; G1 r! }2 Q7 l' _' A
circuitous routing. Preferential routes are usually8 R8 s$ t" Q7 Y1 \
confined to one ARTCC's area and are referred to by
6 C9 z0 s4 l! ]' f6 z6 rthe following names or acronyms:* s1 E/ k' y4 P6 f: z2 P
a. referential Departure Route (PDR). A specific
' ^8 K% L- z9 ]( G( j kdeparture route from an airport or terminal area to an
' `5 l7 `5 h; n0 ~9 Oen route point where there is no further need for flow
; \0 i/ `/ G. M% Z! zcontrol. It may be included in an Instrument" j! T0 K I0 \6 O3 F
Departure Procedure (DP) or a Preferred IFR Route.
8 {" N8 A4 e9 ^3 Z9 t1 [- Z- o8 vb. referential Arrival Route (PAR). A specific
- g( Z" E7 I, C, z& Jarrival route from an appropriate en route point to an; s4 [4 Z- n! q9 j( N; h& R. K# q
airport or terminal area. It may be included in a
* @' z) p' M. j0 a7 v" }+ FStandard Terminal Arrival (STAR) or a Preferred IFR* }* @( j+ |" E. D
Route. The abbreviation “PAR” is used primarily
( ]% |7 \# e3 m1 ^% ^2 fwithin the ARTCC and should not be confused with
! S& X5 a% \! r* q1 A6 ?the abbreviation for Precision Approach Radar.
1 x6 C8 v6 M- W# Gc. referential Departure and Arrival Route
" E- k' O$ W; j/ H o(PDAR). A route between two terminals which are
) D! u4 Y1 O- Z6 f* ?8 x, X( Nwithin or immediately adjacent to one ARTCC's area.
3 Y3 v4 W, p, a- G7 [PDARs are not synonymous with Preferred IFR
) B9 Q: X9 {4 b: _ ^Routes but may be listed as such as they do
: N' P4 u3 r9 Y: gaccomplish essentially the same purpose.
% L2 { |# Y+ c' }6 x ]' B(See PREFERRED IFR ROUTES.)
. o# _' B6 }. N; ^/ m3 V* MPREFERRED IFR ROUTES- Routes established
( Q$ @0 R9 c* p' \' tbetween busier airports to increase system efficiency. Y7 y2 ]/ k5 U' w
and capacity. They normally extend through one or
2 O/ o! e1 C; }* q! r6 d% n6 Jmore ARTCC areas and are designed to achieve m( K' ^) A- v
balanced traffic flows among high density terminals.( s# ?' ]( w6 t. {3 O2 {% Q
IFR clearances are issued on the basis of these routes
% h/ V) n3 A, v8 q, Y( g' G9 ?except when severe weather avoidance procedures or" L' J& J: h% ? j: a
other factors dictate otherwise. Preferred IFR Routes) A- X1 u7 [$ P+ O- T. k, V
are listed in the Airport/Facility Directory. If a flight. ~% u- R8 P# U' S
is planned to or from an area having such routes but
" }4 p" Q) W M- C0 Z6 jthe departure or arrival point is not listed in the' l& W' H! Z4 y7 }$ n1 O1 X, ^
Airport/Facility Directory, pilots may use that part of
& k. y5 F1 ~' Ua Preferred IFR Route which is appropriate for the0 r6 ?9 h l+ X5 F$ z# \# ?
departure or arrival point that is listed. Preferred IFR3 O! v+ b2 e1 N: Q7 g. M& F
Routes are correlated with DPs and STARs and may8 L0 r. R$ X$ s9 y
be defined by airways, jet routes, direct routes
# `( V% a. C+ s1 V* @! _' E* [between NAVAIDs, Waypoints, NAVAID radials/
H3 P* b/ o8 y' x! f4 w9 ADME, or any combinations thereof.
+ m# X2 i( m; E6 N(See CENTER'S AREA.)% I, ]6 ?, Y) }2 ?8 I; L9 d
(See INSTRUMENT DEPARTURE
( l) a u" ^5 s# }PROCEDURE.)9 n4 T6 X! h! b& ?
(See PREFERENTIAL ROUTES.)% t# a1 \3 m. k
(See STANDARD TERMINAL ARRIVAL.)( Z' L4 {5 @; j: @5 _* Y
(Refer to AIRPORT/FACILITY DIRECTORY.)% X6 r3 v6 ~! ^* z
(Refer to NOTICES TO AIRMEN PUBLICATION.)" v. l: D! b$ g# T/ h
PRE‐FLIGHT PILOT BRIEFING(See PILOT BRIEFING.)
' W5 s" i0 Y/ n& F! G1 yPREVAILING VISIBILITY(See VISIBILITY.)
0 ` w4 x$ ] |3 z+ ^Pilot/Controller Glossary 2/14/08
- r( Y* A9 `8 Y S% G2 `5 XPCG P-4
. `( ?7 ~ @' o0 zPRIMARY RADAR TARGET- An analog or digital' A, {( k# s* z3 K; w: j+ `, t
target, exclusive of a secondary radar target,
0 M, N8 N9 O y- ]presented on a radar display.
+ l0 z7 ?: y" O; ]PRM(See ILS PRM APPROACH and PRECISION
" \) G- Y* z! c. }$ ` VRUNWAY MONITOR.). x6 Z9 l4 B/ ^3 d' h: X* E
PROCEDURE TURN- The maneuver prescribed$ n1 @0 w+ a: l, c1 m2 }
when it is necessary to reverse direction to establish
. H# Y7 i# \! @8 a- `& p7 van aircraft on the intermediate approach segment or& N% T( N) I: M
final approach course. The outbound course,: F3 @- T" F! U+ J; F' A
direction of turn, distance within which the turn must
1 Z( U; Q) l- i$ }. q: Y+ w# |be completed, and minimum altitude are specified in% t' ~, G$ P1 _; u
the procedure. However, unless otherwise restricted,
3 ^" n, l3 S( }2 J* l! ]$ Q6 [* Vthe point at which the turn may be commenced and6 V! b' i( o! d+ E6 ^+ B2 s- x
the type and rate of turn are left to the discretion of the- A) {7 N* e- p5 o
pilot.1 A7 |/ O& }: q* m: A" c- @4 \; Z' b
(See ICAO term PROCEDURE TURN.)
, s- x( P" Q$ I8 dPROCEDURE TURN [ICAO]- A maneuver in
2 `8 f; f: V* n) fwhich a turn is made away from a designated track
+ y8 w( u' W/ o: `- mfollowed by a turn in the opposite direction to permit
2 |9 C# V5 f; o) Cthe aircraft to intercept and proceed along the; g$ N: }7 {' [4 l4 O
reciprocal of the designated track.
4 c8 i; o" s: v+ l) Y- yNote 1:Procedure turns are designated “left” or
" d' S- t: R: R4 Q% l! D: N8 d“right” according to the direction of the initial turn.
8 p' K8 G5 R w. ZNote 2:Procedure turns may be designated as; n- @% J4 ^: T: q2 h
being made either in level flight or while
( z5 B( L; j* h: V& }" l% |descending, according to the circumstances of$ T$ V6 P# N9 x( a. v6 ~2 R
each individual approach procedure.
3 q$ t N' h7 {: iPROCEDURE TURN INBOUND- That point of a
( S1 ]* O$ b G! }( n1 rprocedure turn maneuver where course reversal has$ k4 _; l) P9 r2 s
been completed and an aircraft is established inbound
5 C; [% U$ }% G7 U# T+ Con the intermediate approach segment or final0 b5 ]# b i+ M5 P) j
approach course. A report of “procedure turn
! f# D! v0 |$ j P$ Tinbound” is normally used by ATC as a position H. E7 K$ `' ]
report for separation purposes.( N: v0 e* k' C& q0 i# y. E
(See FINAL APPROACH COURSE.)9 P& ]. g* ^+ B6 a8 c% m. C
(See PROCEDURE TURN.)& A- ?3 y7 ?! |7 F6 {, j$ v
(See SEGMENTS OF AN INSTRUMENT0 F1 O! M. K8 m; c% B4 ^
APPROACH PROCEDURE.)" e* q. q% [' @+ ]
PROFILE DESCENT- An uninterrupted descent9 }" j8 ^; j! \! y
(except where level flight is required for speed, ~# o- l5 u# c2 c2 L
adjustment; e.g., 250 knots at 10,000 feet MSL) from
x# `4 v2 J* {/ i6 z# F; ycruising altitude/level to interception of a glideslope+ p5 E# ]/ N$ j" x7 p* S
or to a minimum altitude specified for the initial or
- |% h4 F3 \. n U2 [# h) m9 Vintermediate approach segment of a nonprecision
9 U" W2 P E! ~# u8 binstrument approach. The profile descent normally3 U& q! j5 F6 a( H2 P4 `) Z
term inates at the approach gate or where the
6 G; G& E4 _: I" Jglideslope or other appropriate minimum altitude is" N( ^, A9 b! T! ~
intercepted.
* H- k; a1 c0 J a0 PPROGRESS REPORT(See POSITION REPORT.)$ A% r. M4 L; P' @
PROGRESSIVE TAXI- Precise taxi instructions
( n4 _' Z( B! f: F: ogiven to a pilot unfamiliar with the airport or issued0 {0 H& W* V- B: k' {7 ~
in stages as the aircraft proceeds along the taxi route.% s) ?' t$ s" l+ H
PROHIBITED AREA(See SPECIAL USE AIRSPACE.)( U" J: S8 I# ?% e5 r* r! X
(See ICAO term PROHIBITED AREA.)1 x9 u+ D' q# f' U
PROHIBITED AREA [ICAO]- An airspace of+ g9 k1 @* f9 S8 ? @
defined dimensions, above the land areas or territorial/ L4 }: \* X3 M8 f* G+ j
waters of a State, within which the flight of aircraft
# D& u9 Q% P- g His prohibited.& `4 \; I6 N- E2 p0 F% o
PROPOSED BOUNDARY CROSSING TIME-" ?! J' L4 i3 B! p" U( T
Each center has a PBCT parameter for each internal
& q: }! j3 ^; O1 u6 lairport. Proposed internal flight plans are transmitted
1 M' k6 f! C3 Z: i. U( Nto the adjacent center if the flight time along the8 { {3 c- d5 J: U) {9 d
proposed route from the departure airport to the
* F, ]5 q5 w6 \; H3 i$ z8 c$ acenter boundary is less than or equal to the value of! [: f6 T" V0 D. U8 a7 X
PBCT or if airport adaptation specifies transmission" r, B" Q2 n! {' O$ S
regardless of PBCT.' H* h" S) H, b) l; B _$ N- R( Y5 ^+ @
PROPOSED DEPARTURE TIME- The time that the1 M2 r/ O( P( V- Q
aircraft expects to become airborne.. Y2 k4 n2 P; }; W
PROTECTED AIRSPACE- The airspace on either
5 M6 l5 N5 l8 x H, {3 Yside of an oceanic route/track that is equal to one‐half
- R2 R# I1 ]$ B. Jthe lateral separation minimum except where. L! G- m5 ]* M6 M8 w6 ?6 l" x0 c& I
reduction of protected airspace has been authorized.
2 M' W2 j2 n7 Q9 N8 ?6 [$ jPT(See PROCEDURE TURN.)- V6 A1 g1 ~" y4 P& W# [3 v
PTP(See POINT-TO-POINT.)
$ [- ?5 l" V9 F8 a c( ^PTS(See POLAR TRACK STRUCTURE.)
( w1 \; d K/ v9 V YPUBLISHED ROUTE- A route for which an IFR
4 d' G8 y# X! l" t5 v4 Saltitude has been established and published; e.g.,
) @$ l6 A4 s. r1 h0 ~. SFederal Airways, Jet Routes, Area Navigation" u" H/ e$ x4 X8 Y
Routes, Specified Direct Routes.
+ d! w7 Z J6 P% n7 m, iPilot/Controller Glossary 2/14/08, N/ r! P, ~# F( F) r+ g" q
PCG Q-1: L. {3 G$ Y4 h/ X
Q0 X% k2 ~* j0 T4 Z7 n; Q- |; r8 x
Q ROUTE- `Q' is the designator assigned to$ g* y/ r1 D B2 Z
published RNAV routes used by the United States.! r+ x0 n6 A- w- S
QNE- The barometric pressure used for the standard
/ B$ \) H5 D ?. Ealtimeter setting (29.92 inches Hg.).0 d" B+ q' i- x8 q
QNH- The barometric pressure as reported by a4 l8 [1 d" J C
particular station.
2 g% v$ e; X2 m# ^- a) C1 UQUADRANT- A quarter part of a circle, centered on; q f1 L& c& W! O5 I
a NAVAID, oriented clockwise from magnetic north/ ?# u O! R: Q3 k' r) W+ D) z
as follows: NE quadrant 000‐089, SE quadrant
7 E2 \. w! I/ p3 ?( K5 |, u v; Y090‐179, SW quadrant 180‐269, NW quadrant
$ u7 {9 J) |- C270‐359.& f4 ~8 T- s( p# }; N7 F8 ]
QUEUING(See STAGING/QUEUING.)/ U9 m! R4 M" s& U
QUICK LOOK- A feature of the EAS and ARTS! ` Y: O5 g/ p" K3 b
which provides the controller the capability to
9 a% G. n5 q1 v5 K" ]! s6 mdisplay full data blocks of tracked aircraft from other
* _$ B( W; j$ F0 q, Q1 {control positions.
9 e6 G' J% C) APilot/Controller Glossary 2/14/08' q7 f, p! ], ]8 J2 g( n; ]
PCG R-1
4 B1 \& i1 I1 F) ER& F! |9 m" m \3 W5 P- \
RAA(See REMOTE AIRPORT ADVISORY.)
; y) c2 m% D% g" TRADAR- A device which, by measuring the time/ ^& S& v: E3 a6 x% J' D
interval between transmission and reception of radio! j9 `$ i8 R3 t- T4 k, [! y" l
pulses and correlating the angular orientation of the
6 \6 h' Q& D; j! r% Q+ W( T3 Dradiated antenna beam or beams in azimuth and/or
4 R( {9 l) r9 f1 ielevation, provides information on range, azimuth,/ \$ E3 v5 X7 W) B
and/or elevation of objects in the path of the
$ |5 k f' V q0 z1 P1 R3 W- Ltransmitted pulses.9 _8 K9 G0 t2 S1 i
a. rimary Radar- A radar system in which a
8 w1 C9 [7 O0 U, X ?0 @minute portion of a radio pulse transmitted from a site. f& k& [( M' M: H) x' {! S
is reflected by an object and then received back at that
( I8 D# `7 S% k* O0 F! fsite for processing and display at an air traffic control6 R- `9 [! g! a- E" Q
facility.3 ~- ~! P% G) V
b. Secondary Radar/Radar Beacon (ATCRBS)- A* z5 N9 z3 f ?7 W, g
radar system in which the object to be detected is6 j0 ^$ s2 W1 V( A: T* w& B& t# z
fitted with cooperative equipment in the form of a
3 j" ^8 y: s1 B0 v4 Iradio receiver/transmitter (transponder). Radar
1 S- B! k& |) W$ a2 {pulses transmitted from the searching transmitter/re‐8 o1 w$ U1 e- c. N
ceiver (interrogator) site are received in the
% y, `6 h2 p3 B' y& lcooperative equipment and used to trigger a4 U( u5 T5 R% A7 s
distinctive transmission from the transponder. This
, A# E# z; ^/ [: ]reply transmission, rather than a reflected signal, is
9 |; o' F0 l. F$ O' n- pthen received back at the transmitter/receiver site for
4 }& s; m/ H5 H7 qprocessing and display at an air traffic control facility.# f$ X. g# A! s ~
(See INTERROGATOR.)' n! z3 _9 P6 d$ n7 S/ z
(See TRANSPONDER.)
) `0 n! \2 L$ a! S(See ICAO term RADAR.)
: H( B Y! _3 D% I(Refer to AIM.)3 R+ P- u' W0 Y, G- m$ R" v @
RADAR [ICAO]- A radio detection device which* z3 Y& N8 p# m! [) ^. L
provides information on range, azimuth and/or
' q5 }1 Q% `1 f8 c" a: m$ T, yelevation of objects.( p4 |* K. [+ I7 t4 [) `
a. rimary Radar- Radar system which uses
- l( {1 S m q* ~& Creflected radio signals./ p% I" e! ^2 L5 z5 O4 e
b. Secondary Radar- Radar system wherein a
* L. s5 l8 X' u y, _% F: Oradio signal transmitted from a radar station initiates
* c) g- d. S5 Gthe transmission of a radio signal from another ?$ ?# K/ v3 u, U7 N7 \$ T% L
station.
' q8 b1 R3 {8 m" L8 _3 l X6 hRADAR ADVISORY- The provision of advice and( Q' }, D( y: z5 W4 o4 T5 V
information based on radar observations.
- @5 F: F! \4 ?- r. ]2 D+ R(See ADVISORY SERVICE.): @2 L9 h% i+ b4 L( m
RADAR ALTIMETER(See RADIO ALTIMETER.)5 N: n1 M9 L7 E. [; l' R& p- n
RADAR APPROACH- An instrument approach
* a' H! O1 F2 [3 b9 e* E% S3 {procedure which utilizes Precision Approach Radar
* g4 |& y; e2 E# s9 c/ v) Y: E" h3 @" G(PAR) or Airport Surveillance Radar (ASR).
+ s; X/ p O5 P7 z: ] s(See AIRPORT SURVEILLANCE RADAR.)" p8 @6 k8 M+ j9 r
(See INSTRUMENT APPROACH- `/ y. g5 J6 m7 L; B" Y
PROCEDURE.)$ L y% I/ n' J% ~" p" n. F
(See PRECISION APPROACH RADAR.)
) K, C2 \2 u. V$ b(See SURVEILLANCE APPROACH.)
* [& s# f, v( _: q0 h# h! [. E6 R(See ICAO term RADAR APPROACH.)
7 v# ^3 V" N4 X+ Y$ D(Refer to AIM.)! b7 m$ _* M9 w& `
RADAR APPROACH [ICAO]- An approach,
7 \. X$ k b- O4 O2 f0 _1 o1 cexecuted by an aircraft, under the direction of a radar: T: e/ d, k# d6 K: l; z K/ r
controller.1 Z9 u9 T; c* q& F' e
RADAR APPROACH CONTROL FACILITY- A' o/ i* k! _% h _
terminal ATC facility that uses radar and nonradar0 D/ _" E4 O, t6 O
capabilities to provide approach control services to
1 A- b8 _: U5 l, B4 E! R) Vaircraft arriving, departing, or transiting airspace
* s, w% o6 X3 o/ U7 m3 u7 a, Econtrolled by the facility.
6 [/ E) ?/ A' O0 I(See APPROACH CONTROL SERVICE.)
) V" k* a& Z B4 h u) [a. rovides radar ATC services to aircraft
+ }8 v7 R# y2 \operating in the vicinity of one or more civil and/or
$ j& B$ v3 ~! ?% j7 ]8 \military airports in a terminal area. The facility may
6 @" \; S; `3 eprovide services of a ground controlled approach
9 U4 A$ B0 v" Z8 y(GCA); i.e., ASR and PAR approaches. A radar: ~3 g( Z/ v4 p+ M; Q2 z a2 c* p
approach control facility may be operated by FAA,, h: p- k/ Q+ E9 V+ \$ N& C, i
USAF, US Army, USN, USMC, or jointly by FAA
- p) \# g% l$ M+ ^and a military service. Specific facility nomencla‐( C( {/ |$ v& x- {# x% R$ |
tures are used for administrative purposes only and
) |0 [4 N6 F0 |5 r% Fare related to the physical location of the facility and- I$ q+ n" D3 q
the operating service generally as follows:5 V, q1 r5 e G9 S
1. Army Radar Approach Control (ARAC)0 k: R( `# F# D8 f, n
(Army). k* X1 x7 B. {; W; M
2. Radar Air Traffic Control Facility (RATCF)
7 i9 \% | _5 {" a(Navy/FAA).: [* U- @! _: K- V% e7 |
3. Radar Approach Control (RAPCON) (Air' F1 a: C4 l' [
Force/FAA).: ]0 F0 O9 _. Z0 z- a
4. Term inal Radar Approach Control
7 F* Y& R, t. L* ]. V(TRACON) (FAA).
! O# a' h. Q4 b" X. N; k- h) O5. Air Traffic Control Tower (ATCT) (FAA).
0 e1 z- a, M. z N- V7 r(Only those towers delegated approach control/ H5 b# ?7 F2 o: d( ?
authority.)
+ o" [$ b- v& FRADAR ARRIVAL- An aircraft arriving at an
# F; U! |) [, o# mairport served by a radar facility and in radar contact, N$ X# u! U* i) z9 L i' c! v7 N
with the facility.
1 F/ q; l+ p% j3 A(See NONRADAR.)4 V9 ^, [0 X% _9 m+ G2 w
Pilot/Controller Glossary 2/14/08
% G0 \/ l/ T. K! tPCG R-2
2 t6 K. a8 b9 N& B: e1 ~RADAR BEACON(See RADAR.)
: @2 R$ r8 }! H6 v1 ZRADAR CLUTTER [ICAO]- The visual indication3 y" G& H/ G2 h9 b" v
on a radar display of unwanted signals.
" M3 ?- k+ H3 Z5 O) n. U7 V% ARADAR CONTACTa. Used by ATC to inform an aircraft that it is- j1 U/ P2 Q7 E3 E2 t
identified on the radar display and radar flight' ]5 L$ K3 `) C% }* Q/ i' N& K! J& Q
following will be provided until radar identification& n( D! [% P+ r1 U& n
is terminated. Radar service may also be provided4 P0 E- S, j$ S; z. p& y2 ?+ P
within the limits of necessity and capability. When a5 c# [1 t+ c8 s" r) |
pilot is inform ed of “radar contact,” he/she
f" \" l+ W1 e& Cautomatically discontinues reporting over compulso‐
. l/ q7 l# [2 r0 v6 c' nry reporting points.; \8 g1 @8 v8 m" Y) g
(See RADAR CONTACT LOST.)
6 T8 ?: {# T8 G(See RADAR FLIGHT FOLLOWING.). C1 g* O1 O; _
(See RADAR SERVICE.)4 G9 P0 R( @1 v. k$ b
(See RADAR SERVICE TERMINATED.)
" d+ R$ O: b" i(Refer to AIM.)* x9 a! p4 {/ u
b. The term used to inform the controller that the
! l$ N# G' W; a6 saircraft is identified and approval is granted for the9 D- s& P/ ]/ z7 |1 ?
aircraft to enter the receiving controllers airspace.0 O* [6 |4 I3 }; a' F
(See ICAO term RADAR CONTACT.)5 B* O2 B% D; m; q
RADAR CONTACT [ICAO]- The situation which
$ a9 g; P( |* Eexists when the radar blip or radar position symbol of* Z, R. }+ ^( m/ |5 Y; _
a particular aircraft is seen and identified on a radar
t [& y: b% x! n# }, b; j# mdisplay.
, e# H5 S4 r$ H' [- ]" O( H8 C1 t0 R7 xRADAR CONTACT LOST- Used by ATC to inform
: s0 n( \' v, y& w/ La pilot that radar data used to determine the aircraft's
6 D! _6 G9 z- |position is no longer being received, or is no longer/ S; Q; t! q$ _: H
reliable and radar service is no longer being provided.
; C8 k3 K/ q0 F, ^" qThe loss may be attributed to several factors
- f+ ~& I1 q+ sincluding the aircraft merging with weather or ground. `4 ]' n. T. C& z9 m, B9 u
clutter, the aircraft operating below radar line of sight, z: z) l$ k# q& t" f6 f
coverage, the aircraft entering an area of poor radar' E! w9 b1 `) @: j$ w
return, failure of the aircraft transponder, or failure of* A2 w4 W* f2 Z" G2 m, k# w; ^
the ground radar equipment." x, A/ _( E( ^) H+ X+ t
(See CLUTTER.)& b" Y0 M, o7 B' l1 ]; f. h; b2 x( D
(See RADAR CONTACT.): I' _# A1 R1 ~1 ?6 G! J0 s3 Z
RADAR ENVIRONMENT- An area in which radar9 Z% M5 }; Y0 c# d6 ?! j
service may be provided.' c" ?. Y+ V5 S0 Y+ a0 v4 j4 S( Y
(See ADDITIONAL SERVICES.)
* {1 P0 x5 n* d5 @) u(See RADAR CONTACT.)( Q8 w/ ?' W0 N. F& n
(See RADAR SERVICE.); O+ L" W4 ~) b- X6 h6 s# e/ O
(See TRAFFIC ADVISORIES.)
0 H) _ x* \, U- g: f5 B5 {RADAR FLIGHT FOLLOWING- The observation z; S/ b* h; \; \4 W1 Q
of the progress of radar identified aircraft, whose
% _6 D5 }, `! Y. Sprimary navigation is being provided by the pilot,
, ]3 |. W0 Q- S; u7 d( ]- Q; awherein the controller retains and correlates the1 }( X: _7 h7 b
aircraft identity with the appropriate target or target% x# y( C' D# k. z& J5 Z2 W; |9 }4 T
symbol displayed on the radar scope.
0 E/ M W$ _7 R# I; L(See RADAR CONTACT.)
8 L/ I; N8 g! m! O( h- X0 ?1 |(See RADAR SERVICE.)
; H3 L5 s; R7 D" F4 y2 f. P(Refer to AIM.)
- k$ ^2 ~" C6 G4 `RADAR IDENTIFIC ATION- The process of9 v) b3 P$ h( j# m0 u; ~. U
ascertaining that an observed radar target is the radar% K1 i+ z$ {5 s
return from a particular aircraft.4 s* z+ j* e! @0 Y% U7 u# Y
(See RADAR CONTACT.)% y, k: n9 ^/ R
(See RADAR SERVICE.)1 E1 g- L; y; N0 c
(See ICAO term RADAR IDENTIFICATION.)
# u: H6 j3 P/ X/ a. U5 `3 P6 [RADAR IDENTIFICATION [ICAO]- The process% U3 @& t6 t. Q* H
of correlating a particular radar blip or radar position
. o# S; w/ L5 P3 J) Vsymbol with a specific aircraft.
4 e5 s+ o6 K0 K& x- z$ h5 d- E5 nRADAR IDENTIFIED AIRCRAFT- An aircraft, the
& j- x9 p/ w* Z4 y Aposition of which has been correlated with an* Q# J- P3 U u, z
observed target or symbol on the radar display.
4 [- z! V+ c* H$ Q+ e(See RADAR CONTACT.)& s' y; Y( E' s; a& d. |/ O
(See RADAR CONTACT LOST.): C5 e( ^2 L" ~$ y' [
RADAR MONITORING(See RADAR SERVICE.)9 ?$ Z9 K8 ]/ C! v. i1 o C
RADAR NAVIGATIONAL GUIDANCE(See RADAR SERVICE.)
4 h4 J3 l/ g6 C! v3 W# ARADAR POINT OUT- An action taken by a
: B& ^& B9 D" N. \controller to transfer the radar identification of an
1 q4 W9 k5 f5 l7 Z, ]0 taircraft to another controller if the aircraft will or may- U) f: ]3 w, d; @& U; C' ~
enter the airspace or protected airspace of another, [' _% H7 s3 b# C$ R8 i, ?
controller and radio communications will not be8 ], E' n% |$ F0 W
transferred.
3 F% S# {* [/ D3 y% ]. XRADAR REQUIRED- A term displayed on charts5 y. v' C; k! l4 n* V$ X0 B
and approach plates and included in FDC NOTAMs# i! ]- W6 g5 x, t. Y/ M4 J, ^+ ^3 T
to alert pilots that segments of either an instrument
- B2 _+ a$ E' K; napproach procedure or a route are not navigable
9 Y0 M* x1 }2 L: \- [because of either the absence or unusability of a
# X& t, F s. ]" J0 KNAVAID. The pilot can expect to be provided radar
# n) L& L$ H1 B) [3 q! C8 Enavigational guidance while transiting segments
# p( J! l( V) g1 }labeled with this term.
, R" V& V) T) Z/ i- n7 O(See RADAR ROUTE.)
- x8 }) M$ A1 R( ^. U" Y/ w, T(See RADAR SERVICE.)
& M S: V% D7 B- ?; M) s% GRADAR ROUTE- A flight path or route over which
" ?1 j/ K/ w X1 P9 [; Can aircraft is vectored. Navigational guidance and" @3 H6 B7 p; [* H! z1 f
altitude assignments are provided by ATC.! K& p5 k3 [( D' e/ ~
(See FLIGHT PATH.)7 X1 e; s1 m$ I( P( }
(See ROUTE.)( r+ A! [) v. [, P9 }* N* Y9 M( j) a
RADAR SEPARATION(See RADAR SERVICE.); h: s% u* ~" f) D1 [: k! A
Pilot/Controller Glossary 2/14/08" Z5 L/ M0 Q$ Q4 ~ `! u
PCG R-39 h: Z8 G% w1 n" Y( s4 |6 C
RADAR SERVICE- A term which encompasses one0 v: c- k+ \5 f. N$ G3 F3 e) ~, o
or more of the following services based on the use of3 Y+ [6 n6 n( d$ Q; R) J1 Q
radar which can be provided by a controller to a pilot
: |! v+ Z1 k% Q# ~. o4 N/ lof a radar identified aircraft.
5 p' {- z* z) T# ~a. Radar Monitoring- The radar flight‐following: d7 T5 J& R0 l8 Q0 [6 ~( X
of aircraft, whose primary navigation is being5 B- D" L; D( V, W! t9 @3 F6 Q
performed by the pilot, to observe and note deviations5 ?$ S( E' H1 \7 z8 S5 r# @; t5 F
from its authorized flight path, airway, or route.& O/ p$ M! m1 x# E& O/ w& @
When being applied specifically to radar monitoring
. r- P/ j! v b0 [5 z) Gof instrument approaches; i.e., with precision
. Q; i4 [) H- t; P/ m& F B# r& Aapproach radar (PAR) or radar monitoring of
, s( e6 D2 i1 Q2 [8 ^5 `8 psimultaneous ILS/MLS approaches, it includes
: [& v/ G- q' C8 ladvice and instructions whenever an aircraft nears or
# }/ r. ]3 u) Y, X' Kexceeds the prescribed PAR safety limit or. I- q4 ^, Z4 O7 p6 t
simultaneous ILS/MLS no transgression zone.! t, h! |2 } b: S
(See ADDITIONAL SERVICES.)
, `' |+ [3 }( y6 H8 s(See TRAFFIC ADVISORIES.)+ W6 [* d4 q8 ?$ V, w ~! |& M( _
b. Radar Navigational Guidance- Vectoring
+ F( l9 Y* O# p+ G, _+ A& k7 baircraft to provide course guidance.% C- }0 z9 S6 W7 A6 ?* U' V
c. Radar Separation- Radar spacing of aircraft in5 r% |# k6 ^$ o: W7 k" }
accordance with established minima.
' Z' c+ b# o3 u(See ICAO term RADAR SERVICE.)
1 t- X+ R6 G! g1 vRADAR SERVICE [ICAO]- Term used to indicate
3 w. L7 ?" n r2 e4 D* Ya service provided directly by means of radar.
/ J( |7 w& k8 b+ F7 Q, x1 l- Oa. Monitoring- The use of radar for the purpose of
S/ L) r1 j" `providing aircraft with information and advice) `* \% u3 o* `
relative to significant deviations from nominal flight- S- \5 I( a8 S4 F, N
path.
, l: Z7 ~/ K$ H2 Bb. Separation- The separation used when aircraft
+ L* ]2 X. K( H8 [5 X8 b7 b2 Rposition information is derived from radar sources.
: j% e( E, _" p; A; s) uRADAR SERVICE TERMINATED- Used by ATC% w* ~, a& l9 j3 F( i; U7 h- E. n
to inform a pilot that he/she will no longer be) P$ [$ o# i; f/ i8 j
provided any of the services that could be received
" u J6 V1 Q' P8 Vwhile in radar contact. Radar service is automatically$ ~- a, B( ^. ?, F
terminated, and the pilot is not advised in the
. C" \/ m# s6 i% G& _4 Q+ N nfollowing cases:
/ _8 Y% A5 o9 Q0 Na. An aircraft cancels its IFR flight plan, except
p1 s+ _% \9 o* ^3 `4 C1 H" Awithin Class B airspace, Class C airspace, a TRSA,! i3 ^2 Z9 U2 q6 h7 x
or where Basic Radar service is provided.. B5 g; U8 | {
b. An aircraft conducting an instrument, visual, or
2 e$ R0 w$ W/ P' N" Z tcontact approach has landed or has been instructed to* C& G j4 l& |- h; M5 z1 T
change to advisory frequency.
$ f) c% B$ i( Gc. An arriving VFR aircraft, receiving radar
9 J' r) y. a/ Gservice to a tower‐controlled airport within Class B2 `& j( }# C/ C* B0 u3 D
airspace, Class C airspace, a TRSA, or where$ m7 Z; _4 `+ E' j/ T8 F. n
sequencing service is provided, has landed; or to all ~+ p# r- ~ k2 M
other airports, is instructed to change to tower or
& Y* i/ Q1 z% p% a/ aadvisory frequency.: i' L0 f# k2 B/ R1 h% Y- K
d. An aircraft completes a radar approach., }1 r) i, c% V+ F4 {( @; E
RADAR SURVEILLANCE- The radar observation0 K4 `: q8 _( k @
of a given geographical area for the purpose of
2 J) x4 L( o9 y; sperforming some radar function.) {( s/ ?7 i1 ^7 n$ {8 n
RADAR TRAFFIC ADVISORIES- Advisories! ?) E: u+ S- z" C0 D
issued to alert pilots to known or observed radar0 O& Y3 t- x! r! g; B
traffic which may affect the intended route of flight$ X0 L& f g% Q; M$ O0 Z* |* k9 ^; k
of their aircraft.6 t. F$ q1 t+ j$ K H B
(See TRAFFIC ADVISORIES.)
+ B4 c! I5 r* N+ WRADAR TRAFFIC INFORMATION SERVICE(See TRAFFIC ADVISORIES.)
- I0 l1 x1 g( w' A4 \) |RADAR VECTORING [ICAO]- Provision of$ f% B7 g& n d) Z8 o
navigational guidance to aircraft in the form of4 T0 u! u$ V! ~7 h- z }7 b
specific headings, based on the use of radar.) t6 k! O5 k# [* V8 @$ P7 I( }
RADIAL- A magnetic bearing extending from a6 }# @9 u7 }8 n+ t1 j2 U% e# D
VOR/VORTAC/TACAN navigation facility.8 w) l5 e" j( b7 s2 _* g
RADIOa. A device used for communication.
( m4 K& ~+ D! Gb. Used to refer to a flight service station; e.g.,
! J' ?6 `* N) j“Seattle Radio” is used to call Seattle FSS." E; W6 W# m$ e. o
RADIO ALTIMETER- Aircraft equipment which0 {: Y0 g$ \: A
makes use of the reflection of radio waves from the; V( [0 I$ r8 J
ground to determine the height of the aircraft above! q8 z+ Q( [( E) ?
the surface.
( E/ ?. _9 M, H1 m$ aRADIO BEACON(See NONDIRECTIONAL BEACON.)
! D! v t3 Q: G: y$ _0 X7 wRADIO DETECTION AND RANGING(See RADAR.)) O5 `; x# ]8 w5 i2 s( s
RADIO MAGNETIC INDICATOR- An aircraft9 [( {4 h- A% D3 L) Y
navigational instrument coupled with a gyro compass
- |3 x! t: E0 W6 _' W9 Sor similar compass that indicates the direction of a
6 |' c7 _ T% @0 r. Xselected NAVAID and indicates bearing with respect
% A; q) e( b1 [" ?. Nto the heading of the aircraft.! ? T% k+ j/ V7 Z$ \ x
RAIS(See REMOTE AIRPORT INFORMATION. q+ j8 v1 f0 r# \0 L
SERVICE.)
( `2 |7 E! |& @/ r9 [9 ~ {/ [# aRAMP(See APRON.)' I4 f2 h& a( b+ p: ^, R
RANDOM ALTITUDE- An altitude inappropriate
8 U- S: m2 {, w6 v4 H" Q/ nfor direction of flight and/or not in accordance with2 N% Z3 w# d7 [0 @0 X
FAAO JO 7110.65, Para 4-5-1, VERTIC AL
0 E) x* t* Y" Q6 y" `$ fSEPARATION MINIMA., u; ]' {2 e1 k( d
Pilot/Controller Glossary 2/14/08) s4 l( k/ E, K7 Z0 `
PCG R-4
@* o: s: M9 t* e* tRANDOM ROUTE- Any route not established or
* D* \6 r/ t7 B3 @& Q; s' R7 }5 [+ tcharted/published or not otherwise available to all
6 J( }5 ~8 v% x$ v7 D) Xusers.
0 J1 y K4 k1 w1 V# P' rRC(See ROAD RECONNAISSANCE.)2 O+ i; y4 N6 A
RCAG(See REMOTE COMMUNICATIONS0 o# b' |# a9 Q/ y; J! j
AIR/GROUND FACILITY.)+ f" @/ B, w, }, Q
RCC(See RESCUE COORDINATION CENTER.)
) @' ]9 w t2 ~! d0 }! Z# pRCO(See REMOTE COMMUNICATIONS OUTLET.)
) e/ G; d" |3 s# q' k0 i8 iRCR(See RUNWAY CONDITION READING.)+ ~- d% N; u# I6 ]
READ BACK- Repeat my message back to me.0 h$ C6 F4 W) W
RECEIVER AUTONOMOUS INTEGRITY MON‐
: p: _! s, D& z% r* ~3 H, T- @3 X, T( IITORING (RAIM)- A technique whereby a civil
( h5 R( U" G4 G& |/ m2 R V/ DGNSS receiver/processor determines the integrity of) o3 [7 Q4 z. M2 b! G& e
the GNSS navigation signals without reference to$ {+ q. Q7 D* @: D2 X6 T
sensors or non‐DoD integrity systems other than the8 c3 x- N9 o# ?- o+ @8 i5 B
receiver itself. This determination is achieved by a
5 S- y" b' p9 m0 ] econsistency check among redundant pseudorange, p7 f" @6 k& B4 b( L
measurements.3 y5 A6 J* }$ \/ x0 P$ g7 H
RECEIVING CONTROLLER- A controller/facility
% H# {( t1 K. Kreceiving control of an aircraft from another4 ?, ~. U& }6 c- L+ M
controller/facility.
; X# B" x' J; g$ t- B! a, LRECEIVING FACILITY(See RECEIVING CONTROLLER.)
7 s. u4 ?6 a2 d) ~. N% I6 A: dRECONFORMANCE- The automated process of
. r5 O9 y9 X4 m+ tbringing an aircraft's Current Plan Trajectory into% ~2 W# h7 r" R U9 N: s% v3 C
conformance with its track.
6 w; f; h5 _0 c6 H: T9 O+ V# B. dREDUCE SPEED TO (SPEED)-
5 {4 y. Q9 q/ n0 M( q" f4 \! A" L(See SPEED ADJUSTMENT.)
2 |0 a% \$ W+ iREIL(See RUNWAY END IDENTIFIER LIGHTS.)6 w/ N% n( G: n
RELEASE TIME- A departure time restriction/ J) K) |+ U: l( j$ T' ?
issued to a pilot by ATC (either directly or through an
7 [ t; Q3 u, a: C, xauthorized relay) when necessary to separate a
" @ K: E9 \9 I3 N0 Z( Pdeparting aircraft from other traffic.
8 f( N) w9 I) j; A9 B8 ?$ Z(See ICAO term RELEASE TIME.)2 k, W7 ^& i5 J) L$ u) {) v7 H
RELEASE TIME [ICAO]- Time prior to which an
& m8 B$ a k" e5 k5 [: M: \aircraft should be given further clearance or prior to
2 x: N, _6 I/ D/ p* b' r7 Cwhich it should not proceed in case of radio failure.
% k4 s' z3 W5 Q9 F0 t' d$ qREMOTE AIR PORT ADVIS ORY (RAA)- A
4 a$ Y( r- e% ?& c4 ~remote service which may be provided by facilities,
. x. k0 i/ r" o2 W, Zwhich are not located on the landing airport, but have
2 N; ]: v) u# k7 Ba discrete ground-to-air communication frequency/ N% ?9 i" K- w/ v, p& {
or tower frequency when the tower is closed,! H( [# d s7 n+ j3 T5 X6 _
automated weather reporting with voice available to+ z1 R9 @2 z! {/ W
the pilot at the landing airport, and a continuous
{% J" y G1 a2 f* L8 \" L6 j* IASOS/AWOS data display, other direct reading
/ N4 N) E: O4 Y6 E1 Y L3 L% [instruments, or manual observation is available to the
" }4 A- g0 v+ x' Y" RAFSS specialist.
, a1 B) x- e/ |" X1 d4 f$ Y1 lREMOTE AIRPORT INFORMATION SERVICE. ?4 R7 u' r5 S# ~
(RAIS)- A temporary service provided by facilities,7 O F+ A2 J0 @8 z Z3 z' s- Y& k
which are not located on the landing airport, but have2 H% a! D Q5 X3 A
communication capability and automated weather
+ W V" B9 E3 A# @reporting available to the pilot at the landing airport.
0 q1 w$ V+ x. U3 S7 R6 wREMOTE COMMUNICATIONS AIR/GROUND. |# k( n) I3 o
FACILITY- An unmanned VHF/UHF transmitter/5 e- s) T/ ^' ^
receiver facility which is used to expand ARTCC
( D/ |) U) N% E, |0 Hair/ground communications coverage and to facilitate& w5 G7 ~; c- T
direct contact between pilots and controllers. RCAG
: w; g1 e. z; K" ?( G" E, wfacilities are sometimes not equipped with emergen‐* c8 j8 Y( J. O, V) m$ ~6 U
cy frequencies 121.5 MHz and 243.0 MHz.3 T* R) H$ _7 t
(Refer to AIM.)
8 x$ Z+ ~' C* q, RREMOTE COMMUNICATIONS OUTLET- An
1 y) _- T: i' F/ l; A1 T* ~unmanned communications facility remotely con‐5 u- w1 l0 ?, m/ ]- z! n
trolled by air traffic personnel. RCOs serve FSSs.
! A6 t9 [: I$ b# e% |6 d4 wRTRs serve terminal ATC facilities. An RCO or RTR' U" ^5 c* M+ c/ B
may be UHF or VHF and will extend the- u6 x" Y9 ]- |$ Q0 C) l- P" ^8 E
communication range of the air traffic facility. There- E% V! y% m, |! ^0 I! V7 g
are several classes of RCOs and RTRs. The class is7 g1 o* U2 N) {1 _9 S8 J0 G7 ~* |
determ ined by the number of transmitters or
' O5 U( V% q) v$ K" { k3 Preceivers. Classes A through G are used primarily for
9 G3 p0 W. E8 Z- H) t$ aair/ground purposes. RCO and RTR class O; B1 d5 s( x# }4 B% P2 V9 l
facilities are nonprotected outlets subject to% q# _; h" |" ^7 J7 l0 i
undetected and prolonged outages. RCO (O's) and7 Y) t0 M! A( R7 U
RTR (O's) were established for the express purpose
" `9 }8 w! q! y4 [of providing ground‐to‐ground communications. }2 S9 Z2 I3 g
between air traffic control specialists and pilots0 |/ k8 w, O! j Z) O8 y/ b) ~
located at a satellite airport for delivering en route
# A9 G* {0 h3 Nclearances, issuing departure authorizations, and+ E# {) q2 a1 E9 @" o9 R4 ]
acknowledging instrument flight rules cancellations
* Y4 }2 S% M1 s$ `9 w x; ^or departure/landing times. As a secondary function," n) ?! f* N: v \% f
they may be used for advisory purposes whenever the
7 V' X5 B$ {% k# Eaircraft is below the coverage of the primary
1 } Y7 \/ y+ P- V" K( M3 kair/ground frequency.
7 x# l- i2 b$ r* O$ x/ W9 G( YREMOTE TRANSMITTER/RECEIVER(See REMOTE COMMUNICATIONS OUTLET.)! A2 w7 V. G; N; B
Pilot/Controller Glossary 2/14/085 e: f t% U+ Q; U1 g w _
PCG R-5
' p+ I' G; e" C Z! u+ qREPORT- Used to instruct pilots to advise ATC of1 H( a2 a1 s* Z
specified information; e.g., “Report passing Hamil‐
( H" i! q2 ~/ U, [* m; k) {ton VOR.”
y3 c& ?: A: \/ C$ pREPORTING POINT- A geographical location in
4 o' S/ m: ^* W' I% _$ [ Wrelation to which the position of an aircraft is
% H+ b4 ~% c! B- d6 }" g6 i5 l$ oreported.; ^% c; f( ?- R( z
(See COMPULSORY REPORTING POINTS.)
4 Q7 Q9 E5 T9 u* e; t2 V(See ICAO term REPORTING POINT.)# @* h5 ?- [" w4 [5 k$ P: e$ D% V
(Refer to AIM.)
( o8 U7 B( \( X, u6 {REPORTING POINT [ICAO]- A specified geo‐
, V# r) m' x5 y% V% Kgraphical location in relation to which the position of
0 R, Q; Y% w+ X9 @an aircraft can be reported./ u1 G! A3 Q. f
REQUEST FULL ROUTE CLEARANCE- Used) x! t3 h( L5 X! ^
by pilots to request that the entire route of flight be
7 u) i2 I9 N/ jread verbatim in an ATC clearance. Such request
+ n# |( @; ^* x3 m6 @* sshould be made to preclude receiving an ATC+ h0 Z& \# u* b, ]; J. {" p/ a* }
clearance based on the original filed flight plan when6 X$ B& o: W8 g3 `5 P5 C
a filed IFR flight plan has been revised by the pilot,
2 e5 c1 r9 q( v+ ycompany, or operations prior to departure." s& T% U8 v0 P
REQUIRED NAVIGATION PERFORMANCE% a+ J8 Q: ` v) s. P0 s, N( g; G
(RNP)– A statement of the navigational performance
1 G/ G7 e7 Y2 |9 t. g: \1 b1 lnecessary for operation within a defined airspace.
( E8 x1 X5 V. I: \/ [The following terms are commonly associated with
) b# A* ^ X( e5 m& b4 T! C- n- \0 qRNP:3 I! z( {/ z. x& P. v t+ j
a. Required Navigation Performance Level or
3 x, ^" U% U/ c5 P3 R" YType (RNP‐X). A value, in nautical miles (NM), from. X1 b) o8 e1 ~ ^) b$ q7 j
the intended horizontal position within which an3 E/ j5 r/ m( I3 C0 R
aircraft would be at least 95‐percent of the total flying
+ P0 g: V& W' j& \4 I1 M( Z6 N5 [time.
: ^. r: J) `! I; Eb. Required Navigation Performance (RNP)
+ e" ]6 j8 ?0 p* BAirspace. A generic term designating airspace, route
* {5 g( n2 R5 g9 l(s), leg (s), operation (s), or procedure (s) where8 M) X1 ^ |! Q3 H, k7 B1 }
minimum required navigational performance (RNP)
( |2 o5 `7 F8 Ehave been established.8 _# Y0 @" ~& O; M# \* C5 b2 A
c. Actual Navigation Performance (ANP). A
% {% r4 h- r; r4 V3 Pmeasure of the current estimated navigational
1 P9 g& e" [% t1 \% Nperformance. Also referred to as Estimated Position; i& w9 k% D8 K) }+ i2 w/ r
Error (EPE).
4 B' o+ x. [7 t3 y9 E0 md. Estimated Position Error (EPE). A measure of
, [" X6 E3 k/ jthe current estimated navigational performance. Also
' z1 `; M* p6 B. F" {( xreferred to as Actual Navigation Performance (ANP).9 ]0 C% ?/ i& Q) B) q
e. Lateral Navigation (LNAV). A function of area y; s( |4 S) P, [2 m3 Q, h
navigation (RNAV) equipment which calculates,$ y2 r' I; h9 M2 Y$ h9 | [
displays, and provides lateral guidance to a profile or X# r( J- x8 i- a6 ?
path.
5 c0 R z& p4 jf. Vertical Navigation (VNAV). A function of area
# t% r, `, q# b7 C$ bnavigation (RNAV) equipment which calculates,6 y: o# N$ p; C! \+ A7 k$ d
displays, and provides vertical guidance to a profile* A! _0 {/ O2 _5 X6 `* g0 I
or path.
5 b1 i2 }1 O- v) q' d# HRESCUE COORDINATION CENTER- A search! t; ^3 @" j5 z
and rescue (SAR) facility equipped and manned to6 o4 Q8 T# a- |) }8 I$ K
coordinate and control SAR operations in an area2 c! Z# _ G2 U: ?" q
designated by the SAR plan. The U.S. Coast Guard) y. c& N! R. l" v
and the U.S. Air Force have responsibility for the
# ?+ Z% u1 i; o3 @ d+ Uoperation of RCCs., m6 y, z$ I: e. ?: S0 i. Z; c
(See ICAO term RESCUE CO‐ORDINATION) A# G, y% m- f2 p& b' F; S
CENTRE.)
9 C" D+ q8 X% `- |. _- c8 vRESCUE CO‐ORDINATION CENTRE [ICAO]- A
# _! z9 s8 D5 S+ Munit responsible for promoting efficient organization
) L% a3 W7 D# l% n& wof search and rescue service and for coordinating the
8 Z" I0 q0 q) Dconduct of search and rescue operations within a- g k3 E9 J$ {
search and rescue region.
9 _2 n+ b8 N, z2 w+ C+ v2 r8 h9 TRESOLUTION ADVISORY-A display indication
- N) [ a! ` k1 j/ _, |given to the pilot by the traffic alert and collision
& S' X: _# _+ ^3 g/ _! q bavoidance systems (TCAS II) recommending a3 a4 J) c* {1 r6 p6 x
maneuver to increase vertical separation relative to an/ M$ k% W% ^- I) T. ]
intruding aircraft. Positive, negative, and vertical
E- e# R$ ~# @ x4 Y0 Lspeed limit (VSL) advisories constitute the resolution3 b6 F8 b* |9 f
advisories. A resolution advisory is also classified as/ A- e* T9 b8 O1 n
corrective or preventive
j7 W. i5 a4 K5 xRESTRICTED AREA(See SPECIAL USE AIRSPACE.)
2 L/ X3 p0 t+ E(See ICAO term RESTRICTED AREA.)
- Q1 _$ K6 ~% `, ^) q* u) V/ u: {. d: jRESTRICTED AREA [ICAO]- An airspace of
7 N) @ }4 g( B- [: S- ?$ R8 T/ F# Xdefined dimensions, above the land areas or territorial
' B q; L3 V" C" F8 S; v; t7 Ywaters of a State, within which the flight of aircraft% J" w! V; {; R2 H
is restricted in accordance with certain specified
; a5 e! U0 i8 n0 L/ nconditions.
4 X6 h( i9 t* |# ^( x, NRESUME NORMAL SPEED- Used by ATC to
% M$ b' S0 N; l) I2 y5 r" yadvise a pilot that previously issued speed control8 ~& F1 q2 j/ S X2 G3 F
restrictions are deleted. An instruction to “resume
/ w! y% \7 _% x+ m5 Lnormal speed” does not delete speed restrictions that: a2 E+ q" h1 |8 R# m: F6 Y9 t/ `
are applicable to published procedures of upcoming7 r$ R3 s% r3 d0 C( x1 ^
segments of flight, unless specifically stated by ATC.1 E6 k8 Y: B5 E+ M
This does not relieve the pilot of those speed
% K1 W! v' S2 J0 ^& xrestrictions which are applicable to 14 CFR* V+ Y. x+ H" {
Section 91.117.
9 x0 a- a$ |/ l1 A' f/ m: XRESUME OWN NAVIGATION- Used by ATC to4 ^6 R2 `1 \: M& ~
advise a pilot to resume his/her own navigational( y+ z% b* W2 e7 j
responsibility. It is issued after completion of a radar
- A6 j; J9 d- NPilot/Controller Glossary 2/14/08
% n u2 C! H0 S0 v. l; vPCG R-62 t9 \ E2 X3 s# t$ v! `
vector or when radar contact is lost while the aircraft7 ^1 |# Q- U2 z7 i
is being radar vectored.0 M2 ^' x( O8 p; V: v1 P
(See RADAR CONTACT LOST.)
u$ t- C) Y% Z0 P# I& W(See RADAR SERVICE TERMINATED.)
$ e4 y& {4 F6 z9 D5 K* d( j$ E8 KRMI(See RADIO MAGNETIC INDICATOR.)9 w0 ^6 G0 d8 _4 G+ H1 ~
RNAV(See AREA NAVIGATION.)
4 U8 l* Z; p, U/ M: v* o(See ICAO Term AREA NAVIGATION.)" u& D; z: d& J) o4 t
RNAV APPROACH- An instrument approach
3 z- s# q4 g, Z# k5 F( Kprocedure which relies on aircraft area navigation
6 J' P5 z1 C: L. M4 V4 xequipment for navigational guidance. e7 A# F/ R6 H" \- i* H& n
(See AREA NAVIGATION.)
- Z, @5 ^3 N' _$ S8 {(See INSTRUMENT APPROACH
[: b7 c3 |0 L( R, OPROCEDURE.)- G) U" h- r) o: b3 K9 }, C+ \4 s
ROAD RECONNAISSANCE- Military activity# I( a$ T M9 F8 ^# Q+ H* ?
requiring navigation along roads, railroads, and
: ^3 l) v/ b, R% ?2 Crivers. Reconnaissance route/route segments are9 {6 D' L$ h' h) t
seldom along a straight line and normally require a
1 }2 R* j& {1 O2 L, _% z0 M6 klateral route width of 10 NM to 30 NM and an altitude
5 O" x- e$ |) ^. H" Grange of 500 feet to 10,000 feet AGL.5 P6 y' J7 B2 _' C
ROGER- I have received all of your last! `* {/ f# B3 |* K: L: `- F8 l
transmission. It should not be used to answer a. k8 c3 ] s' I8 I3 ]$ j; }3 d
question requiring a yes or a no answer.0 X' ?4 P8 O, k6 O
(See AFFIRMATIVE.)8 N$ ]6 t) m! J8 b) _
(See NEGATIVE.)
2 ?8 M6 [2 R1 E1 oROLLOUT RVR(See VISIBILITY.)
/ Y, W" Y4 O4 ^) }8 }, XROUTE- A defined path, consisting of one or more, a* p8 t! A' P. t* H6 F
courses in a horizontal plane, which aircraft traverse: y. W, m" P6 O- y# N
over the surface of the earth.
5 y" i H) m8 e L8 U( r, Y& P; Y(See AIRWAY.)0 o: n' L' o" z9 h. F
(See JET ROUTE.)
4 ^( _( r7 a X(See PUBLISHED ROUTE.)" j- ~' T: a4 K% R
(See UNPUBLISHED ROUTE.)
: w2 Y3 T" e% {; [; u H* w# N$ U6 E$ kROUTE ACTION NOTIFICATION- URET notifi‐
8 R8 e2 D- U+ ^cation that a PAR/PDR/PDAR has been applied to the
) \4 [! ~, t5 O2 Y" Lflight plan.
4 _8 _( ^6 T9 L(See ATC PREFERRED ROUTE( Z: S0 g& g1 Q8 w/ l2 N
NOTIFICATION.)2 n. t; v6 U+ P! t3 I% ?- d
(See USER REQUEST EVALUATION TOOL.)
( |1 B2 Z6 r2 \ROUTE SEGMENT- As used in Air Traffic Control,
; P& F8 P! I5 Wa part of a route that can be defined by two3 L5 K) I$ \" T5 t% z
navigational fixes, two NAVAIDs, or a fix and a
Z. k3 L- g8 f7 C$ pNAVAID.# E! u0 e l% ^( B* E# _( n# m) Y
(See FIX.): E* X; N1 s3 b- H" D; G. K3 r% y
(See ROUTE.)
% D ]& s& Y" a2 p(See ICAO term ROUTE SEGMENT.)
& h/ D, j! ^" rROUTE SEGMENT [ICAO]- A portion of a route to' O% F- _' x/ {7 s% Z
be flown, as defined by two consecutive significant
- {7 ?* }& a( J8 B' ^8 u: R0 Bpoints specified in a flight plan.# o, w Y0 b% Z p$ R
RSA(See RUNWAY SAFETY AREA.)
; _ ?$ p- l4 {% {+ A+ B/ oRTR(See REMOTE TRANSMITTER/RECEIVER.)
9 X) H, x( l: F2 o) d3 eRUNWAY- A defined rectangular area on a land6 \& J- g9 n, r& L
airport prepared for the landing and takeoff run of u X/ c3 I7 E
aircraft along its length. Runways are normally
5 n% `! o4 I1 f6 a7 V1 R Q- wnumbered in relation to their magnetic direction
& h# {8 F% v: Mrounded off to the nearest 10 degrees; e.g., Runway
% ^, I& J; k) o% j" R1, Runway 25.6 c- B* | P+ n
(See PARALLEL RUNWAYS.). o% p; b% r0 ^ j
(See ICAO term RUNWAY.)
5 K1 L! q5 p1 n" JRUNWAY [ICAO]- A defined rectangular area on a
( `: I. b! R8 b( R5 w) e3 M( Qland aerodrome prepared for the landing and take‐off
8 U# n: t0 X$ R/ R# T* vof aircraft.
) V. `: G+ K6 j; T( D8 K6 ? wRUNWAY CENTERLINE LIGHTING(See AIRPORT LIGHTING.)
+ Y& ~' ^( |- _- O( H2 t& kRUNWAY CONDITION READING- Numerical8 a5 K$ }6 [) g6 w" S
decelerometer readings relayed by air traffic
. F& ?$ \6 U9 M9 H6 U; X! J6 F& d3 @controllers at USAF and certain civil bases for use by1 Q4 _: K9 {" h5 f, K3 j
the pilot in determining runway braking action.2 d4 {9 p' V1 s5 f3 z. o
These readings are routinely relayed only to USAF
$ @9 E' N& z8 [ _- a5 t# qand Air National Guard Aircraft.
5 f/ d3 Y, v7 i7 F; ^* r(See BRAKING ACTION.)
: a2 o$ H. v4 Q* I+ j, O! t/ GRUNWAY END IDENTIFIER LIGHTS(See AIRPORT LIGHTING.)
, r6 x4 i. c2 X- m1 }RUNWAY GRADIENT- The average slope, mea‐( {& V) Z! I+ ?/ R& `& A' Q/ P
sured in percent, between two ends or points on a
' h3 Q* |7 N: `2 n: O( prunway. Runway gradient is depicted on Government9 G- l+ f. Z& h) F6 G. [" W
aerodrome sketches when total runway gradient4 @" g' M- @7 w: r4 l" s7 z, k
exceeds 0.3%.3 j) n3 G! s b7 M5 }& r
RUNWAY HEADING- The magnetic direction that+ b# M- Z1 x6 ^$ L# d N( `
corresponds with the runway centerline extended, not
7 s7 x* Q7 Z# K: I n7 ~the painted runway number. When cleared to “fly or1 T1 J6 F: y6 G" S' p! p: M
maintain runway heading,” pilots are expected to fly
! J& B4 ~; N/ k* Nor maintain the heading that corresponds with the* M F, V/ P0 W) H/ u$ t
extended centerline of the departure runway. Drift% E r2 b8 n! a; h @! i% c
correction shall not be applied; e.g., Runway 4, actual
+ N7 n) {2 Y- P& E8 v8 d5 YPilot/Controller Glossary 2/14/08
n# z' A( f' o( JPCG R-7
/ g8 N) o2 {& D |% }3 r3 u/ J$ h' Emagnetic heading of the runway centerline 044, fly' G4 @5 c' q$ f! z3 T+ J4 `
044.9 {4 I- }3 R# R5 \. L, G% ~* C
RUNWAY IN USE/ACTIVE RUNWAY/DUTY
) ^9 j% z1 s8 _" j. _% n: X! Y/ `0 nRUNWAY- Any runway or runways currently being
7 P( \+ {3 \2 p4 Xused for takeoff or landing. When multiple runways5 ~" b+ m y7 ]+ A% m7 @
are used, they are all considered active runways. In
* _3 a* g$ D- l2 F1 c$ Zthe metering sense, a selectable adapted item which! P0 P2 Z# @" h& s: c
specifies the landing runway configuration or% @* q1 C$ k3 C: E3 }
direction of traffic flow. The adapted optimum flight4 h% H3 }; G4 R+ N- K5 x
plan from each transition fix to the vertex is
3 t0 v, \- ^ J6 Z8 X# n( G2 ddetermined by the runway configuration for arrival' U; x' G# R) @6 e( ?
metering processing purposes.
, {/ u' E1 O% T" P! X$ xRUNWAY LIGHTS(See AIRPORT LIGHTING.)
3 w/ ^ p' p4 GRUNWAY MARKINGS(See AIRPORT MARKING AIDS.)9 e8 D0 `, x3 }4 e/ B/ k( A
RUNWAY OVERRUN- In military aviation exclu‐) [6 p. |! Z( }, V8 b- w0 ]
sively, a stabilized or paved area beyond the end of a3 Z: h0 I- [. |% z: x' I
runway, of the same width as the runway plus: [/ l- B2 U2 b5 b: c6 _0 I
shoulders, centered on the extended runway. B3 q) T; I' l% O) U& Q
centerline.
3 ]5 @0 k3 }0 y( J, b# H* Q( MRUNWAY PROFILE DESCENT- An instrument. ]! r! ?. v0 e* `% b# W! q
flight rules (IFR) air traffic control arrival procedure4 T. z) C1 `' @) @; N/ s& J n! ?
to a runway published for pilot use in graphic and/or$ }- C" \$ Y- C' x
textual form and may be associated with a STAR.
0 e& X$ y3 f* nRunway Profile Descents provide routing and may
4 X7 o$ y+ T; b8 Y4 fdepict crossing altitudes, speed restrictions, and* G: \3 R/ D4 Y- o! H8 A
headings to be flown from the en route structure to the
3 N/ ^' G- z; I# Y4 C. J% {. dpoint where the pilot will receive clearance for and6 F6 R8 M; D1 k. m! P' D
execute an instrument approach procedure. A" M: ~- P) B3 A# c
Runway Profile Descent may apply to more than one
4 J7 U9 [( m _0 f W' zrunway if so stated on the chart.
* q$ {& N1 {# }6 y1 r(Refer to AIM.)
: \- d8 B# P$ ~ J0 M; n" G( `RUNWAY SAFETY AREA- A defined surface2 U$ y+ b$ M' p1 _! E$ i' h
surrounding the runway prepared, or suitable, for7 F8 }3 P& j* T0 H: |9 {$ z
reducing the risk of damage to airplanes in the event
, Z' s2 i8 K0 Jof an undershoot, overshoot, or excursion from the
) i" @2 ^# s3 p2 H) K: L+ `" e# ~runway. The dimensions of the RSA vary and can be# H. N) N$ |! k+ g- O8 Z
determined by using the criteria contained within- v& l& e3 q+ x6 }$ X9 {
AC 150/5300‐13, Airport Design, Chapter 3.4 L/ Y% C# Y, s
Figure3-1 in AC 150/5300‐13 depicts the RSA. The
9 ^/ l! n& _' Adesign standards dictate that the RSA shall be: i! _4 t. O0 I$ J# c$ x
a. Cleared, graded, and have no potentially
: R$ W- R: p8 V/ l* lhazardous ruts, humps, depressions, or other surface% u z/ h" {5 O/ {5 \- I
variations;! R4 T( S6 K2 q5 x8 L+ @7 K
b. Drained by grading or storm sewers to prevent/ b. `4 s# L$ D. q
water accumulation;5 g2 ^+ V y8 v" S
c. Capable, under dry conditions, of supporting& w! Q4 M/ p; U1 L9 ~
snow rem oval equipment, aircraft rescue and5 i, } ~# K8 f7 |
firefighting equipment, and the occasional passage of
% Q* q& C ~* @7 v$ u3 {aircraft without causing structural damage to the/ z& o2 O0 Y5 P7 d4 ~
aircraft; and,
6 `3 a8 U2 R5 xd. Free of objects, except for objects that need to) Y3 C; \; Z" E7 L: N1 G
be located in the runway safety area because of their* V; N, k2 i$ g q
function. These objects shall be constructed on low
% {" G7 M m, e5 J; y" ?impact resistant supports (frangible mounted struc‐
% B- J! d5 \$ I9 v7 |; g2 A2 A7 btures) to the lowest practical height with the frangible# p" v' i* g; }: o6 S. I0 k/ [7 _
point no higher than 3 inches above grade.
9 g7 n. I- m/ C& _, m3 Q6 d(Refer to AC 150/5300‐13, Airport Design," ?9 t! v# q1 x" B
Chapter 3.)
8 x- h0 X- T" o U" Q; Q0 r0 g2 zRUNWAY TRANSITIONa. Conventional STARs/SIDs. The portion of a$ m4 Y( f d' e5 T& u, N5 |3 A
STAR/SID that serves a particular runway or1 I6 M4 g8 N7 n* i/ ?$ f
runways at an airport.
. U( ~5 D& H( m: D2 o# ^6 n, J. Kb. RNAV STARs/SIDs. Defines a path(s) from7 {2 n O) A5 s; K2 ]8 P
the common route to the final point(s) on a STAR. For2 t2 _; p3 M0 ?% V) [/ q3 v2 {
a SID, the common route that serves a particular7 i! v9 l3 ~3 Q) j( B
runway or runways at an airport.
- O4 h- M! O& ?6 Y- Z% D* A% RRUNWAY USE PROGRAM- A noise abatement
* {& u1 X# m5 Drunway selection plan designed to enhance noise" z% c) {* g5 r
abatement efforts with regard to airport communities: M* u4 x) D! ]0 @ ]
for arriving and departing aircraft. These plans are& J# ]- }2 y2 k3 H
developed into runway use programs and apply to all) v2 L- K1 W7 N6 K. W1 W9 h
turbojet aircraft 12,500 pounds or heavier; turbojet
7 d8 R+ ?" y% U' w/ zaircraft less than 12,500 pounds are included only if
% \: n G, |7 E. I4 R! Hthe airport proprietor determines that the aircraft
# z" l5 i% P6 o) |% acreates a noise problem. Runway use programs are
" |6 I7 b: C L, b/ Kcoordinated with FAA offices, and safety criteria0 ]2 [8 c7 |" f, x8 C3 q
used in these programs are developed by the Office of
# H* N) ?0 D' m6 j* T# aFlight Operations. Runway use program s are5 _! O% ?; G( ?8 H+ H
administered by the Air Traffic Service as “Formal”
) ^+ ]+ ?/ F. {or “Informal” programs.
% v" |+ V) ^1 J3 h$ ~2 wa. Formal Runway Use Program- An approved& j& I! z0 h/ M [+ u6 ]
noise abatement program which is defined and/ [* H3 ?* i+ x) z" l0 f
acknowledged in a Letter of Understanding between* r7 c7 D$ z! M- ~4 u
Flight Operations, Air Traffic Service, the airport" K/ V( u1 A0 g& L* f1 L, g1 F
proprietor, and the users. Once established, participa‐
/ m( ]/ W9 k1 f3 H8 f( ftion in the program is mandatory for aircraft operators, [. H$ D/ a, d5 n
and pilots as provided for in 14 CFR Section 91.129.3 @9 j8 `2 E5 H) i9 f+ [
b. Informal Runway Use Program- An approved6 S' x/ m3 [. e7 f0 p
noise abatement program which does not require a8 ]2 [+ u, g P# @# r+ }, A" r
Letter of Understanding, and participation in the
% S$ {& |+ T; ^9 @( e; z; Rprogram is voluntary for aircraft operators/pilots.. M) c$ X: {& D) }8 ?
Pilot/Controller Glossary 2/14/08
9 D6 t% w, a6 I8 G9 K0 R' YPCG R-8, _4 S5 N1 ~) N4 p6 \
RUNWAY VISIBILITY VALUE(See VISIBILITY.)) S9 d5 q, z6 Y
RUNWAY VISUAL RANGE(See VISIBILITY.)- `5 @ \$ q: O$ E4 T: {8 Z
Pilot/Controller Glossary 2/14/08; Q0 f) k) `& d' `2 Q
PCG S-15 a8 ?7 V4 l3 J5 R; V) C
S9 a9 F7 o7 D6 W; \$ @
SAA(See SPECIAL ACTIVITY AIRSPACE.), D( w! F( n5 L$ ~
SAFETY ALERT- A safety alert issued by ATC to! g3 L0 y6 Y$ k( Q6 a
aircraft under their control if ATC is aware the aircraft
9 g2 ?$ V D7 k5 W% D5 ]* U, w Y* }is at an altitude which, in the controller's judgment,
9 Y8 H! |: Q1 y: G! B P7 kplaces the aircraft in unsafe proximity to terrain,
n. T1 e" t0 }8 }% f, Z0 f; T3 Hobstructions, or other aircraft. The controller may) q; ]. P5 G; x* u( z
discontinue the issuance of further alerts if the pilot1 i% [( n; P7 |. y
advises he/she is taking action to correct the situation7 _- x5 s2 e) q2 ^
or has the other aircraft in sight.
. J- ]- l9 H! L% o; a! _a. Terrain/Obstruction Alert- A safety alert issued
- o/ r6 M3 ?2 r% S) dby ATC to aircraft under their control if ATC is aware% x5 l2 q9 B, y) H) O L
the aircraft is at an altitude which, in the controller's7 Z" |- ]9 d4 B" a( n' W
judgment, places the aircraft in unsafe proximity to
# e/ Q- B) C3 X7 ^terrain/obstructions; e.g., “Low Altitude Alert, check0 b9 Z4 a# e4 _) F" R
your altitude immediately.”/ b7 R& x4 Z* e: D
b. Aircraft Conflict Alert- A safety alert issued by
( e6 P- {1 A% ^, ?6 \) oATC to aircraft under their control if ATC is aware of8 {+ Y+ L9 O$ @* B3 M1 h
an aircraft that is not under their control at an altitude
9 V0 j% k4 H/ M( bwhich, in the controller's judgment, places both) T) J5 r. N4 X) f
aircraft in unsafe proximity to each other. With the
* N; e2 N3 T$ s' s; z* X; M! P Qalert, ATC will offer the pilot an alternate course of, N1 @) t6 S) n0 A7 |- e& a
action when feasible; e.g., “Traffic Alert, advise you
" r0 z; o# g. C5 vturn right heading zero niner zero or climb to eight9 K5 n7 C8 d6 H& `1 b. s6 X
thousand immediately.”
8 \( h( X8 g4 _5 QNote:The issuance of a safety alert is contingent
* z& d0 _7 W* ~8 Hupon the capability of the controller to have an
2 r* z7 \; T' N" |. Bawareness of an unsafe condition. The course of9 a9 G8 [ R& k
action provided will be predicated on other traffic( r W% v/ F9 M a
under ATC control. Once the alert is issued, it is
0 ]* q6 M$ U1 \2 r; g+ p/ Wsolely the pilot's prerogative to determine what) T1 V* r) l3 e8 F: s& I. a0 E
course of action, if any, he/she will take.$ N l* d; N+ ~3 r) U
SAFETY LOGIC SYSTEM- A software enhance‐
+ f) h. N0 t$ |" }5 Xment to ASDE-3, ASDE-X, and ASDE-3X, that3 f* X+ O$ @2 T- w$ g1 y% ^1 L
predicts the path of aircraft landing and/or departing,
' a$ q' I- a7 n1 zand/or vehicular movements on runways. Visual and+ w( ~/ Y7 v9 E5 ?; K$ X
aural alarms are activated when the safety logic% @5 t o0 C+ K9 C
projects a potential collision. The Airport Movement0 T, X7 Q( O# N+ o/ N" G
Area Safety System (AMASS) is a safety logic+ i- f2 b& O. S2 c
system enhancement to the ASDE-3. The Safety1 @# e6 |# U4 Y2 s. D. E0 `
Logic System for ASDE-X and ASDE-3X is an* u5 A' A+ T- T/ ?' a* F2 O8 u
integral part of the software program.
2 S7 J& E5 U9 N L" O/ `& nSAFETY LOGIC SYSTEM ALERTSa. ALERT- An actual situation involving two real$ {! I# O0 `. q$ f$ \$ C
safety logic tracks (aircraft/aircraft, aircraft/vehicle,
6 Y& A. l2 z5 Z( xor aircraft/other tangible object) that safety logic has
: ^* K2 H+ Y$ D6 Q/ P7 n: o' Z8 C* D* D/ zpredicted will result in an imminent collision, based
( x0 A) @3 ? R/ B bupon the current set of Safety Logic parameters.
! b' `9 R, F. q, I( @& \b. FALSE ALERT1. Alerts generated by one or more false. J2 e1 H& e3 U! ^8 N2 c: x, S3 u, @
surface-radar targets that the system has interpreted
. i& {! S. f8 q$ |* las real tracks and placed into safety logic.
- Z* N: y- _ T2 X2. Alerts in which the safety logic software did! ^9 f8 o9 i( K' d# G
not perform correctly, based upon the design0 B% ~+ K; \& D; S* i2 m- S
specifications and the current set of Safety Logic% v* N& v4 x7 r7 s& X- f
parameters.
" a% P) X2 F7 N# K* jc. NUISANCE ALERT- An alert in which one or. K% s5 D: { J9 k
more of the following is true:" ^2 _& N0 ?/ n$ s7 G
1. The alert is generated by a known situation
! O& |3 M+ R6 S0 S" Q7 |; o7 Uthat is not considered an unsafe operation, such as
, T6 L1 z: y A7 b) l xLAHSO or other approved operations.% \9 }" z# ?+ @- P6 {0 j' W, U4 H
2. The alert is generated by inaccurate secon‐* H; G. j. ]2 V! Y9 t+ R! y" Y5 l& ]
dary radar data received by the Safety Logic System.
- ? \' R Q8 x( _; n3 ?0 L3. The alert is generated by surface radar targets
1 e8 S% W, |& L: Lcaused by moderate or greater precipitation.
$ c% W4 P e( W/ H. q. s$ K$ N- q4. One or more of the aircraft involved in the& s4 p- t: W3 G/ \; |5 l
alert is not intending to use a runway (i.e., helicopter,( ^7 j S+ @! ?# {& X) ?( Y
pipeline patrol, non-Mode C overflight, etc.).
2 G$ S' a$ V9 s, s( N4 E4 sd. VALID NON-ALERT- A situation in which
1 z. T: L. K }6 t: w* S" tthe safety logic software correctly determines that an6 D+ h6 N! q9 J; S# c( x
alert is not required, based upon the design
1 y1 [/ `1 d0 d) {' Uspecifications and the current set of Safety Logic
7 }* ], o" s: Q- C8 g1 W1 O; [8 j- Hparameters.) I4 S# ]2 ?( ?: I( m8 ?
e. INVALID NON-ALERT- A situation in which' ^5 \# {8 x# g1 n; J2 Q
the safety logic software did not issue an alert when
1 [; T% S7 p9 h4 Van alert was required, based upon the design* }* g2 p. t H& u d1 P5 V
specifications.
' c, p$ G/ O F7 A* I( r, SSAIL BACK- A maneuver during high wind2 G9 U6 ~8 |3 }2 n( j
conditions (usually with power off) where float plane
2 A- h/ T2 }4 G9 r5 R2 vmovement is controlled by water rudders/opening
& u# o9 ~1 w+ [and closing cabin doors.
& ]( `/ x/ u( L) x0 LSAME DIRECTION AIRCRAFT- Aircraft are
" S. T a% n5 Q7 eoperating in the same direction when:
8 p }( Y; a! ?6 [) q- U: W5 `a. They are following the same track in the same
N0 V5 o& I/ g4 S6 y9 R9 qdirection; or/ H, ?$ I" `- b" F$ K1 Y3 D
b. Their tracks are parallel and the aircraft are8 g% p) R) Y: l& {3 v0 l ~
flying in the same direction; or
# _+ U4 ~/ W; [* {c. Their tracks intersect at an angle of less than 45
$ V# T. l+ l2 c% I( odegrees.; a7 ^ e6 [5 V: i9 u2 S" ^
Pilot/Controller Glossary 2/14/08
/ P- C& }5 d* i% |+ p7 j7 UPCG S-2
; O1 B( A' p2 v5 ?0 a6 U4 G5 USAR(See SEARCH AND RESCUE.)7 x# X4 S7 O: n' J5 p" F- ~# u5 a
SAY AGAIN- Used to request a repeat of the last
' E/ i. {6 T8 P" r u h/ {transmission. Usually specifies transmission or1 R: J6 ~# |* Y& i4 a! d
portion thereof not understood or received; e.g., “Say9 X- C: Z3 ^; j( I9 C
again all after ABRAM VOR.”
3 ~6 E5 B- k; R( {SAY ALTITUDE- Used by ATC to ascertain an
8 p9 m) i. q# E" F0 J taircraft's specific altitude/flight level. When the. B F' I/ P* W3 K3 t* s3 V1 _5 c
aircraft is climbing or descending, the pilot should! J5 Q3 g2 }, }% R* w0 t
state the indicated altitude rounded to the nearest 100
u, i s) D' W: Q+ |2 P/ T: S! o5 Rfeet./ @( ?" J# k% y! _5 Q
SAY HEADING- Used by ATC to request an aircraft/ Q2 h3 p# ^! H
heading. The pilot should state the actual heading of8 f, [" u" @3 d0 d, Y
the aircraft.; g# r, o) J& P' R
SCHEDULED TIME OF ARRIVAL (STA)- A STA2 c0 Y/ j, |7 y6 Z' @8 K
is the desired time that an aircraft should cross a2 i; x/ y* M" }! H C6 f
certain point (landing or metering fix). It takes other
3 _; ~1 n! ?. o# S/ k6 Ntraffic and airspace configuration into account. A
9 U/ E M5 I/ N3 V8 s$ R7 A0 |* e( USTA time shows the results of the TMA scheduler
; A% V/ L) g9 i0 _* [" h- Y$ {that has calculated an arrival time according to7 M4 Y2 V+ s' d( W+ g
parameters such as optimized spacing, aircraft; z9 B, r! |1 ^! I# c# ^3 K
performance, and weather.4 s+ G5 U& y- f3 b1 v
SDF(See SIMPLIFIED DIRECTIONAL FACILITY.)
) b2 X" X' i6 o# C% I! [SEA LANE- A designated portion of water outlined
& w( W# ~: l$ @# H3 B- N! l% E5 zby visual surface markers for and intended to be used2 V" {8 _" z7 I2 Q
by aircraft designed to operate on water.
+ j- x$ T, m$ V5 J! SSEARCH AND RESCUE- A service which seeks. i& a; F* \8 V
missing aircraft and assists those found to be in need4 n6 U7 |" Z7 M. `
of assistance. It is a cooperative effort using the/ E% t# V. A# @$ r8 n1 q5 X
facilities and services of available Federal, state and% Z9 z% a( T+ G) s% D3 m
local agencies. The U.S. Coast Guard is responsible
8 l% n9 @/ n$ M Y" j! K. Jfor coordination of search and rescue for the Maritime! R. q2 {9 I7 ]8 C
Region, and the U.S. Air Force is responsible for/ [4 J; c9 d1 t3 _( Z3 I
search and rescue for the Inland Region. Information
7 `0 m6 M. {# L- J- \pertinent to search and rescue should be passed
+ L3 z, L' E- S* w7 T7 s( z: O( S# bthrough any air traffic facility or be transmitted
, k& j' q, J9 z- {& ^3 |3 ~directly to the Rescue Coordination Center by
6 o) ~+ R4 L$ {# h+ X. ltelephone.( n" f' n+ G2 \, q
(See FLIGHT SERVICE STATION.)/ ~2 `2 D/ @% z6 ^
(See RESCUE COORDINATION CENTER.)5 H2 s- n0 w. ]! p
(Refer to AIM.)# ~9 G5 L4 V) Z! h* r
SEARCH AND RESCUE FACILITY- A facility3 J- H2 |! S" c S2 Q+ t/ m
responsible for maintaining and operating a search
. I7 j, V+ U$ xand rescue (SAR) service to render aid to persons and! r$ R6 r# {5 o' Z2 E4 C( c5 Y
property in distress. It is any SAR unit, station, NET,
* u, B" Z8 t+ R: v* ior other operational activity which can be usefully' @8 ~7 r+ d8 [. Y
employed during an SAR Mission; e.g., a Civil Air( s4 s# K3 s6 B. v" @# x" a* S
Patrol Wing, or a Coast Guard Station.
/ b' [& L9 a3 m3 c4 O(See SEARCH AND RESCUE.)
! o! E0 `( l9 l6 H5 C4 b4 aSECONDARY RADAR TARGET- A target derived( d |. P8 D( v6 _1 |0 _7 p
from a transponder return presented on a radar
5 v/ V$ L6 ~7 P. v+ ^display.
5 \* j; H s1 O+ G z1 HSECTIONAL AERONAUTICAL CHARTS(See AERONAUTICAL CHART.)
" {( X I' ^2 x: WSECTOR LIST DROP INTERVAL- A parameter
3 l1 a9 s7 ]4 O" |& m# A! qnumber of minutes after the meter fix time when, i& J. |0 ~, W2 S/ V' t9 I% q
arrival aircraft will be deleted from the arrival sector* x' x% `0 m- ?, I
list.' e( z. Y+ G* Q$ P2 U1 A# ~* _$ T* d
SEE AND AVOID- When weather conditions" r K" B1 l4 l6 l( M
permit, pilots operating IFR or VFR are required to# b# u! Y# y- y' ~2 r$ r
observe and maneuver to avoid other aircraft.
* l1 l' o7 u5 e/ ]8 W. \1 V: B$ PRight‐of‐way rules are contained in 14 CFR Part 91.1 Z- w! E. n+ ^; I2 d7 b5 G2 X
SEGMENTED CIR CLE- A system of visual$ ^' `' p) @! u& o6 x8 S5 Y7 n! w
indicators designed to provide traffic pattern
& w( r8 w: _. }3 ]5 Linformation at airports without operating control4 A8 s$ E4 m5 P: T* J: {
towers.
6 m3 p( _, r' e3 S(Refer to AIM.), L7 H9 v! F0 q, T& }) B* i
SEGMENTS OF AN INSTRUMENT APPROACH
: b( E+ K% g! Y9 s" CPROCEDURE- An instrument approach procedure, p$ `, h! ~" Y" U- _# [
may have as many as four separate segm ents' l0 J- H$ N! x
depending on how the approach procedure is. _! C" }& U _; E2 P- f% V' n
structured.
" V% R7 ]4 e l6 U+ V* Xa. Initial Approach- The segment between the6 J! g- p$ M5 o, z. |% C
initial approach fix and the intermediate fix or the
V: q4 Q) S3 o/ a7 Y, l2 j2 `point where the aircraft is established on the
/ Z# P K3 `, k9 u2 j" Sintermediate course or final approach course.
& K8 o+ O( G' x1 }9 g! H2 ?(See ICAO term INITIAL APPROACH
3 R O; ~! X5 I) g- r$ hSEGMENT.)
, Q' y1 K0 p( D9 l) G( [5 u1 Jb. Intermediate Approach- The segment between
; a) e, o. y( `# Q6 p {& Athe intermediate fix or point and the final approach' |. H2 f u0 v. S% p. _* `
fix.
1 u l" D7 c4 }9 f- s% X9 Y(See ICAO term INTERMEDIATE APPROACH
1 P* p/ P5 D5 g9 K1 r, QSEGMENT.)- t5 y- E9 w. {& r# L
c. Final Approach- The segment between the final9 ^ K7 ?0 [4 u7 d4 H
approach fix or point and the runway, airport, or; Z4 a$ g4 B* O0 V/ U
missed approach point.
- Q6 s, d% @5 W) |: u4 S(See ICAO term FINAL APPROACH SEGMENT.)1 @. B7 l; _0 `1 n
d. Missed Approach- The segment between the$ V: w0 ?2 \5 i% `
missed approach point or the point of arrival at
: F# K! L3 a `' Y& XPilot/Controller Glossary 2/14/08
6 [6 n0 q; k2 o" F5 {& O& u1 K/ vPCG S-3
& w& K! a. ~# s& X6 |/ odecision height and the missed approach fix at the( v% K- X- I7 U9 ]; Y v& C( [
prescribed altitude.
c5 Z J6 ^. D, f. A; u2 X& _(Refer to 14 CFR Part 97.)
4 K0 L% z0 K, @. e3 ](See ICAO term MISSED APPROACH
! p- H. E; d: e* j! PPROCEDURE.)
$ X, f5 t0 f, ~& V# PSEPARATION- In air traffic control, the spacing of
# p, z4 E, y5 @, Maircraft to achieve their safe and orderly movement in
+ A, @' o+ o% [! w+ }- F. @flight and while landing and taking off.1 l* G- I' _& X3 p
(See SEPARATION MINIMA.) p4 y" I& ~9 ?+ ~
(See ICAO term SEPARATION.)3 a+ x8 y7 K8 ~
SEPARATION [ICAO]- Spacing between aircraft,
. O" S) E; y0 Zlevels or tracks.7 L/ ?5 e n( y ~% d7 L( N
SEPARATION MINIMA- The minimum longitudi‐4 m8 w* o" v+ C H' n' m# D
nal, lateral, or vertical distances by which aircraft are
5 b. b: |+ W. Y% e. K. b$ ospaced through the application of air traffic control
" g) }* {6 A* M& G9 W# E% B0 e% q! ?procedures.* n5 k# F3 }2 i
(See SEPARATION.)( w) x6 C& a5 V1 C4 W$ c- O2 [
SERVICE- A generic term that designates functions
! k* Q% v, ?) z: vor assistance available from or rendered by air traffic
8 K1 l' l8 h: d$ Ocontrol. For example, Class C service would denote: C; X0 l& _7 s+ K, T }: Y5 U) ~
the ATC services provided within a Class C airspace
2 s D$ i8 E/ e" c5 ~8 [area.
1 t s# }1 _3 U" Q; O% w1 LSEVERE WEATHER AVOIDANCE PLAN- An
+ b& S& W1 c+ E, kapproved plan to minimize the affect of severe- P; E8 f. v) ?" R* `/ Z. w& z ~
weather on traffic flows in impacted terminal and/or
: ?' J) v2 X1 K. eARTCC areas. SWAP is normally implemented to
( P7 S" s& ?& Sprovide the least disruption to the ATC system when. D& p# e& D4 j7 f8 `- P
flight through portions of airspace is difficult or7 V! A( I( Q" ]8 l% u3 B1 G, h+ U
impossible due to severe weather.* Q$ {, r3 F+ Q/ ?
SEVERE WEATHER FORECAST ALERTS-
, G" p) u" Q/ a3 i3 ePreliminary messages issued in order to alert users) D# o; L2 K2 S. ^( o
that a Severe Weather Watch Bulletin (WW) is being% G( g5 R7 b3 w" N) Z6 f3 s8 Y
issued. These messages define areas of possible; e" r4 i: e, {- W& n3 ^/ ~
severe thunderstorms or tornado activity. The
+ `7 l! q+ X* P2 k3 `1 ?% i% j W1 Tmessages are unscheduled and issued as required by+ L& v- V [9 J: f P* s
the Storm Prediction Center (SPC) at Norman,
% E$ H: Y; \4 P5 W0 m5 q' w7 W- BOklahoma.
$ f# N7 f! v4 P. G; t1 [8 P(See AIRMET.) I) J: I$ \" U6 A
(See CONVECTIVE SIGMET.)/ w: {9 g; r- B
(See CWA.)" K; E' K& s" B1 c: r
(See SIGMET.)/ X2 _) ]0 t" Q4 f" p# c e
SFA(See SINGLE FREQUENCY APPROACH.)
* z8 ]& G" s% C, J# hSFO(See SIMULATED FLAMEOUT.)$ e* h& n6 G6 K4 \- g! n* g0 H% p
SHF(See SUPER HIGH FREQUENCY.)
7 D7 B0 N, b0 w: }! ~1 y% v+ eSHORT RANGE CLEARANCE- A clearance; w8 u3 |% E' p% u0 W5 b' e
issued to a departing IFR flight which authorizes IFR
. U' G$ g! d; Y. v8 x, \flight to a specific fix short of the destination while
n. K" o- G0 |2 `2 ~& Kair traffic control facilities are coordinating and
$ I% e. i* i: ]2 c" z1 J1 Jobtaining the complete clearance.1 N& U) ]4 s' h% z
SHORT TAKEOFF AND LANDING AIRCRAFT-6 f2 P: N& I B, ~0 p
An aircraft which, at some weight within its approved* C4 a% p3 U: x7 M5 w4 K& s1 v, Q' q
operating weight, is capable of operating from a
5 F- |. n0 R" o" e1 Y# gSTOL runway in compliance with the applicable: _( M2 i) |& K
STOL characteristics, airworthiness, operations,' L! f h& e4 L1 ?+ [ `9 w4 @
noise, and pollution standards.( \9 a: ~1 S# b/ c( z
(See VERTICAL TAKEOFF AND LANDING
8 u+ ?- \9 o2 L, D. vAIRCRAFT.)
" u( j$ X" J- [' d r. d& N+ XSIAP(See STANDARD INSTRUMENT APPROACH
% G6 u4 S2 K6 D; LPROCEDURE.)
6 R* I5 J% ^% Y! Q( G8 jSID(See STANDARD INSTRUMENT DEPARTURE.)
' y" L1 X9 ~, u' m+ [( ~: Q$ J0 z4 JSIDESTEP MANEUVER- A visual maneuver
# S6 c z4 ]1 Z3 |8 naccomplished by a pilot at the completion of an
4 D' Z* }1 L9 Kinstrument approach to permit a straight‐in landing' {7 c+ e9 Z# m! ~
on a parallel runway not more than 1,200 feet to either
0 ~3 V* b) ~+ ^side of the runway to which the instrument approach3 i" {$ H' T) U; {5 ^
was conducted.
+ Y( k$ H& t" C7 g. j(Refer to AIM.)& ^, z- z2 `9 A Z' t
SIGMET- A weather advisory issued concerning
. ^+ a$ R; G. o2 Qweather significant to the safety of all aircraft.0 v( Z3 I! i% s6 \' A4 O1 e5 f
SIGMET advisories cover severe and extreme0 T( D0 c* t# \% g5 ^2 y- N( }
turbulence, severe icing, and widespread dust or
3 L5 m* l: p' d6 g" H( }sandstorms that reduce visibility to less than 3 miles.
' F; `( |1 `6 E! B, U) l, O4 e5 \(See AIRMET.)2 O5 | }* F7 _7 U. x
(See AWW.); m( P7 i$ {8 T. W) |
(See CONVECTIVE SIGMET.)
+ x" t+ S# ]0 i! a& U(See CWA.)9 q6 {( j V- x) G+ ~$ z
(See ICAO term SIGMET INFORMATION.)
" Q& C* }: z4 _3 _ R(Refer to AIM.)
" Y! I0 C6 H/ s( w, P. NSIGMET INFORMATION [ICAO]- Information, k* i( e' V% L. H
issued by a meteorological watch office concerning2 S: w; I' V7 k2 X
the occurrence or expected occurrence of specified/ E P& x' {" t8 I8 A+ j; _
en‐route weather phenomena which may affect the, x6 g; l8 j6 `! j5 ~1 r0 _) T
safety of aircraft operations.
" U* \& f3 d6 ^1 F' w/ YSIGNIFICANT METEOROLOGICAL INFOR‐
4 H/ D$ S0 `" \MATION(See SIGMET.)
- a7 w; O C" D- U" R0 l. B0 mSIGNIFICANT POINT- A point, whether a named$ D# X8 r1 a" s" ^; A" I6 @
intersection, a NAVAID, a fix derived from a
P- o7 c- o. f. wPilot/Controller Glossary 2/14/08
& h* @, @# Y/ wPCG S-4
D7 \4 s; I2 T5 n+ m5 ^NAVAID(s), or geographical coordinate expressed in, ?; Y6 D' E+ C) P( ~0 h* n( L
degrees of latitude and longitude, which is
( M h! }6 G4 Z0 A+ j2 D4 H7 qestablished for the purpose of providing separation,7 s" J' M d v, \" z, S7 B! u
as a reporting point, or to delineate a route of flight.
0 H$ z& y; x* f8 hSIMPLIFIED DIRECTIONAL FACILITY- A6 |. U x9 _( |* J. t f2 t& W
NAVAID used for nonprecision instrument ap‐* `% b2 `' Y& G1 u9 d5 x
proaches. The final approach course is similar to that+ N0 u$ h& Q) U z+ x9 `
of an ILS localizer except that the SDF course may be* x) J9 Y j7 F0 r2 m; |6 y3 k' X" ?. `/ E
offset from the runway, generally not more than 37 h' s5 Y& B5 @* p4 O$ J0 I, z" c
degrees, and the course may be wider than the
; t: E' I( V ?8 C# Zlocalizer, resulting in a lower degree of accuracy.
" e8 ?& L5 C4 U8 `. W' x% e4 H(Refer to AIM.)
6 ?5 g1 E* Z8 }9 x. WSIMULATED FLAMEOUT- A practice approach
, S6 i- r" e* X$ L. k: Hby a jet aircraft (normally military) at idle thrust to a
+ i8 K, w6 y( e9 F# Z. g7 ?$ ~runway. The approach may start at a runway (high! w" R# X7 M9 B! t* M! q
key) and may continue on a relatively high and wide
, B) H5 {, C" A1 a. Qdownwind leg with a continuous turn to final. It
" {9 |' H5 f6 V4 l6 M7 l' Lterminates in landing or low approach. The purpose
# k6 U5 p) v2 k$ u% P' @of this approach is to simulate a flameout.; L0 H# G7 n, b, q
(See FLAMEOUT.). p1 Z/ e2 u, q2 o, {7 I
SIMULTANEOUS ILS APPROACHES- An ap‐
S2 e* L3 u P1 G8 W6 F! qproach system permitting simultaneous ILS/MLS4 z1 \8 m6 o; L7 w4 ?
approaches to airports having parallel runways
& O; G# N' ^% x v% e* r: S9 w/ g1 \% V+ Zseparated by at least 4,300 feet between centerlines.2 y$ U# F; H' _4 v
Integral parts of a total system are ILS/MLS, radar,. O! l1 ?) B! I: c8 W5 Y1 m+ s
communications, ATC procedures, and appropriate
/ f$ T* W: ~( l6 \: @airborne equipment., N8 Z" L' g1 s; B- _8 `
(See PARALLEL RUNWAYS.): c9 W) d6 L( x) \& m# w
(Refer to AIM.)
& k2 |! o# ?; k/ d) J FSIMULTANEOUS MLS APPROACHES(See SIMULTANEOUS ILS APPROACHES.)9 r9 i4 n' F- D5 {! S: y
SINGLE DIRECTION ROUTES- Preferred IFR
9 ~6 d3 S; Q! S; P& r+ s2 ^0 K' yRoutes which are sometimes depicted on high
2 h! Y( G- F% @) Maltitude en route charts and which are normally flown+ W5 V% G) k8 h
in one direction only.0 Y: U. l$ E: F9 Y" \
(See PREFERRED IFR ROUTES.)4 T0 {: u) {2 Q$ T& P- R
(Refer to AIRPORT/FACILITY DIRECTORY.)
" H4 `' [6 c. LSINGLE FREQUENCY APPROACH- A service- A* f( n" G* m" j- n7 U
provided under a letter of agreement to military% @ p3 e# n' s, B
single‐piloted turbojet aircraft which permits use of
$ j+ m0 A: N+ q+ g6 g2 ~: ca single UHF frequency during approach for landing.
; U h0 B" X# v1 Y, tPilots will not normally be required to change
' ]8 \% x l/ c' N, ffrequency from the beginning of the approach to. F8 f- a% Y. v* T+ u" e7 Z
touchdown except that pilots conducting an en route, o0 a/ Z" N+ H, W- G$ Y M) i* u
descent are required to change frequency when9 j8 r/ Q2 e* N1 r
control is transferred from the air route traffic control; y1 X8 ^# L+ c3 m
center to the terminal facility. The abbreviation% S9 U* e% Y, f2 n/ m( `$ j
“SFA” in the DOD FLIP IFR Supplement under* e; T+ b' H! o4 v
“Communications” indicates this service is available9 D* R' K' G( N. F; l
at an aerodrome.
, e3 }$ `* f9 V. v$ DSINGLE‐PILOTED AIRCRAFT- A military turbo‐/ L; J1 E: F9 f' p; E& P' N
jet aircraft possessing one set of flight controls,$ f! e+ O* X( j7 R# I
tandem cockpits, or two sets of flight controls but4 m1 L8 p! f9 ?3 `6 \
operated by one pilot is considered single‐piloted by
+ J% m9 I6 a" WATC when determining the appropriate air traffic' D0 t% L1 L2 ?" e
service to be applied.
& P8 |1 c2 N) L6 G(See SINGLE FREQUENCY APPROACH.)% e% g- u# k; V" v1 t3 _
SKYSPOTTER- A pilot who has received special‐0 a8 S- Y3 i( _+ W
ized training in observing and reporting inflight
# j7 z$ ?/ I1 E4 @weather phenomena.! ^8 ?' a2 u1 E4 i/ S( ?
SLASH- A radar beacon reply displayed as an9 a2 [9 {7 }, Y' \
elongated target.
7 n) X3 o, Y; a" QSLDI(See SECTOR LIST DROP INTERVAL.), n: _- J( t$ v$ ^8 u
SLOT TIME(See METER FIX TIME/SLOT TIME.)
# Y8 N: g, E3 j6 F+ \) }SLOW TAXI- To taxi a float plane at low power or
' [8 m3 R* C# l; M' d. h: Klow RPM.1 ^* a; Y! N; m# x! W2 X! g4 y
SN(See SYSTEM STRATEGIC NAVIGATION.)
) h6 Y( l! t% `! c; b' wSPEAK SLOWER- Used in verbal communications
3 o3 l7 M+ m1 w1 f- ?1 was a request to reduce speech rate.) n" s6 t& V/ l* M. y
SPECIAL ACTIVITY AIRSPACE (SAA)- Any$ W2 c- ^% K1 a$ C8 }+ W
airspace with defined dimensions within the National% I2 ], a9 s# J0 w
Airspace System wherein limitations may be0 u% ]( z0 `7 H9 ~
imposed upon aircraft operations. This airspace may
T! w4 S% p: k( P# G; W9 l; v( dbe restricted areas, prohibited areas, military
+ l% h3 T B1 D" t8 {" h) h/ o2 noperations areas, air ATC assigned airspace, and any
2 T+ R: x9 Z$ G, ?0 ^- S$ Tother designated airspace areas. The dimensions of
& ?; k x$ f- Q+ P) n7 ~this airspace are programmed into URET and can be
( e: r, f2 y) G7 l" a6 H6 Q2 Gdesignated as either active or inactive by screen entry.
& ^7 w8 A; ]8 _8 \2 k0 jAircraft trajectories are constantly tested against the
6 K7 T* }* }0 Z3 j9 U Sdimensions of active areas and alerts issued to the
! T1 {; E" C. \7 g; ^& xapplicable sectors when violations are predicted.- B. [/ U! c3 H3 C3 M0 q
(See USER REQUEST EVALUATION TOOL.)- t1 M2 Y, {. C9 Q3 ]3 V
SPECIAL EMERGENCY- A condition of air piracy
: ~. q, g' ]1 g& for other hostile act by a person(s) aboard an aircraft7 ]- G$ ]2 x0 b4 a- g" @2 ~, d
which threatens the safety of the aircraft or its
) d3 q, i. W; J+ I) W; Mpassengers.; c9 {1 |; q5 z5 Q6 q
SPECIAL INSTRUMENT APPROACH PROCE‐6 C. W/ r4 d I
DURE(See INSTRUMENT APPROACH PROCEDURE.)6 m1 b! W5 f; e% j
Pilot/Controller Glossary 2/14/08
/ ~: D* r1 c& ~1 u3 p2 R2 HPCG S-5
% @4 Z' Y6 T) U! I% b; pSPECIAL USE AIRSPACE- Airspace of defined, E2 |" z$ L5 k- O, G
dimensions identified by an area on the surface of the
; W6 Z; c8 i7 @ M& y% Qearth wherein activities must be confined because of, j7 ]2 f8 A( P, q5 g$ e$ e4 ^
their nature and/or wherein limitations may be
8 z' R! _7 q) o& Y% H& h! k* simposed upon aircraft operations that are not a part of
. V0 {# F# \. k; V9 ythose activities. Types of special use airspace are:
$ i' N9 N) z! t6 Z5 z: o$ q- Ma. Alert Area- Airspace which may contain a high! N$ b5 g/ x9 }. B, {
volume of pilot training activities or an unusual type
% U- h2 l# Y9 |9 cof aerial activity, neither of which is hazardous to4 Z" E$ f8 Q6 t1 K; K# u
aircraft. Alert Areas are depicted on aeronautical
7 ? u# @9 g0 @5 t1 w0 N2 Ncharts for the information of nonparticipating pilots.% e7 h( Z, f0 a# ?0 P
All activities within an Alert Area are conducted in
4 F0 x1 E% o" `- @; Saccordance with Federal Aviation Regulations, and
* S6 k8 ^0 W$ ? M. k* y' ]7 Wpilots of participating aircraft as well as pilots
7 C% N2 s/ \7 B6 j# Z# @transiting the area are equally responsible for) _" J8 @: C7 s. D% o3 o
collision avoidance.
; O* C9 F# C$ b* K3 r$ e9 L: Pb. Controlled Firing Area- Airspace wherein
* N4 n/ H! h3 h6 X" z- @activities are conducted under conditions so
[8 o/ {6 s. Scontrolled as to eliminate hazards to nonparticipating0 {, u4 A4 _0 ^/ D
aircraft and to ensure the safety of persons and
* _( e6 {& M8 N/ V' fproperty on the ground.
& y$ G6 l! g9 a6 P; G# ?# Mc. Military Operations Area (MOA)- A MOA is1 a: d) \" ?6 i9 X+ k/ K( G) K2 y3 z
airspace established outside of Class A airspace area$ ~1 Q2 A2 \) Q) V% C. p! K3 o
to separate or segregate certain nonhazardous* r8 ]+ z9 b1 J$ I0 Q( c! h0 v
military activities from IFR traffic and to identify for; C p3 T# S4 f2 K0 k
VFR traffic where these activities are conducted." @0 `. @% [1 G# H. q4 Q& e# Q
(Refer to AIM.)4 ^, Z& d e" b5 R. C
d. rohibited Area- Airspace designated under6 j b$ u7 A% \1 H3 B5 r' A L
14 CFR Part 73 within which no person may operate
- @- r0 C5 s* ~$ E& Kan aircraft without the permission of the using
* }$ ?: g# x: t+ P2 l. d* Magency.
% X% B7 w& G& j; d ]( F7 ~0 L(Refer to AIM.)
; f3 W' n* ~; W(Refer to En Route Charts.)
. @. ]4 a, r) k0 P* N- Ie. Restricted Area- Airspace designated under
3 B: k! E0 G7 `; I& I* @& e( g3 ~14 CFR Part 73, within which the flight of aircraft,
* j8 |1 m& j% v& m' l# Swhile not wholly prohibited, is subject to restriction.
L1 x% X- C8 a/ i* y, i6 JMost restricted areas are designated joint use and1 `; ?8 G1 q: }; R6 I& O
IFR/VFR operations in the area may be authorized by% E5 H) V: N+ N3 m" D! O9 s- N5 W% o! i
the controlling ATC facility when it is not being- e' g3 v( v7 n
utilized by the using agency. Restricted areas are# @ u' s( I+ M2 ?
depicted on en route charts. Where joint use is
# @; c+ z; e1 x2 Q7 {authorized, the name of the ATC controlling facility% }6 I6 T" `0 M! \
is also shown.
: y; o3 @; F$ L& i! D3 X6 q(Refer to 14 CFR Part 73.); S2 J. ^1 H$ { h/ T5 h$ B
(Refer to AIM.)' W: v7 c+ q! `- C. z) D- T
f. Warning Area- A warning area is airspace of
/ N- g$ a6 j% q Kdefined dimensions extending from 3 nautical miles; f2 t- S4 K/ g# Y+ n, Y4 e& K+ ~8 d
outward from the coast of the United States, that
4 Y9 @8 j' L6 Bcontains activity that may be hazardous to
, D" q# {& ]3 G$ p8 E6 F8 Rnonparticipating aircraft. The purpose of such" A& ~* d( _/ ^
warning area is to warn nonparticipating pilots of the
' P+ T/ d) Q9 y# n7 B. Q) kpotential danger. A warning area may be located over
# c7 y% d2 B1 R* d% g. mdomestic or international waters or both. Z) s: x9 J6 H( o* L! M6 A: M
SPECIAL VFR CONDITIONS- Meteorological3 ^" }' r" `$ w% b2 R' I" H6 g
conditions that are less than those required for basic
: h, L7 j4 U3 {3 a3 \7 D/ k1 F' t- oVFR flight in Class B, C, D, or E surface areas and+ \& w: Z3 e1 X
in which some aircraft are permitted flight under" _: T3 R( |: N6 J
visual flight rules.
1 x1 v; ~( K0 x' {/ F/ O" I: t(See SPECIAL VFR OPERATIONS.)
$ z9 Q4 o) r1 o, G" ~(Refer to 14 CFR Part 91.)2 B- p8 M$ `/ |1 L5 J7 s
SPECIAL VFR FLIGHT [ICAO]- A VFR flight
) g/ t3 v; u; {+ _: {0 Rcleared by air traffic control to operate within Class' u- W2 N0 Q5 p0 G1 Z& c7 S
B, C, D, and E surface areas in metrological a7 d, h* e$ j6 T; K; X h
conditions below VMC.3 E. W" X# G9 i: K/ h2 ]
SPECIAL VFR OPERATIONS- Aircraft operating
, V9 B9 ^6 B7 T/ H6 H3 q6 Sin accordance with clearances within Class B, C, D,
6 z- V2 I: F3 ~8 R: x cand E surface areas in weather conditions less than the: w1 _- \+ \8 Z! Y
basic VFR weather minima. Such operations must be
: w C% R3 T/ c1 Xrequested by the pilot and approved by ATC.1 Q( f8 R# g# V" {
(See SPECIAL VFR CONDITIONS.)
/ r/ |$ `6 A# y(See ICAO term SPECIAL VFR FLIGHT.)
9 I; r; `( c2 v( d3 x: a b& zSPEED(See AIRSPEED.)4 l, o$ h- }3 Q3 [8 U- |& U
(See GROUND SPEED.)1 ?# v# l! B0 c
SPEED ADJUSTMENT- An ATC procedure used to* C& d; p" m% x5 ^# V) B3 Q
request pilots to adjust aircraft speed to a specific
! r* ?2 ^5 |7 Y6 k' K, Ivalue for the purpose of providing desired spacing.7 R/ l5 E# z! u' I% z( g/ W
Pilots are expected to maintain a speed of plus or
' \+ X" `0 b1 d6 s0 H4 N0 Tminus 10 knots or 0.02 Mach number of the specified8 U0 q3 {! ~2 A& j
speed. Examples of speed adjustments are:
( r$ E- p: U! V( |1 L5 Ha. “Increase/reduce speed to Mach point (num‐
9 K" Z8 C* [/ X e$ G. {2 Vber.)”- y: ^8 ]8 B5 T f: z8 M- W6 L
b. “Increase/reduce speed to (speed in knots)” or
% c; Y% z5 ^3 v- J) I, } a“Increase/reduce speed (number of knots) knots.”
3 [; L8 I% L! m/ y# i3 u' T6 JSPEED BRAKES- Moveable aerodynamic devices. m0 J+ z/ I/ J7 T7 N
on aircraft that reduce airspeed during descent and% q( m0 w' q5 g3 _) }+ b* ^
landing./ f: T6 }1 O, p0 U) l+ H
SPEED SEGMENTS- Portions of the arrival route9 o' ]9 [# N! g" D
between the transition point and the vertex along the! y) H! i) G& T% B
optimum flight path for which speeds and altitudes; B8 w1 N5 A$ |9 H
are specified. There is one set of arrival speed" a7 Y6 K, l; C; Y% ^# y' g
segments adapted from each transition point to each
* F- E+ T( C# t8 H: g7 o: L3 k( ?vertex. Each set may contain up to six segments. X. t" Q6 u" H$ y: X; H
SQUAWK (Mode, Code, Function)- Activate
( n) _% i5 b1 F( O+ w+ S5 Qspecific modes/codes/functions on the aircraft
; U2 L7 S9 W' y, S/ L- H$ Ltransponder; e.g., “Squawk three/alpha, two one zero
+ o* b) X3 ~) V% O( x) b: jfive, low.”
4 a; ]! ^1 M( }3 }; p(See TRANSPONDER.)
9 h5 v6 v% X) [: K. x8 nPilot/Controller Glossary 2/14/08# k* a1 Y) ~: A& y+ I
PCG S-6- G+ |8 ?; D- W- P2 V
STA(See SCHEDULED TIME OF ARRIVAL.)
+ M$ O/ p: e& R& ~0 S" |" ISTAGING/QUEUING- The placement, integration,
7 H- U/ j& `! aand segregation of departure aircraft in designated7 s, m0 U6 U! E/ L+ s T
movement areas of an airport by departure fix, EDCT,+ w( q* a. Y4 _" s( Y7 t
and/or restriction.! O# z0 ?- ^' H( z) k4 w% [2 ^
STAND BY- Means the controller or pilot must
4 H7 y, i. M$ b, z: Ypause for a few seconds, usually to attend to other9 H' ]& S, V) p+ k. }: F1 F* H
duties of a higher priority. Also means to wait as in
3 _5 A5 n i4 Y: M“stand by for clearance. ” The caller should
2 u# N- o/ Q2 {6 j* ?& h; Rreestablish contact if a delay is lengthy. “Stand by” is
6 Q- `& r7 X( ~$ U2 F ~$ B/ S( Unot an approval or denial.
3 T) X5 F/ R3 h# u# T8 USTANDARD INSTRUMENT APPROACH PRO‐
; N& G. K, L8 _6 ?5 B0 _CEDURE (SIAP)-
" Y G) V& w# l) e0 \(See INSTRUMENT APPROACH PROCEDURE.)2 e U' f" k& J( _5 _0 U b* E
STANDARD INSTRUMENT DEPARTURE (SID)-2 Z; ~- Z( K) @0 |, C+ G
A preplanned instrument flight rule (IFR) air traffic" g& D* e @! l( x$ e9 k' O0 w/ t' q
control (ATC) departure procedure printed for
# Z- K- d3 R* kpilot/controller use in graphic form to provide+ V% W: x2 B* _+ w$ I/ b! H. w
obstacle clearance and a transition from the terminal
; w) C0 D2 ~1 m6 @" s6 Aarea to the appropriate en route structure. SIDs are
, T9 ^% G; I9 x$ x; k" z( Kprimarily designed for system enhancement to
. }* C" A' S% R1 |9 O# @6 ]1 hexpedite traffic flow and to reduce pilot/controller, C* f1 n5 u" Z0 }; G
workload. ATC clearance must always be received8 }8 y i& _/ W
prior to flying a SID. N& b4 }& [1 |$ S" \
(See IFR TAKEOFF MINIMUMS AND5 X+ `1 p: t1 I9 {, V% L
DEPARTURE PROCEDURES.)
+ m; _6 H: g* m9 c9 e5 m$ y(See OBSTACLE DEPARTURE PROCEDURE.)
7 K4 G9 L9 y/ V8 X" L(Refer to AIM.)
7 H( s1 ^- I2 R6 \( {3 m4 `. [STANDARD RATE TURN- A turn of three degrees
/ L I+ ?1 w: g! X7 Mper second.
- J L, v. F$ s# |$ v/ D- CSTANDARD TERMINAL ARRIVAL- A pre‐
4 }6 p7 Y% y+ }. ^4 t9 o9 Cplanned instrument flight rule (IFR) air traffic control! `$ n% R: ?, t+ ]+ o8 k7 s& V
arrival procedure published for pilot use in graphic$ K; E/ q5 {8 D4 j ?
and/or textual form. STARs provide transition from8 n3 {: }* d9 I+ ], P
the en route structure to an outer fix or an instrument
+ R: G6 }9 K6 b( bapproach fix/arrival waypoint in the terminal area.
2 _/ y7 `& ]- H( D: qSTANDARD TERMINAL ARRIVAL CHARTS(See AERONAUTICAL CHART.)8 A8 o& Q; e( f# Q, z/ t
STANDARD TERMINAL AUTOMATION RE‐
7 k( V. \& s) C; oPLACEMENT SYSTEM (STARS)-
" F2 M7 z' ?( A9 N- J(See DTAS.)
K" l, ^5 D4 O( xSTAR(See STANDARD TERMINAL ARRIVAL.)
5 _; L+ n5 X0 O4 C) VSTATE AIRCRAFT- Aircraft used in military,0 j3 j! b6 y7 ^) [% `
customs and police service, in the exclusive service1 Y6 n' @* J& K
of any government, or of any political subdivision,
% m/ c) X9 M( Q: {1 o- Z0 w5 H. ethereof including the government of any state,
4 L3 d" s- I& @3 z+ c- iterritory, or possession of the United States or the0 y: _1 g' t$ g' t! P5 s# G8 N
District of Columbia, but not including any1 u( d1 Y, s6 F" K( b1 O
government‐owned aircraft engaged in carrying
' V7 @0 s% o6 Lpersons or property for commercial purposes.
- S" j# l& p/ X- S7 B O1 I4 b, CSTATIC RESTRICTIONS- Those restrictions that5 G9 T4 B+ M) v9 K0 V9 w
are usually not subject to change, fixed, in place,) `( H! W* J/ G; w0 z) y
and/or published.
* `: Z$ ~0 F# x% x; h% iSTATIONARY RESERVATIONS- Altitude reserva‐
3 m7 Z/ ?' l4 J- Mtions which encompass activities in a fixed area.
0 n0 K# [9 u$ u; f2 c; VStationary reservations may include activities, such
# g2 \ ^+ t) P |as special tests of weapons systems or equipment,1 O, z4 a) R9 B' O8 X
certain U.S. Navy carrier, fleet, and anti‐submarine7 a- j0 C# K* T6 R W" _
operations, rocket, missile and drone operations, and# o9 W' a! B& P
certain aerial refueling or similar operations.8 y! ~% y' i1 X! F
STEP TAXI- To taxi a float plane at full power or; L3 Y; t$ M% }2 ~3 K$ v! N
high RPM.
( A* n+ G3 R; e7 `8 |8 ASTEP TURN- A maneuver used to put a float plane z4 E; B& P5 W- m# T+ h9 u: Q$ `
in a planing configuration prior to entering an active
! u% B1 |4 U5 V7 a9 G& J: Csea lane for takeoff. The STEP TURN maneuver4 I3 |+ R& _1 V; f+ y
should only be used upon pilot request.
/ W2 H% O: p6 \# }6 S; `% FSTEPDOWN FIX- A fix permitting additional) `8 [4 I% ~; S! T$ a) a/ p l: }
descent within a segment of an instrument approach
( h# ` F& P6 Q* P4 a0 |" F+ ?procedure by identifying a point at which a* F" n5 b5 s' i* R2 u
controlling obstacle has been safely overflown.8 z" E+ H8 `1 I
STEREO ROUTE- A routinely used route of flight
" t9 s# [3 | D7 Hestablished by users and ARTCCs identified by a
" x3 U; L Q( {% d2 |coded name; e.g., ALPHA 2. These routes minimize
, u5 Q! A( K4 n" x: Y0 Fflight plan handling and communications.
9 x! `* g9 z# |STOL AIRCRAFT(See SHORT TAKEOFF AND LANDING M( S5 }( ^2 ?7 [$ r
AIRCRAFT.)& R/ f& N& i3 e# w; x) ]
STOP ALTITUDE SQUAWK- Used by ATC to2 b" C8 U8 K3 S. n7 u
inform an aircraft to turn‐off the automatic altitude% \ ~# ?. P+ X( L( h, j
reporting feature of its transponder. It is issued when, o, k ]+ O3 g" `% |' b& L
the verbally reported altitude varies 300 feet or more( V6 M/ V! ?" e- f6 {/ m
from the automatic altitude report.9 J, e9 {# W; N# x$ ~
(See ALTITUDE READOUT.)
; b) z4 W& v; h& s(See TRANSPONDER.)" B" s0 D3 x% n; r0 g2 e$ k F0 F
STOP AND GO- A procedure wherein an aircraft
* O9 _! U1 }0 d' \8 mwill land, make a complete stop on the runway, and' M2 b* I: V8 h, ?; ~/ U
then commence a takeoff from that point.- J& d) A& A' h# @$ @' I
(See LOW APPROACH.)
# N* N; [" C- G. h9 r' \* {) k/ }, x(See OPTION APPROACH.)3 W7 ?3 X$ Y! d) c0 F* v
Pilot/Controller Glossary 2/14/08
7 d1 U6 x1 k' _PCG S-7) w& m4 ?, C$ Y* d( ^
STOP BURST(See STOP STREAM.)
4 L, U) I+ y; pSTOP BUZZER(See STOP STREAM.)
; d/ f! h$ L* j9 y+ z9 YSTOP SQUAWK (Mode or Code)- Used by ATC to
2 n6 K+ ]9 k- _4 Rtell the pilot to turn specified functions of the aircraft
! _+ ~1 f/ s: N* t/ htransponder off.4 h5 }) Y, S6 C7 J1 L
(See STOP ALTITUDE SQUAWK.)
* b9 d0 b( p- ^- c7 ?1 v8 D(See TRANSPONDER.)& K+ d2 X d: _; R+ I: a0 e+ n% W
STOP STREAM- Used by ATC to request a pilot to4 N' S9 R$ W! T1 i& [6 J
suspend electronic attack activity.6 f' g; \( W1 R' J
(See JAMMING.)
! Q' x: M/ O7 O2 WSTOPOVER FLIGHT PLAN- A flight plan format/ o H# `) z/ z, s; w
which permits in a single submission the filing of a
; R1 e6 B4 C# W' k1 h1 usequence of flight plans through interim full‐stop% S4 D( p/ N. S/ l
destinations to a final destination.
% _" ^7 }4 m" ^. d) O$ b) _STOPWAY- An area beyond the takeoff runway no2 `9 k, e5 P9 _$ P& C
less wide than the runway and centered upon the- n' m \: D2 V" l; L. H
extended centerline of the runway, able to support the- q+ _3 ?* f3 [1 s. K7 q4 X: t
airplane during an aborted takeoff, without causing; G- P- [# j4 [' y! h
structural damage to the airplane, and designated by
' O) ?0 V* _3 y8 b) kthe airport authorities for use in decelerating the. Y5 |( o1 X% d" c+ t2 X
airplane during an aborted takeoff.
' }0 F- X2 L6 tSTRAIGHT‐IN APPROACH IFR- An instrument
, D$ i. _7 e0 P9 o" H% Q8 }approach wherein final approach is begun without' D, V* Y7 Z h& a0 H- M
first having executed a procedure turn, not
! y; C' C* m3 E4 g$ q! Knecessarily completed with a straight‐in landing or
8 O% n2 o" ^9 C) W5 ?made to straight‐in landing minimums.
' q" _5 U, Q8 @6 z(See LANDING MINIMUMS.)
. ~$ E8 A& D3 ^7 g6 }0 T/ G" O* O(See STRAIGHT‐IN APPROACH VFR.)3 ?2 T0 \3 L3 A6 H
(See STRAIGHT‐IN LANDING.)& [% i4 Z4 e2 C4 O: }
STRAIGHT‐IN APPROACH VFR- Entry into the+ K( ?7 S, Q4 x7 q7 D5 W7 }
traffic pattern by interception of the extended runway
' [6 L5 B! f4 E% G% D( x* Ncenterline (final approach course) without executing W! N/ T: z6 p( \( b3 M
any other portion of the traffic pattern.
4 K- n! j. w, e+ j(See TRAFFIC PATTERN.)
( V1 @' F6 T9 C, H& b1 @3 bSTRAIGHT‐IN LANDING- A landing made on a9 L( y8 `8 h0 r; d
runway aligned within 30 of the final approach
2 u# A z: x5 fcourse following completion of an instrument
! N' o4 _2 M& wapproach.! P$ k8 _" m. _+ e2 X
(See STRAIGHT‐IN APPROACH IFR.)7 p+ u# U+ K: V2 R4 ~
STRAIGHT‐IN LANDING MINIMUMS(See LANDING MINIMUMS.)* R- p# e) D0 ]! R, I Y+ F/ y
STRAIGHT‐IN MINIMUMS(See STRAIGHT‐IN LANDING MINIMUMS.)3 S2 M& I- ^/ }4 M& Q2 X
STRATEGIC PLANNING- Planning whereby; b5 N" V3 Q$ @0 O7 [
solutions are sought to resolve potential conflicts.
8 x9 T0 [4 T' c7 j0 GSUBSTITUTE ROUTE- A route assigned to pilots ~2 v( X% h9 B/ m: Z
when any part of an airway or route is unusable1 {% S1 c8 t3 t" g/ W$ {' M
because of NAVAID status. These routes consist of:5 g+ `& W9 D4 w2 _4 E
a. Substitute routes which are shown on U.S.
% C7 ~' p: }7 WGovernment charts.# e. e' j$ d/ H: F2 Y
b. Routes defined by ATC as specific NAVAID
" ? J. R; n8 j3 z3 Z0 M2 oradials or courses.2 J: B& Y& ^! Z
c. Routes defined by ATC as direct to or between
$ ?' I1 i x5 h* Y m( mNAVAIDs.+ F6 h# F6 M7 [& V/ M- s
SUNSET AND SUNRISE- The mean solar times of# u/ J3 _6 t! N. w) [+ C
sunset and sunrise as published in the Nautical
5 U4 b- u/ d" JAlmanac, converted to local standard time for the" j8 k* F4 [: z5 g: i! w v
locality concerned. Within Alaska, the end of evening+ ^2 Z' Q0 }/ n3 K8 Y
civil twilight and the beginning of morning civil
) L9 O$ X1 e, }+ V+ ~8 M5 g- c$ rtwilight, as defined for each locality.
& V9 i* J& _- s! }% LSUPER HIGH FREQUENCY- The frequency band% y5 x6 V7 p7 V a& B
between 3 and 30 gigahertz (GHz). The elevation and
2 j( h6 ~1 j8 u) ]1 d0 u* p/ \azimuth stations of the microwave landing system
: C7 E8 s/ j9 D- Aoperate from 5031 MHz to 5091 MHz in this
: m0 q) r) P, k: j7 bspectrum.
8 X8 N, n: |, k8 r* a: YSUPPLEMENTAL WEATHER SERVICE LOCA‐ G# _$ t( }3 @8 y1 y0 v& M
TION- Airport facilities staffed with contract# T( w6 J8 q9 B0 w" ]+ Y+ K: V
personnel who take weather observations and
7 |% W' M) q1 l/ rprovide current local weather to pilots via telephone
4 U+ m& }6 r2 M7 eor radio. (All other services are provided by the parent/ E# r) {; y) O( e) x
FSS.)& d9 A; M: `: Z/ E+ m6 H: t
SUPPS- Refers to ICAO Document 7030 Regional# Z* a% `5 M( |" a- }! g
Supplementary Procedures. SUPPS contain proce‐
" j [& `, R4 h+ V3 o+ Ydures for each ICAO Region which are unique to that$ x- b: e2 \1 A' L. c/ e6 {
Region and are not covered in the worldwide
& O. ?1 p9 p5 q4 cprovisions identified in the ICAO Air Navigation
. b- k3 `7 ]" ?6 j: wPlan. Procedures contained in Chapter 8 are based in
3 d0 V6 s/ i8 S( lpart on those published in SUPPS.
* a" s0 G2 Z- C" t# c6 cSURFACE AREA- The airspace contained by the
2 H. T/ n: Z2 |8 \" l& _: N2 Mlateral boundary of the Class B, C, D, or E airspace
4 w# |; `1 Z+ v4 bdesignated for an airport that begins at the surface and
$ i4 l7 A) j$ [* |6 vextends upward.
" e! y2 ?: f: GSURPIC- A description of surface vessels in the area
0 k3 c. H) W- B8 N2 Pof a Search and Rescue incident including their. z" z6 H9 {$ U# F! S3 h
predicted positions and their characteristics., c+ z* G6 R9 Y* A8 D# T( y
(Refer to FAAO JO 7110.65, Para 10-6-4,
$ n' t+ d/ Z- ^) AINFLIGHT CONTINGENCIES.)) h# m6 D1 R# p4 P; E5 K0 O
SURVEILLANCE APPROACH- An instrument, H, G, R: m7 j0 f( {- ]/ G( J9 `4 B
approach wherein the air traffic controller issues
" a0 @+ O- D |: V" Binstructions, for pilot compliance, based on aircraft/ @: ~2 y5 s2 V4 C$ C0 g
Pilot/Controller Glossary 2/14/08! p5 @( ? k! p0 A P
PCG S-8
7 \8 [; _$ K4 ~8 B! S$ yposition in relation to the final approach course
8 a2 h8 r7 k2 _4 M# V0 i(azimuth), and the distance (range) from the end of! _) x) J) O# B
the runway as displayed on the controller's radar
( D0 f4 R* L1 Zscope. The controller will provide recommended
8 l/ U! f9 q7 {8 n9 r/ y& ^3 K! paltitudes on final approach if requested by the pilot.
0 S" R+ ^' S$ j: C5 L5 I(Refer to AIM.)
$ b+ E% k! S3 R7 oSWAP(See SEVERE WEATHER AVOIDANCE PLAN.)
# x& B/ L* M( K" f$ j$ e7 n, ~SWSL(See SUPPLEMENTAL WEATHER SERVICE) y3 ?7 n- P; U* E. P: J
LOCATION.)
4 }) e! D9 b& Y% _4 G% K b/ VSYSTEM STRATEGIC NAVIGATION- Military
: x" M; v- E; ]& c: gactivity accomplished by navigating along a
% G* M5 ` ~; s& i5 o s5 C4 [preplanned route using internal aircraft systems to
- K( v8 L. c( z% e! dmaintain a desired track. This activity normally
0 r& T4 j( W$ n* Rrequires a lateral route width of 10 NM and altitude0 @2 r" Y* Q7 F" l' `
range of 1,000 feet to 6,000 feet AGL with some route
, T2 y' g2 o$ J3 i* q+ W2 asegments that permit terrain following.
7 J% @! C( ]7 O' o4 e' r" s6 a& HPilot/Controller Glossary 2/14/08
& k- a- b2 e) iPCG T-1
. v1 p, @% K5 ?& G5 Y3 tT0 W6 \) l' w$ }
TACAN(See TACTICAL AIR NAVIGATION.)
: O/ n5 S8 @1 F* d& N: dTACAN‐ONLY AIRCRAFT- An aircraft, normally$ Y5 _6 q! J" e k
military, possessing TACAN with DME but no VOR
3 U J2 x' k! l7 ^1 Q! m; _navigational system capability. Clearances must0 w/ }, x7 Y5 q6 l z* Z! M8 h
specify TACAN or VORTAC fixes and approaches.9 o4 _' p* M' d$ r I0 _
TACTICAL AIR NAVIGATION- An ultra‐high
3 L1 f. b4 }+ z* }& c; vfrequency electronic rho‐theta air navigation aid
1 r; m3 y: u% C- kwhich provides suitably equipped aircraft a
/ z! _, h0 z% A h. gcontinuous indication of bearing and distance to the3 B+ @8 L$ r4 P3 ^! D
TACAN station.2 [9 k4 G/ @7 o3 ]
(See VORTAC.)8 n4 C3 c7 J; I+ v% h
(Refer to AIM.)& ?5 t, j$ C! Z$ [) A& q5 [
TAILWIND- Any wind more than 90 degrees to the
. ]$ [" m: q+ g7 w! U, @5 l' Olongitudinal axis of the runway. The magnetic
4 U5 z. m6 c6 Fdirection of the runway shall be used as the basis for
2 k8 P8 k. {! M% C2 pdetermining the longitudinal axis.7 {6 }- Q, f- M9 B& O/ p
TAKEOFF AREA(See LANDING AREA.)
4 B: R- \; d) R- K) @TAKE‐OFF DISTANCE AVAILABLE [ICAO]- The
; l% w6 f2 d+ `$ P9 I& Vlength of the take‐off run available plus the length of
8 C+ W1 t6 Z. r1 ethe clearway, if provided.' s h, B; Z1 n8 q/ C5 S
TAKE‐OFF RUN AVAILABLE [ICAO]- The length8 I3 e# y: h% t( i1 ^/ u
of runway declared available and suitable for the0 T) O3 ], k! V7 }
ground run of an aeroplane take‐off.3 F+ K# S9 a' u1 N# h
TARGET- The indication shown on an analog
/ i: N; G, e% C9 r. u& X: pdisplay resulting from a primary radar return or a
8 C# w) P5 Y) N$ H7 W# Z) _- Yradar beacon reply.. S1 G9 [0 p) M
(See ASSOCIATED.)# B" ~4 v+ f# M# F( g- S' ?4 W9 T
(See DIGITAL TARGET.)
( e- U# \+ R3 S3 \, u4 L3 e(See DIGITIZED RADAR TARGET.)2 U0 Q9 T3 e4 s# J1 a
(See PRIMARY RADAR TARGET.)1 n) |- `$ Q! r
(See RADAR.)
3 K3 @2 D8 b" b( B(See SECONDARY RADAR TARGET.)6 _1 A' T$ Q8 I5 Q& Z5 S2 _4 a
(See TARGET SYMBOL.)
4 r0 e( x# e: Q3 ^3 i# n2 Q(See ICAO term TARGET.)+ ?; f, l! ^$ ^6 B2 N: p+ Z
(See UNASSOCIATED.)7 ?( [ X& W. E. J# |: u* p& u
TARGET [ICAO]- In radar:
; N8 K/ {6 P% w. R8 a2 n& A2 e; \1 P% la. Generally, any discrete object which reflects or
1 h7 [0 N9 K3 Y* {$ Lretransmits energy back to the radar equipment.
7 B2 `! }- u/ x* lb. Specifically, an object of radar search or+ F5 ?. g" C& d/ _- ?: A
surveillance.9 _; z; v$ s, C) y# O: y9 x: z' x! G
TARGET RESOLUTION- A process to ensure that
% ~9 S6 ~3 H* L4 ucorrelated radar targets do not touch. Target: k4 F9 l+ _' ?. G" |0 ?
resolution shall be applied as follows:
* `1 C% A6 A6 `. N3 m4 O; C: w la. Between the edges of two primary targets or the& Z, E2 q( J9 k0 c6 J
edges of the ASR‐9 primary target symbol./ G1 e8 Z- F/ S4 S# ?
b. Between the end of the beacon control slash and
) c. @! k- g/ D. e- f. R: M) zthe edge of a primary target." P9 r d% L3 t1 m3 ?; [
c. Between the ends of two beacon control slashes.
4 Q a" K; ?0 t t. G/ W" e% T: k0 rNote 1:MANDATORY TRAFFIC ADVISORIES3 g/ K- S0 p8 `8 E
AND SAFETY ALERTS SHALL BE ISSUED5 N- y8 b# Z b+ L
WHEN THIS PROCEDURE IS USED.& T/ b% D+ \3 w+ U6 Z3 ~/ q) c! d
Note 2:This procedure shall not be provided* Q: L- R' m: h O3 z1 K
utilizing mosaic radar systems.4 _8 }/ \. V, h% P. O, ?9 a
TARGET SYMBOL- A computer‐generated indica‐
( ?/ |, {) D: H7 Ftion shown on a radar display resulting from a! s# k( p$ J/ C) t
primary radar return or a radar beacon reply.
' r6 t6 u, O, V9 _+ ]( oTAS(See TERMINAL AUTOMATION SYSTEMS.)
4 W' B& N( `/ E% GTAWS(See TERRAIN AWARENESS WARNING2 V& `' V) }: w( u) J$ l0 D9 d
SYSTEM.)
% T" p) }# U" yTAXI- The movement of an airplane under its own" p/ a* R; O3 J# P7 B9 S
power on the surface of an airport (14 CFR7 J5 O' U; L5 l! D
Section 135.100 [Note]). Also, it describes the
6 H3 w# F' v& ?& I9 h7 Xsurface movement of helicopters equipped with
4 d4 k; `9 {. ?: Bwheels., M5 [6 H! j- n8 j- d) T
(See AIR TAXI.)/ b6 Q8 z; x# a7 t+ R, b
(See HOVER TAXI.)
0 x' _) c+ a( R& l(Refer to 14 CFR Section 135.100.)
$ a. O* S0 ~& L; v4 N6 o(Refer to AIM.)
) X: {; E: q: I& t/ jTAXI PATTERNS- Patterns established to illustrate& e n% t5 @9 T5 }* D1 i
the desired flow of ground traffic for the different) @$ D7 l R% p: ~3 [
runways or airport areas available for use.3 P2 ^9 O$ i9 o+ m5 t* x J
TCAS(See TRAFFIC ALERT AND COLLISION7 q1 R6 B1 p J8 j' f/ L- S( ^
AVOIDANCE SYSTEM.)0 \7 A9 a6 e" y) t. U: z
TCH(See THRESHOLD CROSSING HEIGHT.)4 O" N( p) u) `" ?) q) N& Q; U1 o; i
TCLT(See TENTATIVE CALCULATED LANDING* w" G$ O# m0 C5 y7 t: L
TIME.), }7 f6 t8 k l# c: E
TDLS(See TERMINAL DATA LINK SYSTEM.)! B9 w0 D" u" o& R4 o% F1 P9 A
Pilot/Controller Glossary 2/14/08
& {' c6 X, o0 Q! y* QPCG T-2
" g6 r, l3 J3 B, z+ c$ P) TTDZE(See TOUCHDOWN ZONE ELEVATION.)
9 c& z, `8 m1 s$ N6 G8 f0 y8 |TELEPHONE INFORMATION BRIEFING SER‐
+ h% o2 G) W9 c I+ l( O) P. g& RVIC E- A continuous telephone recording of
/ S, U' f; F/ Z6 `: \meteorological and/or aeronautical information.
2 _1 _8 e* a" y' a! g(Refer to AIM.)$ s4 f5 I! E6 \/ V2 {/ b r
TENTATIVE CALCULATED LANDING TIME- A
/ F. I* w$ `6 f. i# R* vprojected time calculated for adapted vertex for each
5 e; g" J; h! Z% [arrival aircraft based upon runway configuration,9 }0 N6 |: Z) J) A0 a# C
airport acceptance rate, airport arrival delay period,
, t |$ q2 e7 U( Pand other metered arrival aircraft. This time is either2 ?5 D: T% l8 @: g' b
the VTA of the aircraft or the TCLT/ACLT of the$ E) H1 \8 L5 d) m U* L
previous aircraft plus the AAI, whichever is later.) j; h8 `0 I* ~: ^) B, o2 o
This time will be updated in response to an aircraft's/ e! C0 ]! ]- |" c- O8 Q4 A
progress and its current relationship to other arrivals.7 A! i# f, W) v- P7 q1 }4 n! r
TERMINAL AREA- A general term used to describe8 H" P! [9 n% C/ x# q! ? _
airspace in which approach control service or airport; F& P1 j# B! s1 b* z! r3 u& S
traffic control service is provided.8 S8 J: D3 D9 Q! ^7 q( X0 w* m
TERMINAL AREA FACILITY- A facility provid‐& y6 s D8 u4 ]9 c1 [& R
ing air traffic control service for arriving and4 O! A2 g3 b" }8 \1 a! j
departing IFR, VFR, Special VFR, and on occasion. H6 o) n. Q6 D I
en route aircraft." v! Q7 Y8 z! P4 M3 ~! V; N
(See APPROACH CONTROL FACILITY.)! w" S& v3 b! ]; d
(See TOWER.)
: x9 n3 E- j* h: H9 u$ k# tTERMINAL AUTOMATION SYSTEMS (TAS)-; j* c% ]/ z7 A8 Y4 s
TAS is used to identify the numerous automated- f$ v! Y7 f1 W( }9 h( u
tracking systems including ARTS IIE, ARTS IIIA,
- G" o5 r9 ]8 m( JARTS IIIE, STARS, and MEARTS.2 i: }3 E0 S) ^% w- H6 \# B. a% b
TERMINAL DATA LINK SYSTEM (TDLS)- A3 t/ |# Q5 W7 B* H8 r: S
system that provides Digital Automatic Terminal) \5 h2 e2 R7 c- {
Information Service (D-ATIS) both on a specified
9 V! j3 b$ |) {; N$ V0 Bradio frequency and also, for subscribers, in a text6 U7 W& U. c/ K* k/ ~& H- M. e) z0 k
message via data link to the cockpit or to a gate
# T% ]& J% b; G2 e+ ^7 gprinter. TDLS also provides Pre-departure Clear‐
1 [, y+ h' S; U6 u% S0 ^) \+ \6 aances (PDC), at selected airports, to subscribers,
/ n+ }9 {- e! B5 O( [ rthrough a service provider, in text to the cockpit or to7 Z! C: `7 [/ W7 T4 K; D% S' I
a gate printer. In addition, TDLS will emulate the
T9 v5 o: V( q7 s" E- Z+ ?* mFlight Data Input/Output (FDIO) information within
5 `0 q+ ^9 Y! X6 {1 b ?# Qthe control tower.
2 M9 f: [5 q( I9 h0 D- bTERMINAL RADAR SERVICE AREA- Airspace
2 q8 B" ~$ m# \2 F: Csurrounding designated airports wherein ATC! U; b* S5 x4 I( C f$ ^, g/ x$ |
provides radar vectoring, sequencing, and separation; R! b9 I, S& A1 u* U/ ?
on a full‐time basis for all IFR and participating VFR% P9 ~& N. s- m1 d
aircraft. The AIM contains an explanation of TRSA.0 J2 S3 h3 k# ], I* ]
TRSAs are depicted on VFR aeronautical charts.
! E+ I" t( r* q' m. E* b# X( Q, sPilot participation is urged but is not mandatory." K& c. L3 J! m! l0 y, ], a
TERMINAL VFR RADAR SERVICE- A national" I7 ~5 k' T6 I5 C: [9 @0 ^
program instituted to extend the terminal radar
" ]4 C( a) [8 Z; I9 jservices provided instrument flight rules (IFR)
' ^/ @2 O# U% O2 qaircraft to visual flight rules (VFR) aircraft. The- P7 W, [3 u" A( o9 Q
program is divided into four types service referred to
: N/ e' [# p& D. S3 d: v8 Tas basic radar service, terminal radar service area
/ p5 v% D6 J' |7 X2 r; P(TRSA) service, Class B service and Class C service.
+ A- W8 m& Q$ z# ~- g% O1 JThe type of service provided at a particular location* c# M+ e [* V) G+ ?& }
is contained in the Airport/Facility Directory.( A- z; N! m1 `7 t
a. Basic Radar Service- These services are- L4 W6 S' O. j$ c# m
provided for VFR aircraft by all commissioned
+ ?9 X1 g+ N% @3 c2 K" gterminal radar facilities. Basic radar service includes
4 _3 n- b! x2 osafety alerts, traffic advisories, limited radar
; t) r: Z% y( `1 lvectoring when requested by the pilot, and
4 |2 p# q. w/ Vsequencing at locations where procedures have been
- X! ]' ^6 U; X$ D6 j) hestablished for this purpose and/or when covered by* l% }4 B8 P' {2 \
a letter of agreement. The purpose of this service is to
. S$ P0 |0 e& S( O3 i8 S8 Aadjust the flow of arriving IFR and VFR aircraft into
9 O! z+ P7 |- [) Y# }& o' B- m% F9 Tthe traffic pattern in a safe and orderly manner and to6 t2 a4 ?; e7 F- r* e2 q y
provide traffic advisories to departing VFR aircraft.
( Q' m3 W2 z9 K m$ ib. TRSA Service- This service provides, in, I0 e; T: B, O5 |! I9 a
addition to basic radar service, sequencing of all IFR
, |2 L4 ~2 Z8 |1 X! Rand participating VFR aircraft to the primary airport
' A. E9 e! {; ~8 Mand separation between all participating VFR7 V, R) q4 F; j5 g
aircraft. The purpose of this service is to provide! J& P% T6 p+ N$ i' S9 ?$ `! R
separation between all participating VFR aircraft and
* z5 K/ T q* R4 f& l4 K, Zall IFR aircraft operating within the area defined as a5 @- n% F0 N* Q1 F
TRSA." r: c, l2 V( c* y8 d
c. Class C Service- This service provides, in
2 y6 k, O' \$ { [+ M3 m" kaddition to basic radar service, approved separation4 \0 @ ?" d( O W- K0 t5 C
between IFR and VFR aircraft, and sequencing of
w" B! A& [7 q* V, |' z. \VFR aircraft, and sequencing of VFR arrivals to the
7 J- Q( E( W* H7 Tprimary airport.
# Q( V* w2 N: T0 E- Y' ]/ O9 cd. Class B Service- This service provides, in
N! W9 z! m, z) V5 Laddition to basic radar service, approved separation
; n- f' }) Q% | Kof aircraft based on IFR, VFR, and/or weight, and, P* \: ~% v+ [3 ^
sequencing of VFR arrivals to the primary airport(s).8 N1 b8 u" d h8 P2 W
(See CONTROLLED AIRSPACE.)% H8 |1 `: }1 X H7 q" j% ] R! [% k o
(See TERMINAL RADAR SERVICE AREA.)
; d7 z( c; V7 K1 h# i8 h3 S(Refer to AIM.)8 H5 n5 N2 `; m- V
(Refer to AIRPORT/FACILITY DIRECTORY.)
: G' I i" _3 Q3 M1 U% |3 N9 aTERMINAL‐VERY HIGH FREQUENCY OMNI‐
( O( Q: Z0 D1 L$ a+ s9 Z8 g9 g. HDIRECTIONAL RANGE STATION- A very high
; Q+ N9 L6 u( d8 Afrequency terminal omnirange station located on or
# o5 s* {! y, C2 Unear an airport and used as an approach aid.6 t1 J1 i1 L0 m8 m
(See NAVIGATIONAL AID.)
7 d3 ^ W* ]' M(See VOR.)
5 i! |# ~% _, C) F3 v" e7 CTERRAIN AWARENESS WARNING SYSTEM" e7 I; T5 r% |$ Y4 J
(TAWS)- An on-board, terrain proximity alerting
* ~) T/ W5 ]/ q/ pPilot/Controller Glossary 2/14/08% w, D0 c# a) e& s( u
PCG T-3
6 z! y+ Z- k* T& U& |' Msystem providing the aircrew `Low Altitude
7 b9 |% H. ^6 c& J) J4 Y) Y+ Ywarnings' to allow immediate pilot action.1 s7 ^+ s: R( m1 v
TERRAIN FOLLOWING- The flight of a military* ^4 I7 i5 r; ]9 ~8 e5 g. U
aircraft maintaining a constant AGL altitude above! p' c! r2 s3 G, O( ?0 j5 t0 g
the terrain or the highest obstruction. The altitude of
' @5 ?1 ]3 o2 v6 v" ?the aircraft will constantly change with the varying) n! ~5 V' `9 n$ s4 V& G
terrain and/or obstruction.% C+ ]3 [. a7 k' X+ d
TETRAHEDRON- A device normally located on
! z" i, t1 r. d! w$ `uncontrolled airports and used as a landing direction
* w9 n+ @8 v* A' Jindicator. The small end of a tetrahedron points in the; K5 N5 z7 c2 K; J1 q
direction of landing. At controlled airports, the5 e( Z- m Q+ [- S
tetrahedron, if installed, should be disregarded
% P: R3 j& l7 ]: V6 e7 Fbecause tower instructions supersede the indicator.
. X7 n% u& q4 Y9 t# a(See SEGMENTED CIRCLE.)4 p5 b9 Y0 A0 q$ S# U g, ?5 `4 F
(Refer to AIM.)
) F/ }+ X/ E$ j' T0 z. h8 f" xTF(See TERRAIN FOLLOWING.)& p% H v* X0 g; [
THAT IS CORRECT- The understanding you have
2 [. D4 N; |1 }$ r) l6 N1 Cis right.% a! S1 a5 n7 o0 f! j0 v2 m% Z# {
360 OVERHEAD(See OVERHEAD MANEUVER.)2 Z% d3 N* F* C
THRESHOLD- The beginning of that portion of the' C: v6 | {8 ]4 A/ U
runway usable for landing.' N, B/ G" o8 m6 R9 K
(See AIRPORT LIGHTING.)
# N8 e+ T; Q% }(See DISPLACED THRESHOLD.)
( F( K5 I5 Q( U; |4 s, STHRESHOLD CROSSING HEIGHT- The theoreti‐
& K: D4 [! J6 q2 L! @cal height above the runway threshold at which the
7 b8 n: V7 m8 Aaircraft's glideslope antenna would be if the aircraft
. D+ `+ b/ C3 ?0 c& a1 \maintains the trajectory established by the mean ILS! f4 Y, v, h2 }2 U
glideslope or MLS glidepath., u! P, P1 _ e: B B
(See GLIDESLOPE.)
2 T. q6 ], v; a+ O: |8 t! |, k9 v8 |, r* H(See THRESHOLD.)
" f8 [; a( S3 zTHRESHOLD LIGHTS(See AIRPORT LIGHTING.)( T7 y) s; i. U5 I
TIBS(See TELEPHONE INFORMATION BRIEFING$ n6 _: i! K' \# `+ ~( S. l
SERVICE.)3 B7 V4 p3 I b4 g+ _
TIME GROUP- Four digits representing the hour/ U$ f+ N$ V5 }" e% t$ I
and minutes from the Coordinated Universal Time
5 m: V& ^& {) z2 ^5 l, a! ?(UTC) clock. FAA uses UTC for all operations. The
( u7 y- I. W; `. l+ v6 D& jterm “ZULU” may be used to denote UTC. The word
; q8 z, o& x M8 g$ y- ]“local” or the time zone equivalent shall be used to5 F9 |# h1 V, ^" Z
denote local when local time is given during radio and0 A$ r6 L* D( @6 S8 \8 i, l
telephone communications. When written, a time7 g6 x' i2 a7 q4 y2 Z) ^
zone designator is used to indicate local time; e.g.
p% q# r; V& B8 _) H* N6 b0 B“0205M” (Mountain). The local time may be based
5 A6 }4 d% L) F; t+ oon the 24‐hour clock system. The day begins at 0000
5 o% {4 `/ s i1 f* A8 D+ dand ends at 2359.
* S2 u. v$ W$ y7 B% j% Z2 Y; ITMA(See TRAFFIC MANAGEMENT ADVISOR.)
/ R, o9 t# v6 tTMPA(See TRAFFIC MANAGEMENT PROGRAM
+ H6 ]2 t+ g3 ^) s& D% B2 OALERT.)
- t- q% z: a' d0 a/ VTMU(See TRAFFIC MANAGEMENT UNIT.)6 E5 ~' }: [/ ?
TODA [ICAO]-+ }- Q7 v" _" D, p& s
(See ICAO Term TAKE‐OFF DISTANCE
7 r, S0 l! v+ z5 IAVAILABLE.)+ Q" X6 ^ f+ u" |8 A* w$ Z5 y
TORA [ICAO]-
0 j! ~3 U. h7 a4 y) u. K(See ICAO Term TAKE‐OFF RUN AVAILABLE.)- J, Q8 {3 q: c5 a
TORCHING- The burning of fuel at the end of an
3 b/ N) j' t6 w: X9 b! i" _; Cexhaust pipe or stack of a reciprocating aircraft3 V, L2 s- Q: h7 W) F/ G* P6 Q
engine, the result of an excessive richness in the fuel' _- K* \8 p+ n/ d
air mixture.0 ^* K1 e6 ~) p1 t5 R
TOTAL ESTIMATED ELAPSED TIME [ICAO]-
$ y0 V. D' b1 H( y- n4 b8 }For IFR flights, the estimated time required from; U: C, Z5 B$ b: }8 S
take‐off to arrive over that designated point, defined0 w: C) G9 @* z! _
by reference to navigation aids, from which it is- x& I4 V/ G) K5 r
intended that an instrument approach procedure will- R, m7 U: d& g/ k/ R- w
be commenced, or, if no navigation aid is associated- w% `# u* O) C5 Z! B
with the destination aerodrome, to arrive over the
5 |- Y+ e: e [3 Ldestination aerodrom e. For VFR flights, the' R7 B9 J. E. D1 h9 }
estimated time required from take‐off to arrive over
& a+ Q7 J" n {9 Cthe destination aerodrome.+ H4 } N7 p3 O [: H5 E
(See ICAO term ESTIMATED ELAPSED TIME.)
$ h+ G) \" A2 v4 H! R3 NTOUCH‐AND‐GO- An operation by an aircraft that
; ]8 m c( r9 e* ulands and departs on a runway without stopping or: r& |) y* o6 Q8 ~1 S4 k0 n+ X
exiting the runway.' c1 c* l; A0 s4 H: E2 w
TOUCH‐AND‐GO LANDING(See TOUCH‐AND‐GO.)
# V" m" ?7 I/ [. lTOUCHDOWNa. The point at which an aircraft first makes+ p4 }" i. u w& V
contact with the landing surface.
2 p8 q) K" e/ h$ K: wb. Concerning a precision radar approach (PAR),2 k" D5 E+ g! {# C Y; \/ Q% M/ }
it is the point where the glide path intercepts the
2 ?" A6 u- [% I0 Q w8 D) r3 flanding surface.
! g4 L1 ~% W2 Q4 d, f e(See ICAO term TOUCHDOWN.)
, `( X5 D1 v3 v' y5 a4 [: k XPilot/Controller Glossary 2/14/081 M( M" X# s9 ?4 s) N
PCG T-4' _: \+ S6 \0 r& P4 u( g
TOUCHDOWN [ICAO]- The point where the
! I2 K0 t' b( v- h" unominal glide path intercepts the runway.
" v$ ?% B, Q7 ^/ v2 lNote:Touchdown as defined above is only a datum! w2 R) N3 _8 k+ J
and is not necessarily the actual point at which the6 s L- R1 W8 X2 g7 ^4 X" t
aircraft will touch the runway.$ Q8 w1 @* y/ _* S
TOUCHDOWN RVR(See VISIBILITY.)
7 k% O, b! q4 o x# bTOUCHDOWN ZONE- The first 3,000 feet of the$ E. |4 H2 |! o2 l2 n
runway beginning at the threshold. The area is used
! a- d m( R0 b+ r5 n, K# l; k! rfor determination of Touchdown Zone Elevation in
4 ?! L2 O+ Y5 X! othe development of straight‐in landing minimums for- v0 ~% B- @2 Q
instrument approaches.
8 c& V2 G/ j% A" I/ M# d2 L2 }(See ICAO term TOUCHDOWN ZONE.)
: Y) b4 g% Z# D- i% STOUCHDOWN ZONE [ICAO]- The portion of a
: J/ s$ V- C+ ]4 q: L' Krunway, beyond the threshold, where it is intended
+ i1 `9 @* u+ Y0 A! Y6 Z9 F; {landing aircraft first contact the runway.
% ]) _, R. F1 d# N o- m! {TOUCHDOWN ZONE ELEVATION- The highest
: |1 p) G, M! N- d L7 belevation in the first 3,000 feet of the landing surface.
3 z" R- T* p6 w0 L4 O. FTDZE is indicated on the instrument approach; q- ~7 u( [! ?5 W, E( Y$ R
procedure chart when straight‐in landing minimums
0 B! d3 g& L% V s, c \are authorized.
( n& E, v: y: B9 m r1 P& Z3 { Z X(See TOUCHDOWN ZONE.)% `$ ]4 b3 ~! H' x
TOUCHDOWN ZONE LIGHTING(See AIRPORT LIGHTING.)
6 a) C% N5 Y0 G$ t* \TOWER- A terminal facility that uses air/ground ^* k1 `+ o4 `) ~, u; Q3 W2 O" p
communications, visual signaling, and other devices0 a8 P* W6 ` |( H7 P
to provide ATC services to aircraft operating in the' {+ T* h3 h( j! P: m& Q, B5 t% `
vicinity of an airport or on the movement area.
, X6 `) s# z' \# KAuthorizes aircraft to land or takeoff at the airport; Z, S: I0 f' W" j1 Y5 K+ }, c
controlled by the tower or to transit the Class D
. B6 {6 r) v. \' I6 j* K9 Uairspace area regardless of flight plan or weather
3 _( @# a- B# l" J, a7 ~' Sconditions (IFR or VFR). A tower may also provide
8 Z* n" o$ r9 R& |! ?8 fapproach control services (radar or nonradar).
& ~7 M6 a) D. R) ~/ u0 l* W(See AIRPORT TRAFFIC CONTROL SERVICE.)
! c9 @0 w3 A% \7 d* W8 V# a(See APPROACH CONTROL FACILITY.); x: t- s2 d Z
(See APPROACH CONTROL SERVICE.)
9 l: ^2 X& p" ^4 k4 I(See MOVEMENT AREA.)
3 M* R1 w8 i1 v* ~: N# o; j6 h(See TOWER EN ROUTE CONTROL
# V8 L+ p& R8 @2 `SERVICE.)
0 [0 `+ A! Y# O! N" Z$ _# [$ b(See ICAO term AERODROME CONTROL
# Y5 k/ |( ?1 ~2 t4 }TOWER.)
& o8 c( h' d3 c8 I9 ?(Refer to AIM.)$ ], {6 s) N% ?& U' e
TOWER EN ROUTE CONTROL SERVICE- The
/ ~" ?4 r3 |( I" x1 z. ]control of IFR en route traffic within delegated2 \/ G. q" @9 m0 m9 R+ E" s
airspace between two or more adjacent approach. _" B) h2 d" v7 p" a6 j) A
control facilities. This service is designed to expedite
3 k+ @" [! E; y/ y! Rtraffic and reduce control and pilot communication
2 u- i7 ?6 b0 X+ B* ~requirements.
0 g8 e1 N& B6 ETOWER TO TOWER(See TOWER EN ROUTE CONTROL0 n8 g' |3 F& c4 S* X' ]
SERVICE.)6 y5 x4 J0 S( @. o& `
TPX‐42- A numeric beacon decoder equipment/; d! E# B* G) L$ H4 E- ~& P
system. It is designed to be added to terminal radar! ^# v: N4 m; e* ~, d2 e/ \
systems for beacon decoding. It provides rapid target
0 J* A6 a' s% e, a! r, Eidentification, reinforcement of the primary radar- z$ {- ]. C/ q7 n
target, and altitude information from Mode C.% {6 p( b5 k, k& C: @# Z7 c
(See AUTOMATED RADAR TERMINAL0 S7 e9 L1 }: Q2 V
SYSTEMS.)
6 _! M/ W3 Q y" T* u& t" F+ [- a(See TRANSPONDER.)' I, s2 t' F0 J. K x. `
TRACEABLE PRESSURE STANDARD- The7 i+ {! M% @' o, w! T! }; _" L3 f" V( W( w
facility station pressure instrument, with certifica‐
3 o7 u# {1 k' b/ c3 e+ Jtion/calibration traceable to the National Institute of5 _" O% }/ l; H# k+ L3 Z
Standards and Technology. Traceable pressure
& a. X& |3 F4 r6 Sstandards may be mercurial barometers, commis‐
% f! m5 l; Y, E( Rsioned ASOS or dual transducer AWOS, or portable
A6 {$ K k& t& T+ L$ D* Mpressure standards or DASI.! b: f0 C, C+ Y( i5 f
TRACK- The actual flight path of an aircraft over the' N" |* y6 J8 }
surface of the earth.
4 w! o) g. v* k$ f* M(See COURSE.)0 g$ l- v7 [- s
(See FLIGHT PATH.)
0 W s: f) @& }5 Q% G) [(See ROUTE.)+ |; o1 j0 `3 Q1 M) U$ ^/ u
(See ICAO term TRACK.)
$ ~2 J6 Z4 B4 N' G& h# ^' q* K6 O0 STRACK [ICAO]- The projection on the earth's
# A* e2 c# O/ Q3 Dsurface of the path of an aircraft, the direction of
; z+ a& C! E; `3 s O6 vwhich path at any point is usually expressed in1 [+ j* s9 C1 h% j0 d# D7 y$ n
degrees from North (True, Magnetic, or Grid).+ K) [- {. U) W. }" Q7 c
TRAFFICa. A term used by a controller to transfer radar
3 R5 P$ ^ X- o8 c& }identification of an aircraft to another controller for& @ |3 k6 N0 c n9 M
the purpose of coordinating separation action. Traffic
m3 Q' ~! C4 u8 Cis normally issued:
6 a0 L% c/ Y0 f& S$ z3 w/ P; X1. In response to a handoff or point out,% V) {/ W3 H( y
2. In anticipation of a handoff or point out, or
4 u! L' K0 X8 x4 n* c3. In conjunction with a request for control of an
3 f% M0 z4 v3 {, \! J) m8 T4 Uaircraft.: l d. t' p: [: g9 b$ J
b. A term used by ATC to refer to one or more+ D) w& D' {1 I6 Y3 m
aircraft.
5 w2 R! M' @5 h3 H) r) n: XTRAFFIC ADVISORIES- Advisories issued to alert' n' j! k1 y6 @! a, E7 S% V
pilots to other known or observed air traffic which
% z1 G2 F& I; C! \' c3 ^, Hmay be in such proximity to the position or intended
/ G/ z+ o. Y5 ]/ t5 ~# Yroute of flight of their aircraft to warrant their
' }, n0 U l4 Y6 ~attention. Such advisories may be based on:! {, k- Z- k [( Y/ S0 o
a. Visual observation.: ^# m( D% D* g* g
Pilot/Controller Glossary 2/14/08
* y1 q3 V# N+ \4 @/ ~5 P6 ePCG T-5
0 x' E, V# z0 k" \, T" r. }b. Observation of radar identified and nonidenti‐4 P; A+ I# H7 v
fied aircraft targets on an ATC radar display, or3 [; s4 f6 b% [% o
c. Verbal reports from pilots or other facilities. Y7 y* Q; ~7 [* P1 U
Note 1:The word “traffic” followed by additional
`" J/ j a; E% dinformation, if known, is used to provide such
" @0 w A% ^4 q' c7 Q/ Sadvisories; e.g., “Traffic, 2 o'clock, one zero miles,
/ W( F: g$ G* ?) S7 R7 v8 hsouthbound, eight thousand.”, J% W; x0 t8 z4 M$ O
Note 2:Traffic advisory service will be provided to/ q& I7 I: ^. A" J" W# m
the extent possible depending on higher priority
# `& i7 F# z+ A5 }( k( c* _; Bduties of the controller or other limitations; e.g.,! Y- I. z5 G% w- ]# {% ~" F1 R
radar limitations, volume of traffic, frequency
, k+ M9 S7 |3 z5 mcongestion, or controller workload. Radar/
! O+ b9 b6 u% @( w0 P( enonradar traffic advisories do not relieve the pilot
& W. m$ L, k3 G* O' E3 Gof his/her responsibility to see and avoid other
3 G+ }0 k; Z6 m' X: g6 W; maircraft. Pilots are cautioned that there are many$ Y0 E- [& T& y6 J U
times when the controller is not able to give traffic
+ V- S. `( O! H7 D ]0 zadvisories concerning all traffic in the aircraft's# l! r& a) s+ r' h, x6 N
proximity; in other words, when a pilot requests or( O1 s3 `6 A1 Z- }
is receiving traffic advisories, he/she should not+ [% \+ o6 M4 m+ {# L' ? [* W: j
assume that all traffic will be issued.& L. x. b! d# [/ s) b) U) l$ o
(Refer to AIM.)
. S5 p+ ~8 A) ]$ B' B( |9 N5 pTRAFFIC ALERT (aircraft call sign), TURN' h6 v7 L. c- J% e& J- |
(left/right) IMMEDIATELY, (climb/descend) AND' L# N+ Y6 B8 m
MAINTAIN (altitude).7 U6 j1 \( x" M% |6 z) |
(See SAFETY ALERT.): _* |6 U' y/ Q- z0 n$ z, k$ O
TRAFFIC ALERT AND COLLISION AVOID‐
9 J- o* h# V( e. WANCE SYSTEM- An airborne collision avoidance
% Y1 r4 B$ O! i! J9 X( S( Csystem based on radar beacon signals which operates
" _5 m+ T# y3 C1 r( c% u1 d5 |" lindependent of ground‐based equipment. TCAS‐I) T8 \7 w8 C" Z/ b- ~4 x( W. Y
generates traffic advisories only. TCAS‐II generates
& M5 C5 i6 [4 s8 t, X& vtraffic advisories, and resolution (collision avoid‐/ v3 _" u% j6 V% G
ance) advisories in the vertical plane.
3 [' |- f: q* k& uTRAFFIC INFORMATION(See TRAFFIC ADVISORIES.)3 Q7 t3 h% N f: v" [7 M, \
TRAFFIC IN SIGHT- Used by pilots to inform a2 r; t/ H( L+ H4 t& ?7 D0 e
controller that previously issued traffic is in sight.
0 |" O; e4 k6 i: p' _(See NEGATIVE CONTACT.)
w% Q0 X+ [) S5 M% p/ P(See TRAFFIC ADVISORIES.)
9 n# f# b4 ]8 w3 lTRAFFIC MANAGEMENT ADVISOR (TMA)- A2 p1 w( [ y9 x+ \! w9 Z
computerized tool which assists Traffic Management
2 M* U$ _ E' O! ~' H: bCoordinators to efficiently schedule arrival traffic to3 a6 g# n4 m! A1 I
a metered airport, by calculating meter fix times and
6 V# F' T9 e! gdelays then sending that information to the sector
0 g* g. C0 v0 z' zcontrollers.
8 X! G8 }' V6 s3 ^! Z& c" ]TRAFFIC MANAGEMENT PROGRAM ALERT-: ^* ~5 M, n- k2 K6 E" t) v. w
A term used in a Notice to Airmen (NOTAM) issued* p* O. D% {( l$ e
in conjunction with a special traffic management
0 I1 M2 U+ O9 o2 l9 S# [' y( }program to alert pilots to the existence of the program8 E6 u2 ?+ X3 E4 {# F7 \, D5 H
and to refer them to either the Notices to Airmen$ `. E, f. F5 b; j; Y+ m
publication or a special traffic management program" d7 ^ b0 Q. }% K8 Y. V. Q
advisory message for program details. The contrac‐" w2 i3 @, X6 H# v* J
tion TMPA is used in NOTAM text., y, K- z/ M# |) v/ ?4 R
TRAFFIC MANAGEMENT UNIT- The entity in
, w0 l* Z& } t! |1 K6 [ARTCCs and designated terminals directly involved0 M6 F; |, o. }+ m' e6 S% i
in the active management of facility traffic. Usually
/ w( h6 Y, ^) U, K1 u7 Sunder the direct supervision of an assistant manager" {3 C2 h4 U/ b- R
for traffic management.7 q1 d/ S* R% a) Q! T( Z- o
TRAFFIC NO FACTOR- Indicates that the traffic
. N! n: C" `, r8 y; \& r& edescribed in a previously issued traffic advisory is no2 w; F I% {- |6 P& x& y
factor./ H! s6 u# M! k# Y2 q
TRAFFIC NO LONGER OBSERVED- Indicates
+ t1 Y; q+ n" m& |* b5 Vthat the traffic described in a previously issued traffic& E+ G# f1 `" ]% h3 _) e! e
advisory is no longer depicted on radar, but may still
- k# Q1 N* v% _be a factor.0 x/ u& z+ ?- L6 l. Q+ r/ d0 v
TRAFFIC PATTERN- The traffic flow that is( a* I9 X0 \: t0 e# S. ]' S2 {
prescribed for aircraft landing at, taxiing on, or taking
6 H: u5 m8 ]. \# g5 Zoff from an airport. The components of a typical
* E' n1 b1 C% J* dtraffic pattern are upwind leg, crosswind leg,0 @7 k' `0 P& k: P2 ~4 s1 {0 b
downwind leg, base leg, and final approach.
- Y& D2 V! _/ e; ?a. Upwind Leg- A flight path parallel to the
5 b: g8 C, ^* Z! L# ~' F* c' T# slanding runway in the direction of landing.3 C% k8 ]1 G% J9 c
b. Crosswind Leg- A flight path at right angles to3 k( \& z! s% c1 s0 y3 S
the landing runway off its upwind end.
" w) D4 A# c1 W3 }# A0 U: j7 Sc. Downwind Leg- A flight path parallel to the( @/ y" q8 Q4 a |1 J0 G
landing runway in the direction opposite to landing.
0 k9 [! b* n. a+ f, H, Q0 ?6 iThe downwind leg normally extends between the
% j; H3 g5 l O! G. |crosswind leg and the base leg.
0 O' K! m, M" `) S ?3 F- F- `d. Base Leg- A flight path at right angles to the
7 e2 H I6 b, H% A% U, [2 A+ Z* llanding runway off its approach end. The base leg
7 T# }* n* Y& Q8 rnormally extends from the downwind leg to the
" ~$ H1 B$ A, K2 Pintersection of the extended runway centerline.
* p( O; _- Q8 c. Je. Final Approach. A flight path in the direction of
# r& @" O( V, j7 R! j2 ulanding along the extended runway centerline. The
+ q- I3 M* I7 e# |final approach normally extends from the base leg to
7 p" c9 n; R# m/ b6 F' M+ Y6 Cthe runway. An aircraft making a straight‐in approach
4 b N0 O8 E- E+ A: {8 rVFR is also considered to be on final approach.
6 v7 h! a! l0 R# U) F$ k(See STRAIGHT‐IN APPROACH VFR.)6 @2 F) D* _3 z6 E" \$ F
(See TAXI PATTERNS.)
0 N; V/ ?7 c2 G* X8 Z# t(See ICAO term AERODROME TRAFFIC& F' T) l( P0 o# ~) h2 w
CIRCUIT.)
" d2 B T3 L# [8 X# b0 B9 @5 ~(Refer to 14 CFR Part 91.)
' f5 h$ o6 h6 e$ q; e% \(Refer to AIM.)/ j6 B, W- `7 r* Z" ?4 K- I" e7 |+ m
TRAFFIC SITUATION DISPLAY (TSD)- TSD is a
( A1 O U! q v w3 _& v, }computer system that receives radar track data from
8 J2 Y) `: {3 l! t% W y2 Lall 20 CONUS ARTCCs, organizes this data into a
" o+ D( X/ l0 ~: Nmosaic display, and presents it on a computer screen.
( t, c" j; @1 t8 b4 nPilot/Controller Glossary 2/14/081 u4 i# ^! n6 {2 z% [- o
PCG T-6# z3 t* M) W2 T& [7 u; V
The display allows the traffic management coordina‐! `9 Z, F9 K+ s: \
tor multiple methods of selection and highlighting of/ P; \4 z N& J: ]5 k
individual aircraft or groups of aircraft. The user has" W1 ^/ \; b5 b! \' m2 W# y2 `
the option of superimposing these aircraft positions
* I- ]8 {, v, a) O' _& Wover any number of background displays. These; K! d# M3 ~1 J% T
background options include ARTCC boundaries, any/ a& L' S' x2 H D8 c4 ]
stratum of en route sector boundaries, fixes, airways,
4 F8 u( M8 ?1 S5 t3 a& R; G' Pmilitary and other special use airspace, airports, and8 @# w0 R) _ d/ G. T1 x
geopolitical boundaries. By using the TSD, a
" U& W* n+ |+ n( w9 D( c8 ^) pcoordinator can monitor any number of traffic
) z; H8 c6 y6 a+ u2 Lsituations or the entire systemwide traffic flows.' a$ m( u& T5 \7 z/ Z& P# S' J
TRAJECTORY- A URET representation of the path
4 L. F( Y3 h: y; X- f& I- R" man aircraft is predicted to fly based upon a Current
6 y; n; t4 I7 X/ P2 ~0 Z3 zPlan or Trial Plan.( i6 }1 F# j* l( N
(See USER REQUEST EVALUATION TOOL.)
1 [: b( ?; ]7 M, Z- [: HTRAJECTORY MODELING- The automated pro‐8 t4 T/ [# U* T3 o9 I3 {
cess of calculating a trajectory.
9 [: X1 c- v5 s. `" J: OTRANSCRIBED WEATHER BROADCAST- A! i1 T( i, \( E- x! ?
continuous recording of meteorological and aeronau‐
/ b% b- S, Z6 \, Etical information that is broadcast on L/MF and VOR% L O P# {/ k j$ }* ~2 d: n7 w
facilities for pilots. (Provided only in Alaska.)9 L$ X/ k: c* A0 O* J
(Refer to AIM.)+ W7 e& W! d. @0 z
TRANSFER OF CONTROL- That action whereby
( L0 N4 N$ J- F4 hthe responsibility for the separation of an aircraft is
/ \, ]" o4 F4 b# c1 Y8 Z y2 mtransferred from one controller to another." A3 Z' `: H0 r
(See ICAO term TRANSFER OF CONTROL.)( `5 e- ?+ U" k3 n& E9 @6 U
TRANSFER OF CONTROL [ICAO]- Transfer of6 U1 Z& @+ w, a8 ^
responsibility for providing air traffic control service.
! }" q7 H/ L/ P4 h) kTRANSFERRING CONTROLLER- A controller/
0 ` H+ b$ \; p$ Gfacility transferring control of an aircraft to another
* M; m' N" v! {# h% C. ?controller/facility.
7 r0 t0 @4 V: `9 @(See ICAO term TRANSFERRING0 z% B" i( |1 u; p+ d( {- _8 t
UNIT/CONTROLLER.). G* }7 p- ^7 _* }- M
TRANSFERRING FACILITY(See TRANSFERRING CONTROLLER.)
- ^. c) D Q' ETRANSFERRING UNIT/CONTROLLER [ICAO]-( d5 _) {7 K. P
Air traffic control unit/air traffic controller in the" A; u/ b% \$ Q/ T- c$ }
process of transferring the responsibility for
0 S( y& g+ R4 Q' e" @" K |providing air traffic control service to an aircraft to) K/ `- q+ ]* c) O7 }# l o0 |
the next air traffic control unit/air traffic controller
$ i5 t6 B. K+ Talong the route of flight.
: I+ @5 M, r6 A0 e% E5 F3 }Note:See definition of accepting unit/controller.1 y' a! W1 Z5 _; p- H- {- _/ G0 f
TRANSITIONa. The general term that describes the change from! K) |. y, C$ U, I
one phase of flight or flight condition to another; e.g.,
7 h7 A$ v! R, w* Ttransition from en route flight to the approach or
: V' Y4 W* |& M+ J# htransition from instrument flight to visual flight.
$ ~, v; ~& b6 e" y( Gb. A published procedure (DP Transition) used to
8 r" o @( k; Tconnect the basic DP to one of several en route
( j, Z G; C! ~2 C' ?9 W/ e9 Hairways/jet routes, or a published procedure (STAR
" p) g% d; l+ M' q( }: x8 c3 STransition) used to connect one of several en route; L9 Y2 a# z5 x: M: _8 h
airways/jet routes to the basic STAR.
# ?; Q/ B$ o3 @" f(Refer to DP/STAR Charts.)
! p9 P( l' y! ^# v- C" u* S4 gTRANSITION POINT- A point at an adapted, m# q9 G* y1 t) O( g( W8 |, m
number of miles from the vertex at which an arrival: U# V P3 ? s9 p$ b
aircraft would normally commence descent from its
( }, R1 b$ a7 ken route altitude. This is the first fix adapted on the5 G# q% l5 b1 M- r* Q. Q. n
arrival speed segments.) |% u, V* J+ s
TRANSITION WAYPOINT- The waypoint that
" D( y$ @5 ^9 a' e d: [, V2 \! pdefines the beginning of a runway or en route
5 a, m! ~2 T( g, t( Y( wtransition on an RNAV SID or STAR.9 a7 P6 W) O. y$ w% @& V+ }
TRANSITIONAL AIRSPACE- That portion of
6 M J/ o2 B! i( ^) e+ B5 h' Z+ o4 _ Wcontrolled airspace wherein aircraft change from one
# |* @4 v# v3 X4 cphase of flight or flight condition to another.
Z2 Z4 q" v3 B- O+ o' W/ X- sTRANSMISSOMETER- An apparatus used to, R' A7 [2 O7 G' M' H$ j6 z
determine visibility by measuring the transmission of% y& h6 U: }& D+ g* O, B
light through the atmosphere. It is the measurement
; @% G9 W0 E, H+ P8 Ysource for determining runway visual range (RVR)
: L4 n% |* ^0 b8 o m9 _8 e2 S9 ~and runway visibility value (RVV).3 O% V, j. Y+ G$ R! [+ ?/ C: _$ ^
(See VISIBILITY.)
) Q5 k$ [1 z3 Y+ OTRANSMITTING IN THE BLIND- A transmis‐/ e5 Y/ y I! t: e' N% L; W2 N
sion from one station to other stations in. Y8 |6 O) }* c/ H; i; w3 _
circumstances where two‐way communication
& M; W- \7 [. @cannot be established, but where it is believed that the
' E9 J5 X* L1 S5 P& @called stations may be able to receive the
5 p9 p% s5 M8 I- [transmission.
V9 R0 A, \2 Y3 PTRANSPONDER- The airborne radar beacon
8 O9 {0 c3 x* P- Y* `receiver/transmitter portion of the Air Traffic Control
2 e- g( X! w+ W5 V/ [1 @Radar Beacon System (ATCRBS) which automati‐
r: L, g3 |/ K9 Tcally receives radio signals from interrogators on the6 i6 `# Y$ w* S- Y) y) O* k
ground, and selectively replies with a specific reply
- q* d' w" j- x/ G6 xpulse or pulse group only to those interrogations
8 c' F* n Q$ n5 G7 N wbeing received on the mode to which it is set to
) p% C' q C0 I) Xrespond.
) c8 ?0 ?+ A' C5 `" e(See INTERROGATOR.) e* e$ J/ N2 N
(See ICAO term TRANSPONDER.)
5 K$ a$ G% e, i(Refer to AIM.)
0 u7 t& p) ~, F+ w, C) P/ STRANSPONDER [ICAO]- A receiver/transmitter" E0 h6 e; h* i0 T4 `+ n( b
which will generate a reply signal upon proper
. c4 f8 g3 B& l/ Binterrogation; the interrogation and reply being on( C& M1 |3 q9 N6 k
different frequencies.
; B* W; [8 I& }$ ^7 STRANSPONDER CODES(See CODES.)
. R \) S) s( r0 o! oPilot/Controller Glossary 2/14/08/ N P W3 w( B- B. j. P( S$ o7 E
PCG T-7
2 j4 K: o% z8 g7 {$ CTRIAL PLAN- A proposed amendment which- `0 B% E# g- F. a) ^
utilizes automation to analyze and display potential) D0 @, P0 c7 i/ _
conflicts along the predicted trajectory of the selected* W# y5 e/ i1 k/ Z
aircraft.
' Y' l$ d5 o l @3 dTRSA(See TERMINAL RADAR SERVICE AREA.)
2 b( [( x& M& }% [ eTSD(See TRAFFIC SITUATION DISPLAY.): c* ]5 E+ J R8 d, Z! B
TURBOJET AIRCRAFT- An aircraft having a jet
1 E: Z: Z, R7 I# Jengine in which the energy of the jet operates a( w$ y! p/ V& l, j- V. x
turbine which in turn operates the air compressor.
5 Z$ h2 h G9 Y4 j/ e$ mTURBOPROP AIRCRAFT- An aircraft having a jet: E+ U( Y) b4 O7 s* I
engine in which the energy of the jet operates a3 u0 f' ^& K, @$ t
turbine which drives the propeller.
# e7 @5 k3 N" e0 n9 i7 d8 Q' QTURN ANTICIPATION- (maneuver anticipation).
, I1 c7 l7 L' V( f0 ?2 g% t1 nTVOR(See TERMINAL‐VERY HIGH FREQUENCY
6 R0 j# P9 N7 {( ]6 I$ O/ \9 TOMNIDIRECTIONAL RANGE STATION.)5 ?8 V' k: ~# h5 i: h; S6 }! \7 |
TWEB(See TRANSCRIBED WEATHER BROADCAST.)
4 X: y1 v( o# S- f7 g1 v- |- W4 E' NTWO‐WAY RADIO COMMUNICATIONS FAIL‐7 P. }1 @. F9 a& G1 i- g8 r5 T
URE(See LOST COMMUNICATIONS.)
- S' m9 b/ [2 f p' kPilot/Controller Glossary 2/14/082 Q& @- d9 n+ { t# a& z, h) p3 A
PCG U-1" E5 b9 z8 u, P+ P
U
- \+ X8 a; Z! E6 p( ZUDF(See DIRECTION FINDER.)3 q! k7 {( f9 F) s \, Y8 a9 V8 n
UHF(See ULTRAHIGH FREQUENCY.)
& m0 {, q. @: [ v3 s% WULTRAHIGH FREQUENCY- The frequency band
: Z3 {' H& a f2 w; {7 j' ?between 300 and 3,000 MHz. The bank of radio- A8 G4 q' M: [% K! f u9 N* f
frequencies used for military air/ground voice
6 G/ O$ j& W' A0 |+ ^9 N( j: W/ z$ {7 gcommunications. In some instances this may go as; X) J0 t+ r* z( D0 M
low as 225 MHz and still be referred to as UHF." o, f: ~8 {" L+ o- c& h: [
ULTRALIGHT VEHICLE- An aeronautical vehicle
' A8 U: n5 L2 l5 }operated for sport or recreational purposes which
, q q; I- w0 A1 l) O2 wdoes not require FAA registration, an airworthiness
9 N$ h8 k& o" K! d5 ucertificate, nor pilot certification. They are primarily/ H- A R( C! K7 Z& J. T
single occupant vehicles, although some two‐place+ {4 S. W9 J3 d7 z$ t! k! G1 w# Y
vehicles are authorized for training purposes.7 w5 g' G( t% Y. g" w
Operation of an ultralight vehicle in certain airspace7 J. F/ `& a+ f1 W
requires authorization from ATC.7 t) b3 U; d. F; V
(Refer to 14 CFR Part 103.)
7 _- w) f V7 kUNABLE- Indicates inability to comply with a7 p& l. m' U2 A
specific instruction, request, or clearance.8 g: F5 P3 m( \/ E. Y
UNASSOCIATED- A radar target that does not4 C% u9 [# z) R$ S
display a data block with flight identification and
% ?1 g+ _! G# `+ }' u5 k! K) ealtitude information.
# G9 a4 }6 Y" g+ S4 \2 r. E(See ASSOCIATED.)
4 n0 k% o! @ U" G! e; vUNDER THE HOOD- Indicates that the pilot is! P) |9 t# ^( n7 T! X+ N4 r8 P7 \
using a hood to restrict visibility outside the cockpit, g* J. Q/ z# [. i- O3 M* A
while simulating instrument flight. An appropriately
- A2 S* Q$ n" t4 Q, mrated pilot is required in the other control seat while
& a9 [0 |. g4 `" Vthis operation is being conducted.
" k7 C* Z7 m9 M3 S0 L(Refer to 14 CFR Part 91.)
) l# J8 K( A: IUNFROZEN- The Scheduled Time of Arrival (STA)
' A. B9 S% H7 z! W$ v( ~tags, which are still being rescheduled by traffic
' [! H2 m; Y' A, [management advisor (TMA) calculations. The
+ s4 B# J, q h: `aircraft will remain unfrozen until the time the$ g# w: l$ k0 K; T
corresponding estimated time of arrival (ETA) tag- D* r8 c- k: U; `, @9 K
passes the preset freeze horizon for that aircraft's
2 d( r8 }# |/ ustream class. At this point the automatic rescheduling
, ^9 h9 w& |% @1 O8 k+ ywill stop, and the STA becomes “frozen.”
y4 R2 O ]0 h4 j0 ]4 YUNICOM- A nongovernment communication facil‐
+ a, B3 h& h! Uity which may provide airport information at certain
2 I9 Z4 c, }, G1 }$ u" x. O/ hairports. Locations and frequencies of UNICOMs are
) `/ c& y P' Eshown on aeronautical charts and publications.# Y, H( k* q7 J: c8 P1 x6 r, m
(See AIRPORT/FACILITY DIRECTORY.)3 `1 K/ v# k. M, {0 s
(Refer to AIM.)( ~9 g" L7 H8 x5 h, X/ ]1 G
UNPUBLISHED ROUTE- A route for which no+ t1 S6 G& K9 k) L2 D$ t% w! a5 x) x
minimum altitude is published or charted for pilot7 C! P: C$ Y3 [2 X' }& m* k3 w
use. It may include a direct route between NAVAIDs,
# o8 H$ g: Z; x5 z; ?a radial, a radar vector, or a final approach course
% s7 U9 N9 l. k& Q; |0 W/ }9 K) `beyond the segments of an instrument approach! W2 Y; @' j9 V1 w5 y
procedure.
5 m; R3 @: g f: z(See PUBLISHED ROUTE.)
/ m$ G2 h3 ^) R& h(See ROUTE.)- a2 [% _6 |% V: y9 L) J: H2 c
UNRELIABLE (GPS/WAAS)- An advisory to2 K8 C7 r! I9 w. U* ^: }
pilots indicating the expected level of service of the
; T8 X/ g i! o' M) m" `4 F @GPS and/or WAAS may not be available. Pilots must
3 g" t0 u* W3 _8 G9 o% X, Zthen determine the adequacy of the signal for desired- F2 c6 u6 N* x8 M2 Q p/ i
use.
0 z" R' X: z* ^) x* YUPWIND LEG(See TRAFFIC PATTERN.)% A& B- g; d: T: _/ W7 Z
URET(See USER REQUEST EVALUATION TOOL.)1 {/ c! z5 F, X( y- c4 m# x' Q
URGENCY- A condition of being concerned about1 q( y) R5 |/ t: A4 t
safety and of requiring timely but not immediate6 U7 {: s6 |2 k3 b% M! _8 V
assistance; a potential distress condition.
9 C/ j' Q1 b& n% M(See ICAO term URGENCY.)+ n5 v# v u* ^7 N1 u$ }( P* \
URGENCY [ICAO]- A condition concerning the
X' e$ I' N5 \. X+ q% O- b9 k/ q6 esafety of an aircraft or other vehicle, or of person on) `" Z4 ]' C# v' x* t: C Z
board or in sight, but which does not require5 }% F% V1 ~) u$ X. r
immediate assistance.. u. m5 Q6 A+ b. i& @0 ?
USAFIB(See ARMY AVIATION FLIGHT INFORMATION
. n' i- y( f0 T v5 b$ \BULLETIN.)
6 B) A2 e0 Z8 f7 nUSER REQUEST EVALUATION TOOL (URET)-
1 D' |4 @! w h% U2 Q( iUser Request Evaluation Tool is an automated tool
1 s: h _# F* N4 r8 D3 K$ a* N- ~, sprovided at each Radar Associate position in selected
3 q; o' q; P' K9 @2 b6 CEn Route facilities. This tool utilizes flight and radar! i; q. V" s; o( y
data to determine present and future trajectories for" |7 k1 G( L! p# W+ A
all active and proposal aircraft and provides
; y6 V/ P9 i5 |5 t: A; Aenhanced, automated flight data management.
8 Y+ J1 H/ O0 E4 e1 w& rUVDF(See DIRECTION FINDER.) M" w# u. M4 J+ g
Pilot/Controller Glossary 2/14/08
" g4 k/ p' j: jPCG V-1
# X5 i+ Y/ h5 L/ P+ W8 `: rV
! ^5 L# ]8 h3 F7 wVASI(See VISUAL APPROACH SLOPE INDICATOR.)$ ^& |9 G h( X) Q4 M2 m6 ~, |
VCOA(See VISUAL CLIMB OVER AIRPORT.)9 S1 ]& M# r5 M% t) \
VDF(See DIRECTION FINDER.)+ C, y% R/ c- q8 U6 C: O1 V% V
VDP(See VISUAL DESCENT POINT.)
1 U# \! h: L# `; j, UVECTOR- A heading issued to an aircraft to provide
# U" a% K+ K1 f: V% n, K$ Unavigational guidance by radar.
9 E S/ s( t4 Q3 N" W8 }2 j; [(See ICAO term RADAR VECTORING.)+ `# F. Q1 C4 y' H- n* _ ]. \
VERIFY- Request confirmation of information;) g3 J- c1 z3 E; Y4 [* a# a
e.g., “verify assigned altitude.”
* \3 _8 }/ C( f' O+ K4 {VERIFY SPECIFIC DIRECTION OF TAKEOFF
" a& s' {+ X$ K9 m( d1 ]7 i$ a(OR TURNS AFTER TAKEOFF)- Used by ATC to; \7 p8 X1 T# C8 M
ascertain an aircraft's direction of takeoff and/or# x- V# H% ?9 Q+ C: |" S5 |6 `5 ^
direction of turn after takeoff. It is normally used for
6 Y3 |! ] j* b, n; ~7 T! Y+ WIFR departures from an airport not having a control; [. ~1 r# \5 B6 b
tower. When direct communication with the pilot is
3 N6 {" `' p' x; P; `/ c" Qnot possible, the request and information may be
3 }& e/ E! T- t9 ?1 Q- S4 F* @relayed through an FSS, dispatcher, or by other
3 J* A/ M1 }* P; x* E0 ]# j1 \means.
3 J! w8 k7 @8 q2 c. O(See IFR TAKEOFF MINIMUMS AND
* ?/ A3 l* |& n5 Q8 ]2 N9 lDEPARTURE PROCEDURES.)
; S6 N/ ^. P j" v! C5 `VERTEX- The last fix adapted on the arrival speed
; o3 J u8 O2 o$ v7 C- k! @segments. Normally, it will be the outer marker of the& W K; q- ~0 W# D
runway in use. However, it may be the actual
( | B, C6 a5 A& p) I) P# Rthreshold or other suitable common point on the
3 j& Y. J( z1 Tapproach path for the particular runway configura‐6 K7 Q4 n v; K d) v/ U
tion.
& n2 @4 G6 `& A' U1 h. MVERTEX TIME OF ARRIVAL- A calculated time of+ p) m* f: U, V8 _: \! f
aircraft arrival over the adapted vertex for the runway, T0 _) u6 U8 v0 K8 \/ X
configuration in use. The time is calculated via the6 H& Z3 S, `$ \2 U, h; Q
optimum flight path using adapted speed segments.: ^8 W2 k9 O1 v8 H& h% P0 i, `$ u; s
VERTICAL NAVIGATION (VNAV)– A function of- c4 v [! K( \
area navigation (RNAV) equipment which calculates,1 C2 @9 B, Q: z; x. w3 d
displays, and provides vertical guidance to a profile
: h) P' \; t i# j7 @0 nor path.0 e* T* y" b2 ?+ y8 a$ N4 `8 O: l
VERTICAL SEPARATION- Separation established- D3 i8 [- f4 m: Z$ w
by assignment of different altitudes or flight levels.
, _. p4 w- t" o7 h% r(See SEPARATION.)
2 J' m( }1 J9 b6 w/ a(See ICAO term VERTICAL SEPARATION.)
2 |/ ^7 X4 Y2 f/ R' m @8 N' DVERTICAL SEPARATION [ICAO]- Separation7 b! u! y# o& [ l
between aircraft expressed in units of vertical
5 j- U# b7 M# p0 D- i. T% P& Xdistance.5 U$ R: E- p4 K: Y
VERTICAL TAKEOFF AND LANDING AIR‐9 j6 I$ L9 V2 R0 B2 W D2 m, [
CRAFT- Aircraft capable of vertical climbs and/or
. _" A# s! _. V$ V& G1 {+ j! W$ Udescents and of using very short runways or small- f4 Q6 Q: V1 G1 c& D* \6 ^
areas for takeoff and landings. These aircraft include,
3 R, R4 b' w: l+ g0 \1 E% n9 nbut are not limited to, helicopters.) t& l" a/ d' Q% `6 R
(See SHORT TAKEOFF AND LANDING
; H) o* w. j1 L/ q, r7 p1 hAIRCRAFT.). p: Z+ Q/ B* W& g T( u, O% P, x
VERY HIGH FREQUENCY- The frequency band
' t% d5 ], J' }( C6 rbetween 30 and 300 MHz. Portions of this band, 1084 k; T/ ? e6 J- s4 f
to 118 MHz, are used for certain NAVAIDs; 118 to
$ W* @3 {2 ?1 v2 v& s' f7 J7 P136 MHz are used for civil air/ground voice' o! \; ~# x5 o& y) |4 G0 E
communications. Other frequencies in this band are
, V! l) X% N9 S; Mused for purposes not related to air traffic control.
( _$ |9 x; H! T; J3 X; L4 S5 v0 lVERY HIGH FREQUENCY OMNIDIRECTION‐
& v: T- j1 J0 IAL RANGE STATION(See VOR.)* `7 G* U( s' l; F
VERY LOW FREQUENCY- The frequency band
( E% S; S$ e3 g9 J `* w( Ubetween 3 and 30 kHz.
% d d' c F0 v& i- J! k8 wVFR(See VISUAL FLIGHT RULES.)
3 u" k, j6 M2 lVFR AIRCRAFT- An aircraft conducting flight in
" ~) v% C1 c: O+ v3 F1 \/ n6 I5 Xaccordance with visual flight rules.
% o' ~3 e% `/ D' T6 @(See VISUAL FLIGHT RULES.)
2 [: S& Z" N FVFR CONDITIONS- Weather conditions equal to
" m3 Y$ m" i* g$ b, p: L/ B- E; por better than the minimum for flight under visual/ i7 _/ e$ d9 A2 p
flight rules. The term may be used as an ATC3 ~5 z; ]' z# J& E$ c0 i. s
clearance/instruction only when:# U& S. c5 I; Q1 w1 h
a. An IFR aircraft requests a climb/descent in
+ ^1 A9 }" h0 j; DVFR conditions.
: M; A1 b! J h( E: ub. The clearance will result in noise abatement! v6 E- J. E8 x$ ~6 a5 W) s/ s
benefits where part of the IFR departure route does- r5 Z0 ~' T1 W' u" H
not conform to an FAA approved noise abatement
6 D% j9 ` V: Y" ], g' `+ hroute or altitude.
, x) D1 }4 E0 e5 b9 u2 w& ec. A pilot has requested a practice instrument
, Z( H; T$ f( }% f- E/ happroach and is not on an IFR flight plan.
) R8 @, G1 M/ q" r8 hNote:All pilots receiving this authorization must5 L/ w3 e/ |3 o, D' Z5 o
comply with the VFR visibility and distance from
7 F- _: a6 ^- w2 W( D4 T9 j5 Xcloud criteria in 14 CFR Part 91. Use of the term4 o" F5 C# P$ r7 n, I% z$ E* ]4 c4 }! z. V
does not relieve controllers of their responsibility to
) ~5 I2 y$ x' W! z+ N! f2 P/ Cseparate aircraft in Class B and Class C airspace% c% C8 I3 E5 p7 L0 c6 e+ E$ K
or TRSAs as required by FAAO JO 7110.65. When
7 n4 K& {0 a6 ?* ?1 G. m. ^: e9 gPilot/Controller Glossary 2/14/08# }$ Y# ^1 m; I
PCG V-2+ X5 n# `1 q) l* i9 }* J
used as an ATC clearance/instruction, the term
' I. c6 C1 x7 z: tmay be abbreviated “VFR;” e.g., “MAINTAIN4 d! H$ f; E% r' E( E8 G8 u( a
VFR,” “CLIMB/DESCEND VFR,” etc.8 Y- Y+ {( W2 j* n& r& d
VFR FLIGHT(See VFR AIRCRAFT.)+ _- {2 ~; d$ e4 F
VFR MILITARY TRAINING ROUTES- Routes. H1 f/ E0 K, C
used by the Department of Defense and associated; J2 X: s( z0 L" _' w' r9 d% B
Reserve and Air Guard units for the purpose of
" f) \8 b8 p1 s- U/ N Xconducting low‐altitude navigation and tactical
) O/ W4 [( M/ w6 G+ ptraining under VFR below 10,000 feet MSL at
) K' G& p0 Y% |+ e- j9 cairspeeds in excess of 250 knots IAS.& u: h ]7 a5 o5 e& \2 ?) _6 I; i5 m/ ?
VFR NOT RECOMMENDED- An advisory
( W% Q# A% b7 f2 q1 yprovided by a flight service station to a pilot during
\% D8 Q3 _+ e3 Ha preflight or inflight weather briefing that flight0 m' Z' u0 ]" _/ G: o. B
under visual flight rules is not recommended. To be/ I3 G4 Z, Q8 f. L+ v
given when the current and/or forecast weather
2 T5 [) h+ b% Q: |conditions are at or below VFR minimums. It does
5 S, g1 H4 G6 Lnot abrogate the pilot's authority to make his/her own. ^6 P" o! W6 D) e0 n: o' `
decision.( i6 v2 S% D5 J+ ^( Y) |
VFR‐ON‐TOP- ATC authorization for an IFR% P& M' X; ~% f
aircraft to operate in VFR conditions at any8 X) V. D3 l' j9 ?
appropriate VFR altitude (as specified in 14 CFR and% h' y! s% y& _0 J2 @* B
as restricted by ATC). A pilot receiving this% R- w+ ?2 y! p% L
authorization must comply with the VFR visibility,
1 g4 t2 ?+ Q, D0 Kdistance from cloud criteria, and the minimum IFR
! h' u: W0 x9 H4 H0 F8 n; }% Laltitudes specified in 14 CFR Part 91. The use of this
! f& \- X3 g5 m: E4 _' O# m5 Vterm does not relieve controllers of their responsibil‐3 [0 I" I. C( Y7 J& W4 O; X# |( w
ity to separate aircraft in Class B and Class C airspace: s5 t( C3 E. I6 L$ e
or TRSAs as required by FAAO JO 7110.65.
: y3 S4 V0 R p: wVFR TERMINAL AREA CHARTS(See AERONAUTICAL CHART.)
: L8 [7 v4 k0 i6 s& oVFR WAYPOINT(See WAYPOINT.)+ E3 B" g+ m) q/ S5 T
VHF(See VERY HIGH FREQUENCY.)1 l( d* L8 P5 s# E
VHF OMNIDIRECTIONAL RANGE/TACTICAL
% y Y4 w5 D1 ^7 e5 n3 {+ MAIR NAVIGATION(See VORTAC.)
8 e" v( t; D5 u# ~9 R8 M" O; {VIDEO MAP- An electronically displayed map on
( T+ f4 M$ a! [the radar display that may depict data such as airports,, i6 M5 @, [1 r' J
heliports, runway centerline extensions, hospital* Z& ~0 N T" p( A
emergency landing areas, NAVAIDs and fixes,5 \$ V" ^1 p4 ]; D; A; Z+ r8 r
reporting points, airway/route centerlines, bound‐2 Q/ [ j* ?- F4 f% @7 ]
aries, handoff points, special use tracks, obstructions,9 i# n$ a+ A5 q# X
prominent geographic features, map alignment
, h( H1 H4 X p. T* zindicators, range accuracy marks, minimum vector‐& [, w6 W. }5 c) f/ W' |$ B
ing altitudes.# j. A0 f3 t, A P' x5 f
VIS IBILITY- The ability, as determ ined by3 _. W( m2 Y0 B& R/ h4 P* Z2 k
atmospheric conditions and expressed in units of
3 P9 {# I" G! E/ ~& s/ hdistance, to see and identify prominent unlighted; k9 f: H5 o, H: M+ M
objects by day and prominent lighted objects by: G2 H( O# C0 g/ W6 g9 n6 c
night. Visibility is reported as statute miles, hundreds
' _* k' h( t/ O1 ^" n6 \9 I. nof feet or meters.0 c% c3 O v) z4 g$ y; A0 d
(Refer to 14 CFR Part 91.)8 u5 l3 S5 W; _- Y! e/ O$ J
(Refer to AIM.)
% W4 ]& \2 D O$ l1 Ra. Flight Visibility- The average forward horizon‐
; R" x& D; \6 H! X5 H* G" [1 Stal distance, from the cockpit of an aircraft in flight,
p/ G. k/ `1 _7 B$ o5 t ^7 ~- D8 U4 Eat which prominent unlighted objects may be seen' Y; Y- P, M v/ |
and identified by day and prominent lighted objects
& c: C- o8 {( O1 E6 j) I/ |may be seen and identified by night.
8 T0 o! U: A& z: Eb. Ground Visibility- Prevailing horizontal visi‐* _/ U- U" F, X6 c0 }+ w
bility near the earth's surface as reported by the% k; A* e, P" z4 l3 R0 z
United States National Weather Service or an
3 k1 [! W* t" @8 c! `7 uaccredited observer." m8 K" J; G) M0 E* G4 N6 @
c. revailing Visibility- The greatest horizontal7 ?) }: B( k2 \ E. _4 `
visibility equaled or exceeded throughout at least half
3 A$ Y2 n% X0 ^" Cthe horizon circle which need not necessarily be0 K/ n/ w; z1 f
continuous.
% S' P* [, v% Z5 y4 b* c+ y0 |8 wd. Runway Visibility Value (RVV)- The visibility
+ g1 ]8 j9 t, _determined for a particular runway by a transmis‐
. z+ ~; N; ]4 `0 gsometer. A meter provides a continuous indication of! K6 F7 K& W9 x, q+ ~; o1 w3 T( Z9 L
the visibility (reported in miles or fractions of miles)
* v" _- X' u3 H' T) Dfor the runway. RVV is used in lieu of prevailing0 r3 ^7 y H; B1 ], v
visibility in determining minimums for a particular
" {$ t" b5 H- Z( I2 E2 @4 q1 zrunway.
) B4 Q: b- k" Z/ f- m- z& qe. Runway Visual Range (RVR)- An instrumen‐
0 R u# a% e: x$ Z) L; _$ Itally derived value, based on standard calibrations,
9 G. [1 m* v) X: ^5 E5 b/ B) a1 i2 _that represents the horizontal distance a pilot will see9 w* l6 l. P) L9 C6 y9 @, Z, r. p3 a, U
down the runway from the approach end. It is based2 j0 {$ u, e' L' c: }0 _! E1 ~6 G$ M
on the sighting of either high intensity runway lights
/ b0 L2 _( P6 _/ h/ t( D. |or on the visual contrast of other targets whichever
N9 j6 e0 u. f6 u* s" E) oyields the greater visual range. RVR, in contrast to
1 _9 M5 V9 K( }) \- F, xprevailing or runway visibility, is based on what a
6 p- c: n( C5 x7 _1 Q7 Fpilot in a moving aircraft should see looking down the
2 \" M! [& g, U; ^ {0 j( L/ p( Irunway. RVR is horizontal visual range, not slant/ |* t; g- W: Y1 W! f+ C E' w
visual range. It is based on the measurement of a
3 f6 e. s+ ]: [transmissometer made near the touchdown point of7 Q# G" r0 \9 [7 P
the instrument runway and is reported in hundreds of
# `5 p1 ^% R! {& p8 e) Vfeet. RVR is used in lieu of RVV and/or prevailing% c5 I2 b) [+ O( D/ N
visibility in determining minimums for a particular
$ {7 N; D5 J& K+ F) r( l# hrunway.
/ [# ^+ B$ O. Y0 B' |1. Touchdown RVR- The RVR visibility
1 F7 _( R* M/ q& ^; e% lreadout values obtained from RVR equipment+ ]' V; A' W. C% q8 L8 E
serving the runway touchdown zone.
1 _) D1 t4 ~8 ]8 B! h9 pPilot/Controller Glossary 2/14/087 p" H; W" {3 G4 ~9 K0 p
PCG V-3
4 K/ B/ @1 E7 \* Y' B# l2. Mid‐RVR- The RVR readout values obtained5 @$ |2 T3 o" T
from RVR equipment located midfield of the runway.
0 T- L6 T0 s! D3. Rollout RVR- The RVR readout values
- B8 M) P/ ^- F3 R5 b0 K. y! Tobtained from RVR equipment located nearest the6 F+ @9 F6 ` X- ~8 Z. F, Y; [+ k
rollout end of the runway.; n2 t* c* O6 d4 E5 x8 O7 o
(See ICAO term FLIGHT VISIBILITY.)
6 g" }' ^) {. G& \" j9 X(See ICAO term GROUND VISIBILITY.)
7 I0 X. a- m5 M, X(See ICAO term RUNWAY VISUAL RANGE.)5 r* M: @- ?# b9 J' s+ ^ k/ ^
(See ICAO term VISIBILITY.)
2 L; m, E5 S3 KVISIBILITY [ICAO]- The ability, as determined by/ v4 o4 t$ ^1 ]7 ^$ D, }7 r6 e! t
atmospheric conditions and expressed in units of- |5 G: ^" i S( A3 e8 y! J2 G; w
distance, to see and identify prominent unlighted' z" }: {0 |# _8 r3 [6 d
objects by day and prominent lighted objects by
3 |5 [" ?' E2 w9 fnight.
- e5 R* w8 j( A, w, r& @! a6 Qa. Flight Visibility-The visibility forward from
5 o2 f' K% {' _1 F* j$ U& Zthe cockpit of an aircraft in flight.( @7 V g+ H8 \- h- U# z u
b. Ground Visibility-The visibility at an aero‐$ I, Y. d" n# x! B1 |0 w" u- Y; m
drome as reported by an accredited observer.( W0 y( D; `! r. F1 P& Y
c. Runway Visual Range [RVR]-The range over
; K# I! j3 w" j6 [: g- ?which the pilot of an aircraft on the centerline of a
4 B7 v% K, X- M- }$ K* q5 ^1 arunway can see the runway surface markings or the8 {( u/ E1 U" h- G: H+ d& M3 S
lights delineating the runway or identifying its
! }/ l" @& z5 qcenterline.
& q# c" s& S4 w/ \% x) aVISUAL APPROACH- An approach conducted on
" V) ?' |# N5 L) Q$ f# F5 ian instrument flight rules (IFR) flight plan which4 ?3 H4 a( t0 z5 F, E
authorizes the pilot to proceed visually and clear of
2 }( H* |2 r! t0 N3 vclouds to the airport. The pilot must, at all times, have4 D9 j; e7 ?- Q E4 m' Z; K2 }: p
either the airport or the preceding aircraft in sight.
1 d* A9 _$ U9 z- [. TThis approach must be authorized and under the1 j- {. [# n, W2 x
control of the appropriate air traffic control facility. N) P2 g; ~& v+ e* ]/ j
Reported weather at the airport must be ceiling at or5 b6 w$ x3 i2 a9 z& C: m( S" x
above 1,000 feet and visibility of 3 miles or greater.
- R0 g; _0 d4 z; V4 z+ N+ H(See ICAO term VISUAL APPROACH.)
- o! V1 G" e1 LVISUAL APPROACH [ICAO]- An approach by an, }7 m& L: j/ g! V; e
IFR flight when either part or all of an instrument
; w% l& }8 g* H! c z, Qapproach procedure is not completed and the/ }& {, [4 [$ }3 u6 g& o; \
approach is executed in visual reference to terrain.
7 K+ f' A a6 ]. g2 Z* QVISUAL APPROACH SLOPE INDICATOR(See AIRPORT LIGHTING.)
& N' @5 B7 p5 t7 ?* QVISUAL CLIMB OVER AIRPORT (VCOA)- A
- r7 Y' L, d; Z6 _5 t7 Mdeparture option for an IFR aircraft, operating in
% I5 g6 N; k; H' X8 j, o3 }visual meteorological conditions equal to or greater C; e' Q& X; q' A0 Z7 k% R
than the specified visibility and ceiling, to visually8 D) k- X" Z$ g: F" T+ N! W8 v
conduct climbing turns over the airport to the
$ c. n" N6 p7 a" Jpublished “climb-to” altitude from which to proceed5 s" \" J5 \2 \! L6 H" [6 n; N
with the instrument portion of the departure. VCOA
% H2 p6 i G; C6 G: Kprocedures are developed to avoid obstacles greater
5 r) m4 a, z$ L/ s/ P+ J4 e3 bthan 3 statute miles from the departure end of the* B+ a( L! n, G: L( u( n6 i1 |
runway as an alternative to complying with climb; H4 C% A+ V: z; h
gradients greater than 200 feet per nautical mile.
: o) ?0 h9 v2 K+ p$ R& \" y7 u: EThese procedures are published in the `Take-Off
7 x3 |3 W* O2 E z8 dMinimums and (Obstacle) Departure Procedures'
. ^' C, _, _( u6 \+ p! c0 zsection of the Terminal Procedures Publications.
4 y+ o% G" D: A8 l9 D6 L(See AIM.)3 s: H% }5 t+ P5 _$ A; {/ U
VISUAL DESCENT POINT- A defined point on the H8 W' S8 e5 f- p
final approach course of a nonprecision straight‐in
) [% w& ^5 l4 z; w3 y e0 {approach procedure from which normal descent from
+ K* X: C0 r# Q( w; _the MDA to the runway touchdown point may be
+ y* C1 ~6 y/ Y. {/ tcommenced, provided the approach threshold of that1 Y* O- O$ z" A% i! Y/ m( }% E
runway, or approach lights, or other markings
, S2 k* T0 R. u! M( X2 O( o1 {- g4 bidentifiable with the approach end of that runway are
+ f, C2 N4 Q. r2 }/ z) q( U! r$ cclearly visible to the pilot.5 a7 F; q1 l; ]' t0 z9 z) p
VISUAL FLIGHT RULES- Rules that govern the
, B8 N7 m) X' B' g. `procedures for conducting flight under visual
/ P: F( O- K7 ^conditions. The term “VFR” is also used in the4 m9 n$ H! u7 w- i& `/ r9 R2 [
United States to indicate weather conditions that are. D6 _! C( A; U9 P! {: t8 T& g: o4 L6 w
equal to or greater than minimum VFR requirements." k" K% l- ?: L# d6 K
In addition, it is used by pilots and controllers to
( `+ _7 |$ Y; D4 @5 M7 sindicate type of flight plan.
( W( d9 R/ o4 D; |! u(See INSTRUMENT FLIGHT RULES.); U. T# x" I2 h& T# B. Q1 {8 Q
(See INSTRUMENT METEOROLOGICAL) D( E6 h) D. |1 z
CONDITIONS.); U' d1 B0 O+ `( _" F
(See VISUAL METEOROLOGICAL
2 H) v5 e' `7 e- HCONDITIONS.)
, d7 l) I5 u% X(Refer to 14 CFR Part 91.)( i0 v; T5 D+ t" y
(Refer to AIM.) f0 @/ E B' w9 E( }+ v! G
VISUAL HOLDING- The holding of aircraft at
2 N' |/ H! g7 i) ]selected, prominent geographical fixes which can be
b; _9 H& f' xeasily recognized from the air.( l# I! y: T8 E O) _
(See HOLDING FIX.)
3 Q- R) t O" @3 j% `' \VISUAL METEOROLOGICAL CONDITIONS-+ I ^" z; O; e, n# P' \
Meteorological conditions expressed in terms of- A9 ?: }, [1 f/ A. j
visibility, distance from cloud, and ceiling equal to or% D; |) E* z( [8 y, [" A; @' p$ Q) ~
better than specified minima.1 U" z" s. @9 w( n1 l
(See INSTRUMENT FLIGHT RULES.)- _" ~( m+ e5 w" e0 A9 O
(See INSTRUMENT METEOROLOGICAL& O s$ E# h9 W/ K2 [
CONDITIONS.) M5 ~0 B1 l1 u1 y) `# o
(See VISUAL FLIGHT RULES.)5 E3 ?9 G6 k6 s; o& v
VISUAL SEPARATION- A means employed by
8 k4 L: a+ m: @" Q1 }ATC to separate aircraft in terminal areas and en route8 \# u$ P4 _' _, r8 Q5 K
airspace in the NAS. There are two ways to effect this8 G& ?; M# y: B8 {
separation:
+ K3 w$ |" }$ Y1 T( qa. The tower controller sees the aircraft involved# P* G* W$ ] J" x
and issues instructions, as necessary, to ensure that
* J- T, u$ U9 O8 q/ Ithe aircraft avoid each other." H/ O7 U$ T3 s( a/ p% ~" A1 }
b. A pilot sees the other aircraft involved and upon) N/ z& k& p- j+ b
instructions from the controller provides his/her own4 e6 k+ \- B& i
Pilot/Controller Glossary 2/14/08
! r$ ^' }: X8 W$ xPCG V-4$ b% H! \' ?$ S2 i& H- ]
separation by maneuvering his/her aircraft as
+ [) a- E. T8 \2 inecessary to avoid it. This may involve following% U, H% q+ J3 j& t! Q9 n
another aircraft or keeping it in sight until it is no
6 Q( D' O/ U) M& j# v4 Elonger a factor.
8 {' G& l2 j( v, p1 O9 ~$ `(See SEE AND AVOID.)+ t( N1 M8 V* u9 U F+ \9 l4 n& ~
(Refer to 14 CFR Part 91.)3 n' e: Q' k: n# [
VLF(See VERY LOW FREQUENCY.): N9 q/ @/ z' I' W+ H$ Y( f4 Z
VMC(See VISUAL METEOROLOGICAL5 m- }* L7 l+ \- {3 J8 R
CONDITIONS.)/ G+ u, W) G. n( @; @! e" y) n
VOICE SWITCHING AND CONTROL SYSTEM-) Z& ?% D; Y; F3 D0 A! S% t0 ]8 c- ~
The VSCS is a computer controlled switching system& \1 J, }) X4 s) F3 x: n
that provides air traffic controllers with all voice W! V6 N# J2 c. t% V
circuits (air to ground and ground to ground)
8 q3 R* K2 @. l) E7 a- g Knecessary for air traffic control.
& b4 e- L+ v4 t/ _(See VOICE SWITCHING AND CONTROL# m& O( f5 n* M# W* w
SYSTEM.)+ [7 G% _, V7 w* ~' O- ^# ?
(Refer to AIM.)# w! z3 w( T( s) |& Z7 j
VOR- A ground‐based electronic navigation aid
& t% N* Y9 f1 Mtransmitting very high frequency navigation signals,
# N9 Z! Y6 `& _360 degrees in azimuth, oriented from magnetic
5 w7 w8 |8 w( X5 wnorth. Used as the basis for navigation in the National+ k0 U: Y M0 {( H5 W p
Airspace System. The VOR periodically identifies
+ v% D1 p: I& N/ x E! H" Mitself by Morse Code and may have an additional2 p9 ^( m o; v
voice identification feature. Voice features may be& g# Z+ E' ?7 q2 x- K
used by ATC or FSS for transmitting instructions/
) J, M; \# x u7 B6 I* iinformation to pilots.+ _, X$ M5 e* S9 ]
(See NAVIGATIONAL AID.)
# ~9 P* p# c$ @! C1 D( O: ~(Refer to AIM.)
/ N1 n2 @2 M& h- c3 q' xVOR TEST SIGNAL(See VOT.)
* u! X3 N; ]' g) j' k1 SVORTAC- A navigation aid providing VOR3 ~; q; d9 h w0 M) `
azimuth, TACAN azimuth, and TACAN distance; p% h. d. @ l
measuring equipment (DME) at one site.
# \% L, _) g2 z6 {(See DISTANCE MEASURING EQUIPMENT.)
1 U+ F* e! @7 t" \, Q/ g(See NAVIGATIONAL AID.)& C/ d8 r j5 c' _, y
(See TACAN.)
+ x( ^! T* E# z+ ~2 m% w) i i- B(See VOR.)
! c+ x2 z( U" S6 E3 S" X7 H(Refer to AIM.)$ u2 _, k1 E) K% H* X5 K
VORTICES- Circular patterns of air created by the$ ]% C, ~9 t& ~! t* q$ @
movem ent of an airfoil through the air when) y0 P e% w: } x" Z
generating lift. As an airfoil moves through the
9 n+ j; }& j0 g9 A' Watmosphere in sustained flight, an area of area of low% v4 A6 w* O2 P* H- h
pressure is created above it. The air flowing from the3 i% N7 c; Q+ V& k. T$ i( q! A3 |5 |; Q
high pressure area to the low pressure area around and
2 R2 [" p; L5 l5 ?about the tips of the airfoil tends to roll up into two! k( i9 z0 R" r! ?2 q6 I! c* P* x! x
rapidly rotating vortices, cylindrical in shape. These
0 |+ M4 A( R) Lvortices are the most predominant parts of aircraft
" G% E* {8 w/ L2 [9 zwake turbulence and their rotational force is
j5 c7 f5 M/ Z; U" N3 k. zdependent upon the wing loading, gross weight, and
( Y I$ `: B# pspeed of the generating aircraft. The vortices from4 M6 ]$ V. j- C% n$ q1 f
medium to heavy aircraft can be of extremely high
) ]5 T7 j/ C& S2 C$ Nvelocity and hazardous to smaller aircraft.1 ~- X6 i! T+ N/ T& o) a
(See AIRCRAFT CLASSES.)
$ j8 M% ]6 r3 n7 K(See WAKE TURBULENCE.). q0 t% S3 j3 F& N: a
(Refer to AIM.)
' O( S/ r. c/ k) N2 fVOT- A ground facility which emits a test signal to
) ~" x+ U4 ~1 J* D7 Z5 D) B' ?check VOR receiver accuracy. Some VOTs are
( ?+ v& ~9 }# ~5 v; Navailable to the user while airborne, and others are2 O5 T* n! I8 z1 e4 k& J
limited to ground use only.. J! m% f F! S3 B& r x8 G' O
(See AIRPORT/FACILITY DIRECTORY.)
& d4 d3 ]. v2 s2 |9 Q" `" O(Refer to 14 CFR Part 91.)
4 n' z( {7 t q5 j7 O% W(Refer to AIM.)
, B& z9 D, \' c* d0 @' JVR(See VFR MILITARY TRAINING ROUTES.)5 u, q4 U3 I% W0 H$ X0 P4 m# ^
VSCS(See VOICE SWITCHING AND CONTROL
9 _3 e' c* h# s& F. {( {SYSTEM.)$ r! `5 j5 ? g/ p
VTA(See VERTEX TIME OF ARRIVAL.)
$ k7 T7 |: d) B& k: q; e9 I& @VTOL AIRCRAFT(See VERTICAL TAKEOFF AND LANDING* I* I$ n3 {4 j/ s5 p
AIRCRAFT.)/ y6 P8 ^( P% k$ v: Q
Pilot/Controller Glossary 2/14/08
# p/ t' R6 i4 O- x9 Y( tPCG W-1# }2 z+ n& C: j4 ~( y
W
- M% q' [- E; l; ]5 ]WA(See AIRMET.)
( u) l8 Q5 s" l* @6 ~% K# m(See WEATHER ADVISORY.)
( P% w! Y$ b! d4 V' BWAAS(See WIDE‐AREA AUGMENTATION SYSTEM.)
& v I5 C3 r, _# V8 {+ qWAKE TURBULENCE- Phenomena resulting from
4 l5 [% d6 p# j( Dthe passage of an aircraft through the atmosphere.
l0 l* M$ \2 i+ j5 ]. N T+ tThe term includes vortices, thrust stream turbulence,$ B0 c* ]+ a# Q# m
jet blast, jet wash, propeller wash, and rotor wash/ T/ P- E- V5 o M7 P+ O$ S; T0 V
both on the ground and in the air.) m5 \1 h. h1 t7 |
(See AIRCRAFT CLASSES.)
- m2 z' L+ ~) P! b" U% J+ g(See JET BLAST.)6 S# e2 n2 ?6 f! a
(See VORTICES.)
. O2 G: X+ B) A(Refer to AIM.)
, m4 g: I# n5 u& b5 gWARNING AREA(See SPECIAL USE AIRSPACE.)! a; U: x0 {! s* s' _9 k6 |
WAYPOINT- A predetermined geographical posi‐# M9 s+ R/ V* `/ C7 }. F! c
tion used for route/instrument approach definition,- J1 K8 }# q3 J8 R
progress reports, published VFR routes, visual! `8 f. E5 _4 j' h
reporting points or points for transitioning and/or1 A/ j4 h1 f2 M4 h% [2 N8 K
circumnavigating controlled and/or special use
4 I: ~! y; R: d9 K( Bairspace, that is defined relative to a VORTAC station
6 k3 G9 o# A" [1 U& [or in terms of latitude/longitude coordinates.
0 T, b5 M: ~" c, v4 M2 }, LWEATHER ADVISORY- In aviation weather J# j* ]# _% C8 O Q
forecast practice, an expression of hazardous weather
0 Z! m R q% O; P; k: Cconditions not predicted in the area forecast, as they% w2 e' F5 y8 j. e
affect the operation of air traffic and as prepared by
: R& }+ |4 j( P0 d$ Zthe NWS.4 c9 O ?% X4 [; o& y
(See AIRMET.)7 E- b0 o- a N* S* j S3 W+ C
(See SIGMET.)1 p& n% Y6 C0 q- E K) x$ X
WHEN ABLE- When used in conjunction with ATC
, { O* y2 z$ S ~( T Vinstructions, gives the pilot the latitude to delay: J8 z3 K5 G! Z/ y# m% |
compliance until a condition or event has been
- G! R! x+ G) | I4 `2 I4 Freconciled. Unlike “pilot discretion,” when instruc‐, f U0 g! O5 p0 F. P
tions are prefaced “when able,” the pilot is expected
( E( f" E0 U% A d: K1 cto seek the first opportunity to comply. Once a
7 `* L* l' ] Xmaneuver has been initiated, the pilot is expected to
' c, y: N) c; A/ N+ M3 jcontinue until the specifications of the instructions4 P- k# O9 U3 U8 `; U: z, A
have been met. “When able,” should not be used
* ^9 G I1 L$ G$ I5 swhen expeditious compliance is required.8 j2 h: k) O1 X9 b
WIDE‐AREA AUGMENTATION SYSTEM0 I# ?: @+ r- U/ {
(WAAS)- The WAAS is a satellite navigation system" Y! a7 ?- s/ h; O0 L
consisting of the equipment and software which) y6 }- m% O' I5 A
augments the GPS Standard Positioning Service1 `5 x4 @8 E; W2 V5 ^" b5 D
(SPS). The WAAS provides enhanced integrity,
* v" g# c; O P8 i1 ^/ saccuracy, availability, and continuity over and above
. |" _0 K4 b. T G, {GPS SPS. The differential correction function
+ N9 U4 u1 ?9 }* [: U) c' a' Zprovides improved accuracy required for precision/ a6 f6 x& T _! {! @
approach.
: N% R" k$ M6 [3 x2 S: KWILCO- I have received your message, understand8 E2 z: I4 c3 I. w
it, and will comply with it.( |, i: C$ X3 a0 z" E0 H$ B5 N
WIND GRID DISPLAY- A display that presents the2 D9 t4 V/ E' C* W7 P
latest forecasted wind data overlaid on a map of the
) i2 P; a0 J6 |( u+ `9 V6 bARTCC area. Wind data is automatically entered and" Z& B j9 e+ s# O
updated periodically by transmissions from the0 D( `7 ], g/ D/ [* W1 M; y6 Y
National Weather Service. Winds at specific
- f: v. ]: \) U2 L4 j9 H5 s0 yaltitudes, along with temperatures and air pressure. I& R7 J9 a9 b3 W6 a2 o7 B1 m
can be viewed.
8 W V4 c4 H. S* U8 } W& L" VWIND SHEAR- A change in wind speed and/or wind: p3 V) G3 P( ~8 |9 O
direction in a short distance resulting in a tearing or1 k0 E; f9 t1 \! B/ F9 N
shearing effect. It can exist in a horizontal or vertical$ R4 b/ ?# r0 G* [: E
direction and occasionally in both.
* j3 Y, g$ y( o9 h, W6 CWING TIP VORTICES(See VORTICES.)$ }* {- a! v2 o. z1 L' a$ j
WORDS TWICEa. As a request: “Communication is difficult.- s: f" [2 C4 l# H- g
Please say every phrase twice.”
! T, a8 c% x n. e( |, J* Y' Q( Ob. As information: “Since communications are
+ |' f' `* y* }3 Cdifficult, every phrase in this message will be spoken
" k# J ]8 y% g5 u$ C g4 `twice.”
9 k0 X1 V7 f$ N& c8 F" ^WORLD AERONAUTICAL CHARTS(See AERONAUTICAL CHART.)$ Z$ s9 B* ?" l0 O
WS(See SIGMET.)
9 m* X' l7 H/ l% P1 b0 `8 D/ J(See WEATHER ADVISORY.)
2 v6 h: W# x: _WST(See CONVECTIVE SIGMET.). \ u9 W; s" T/ A
(See WEATHER ADVISORY.) |
|