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1. For runways serving large airplanes, the2 S3 k! Q: G' M1 P% ~& c' `2 o
greater of:1 K/ d2 T% r: f5 ]0 `
(a) 400 feet, or
" i S; f( a, a) R3 V1 F" Z) ~(b) 180 feet, plus the wingspan of the most& U5 k& A* j6 d) y }) M
demanding airplane, plus 20 feet per 1,000 feet of ` \) ]: {1 O* R( T1 r
airport elevation.
- G5 y* H- `4 @2. For runways serving only small airplanes:
. I: E+ I, I* z: C% Y(a) 300 feet for precision instrument run‐
( Q3 p# Z E: X3 r5 Aways.; C8 U: M8 ~" g" ^6 d$ ^: i
(b) 250 feet for other runways serving small
( z) ~( E" e. pairplanes with approach speeds of 50 knots, or more.
3 c; z+ o" O' H# c1 Y' {8 L. @# n2 ^(c) 120 feet for other runways serving small
! U: d9 }7 f6 O% h9 oairplanes with approach speeds of less than 50 knots.
/ t6 o7 Q/ L- D, i: v! {; ? yb. Inner‐approach OFZ. The inner‐approach OFZ
8 b7 o( |) H% l4 T5 Qis a defined volume of airspace centered on the
2 Q! a6 I7 `6 x2 X4 Happroach area. The inner‐approach OFZ applies only
* l9 A# p: }, D1 U1 Hto runways with an approach lighting system. The4 U, d$ @. L/ \$ z
inner‐approach OFZ begins 200 feet from the runway3 p) W0 v. h5 f
threshold at the same elevation as the runway- O- R7 O3 G- Q+ T/ a
threshold and extends 200 feet beyond the last light
0 o- R& [/ d$ E" X* N+ q* Tunit in the approach lighting system. The width of the2 ?5 V3 \# C6 x8 r
inner‐approach OFZ is the same as the runway OFZ
: W6 [6 x9 U) Wand rises at a slope of 50 (horizontal) to 1 (vertical)# @5 E0 @- W$ q4 r3 _
from the beginning.& i6 ?( M6 t* m' c' y9 y- H% ?5 x; ^; F
c. Inner‐transitional OFZ. The inner transitional
* ~; B! c8 w# M/ O3 ~# N- Esurface OFZ is a defined volume of airspace along the
# v+ t$ Y8 }4 X# [9 }& S6 dsides of the runway and inner‐approach OFZ and
6 {6 k& n# p5 z3 o9 Sapplies only to precision instrument runways. The; r) e/ f- l$ V- m- {6 ]1 }1 H
inner‐transitional surface OFZ slopes 3 (horizontal)+ d) P2 v/ M' q
to 1 (vertical) out from the edges of the runway OFZ7 e0 Z0 x6 r, ]; x8 d& o; V3 Z
and inner‐approach OFZ to a height of 150 feet above
( J% k# R( {5 I' L2 lthe established airport elevation.
& ]- M6 n4 s+ Q" C/ ^( _& Y1 D/ {(Refer to AC 150/5300‐13, Chapter 3.)5 d2 K6 n# c L9 b) r# V/ D
(Refer to FAAO JO 7110.65, Para 3-1-5,/ x1 w. e6 V/ J/ `
VEHICLES/EQUIPMENT/PERSONNEL ON
: V% T* R; s4 `/ N* p. G3 Z% A4 @RUNWAYS.)0 z; c3 a5 V3 z. R
OBSTRUCTION- Any object/obstacle exceeding
: Y) ]; j6 e4 K- M+ n$ W" ?the obstruction standards specified by 14 CFR) _8 D8 ?; ?' T+ c/ q& ~, E5 }
Part 77, Subpart C.& K/ [1 _- }% x) E7 o# @9 ^
OBSTRUCTION LIGHT- A light or one of a group+ y% t9 ~1 @) M: [( }
of lights, usually red or white, frequently mounted on3 A/ D+ e. J8 W/ E' W
a surface structure or natural terrain to warn pilots of$ C3 u/ |* K/ ^* G! `8 k
the presence of an obstruction.1 J5 D) M; S3 N1 C
OCEANIC AIRSPACE- Airspace over the oceans of
' i: x; Q$ l- P8 qthe world, considered international airspace, where
/ f U/ D2 l5 D3 P. boceanic separation and procedures per the Interna‐, a8 A5 P G0 L$ }5 U. V
tional Civil Aviation Organization are applied.
3 ^" X1 b& }+ x+ mResponsibility for the provisions of air traffic control
_( ]1 k1 D' NPilot/Controller Glossary 2/14/08 h: h3 H* d8 m) u* S
PCG O-20 L$ R1 P1 g' A2 K1 v w5 ~* c
service in this airspace is delegated to various6 H+ H8 C6 t' Y2 h
countries, based generally upon geographic proximi‐6 [2 Z/ y, l! s6 h8 Q
ty and the availability of the required resources.- P# r% F* F5 X0 `) D5 Q; j! ?( L
OCEANIC DISPLAY AND PLANNING SYS‐- I- j+ h7 G0 d! P8 s0 v9 a1 X0 g
TEM- An automated digital display system which- G8 U! \3 Y( b, O8 A
provides flight data processing, conflict probe, and
1 V" m# [- d8 X5 V" ~5 h- i5 M9 Wsituation display for oceanic air traffic control.
2 r* q1 G; S9 s; JOCEANIC NAVIGATIONAL ERROR REPORT- A! \3 f' a# c# o, ^1 T
report filed when an aircraft exiting oceanic airspace2 Y+ @' a: _6 u
has been observed by radar to be off course. ONER" K- C5 Q. I) |9 q5 r1 \
reporting parameters and procedures are contained in2 G1 c' C0 E5 C% ~( F- p
FAAO 7110.82, Monitoring of Navigational Perfor‐ d. k8 x, [% d
mance In Oceanic Areas. c* R- a) ?! S2 J$ [7 v
OCEANIC PUBLISHED ROUTE- A route estab‐
' ~, {1 z, m4 t8 ^$ Olished in international airspace and charted or
0 M7 ~( Z$ X/ c( H+ E/ y @described in flight information publications, such as
3 y; K* |9 L1 T/ c8 t% L7 e R/ c+ ^Route Charts, DOD Enroute Charts, Chart Supple‐
, J1 C% H% r* S: Zments, NOTAMs, and Track Messages.
% ]% j8 e/ k0 E0 O+ {5 ZOCEANIC TRANSITION ROUTE- An ATS route3 K. k1 P, D( o- }( z0 ]
established for the purpose of transitioning aircraft0 R$ O$ _6 U5 D1 M8 H. l0 r+ W
to/from an organized track system.0 u1 e& X; v( H" B
ODAPS(See OCEANIC DISPLAY AND PLANNING
# m, x, s5 F5 n8 H) ]# oSYSTEM.)
5 v# U6 l8 ^- x+ z9 P7 G, }# UODP(See OBSTACLE DEPARTURE PROCEDURE.)
, y# k$ w: w6 a$ K# v2 bOFF COURSE- A term used to describe a situation. R7 U' b8 L1 f# K% w) ]3 R% t% N V
where an aircraft has reported a position fix or is
. N. w9 h* A5 X' Q4 Q3 S$ ]observed on radar at a point not on the ATC‐approved
$ [8 {+ B6 v# Z6 \; ?& Z& D: Zroute of flight.9 N. f8 m& Q; p. y" M+ I) s
OFF‐ROUTE VECTOR- A vector by ATC which% N0 Q5 F" D& [
takes an aircraft off a previously assigned route.
( @, ]& W; m: s; wAltitudes assigned by ATC during such vectors6 s4 ?$ d! X2 H8 \5 Z
provide required obstacle clearance.. V& X' i+ d) P1 L: n- w' y
OFFSET PARALLEL RUNWAYS- Staggered$ D. I- r9 P& R6 W3 U0 M
runways having centerlines which are parallel.- p: t2 C: p- h7 ]3 G' h6 y: b1 |
OFFSHORE/CONTROL AIRSPACE AREA- That
; ~8 V4 K' p+ }( q: Qportion of airspace between the U.S. 12 NM limit and
9 \# c* l1 R/ z/ b, D' Ithe oceanic CTA/FIR boundary within which air
i( ^+ b9 Y0 D+ Etraffic control is exercised. These areas are2 g3 m$ H9 W% w/ u0 I
established to provide air traffic control services.+ @8 T) A( W. R# |
Offshore/Control Airspace Areas may be classified) G. G' J, b+ ^7 {
as either Class A airspace or Class E airspace.0 z: v, r) F7 i' ?! y
OFT(See OUTER FIX TIME.)
) d8 n4 {. s* v6 c% ~OM(See OUTER MARKER.)/ c' C- z( ]" K/ X f, ^
OMEGA- An RNAV system designed for long‐range9 J- A, b" M. D7 M; E3 G$ G- c
navigation based upon ground‐based electronic3 ^* y5 v1 e/ y) `8 o
navigational aid signals.
% |( p+ p/ @0 @& R7 gON COURSEa. Used to indicate that an aircraft is established on
$ H9 X z9 Z( W9 I8 ^4 T3 f8 R4 Lthe route centerline.
- g8 p! I. W, W2 D- b- m* A# Q ub. Used by ATC to advise a pilot making a radar
g/ e5 R1 z; C& X- v) Papproach that his/her aircraft is lined up on the final$ U+ C4 l, P. O6 k* h/ H4 ~
approach course.
; K6 `: u/ F( K9 M6 k% {) Q(See ON‐COURSE INDICATION.)) R, ^: M% _6 l8 H
ON‐COURSE INDICATION- An indication on an- o. f! ]$ }9 r
instrument, which provides the pilot a visual means
0 j& D+ r6 n/ e l' |of determining that the aircraft is located on the y" X' c% ]' J
centerline of a given navigational track, or an9 b I1 L3 }1 ^" D5 n* z
indication on a radar scope that an aircraft is on a
" \" C" z: z, O: jgiven track.
9 s4 o! T6 w! Z8 R* W$ K9 I( |ONE‐MINUTE WEATHER- The most recent one
/ u8 g+ S$ W- T1 \! Q/ Qminute updated weather broadcast received by a pilot6 m( d/ U" z2 l/ C6 |3 E; {, s
from an uncontrolled airport ASOS/AWOS.
( s! t- g2 z1 N6 ?* _0 [. FONER(See OCEANIC NAVIGATIONAL ERROR
5 \% n# n$ r" fREPORT.)
/ r$ r$ I9 j2 |- q# @! h6 y# ]OPERATIONAL(See DUE REGARD.)
( Z' e v5 W7 nOPPOSITE DIRECTION AIRCRAFT- Aircraft are0 _7 Y6 H' l2 C4 Q" n
operating in opposite directions when:
# }; w6 Z2 o4 M+ F r0 p2 s0 v' ca. They are following the same track in reciprocal
) O z4 v ~/ idirections; or b4 z" _ |; K i
b. Their tracks are parallel and the aircraft are
, A/ T3 b; ^, c% y7 ]( Aflying in reciprocal directions; or
# D2 J# p/ _7 N' X# O( n* Kc. Their tracks intersect at an angle of more than5 _* C1 I3 G8 z: }
135.5 L# n m# W1 _. G0 s0 a) P
OPTION APPROACH- An approach requested and6 S5 Y ^$ _5 \! y
conducted by a pilot which will result in either a
3 f) }, D! w9 e+ Ftouch‐and‐go, missed approach, low approach,- _4 V$ b* p% \
stop‐and‐go, or full stop landing.
9 a" J6 h S0 ~- v' r(See CLEARED FOR THE OPTION.)
3 X+ A4 m' H. h( L3 ~ ^; ](Refer to AIM.)5 u( H) {4 [4 i8 @ J
ORGANIZED TRACK SYSTEM- A series of ATS
, c y: |7 t) ?* ]routes which are fixed and charted; i.e., CEP,
2 ^2 ^0 \: \5 RNOPAC, or flexible and described by NOTAM; i.e.,
. ^; a+ ]% f8 jNAT TRACK MESSAGE., w. \+ M- N' O' \7 Q+ x, \
OROCA- An off‐route altitude which provides
+ M7 Q |3 m/ v" Z2 _obstruction clearance with a 1,000 foot buffer in
3 _+ Q6 p8 U4 IPilot/Controller Glossary 2/14/08
P; s. w$ ^. A* e9 HPCG O-3
7 l! P8 L( b+ j% Wnonmountainous terrain areas and a 2,000 foot buffer9 ^$ T$ M' c5 p: s9 L ]. I8 e
in designated mountainous areas within the United, i( l1 o& M6 W5 J$ W* t0 b- G0 p
States. This altitude may not provide signal coverage3 h8 }+ I! h% T# O5 R
from ground‐based navigational aids, air traffic
1 I4 ]( Y) b) {: D- }control radar, or communications coverage.
, Q( e {; ?5 `3 x/ AOTR(See OCEANIC TRANSITION ROUTE.)" `- I* g3 I* `& U% ~
OTS(See ORGANIZED TRACK SYSTEM.)
+ ^( e8 t. l3 @* P8 J+ kOUT- The conversation is ended and no response is
$ |# U) l0 m, B7 X& W8 wexpected.
; \7 ~: V/ n* g, `( k" s7 A5 l9 YOUTER AREA (associated with Class C airspace)-5 H1 D. M$ z* M2 }
Nonregulatory airspace surrounding designated8 r L; q; ?; E# Q+ h6 l/ p4 |3 g
Class C airspace airports wherein ATC provides radar/ t% U/ @1 c7 {5 G; O; S+ |0 r
vectoring and sequencing on a full‐time basis for all: w( F" h2 t+ g, O/ ]
IFR and participating VFR aircraft. The service1 K% L) |3 Q1 q/ Y1 r
provided in the outer area is called Class C service4 F, J- w8 j2 V. v' Q/ i
which includes: IFR/IFR-standard IFR separation;
- F2 L$ K, D$ j% {/ Q; EIFR/VFR-traffic advisories and conflict resolution;' l& c6 g% I7 [+ |
and VFR/VFR-traffic advisories and, as appropriate,
; Z- ^9 D6 O! T7 n% a5 Zsafety alerts. The normal radius will be 20 nautical
4 P7 D" r! x( j3 Z0 K( n C3 s: }miles with some variations based on site‐specific7 ^& @6 ?) I; o$ y3 z+ G
requirements. The outer area extends outward from
- K2 h2 s' o) b Hthe primary Class C airspace airport and extends from
7 G/ h" m7 S, a/ Cthe lower limits of radar/radio coverage up to the; P4 j) v- I5 @0 g7 I% n
ceiling of the approach control's delegated airspace" ?" w1 k; @7 h
excluding the Class C charted area and other airspace* g1 \% e6 X& I* a0 \* i
as appropriate./ F7 S5 v4 R j# w
(See CONFLICT RESOLUTION.)4 B+ j* w7 E7 T' j% j
(See CONTROLLED AIRSPACE.)
6 b; E/ x" }; ^2 s1 n+ E# @, h3 Q9 S) yOUTER COMPASS LOCATOR(See COMPASS LOCATOR.)- V& o1 y* C6 P! r e
OUTER FIX- A general term used within ATC to
' t( c& U$ W5 b5 ]' adescribe fixes in the terminal area, other than the final9 @9 v; i8 G9 L" Q7 d+ _
approach fix. Aircraft are normally cleared to these
$ m8 ~# G1 g, g, yfixes by an Air Route Traffic Control Center or an. {8 q% y* y- P& D
Approach Control Facility. Aircraft are normally. ^7 n( `4 @; B o2 [& B* v
cleared from these fixes to the final approach fix or
( S1 p! S2 c2 Z& ^3 ?& ufinal approach course./ l, I! f- o# M' `# V3 |
OR
0 p( a: q2 @; n4 Y0 C% H0 n# kOUTER FIX- An adapted fix along the converted% j8 A5 H8 m& \9 q m1 T
route of flight, prior to the meter fix, for which
0 M9 a" O( E+ Q) `7 v$ {crossing times are calculated and displayed in the
& i7 r( h2 t) A' E. G9 a' ^" n6 ometering position list.
0 m) l* ?! L, \" MOUTER FIX ARC- A semicircle, usually about a
5 t6 d% j9 }1 T* [50-70 mile radius from a meter fix, usually in high
. @5 j1 G0 m6 q# q8 X4 D, X2 Valtitude, which is used by CTAS/HOST to calculate" P2 I a$ K8 Q# k5 r4 U
outer fix times and determine appropriate sector
+ v# ^# Y1 O2 K; N5 rmeter list assignments for aircraft on an established
- p5 k# V' d; W8 ~; \arrival route that will traverse the arc.
- ]6 t- k% |/ A' T& E, o2 L2 _OUTER FIX TIME- A calculated time to depart the
' R( f2 |: \% x7 V. Fouter fix in order to cross the vertex at the ACLT. The
4 V$ D& X3 o! S4 `. ttime reflects descent speed adjustments and any
3 g- G( N* g0 V" s# C! T- m5 d' Aapplicable delay time that must be absorbed prior to) C0 |' V1 c, G, X' @
crossing the meter fix.
0 [9 w, M3 c8 YOUTER MARKER- A marker beacon at or near the
8 Z4 m9 Z3 C* O2 S0 hglideslope intercept altitude of an ILS approach. It is/ _1 E+ I1 U4 H
keyed to transmit two dashes per second on a 400 Hz M9 U( Q) Q1 B/ a
tone, which is received aurally and visually by
8 O G4 s8 J& |7 C" x* y# hcompatible airborne equipment. The OM is normally# h& ~; ~0 {& s. f$ }# L2 Y
located four to seven miles from the runway threshold- J' i8 F6 H( I/ R6 |9 f; u% ]
on the extended centerline of the runway.
; a; J4 ] z. R# \7 j(See INSTRUMENT LANDING SYSTEM.)
6 P. m8 m5 L; u; E- o7 \(See MARKER BEACON.)
$ [* M) {: c! z) ?6 b* v$ c$ J# B( o8 t(Refer to AIM.)' N6 q- p6 r/ J9 ]8 k4 I- m* _
OVER- My transmission is ended; I expect a
* _5 E: p. {) V. r( \" i" W. \response.: V6 o, J& L. |2 c" J( c7 r
OVERHEAD MANEUVER- A series of predeter‐
! Z+ V j6 {+ v# \8 t4 R' M) }mined maneuvers prescribed for aircraft (often in
; h: A' u e) k8 vformation) for entry into the visual flight rules (VFR)
# K1 v8 v% C" c9 t- t# Otraffic pattern and to proceed to a landing. An) V% Z4 K1 x7 @8 Y( R
overhead maneuver is not an instrument flight rules. i4 d0 c3 o. l" x; V
(IFR) approach procedure. An aircraft executing an* Q8 d" f* L+ I( ]
overhead maneuver is considered VFR and the IFR4 U$ l% | }% N4 K( w a
flight plan is cancelled when the aircraft reaches the
" X" w) G" g0 f& ?2 Y6 ]9 x“initial point” on the initial approach portion of the
3 A# b# L. T* A( Q4 P. j# {4 D5 Ymaneuver. The pattern usually specifies the! L0 e4 N9 _ A/ d4 H
following:8 U3 z# k1 |6 E
a. The radio contact required of the pilot.
( q& O6 ~2 o( U0 Nb. The speed to be maintained.
: K: C2 T1 o* v6 v" I7 `c. An initial approach 3 to 5 miles in length.
( v$ i+ {# A1 U- T5 o/ w: Nd. An elliptical pattern consisting of two 180( g& }7 l% s7 A6 A' @; y
degree turns.! d% b- y$ J, R3 H! C! s/ f; l
e. A break point at which the first 180 degree turn# ~& T. P: M) f" C
is started.
% O: c. D" A! r1 [) _6 Af. The direction of turns.
6 Z) t" C( P+ w z7 s0 eg. Altitude (at least 500 feet above the convention‐
, A4 \+ R( H9 R% u' H5 bal pattern).
* M0 c! S2 E5 S' e8 `+ l2 Uh. A “Roll‐out” on final approach not less than 1/4
' j z6 v, y% Smile from the landing threshold and not less than 3009 {9 j" Q/ t! W3 ]) o
feet above the ground.
7 \, K& r7 ]4 p7 X" sPilot/Controller Glossary 2/14/08( c% _ g' i% S" b
PCG O-45 L/ t# f; U& }5 e
OVERLYING CENTER- The ARTCC facility that
! s: O% ~: W. P2 Y# A- t8 Yis responsible for arrival/departure operations at a
5 a4 W) Y1 f gspecific terminal.
0 Z3 }- e s: i5 T; w* D- G4 IPilot/Controller Glossary 2/14/08$ b1 B' }; M- ~# _! s( S. W7 b
PCG P-1
' o3 N4 c+ m* e4 E7 C$ TP
# R( w. }& Z* JP TIME(See PROPOSED DEPARTURE TIME.): _3 j* f2 B8 \8 c! N
P‐ACP(See PREARRANGED COORDINATION
& f* y n+ ? ~8 C0 ?9 {" N+ h# ~PROCEDURES.)
& @. P) O) d; J& u. l3 t' B7 {PAN‐PAN- The international radio‐telephony urgen‐ s5 Z0 g% Z+ I' A
cy signal. When repeated three times, indicates" p1 j5 f$ ^- Q6 N' N$ f+ A6 b
uncertainty or alert followed by the nature of the
+ T' i4 \3 G3 murgency., w/ ^: u3 M" p& g7 X7 W
(See MAYDAY.)
9 F1 h" `+ K7 d9 T' j9 B h(Refer to AIM.)
1 T6 u |$ ?! P; a1 S3 V- ]PAR(See PRECISION APPROACH RADAR.)
V8 Y' _9 ], Y8 e& hPAR [ICAO]-. ]" T- }# k3 z; E% k" k
(See ICAO Term PRECISION APPROACH/ U# O4 s- t: i/ ]2 J+ T
RADAR.) V0 v. S5 K- ]! Y
PARALLEL ILS APPROACHES- Approaches to9 g& w0 d0 I6 \4 {6 i% {
parallel runways by IFR aircraft which, when
9 M0 b1 z& F5 D% l3 Hestablished inbound toward the airport on the1 e1 j, w8 v( U7 h
adjacent final approach courses, are radar‐separated8 W! f# \# V& y$ x9 |) O: \, O8 F
by at least 2 miles.. E q ~* v. M. }. G
(See FINAL APPROACH COURSE.)
/ j |- `" l2 p% K( ^: X) h# P(See SIMULTANEOUS ILS APPROACHES.)
- Z& @ P; D3 @- ^4 }2 wPARALLEL MLS APPROACHES(See PARALLEL ILS APPROACHES.)8 Z& b; @* V. n0 E0 H
PARALLEL OFFSET ROUTE- A parallel track to
" F0 ~1 M5 J" M' l2 k7 }( Vthe left or right of the designated or established4 F; ~8 t! Z: a) r
airway/route. Normally associated with Area Navi‐1 X+ |" S2 a& ]9 n" E! r! P
gation (RNAV) operations.
2 J' T* }/ E) f(See AREA NAVIGATION.)
8 l8 f0 @4 w! Q1 K7 D: k2 dPARALLEL RUNWAYS- Two or more runways at3 q" e* `) ^- \$ L( ~
the same airport whose centerlines are parallel. In$ G; ?. U! @1 x- d1 {" j( b7 F2 G
addition to runway number, parallel runways are
- u1 O7 t1 a& V0 l- Pdesignated as L (left) and R (right) or, if three parallel
* d6 O0 g1 F$ {$ d" u, Wrunways exist, L (left), C (center), and R (right).
) z3 q" a6 f7 W2 R8 K: a; ePBCT(See PROPOSED BOUNDARY CROSSING) t. [& A8 z/ L/ {8 _
TIME.)
$ C2 r$ c3 J2 P# r" e. m- J% tPDC(See PRE-DEPARTURE CLEARANCE.)
' `# V2 _9 V5 Y1 a7 HPERMANENT ECHO- Radar signals reflected from
) t- f4 P: }5 ^3 ?6 F% {fixed objects on the earth's surface; e.g., buildings,
2 b, O/ t; k* r8 x/ Vtowers, terrain. Permanent echoes are distinguished( \5 m/ u& S ]# N# Y7 q8 X- v
from “ground clutter” by being definable locations" T: E7 s' i# Y' m" Q. l& g
rather than large areas. Under certain conditions they
$ k6 A! t' s3 `may be used to check radar alignment.2 g9 A( P5 t, S) t) u0 X* [
PHOTO RECONNAISSANCE- Military activity% _6 c4 G+ \) K, q" N! |
that requires locating individual photo targets and
( h: v2 D# E) k) {navigating to the targets at a preplanned angle and0 O( h9 q8 K5 H0 u( A
altitude. The activity normally requires a lateral route# D6 e, [. u, F) h- D( x o
width of 16 NM and altitude range of 1,500 feet to0 I% s6 K* ?$ j \9 y
10,000 feet AGL.7 p3 L/ J, V5 \. N# {& {7 J
PILOT BRIEFING- A service provided by the FSS
' L; X A& R! s2 S: V Gto assist pilots in flight planning. Briefing items may! D2 Z I; a( z
include weather information, NOTAMS, military
; d3 K( X" l" @2 r' ?! N$ {1 M# K" A. q+ Z2 Jactivities, flow control information, and other items7 L3 q# {. e2 P% @) k1 H' @" B3 l
as requested.3 C- P) ]# c1 ?1 A, D% m
(Refer to AIM.)
5 v% a. E; B) o/ vPILOT IN COMMAND- The pilot responsible for
/ Z ?0 o: r% s+ K# Fthe operation and safety of an aircraft during flight9 D% P+ \9 p" g- l2 E
time.% n; r; q* F, x6 ]
(Refer to 14 CFR Part 91.)
% f0 K& R/ B+ b: r% dPILOT WEATHER REPORT- A report of meteoro‐
. u$ q0 d/ {5 F8 ~7 llogical phenomena encountered by aircraft in flight.
P/ ~, Y9 H( v0 ^2 z& s6 E(Refer to AIM.)
! i8 G8 n- o( x* g2 `! LPILOT'S DISCRETION- When used in conjunc‐
. L% J1 a J8 m N5 h mtion with altitude assignments, means that ATC has
- t. ^% v+ |- eoffered the pilot the option of starting climb or# q- G+ T+ D7 E4 ~. w8 f
descent whenever he/she wishes and conducting the
3 V: ^# ^5 X9 P6 E6 l- E/ sclimb or descent at any rate he/she wishes. He/she
: b* S- G, G2 p2 g) H4 Y2 Omay temporarily level off at any intermediate/ _. ~7 E- B+ g8 N8 m" ]
altitude. However, once he/she has vacated an; O7 e7 A, T+ l F
altitude, he/she may not return to that altitude.
& F, T+ R- {6 cPIREP(See PILOT WEATHER REPORT.)
C- s8 g2 Z; J0 j% ^PITCH POINT- A fix/waypoint that serves as a$ e; Z3 D7 Z U0 t' e
transition point from a departure procedure or the low
: k4 n$ X8 [. D/ W; C9 v7 Waltitude ground-based navigation structure into the# f, G# C$ k6 S/ T
high altitude waypoint system.7 ~" m' e7 T, i; Q7 P
PLANS DISPLAY- A display available in URET5 {5 m. w+ X: N) t A. S& }
that provides detailed flight plan and predicted
& K& k; t, L' b3 a3 O4 `( n, rconflict information in textual format for requested3 D7 R) _6 Z9 G; b. V" j. e, s
Current Plans and all Trial Plans.
% n0 q: M3 Q. F( d; v; S1 q(See USER REQUEST EVALUATION TOOL.)
6 t' g7 g8 }8 N$ IPilot/Controller Glossary 2/14/08
0 K- X7 V; h# u! hPCG P-2
% c& T% k( m9 k" OPOFZ(See PRECISION OBSTACLE FREE ZONE.)
. m0 J' A) q$ i0 Q; A+ C( GPOINT OUT(See RADAR POINT OUT.)
' _" y1 L# ~2 P/ i) hPOINT-TO-POINT (PTP)- A level of NRR service& x' i9 N6 s! h2 q Y( o
for aircraft that is based on traditional waypoints in1 _$ ]# f4 O& W3 R$ b7 |! s, N5 z' H
their FMSs or RNAV equipage.
# l! o7 V* X8 |1 rPOLAR TRACK STRUCTURE- A system of
# t+ h+ J) Q! D, e) b& Vorganized routes between Iceland and Alaska which6 t- u X0 f- |4 d/ Y- q
overlie Canadian MNPS Airspace.; t) \, S8 U, @( @( {& t! q# x
POSITION AND HOLD- Used by ATC to inform a( @+ \) C1 G2 b$ i1 M
pilot to taxi onto the departure runway in takeoff
7 u1 _" W, q, G# _5 s% j( mposition and hold. It is not authorization for takeoff.
2 c, R' T8 l1 `: D* ~8 c4 vIt is used when takeoff clearance cannot immediately! m' ?" w* U4 Z0 h! { G- n+ v% _
be issued because of traffic or other reasons.
8 Z) T" S. A4 V' T(See CLEARED FOR TAKEOFF.)
! l8 Q- i0 x9 H! A3 Y) E4 A$ Y6 FPOSITION REPORT- A report over a known ` O# D# R) m! ^
location as transmitted by an aircraft to ATC.
9 j& Y+ w3 A* ?# l V(Refer to AIM.)
, e6 w5 A$ ~8 d4 e( m) X0 j) O, jPOSITION SYMBOL- A computer‐generated! \2 z0 }( e: C- C$ N
indication shown on a radar display to indicate the
) h2 N' J1 C( Z3 v0 F" c+ @mode of tracking.8 o# A% P1 v! ?/ K3 T& L
POSITIVE CONTROL- The separation of all air. E; O+ z" |) C! D) m
traffic within designated airspace by air traffic
6 v: V) t! v1 Pcontrol.
- D; I% M1 ^9 o" N8 T* jPRACTICE INSTRUMENT APPROACH- An
' F5 E/ E2 i7 z3 Y, H" zinstrument approach procedure conducted by a VFR, o/ z! Z# D( M+ j! b# F' H
or an IFR aircraft for the purpose of pilot training or; c; o% ]; E. \
proficiency demonstrations.
' ~) V2 H; R7 r% U4 yPRE-DEPARTURE CLEARANCE- An application
; h$ d& b0 L% k, _1 Iwith the Terminal Data Link System (TDLS) that
) d: v T" a9 [. Uprovides clearance information to subscribers,
0 n' C" |. H/ L) ^1 u7 h2 U( pthrough a service provider, in text to the cockpit or$ A% g2 a4 z _0 g+ G, w
gate printer.
# i% T# W% @- h& v3 l1 ^PREARRANGED COORDINATION- A standard‐) @( U' M: A w
ized procedure which permits an air traffic controller
1 q I. f$ J* Z5 j- e4 O% Ato enter the airspace assigned to another air traffic& r' x; Z: A+ w W+ v1 p" N
controller without verbal coordination. The proce‐! }: M2 ^' ^; K& c& b9 \
dures are defined in a facility directive which ensures
4 P0 w; s% l1 j( F7 l! J3 [standard separation between aircraft.
+ y- `3 B: `9 w2 }: o- ^$ P( f7 R, W. sPREARRANGED COORDINATION PROCE‐3 F6 j# H! H# W5 d1 g
DURES- A facility's standardized procedure that3 }3 l. n; V4 O v. D# M# p& X* k
describes the process by which one controller shall3 d& _" o9 p+ U* K
allow an aircraft to penetrate or transit another# x8 ^9 F N! \
controller's airspace in a manner that assures standard
1 s( X t: b# r0 C6 w( {7 j+ ]& [# nseparation without individual coordination for each
2 f6 h5 |, E: K$ T. ?aircraft.) J/ U% }" J$ B W( g% Q
PRECIP ITATION- Any or all form s of water8 p5 Y, `2 u7 j5 |
particles (rain, sleet, hail, or snow) that fall from the& K$ T5 D. X+ P
atmosphere and reach the surface./ C5 z- n1 q8 n0 K- j3 o
PRECIPITATION RADAR WEATHER DE‐
7 ^' K; U* m1 K, K. \SCRIPTIONS - Existing radar systems cannot detect
5 o+ a5 c6 z( G, Z9 q; L, rturbulence. However, there is a direct correlation* v" j- z1 C( U6 L6 ^
between the degree of turbulence and other weather
/ M; M6 D, S" `% y Ufeatures associated with thunderstorms and the
% H' ^8 }8 Q. {0 }1 }2 Zweather radar precipitation intensity. Controllers will9 u) Z3 m" _3 ~( l& s
issue (where capable) precipitation intensity as& K4 C& W/ o# `0 A1 A! W
observed by radar when using weather and radar
$ p( I3 x& F2 o9 Z2 v$ k0 Y4 v0 Zprocessor (WARP) or NAS ground based digital/ z# r, V. A$ O5 t
radars with weather capabilities. When precipitation
' y9 X. G2 A( e( j9 [ `intensity information is not available, the intensity! l3 Q' P+ B v+ H( [; |5 x
will be described as UNKNOWN. When intensity6 \5 t" l c, Z4 H6 \! B5 u
levels can be determined, they shall be described as:
( v. m; H. ?2 Z/ ya. LIGHT (< 30 dBZ)4 l, h1 @& L6 }9 [
b. MODERATE (30 to 40 dBZ)7 @7 w& g; k1 _6 d7 L+ x( c
c. HEAVY (> 40 to 50 dBZ)
4 {5 a1 Q" j* Kd. EXTREME (> 50 dBZ)$ Z* K: r$ r0 o8 N1 K
(Refer to AC 00-45, Aviation Weather Services.)+ x$ f. v5 k1 [- ]. H5 j' O3 B
PRECISION APPROACH(See PRECISION APPROACH PROCEDURE.); m8 {& ~; l s
PRECISION APPROACH PROCEDURE- A stan‐
) v3 Z! C2 W2 A4 v' F' f4 qdard instrument approach procedure in which an% }# |( k, g! O; B
electronic glideslope/glidepath is provided; e.g., ILS,
. @; j1 Z- ]2 M- B% LMLS, and PAR.3 g, x7 l" ~% G6 \5 v2 f- x
(See INSTRUMENT LANDING SYSTEM.)1 `; f9 G6 x% e% c
(See MICROWAVE LANDING SYSTEM.)2 B# l0 J) Q; I5 h) P
(See PRECISION APPROACH RADAR.)
, ^' \0 q, M4 S2 u. J3 ZPRECISION APPROACH RADAR- Radar equip‐" ?2 M/ i5 ?3 g3 l' q+ q$ d8 y: A, y+ h
ment in some ATC facilities operated by the FAA
# Z5 \3 n' q6 p4 ^. E& Cand/or the military services at joint‐use civil/military0 H' P5 ^; I4 _. c/ k2 N4 r* D
locations and separate military installations to detect9 x1 j w# T2 m& [$ V
and display azimuth, elevation, and range of aircraft
$ f! n4 p3 _8 o4 Qon the final approach course to a runway. This4 _+ @9 ]' O# Q3 y a3 u
equipment may be used to monitor certain nonradar- e% O' K9 `! y) R
approaches, but is primarily used to conduct a
4 r# R5 A9 s& V8 ~" ?precision instrument approach (PAR) wherein the
2 m% O. b% B2 k( d, M4 `controller issues guidance instructions to the pilot
" o1 a. W$ G6 V/ ^( i ~based on the aircraft's position in relation to the final
4 G. T6 G8 e$ H' z' Uapproach course (azimuth), the glidepath (elevation),5 N, K* q: O! z* s& s' D
Pilot/Controller Glossary 2/14/08- Z* f7 O7 X2 X9 |; ~3 L8 _
PCG P-3
- w/ y9 [. U8 Q% b" x2 Hand the distance (range) from the touchdown point on
* R: T. V6 F0 ?1 xthe runway as displayed on the radar scope.: U$ N. F. H8 Q1 j5 P2 F8 \7 m
Note:The abbreviation “PAR” is also used to
1 j* j8 {2 Q5 q% Ndenote preferential arrival routes in ARTCC& K. r' G* i! {
computers.: F# G1 V# z. l+ ~) \
(See GLIDEPATH.): t3 {/ L+ _ P
(See PAR.)' X) I& a/ D% r
(See PREFERENTIAL ROUTES.)8 w) z8 _* R, m: _+ m1 w; ?
(See ICAO term PRECISION APPROACH
7 {7 r# v& A$ e0 G6 J( BRADAR.)
* q4 t. |0 g$ I. _% r, F. |(Refer to AIM.)
4 q1 p: q$ Z( \2 U' E2 J ePRECISION APPROACH RADAR [ICAO]- Pri‐
) ]# `& p, u) |# k, n" D% fmary radar equipment used to determine the position( V$ D8 _. {; V! D
of an aircraft during final approach, in terms of lateral
/ O) e# v* S* n3 S/ g7 e; b8 band vertical deviations relative to a nominal approach
. b/ ~5 s8 a1 h$ Fpath, and in range relative to touchdown.: k, c2 c: @& O3 y0 }* {( V
Note:Precision approach radars are designed to
' U' t- F6 y9 _1 Q! x2 o5 uenable pilots of aircraft to be given guidance by3 [2 o8 U; p# G3 \+ L0 i# V
radio communication during the final stages of the
, i& m/ y6 g$ w+ s+ Papproach to land.* x% E9 x1 M1 }
PRECISION OBSTACLE FREE ZONE (POFZ)-- e |) B* N0 E) a: s
An 800 foot wide by 200 foot long area centered on9 O/ X' |2 T6 z8 o% Q5 P& ]" ^
the runway centerline adjacent to the threshold: A+ ~! {/ R' L; y
designed to protect aircraft flying precision' e0 L$ t. n" S: G7 n$ S
approaches from ground vehicles and other aircraft, m. w2 e9 V9 J/ V
when ceiling is less than 250 feet or visibility is less6 N+ g+ P# f4 `: K
than 3/4 statute mile (or runway visual range below$ y) c* a* }1 V
4,000 feet.)
5 z: W6 v# e' t* UPRECISION RUNWAY MONITOR (PRM)- Pro‐& f1 _ Z) m. ?# p q$ D, q/ W, k
vides air traffic controllers with high precision
% ^6 Q0 q: |" w5 A: isecondary surveillance data for aircraft on final2 e+ [4 d9 ~& `2 w y9 P M$ W9 v
approach to parallel runways that have extended& |; w4 b+ R1 ?5 Z* `7 Q
centerlines separated by less than 4,300 feet. High
" g' t2 R3 w$ \, v x2 ^0 vresolution color monitoring displays (FMA) are% X+ Y4 m+ B. f0 G# O- Q
required to present surveillance track data to6 \2 C* G) Y7 |; R+ ]4 P9 d# D
controllers along with detailed maps depicting5 C Y5 q9 q/ b7 U$ v6 G
approaches and no transgression zone.( F- M: L) u' j
PREFERENTIAL ROUTES- Preferential routes7 `$ q w# k: q$ a1 y# z0 B
(PDRs, PARs, and PDARs) are adapted in ARTCC3 |% n1 t4 u0 w, x1 s7 Y) e
computers to accomplish inter/intrafacility controller
1 b' x a r# j" [coordination and to assure that flight data is posted at
3 o" t; |2 X: ~* m. U/ l9 t- ^0 bthe proper control positions. Locations having a need
# S3 t5 f" B6 J1 ?for these specific inbound and outbound routes/ z# @4 _7 {) y- l: @* U6 p
normally publish such routes in local facility9 `( G# r l- [5 |' F, a z+ y' t- R
bulletins, and their use by pilots minimizes flight: Z$ o: ]+ F) s# X+ f1 M+ F
plan route amendments. When the workload or traffic
( y9 O+ V0 ]7 O$ _situation permits, controllers normally provide radar
6 Y+ X8 C! N/ Y5 Q# Zvectors or assign requested routes to minimize
9 i/ J3 `7 C2 m& h4 E5 G3 Zcircuitous routing. Preferential routes are usually
6 F# n- s( d) G( sconfined to one ARTCC's area and are referred to by
# S& C% u! O0 j; Vthe following names or acronyms:; b, ^, o3 l' e, H% }& f7 g/ Q
a. referential Departure Route (PDR). A specific- Z+ d4 \$ M0 o+ ?8 j
departure route from an airport or terminal area to an
5 ]+ s2 N8 ?3 {+ |en route point where there is no further need for flow
# \; _) M5 `7 Mcontrol. It may be included in an Instrument* I$ X' \) w" v# n3 @
Departure Procedure (DP) or a Preferred IFR Route.
6 z. B7 x* L" y* X2 ]b. referential Arrival Route (PAR). A specific
, x. P% O5 C3 U. `- ]arrival route from an appropriate en route point to an
) j0 q! a5 c! ?airport or terminal area. It may be included in a
! Y% z2 R( E/ U+ RStandard Terminal Arrival (STAR) or a Preferred IFR3 E |0 G& Z& M/ l# {1 g2 B
Route. The abbreviation “PAR” is used primarily2 q' K, B9 ?* j5 B6 I
within the ARTCC and should not be confused with
) h9 y1 a1 r/ A6 m! F1 _the abbreviation for Precision Approach Radar.
( f6 n& W/ _. j- h: \c. referential Departure and Arrival Route! D) a( V- b( F, U
(PDAR). A route between two terminals which are
4 z" h1 \3 S v$ l. ~/ f" f- pwithin or immediately adjacent to one ARTCC's area.+ h' a o9 V5 v& k
PDARs are not synonymous with Preferred IFR
9 O/ p% |( e L# W1 f. ~Routes but may be listed as such as they do
* s4 z$ m$ b5 `1 paccomplish essentially the same purpose.
& C& J5 l% H1 j5 n y/ Z(See PREFERRED IFR ROUTES.)
2 r+ b; Y2 \8 F' I# O" DPREFERRED IFR ROUTES- Routes established
4 o# c5 b }" Rbetween busier airports to increase system efficiency3 y9 i% K* F0 Y) L
and capacity. They normally extend through one or3 S! z# F! \% N& \# \2 k; M9 Y
more ARTCC areas and are designed to achieve
/ j; u& }- X* x( z( N) u ybalanced traffic flows among high density terminals.* o- _8 E0 W; X* D
IFR clearances are issued on the basis of these routes
" U$ S( G5 v% X7 t. fexcept when severe weather avoidance procedures or3 q5 Z3 p- K8 U7 h, D4 [
other factors dictate otherwise. Preferred IFR Routes$ l' Z" K3 V# {, I7 E7 ?
are listed in the Airport/Facility Directory. If a flight; |% Z6 x2 c3 N. g" H0 f
is planned to or from an area having such routes but2 n* f+ P/ _9 L) i' G) n. z: x
the departure or arrival point is not listed in the, |( s7 o5 r6 K! ?* g2 E3 o% F
Airport/Facility Directory, pilots may use that part of
! }4 Z5 f" l! f4 P' Ha Preferred IFR Route which is appropriate for the- ?8 E9 T( M# M) r: |
departure or arrival point that is listed. Preferred IFR& ^5 c. n- Q8 N, d
Routes are correlated with DPs and STARs and may, D. c( n* p6 g/ o$ N
be defined by airways, jet routes, direct routes
0 P* l6 G! z( [between NAVAIDs, Waypoints, NAVAID radials/
* p( ^2 F0 w' H6 I- q7 NDME, or any combinations thereof.
0 H" K B9 X7 P4 w# h; v(See CENTER'S AREA.)5 T+ Z7 J( i' b3 G* v% L, |
(See INSTRUMENT DEPARTURE
7 O: m! C9 K a; L$ C- uPROCEDURE.)
* I( K6 U. D' M% O0 {* B0 H(See PREFERENTIAL ROUTES.); z0 K+ M- Q0 L# M) n9 ^" W5 y
(See STANDARD TERMINAL ARRIVAL.); n% [6 M; O# u" J$ T5 B
(Refer to AIRPORT/FACILITY DIRECTORY.)
! k9 R8 N7 Q3 I4 d$ F(Refer to NOTICES TO AIRMEN PUBLICATION.)
* E6 g4 O. r3 R" m% Z1 QPRE‐FLIGHT PILOT BRIEFING(See PILOT BRIEFING.)
. d* p" M; {$ \2 |+ pPREVAILING VISIBILITY(See VISIBILITY.)5 v; O9 h, ^" A: Z6 x# A
Pilot/Controller Glossary 2/14/08
. N% J6 Q" f5 _. r- {" UPCG P-48 P9 Q7 k6 k+ l! e; Q; ?( p, ^# G6 B
PRIMARY RADAR TARGET- An analog or digital
" x4 ]0 }+ K. m- |target, exclusive of a secondary radar target,
2 i" g* O \4 Vpresented on a radar display.8 {4 S0 d* p' Q, O9 Q# u
PRM(See ILS PRM APPROACH and PRECISION" b% {% h) V! U
RUNWAY MONITOR.)+ \& C! S; k K! T# g
PROCEDURE TURN- The maneuver prescribed8 s$ U7 K$ }9 f0 D6 u
when it is necessary to reverse direction to establish
9 H* l5 |7 g& @( c- {' Oan aircraft on the intermediate approach segment or4 ]/ A; I5 e% X+ N. `: N' a' L W
final approach course. The outbound course,
" M# b6 R: T. a9 f& Adirection of turn, distance within which the turn must
7 z5 P: _8 s! g6 [* {be completed, and minimum altitude are specified in2 @- s6 \: I7 I E( ~
the procedure. However, unless otherwise restricted,; f7 g1 R/ O% C" u. x8 f
the point at which the turn may be commenced and
2 ]+ X" e- k. s$ C6 V0 r; Fthe type and rate of turn are left to the discretion of the3 \& Q$ }* s5 @6 a R# p0 V. ^
pilot.7 j, @* e# J; ?; D2 f* d/ D
(See ICAO term PROCEDURE TURN.)0 E! m& `: @$ M' O7 [% a5 _5 w
PROCEDURE TURN [ICAO]- A maneuver in
# m0 G d5 h2 l q; gwhich a turn is made away from a designated track
, D' i* D7 c: vfollowed by a turn in the opposite direction to permit
/ M5 e: ~4 o. o m" K1 Jthe aircraft to intercept and proceed along the
, ^. C7 K3 w0 P& V$ s" k3 u: h, k2 ureciprocal of the designated track." H F# t' @( y2 f ~8 j& P6 {
Note 1:Procedure turns are designated “left” or
% s9 s. X" t' l& ]“right” according to the direction of the initial turn.1 [. u4 b' f D% t/ a; B, e8 ~
Note 2:Procedure turns may be designated as, l7 T. c5 m4 z) `$ x T
being made either in level flight or while8 K1 G. F2 ^- w, W( u/ y* e
descending, according to the circumstances of5 w% b& w9 k; ?( X0 B
each individual approach procedure.% S# n( r; O- y: ^+ D% p6 E
PROCEDURE TURN INBOUND- That point of a
. Q( j7 N, V% O/ \& F Jprocedure turn maneuver where course reversal has
' U- Y" l% r- pbeen completed and an aircraft is established inbound
, T; `+ I3 R, e, `on the intermediate approach segment or final
' U" |% c5 o2 j ~0 \approach course. A report of “procedure turn6 }! k8 w; U/ ]+ A& I) C, V9 \
inbound” is normally used by ATC as a position5 ?: d' |9 O- M. Z& E
report for separation purposes.8 {: b0 u: R1 r/ m# ?2 D* W' L
(See FINAL APPROACH COURSE.)' q" m" y8 M+ u1 j
(See PROCEDURE TURN.)& I. T- e! X3 {, j$ _
(See SEGMENTS OF AN INSTRUMENT
" \7 G! r. D5 h8 H. x8 KAPPROACH PROCEDURE.)
6 P& u7 k$ H9 Z, VPROFILE DESCENT- An uninterrupted descent
3 i" `+ J" u$ H" U(except where level flight is required for speed2 ^" D& D+ H( Y5 ?
adjustment; e.g., 250 knots at 10,000 feet MSL) from
% V+ G/ a ^9 I; m7 Mcruising altitude/level to interception of a glideslope
; X) G+ f6 r2 d$ @! e7 Eor to a minimum altitude specified for the initial or. Z6 I- x* h7 z
intermediate approach segment of a nonprecision
( j+ P5 I! X Linstrument approach. The profile descent normally" Q4 T+ T x8 C9 o# o
term inates at the approach gate or where the- v1 s6 y9 ]! ]3 l% J
glideslope or other appropriate minimum altitude is/ K& X# n8 @) L8 G* `; u) [
intercepted., Y- s: V$ V; M& B
PROGRESS REPORT(See POSITION REPORT.)7 E/ Y2 ~3 `5 O8 U: E
PROGRESSIVE TAXI- Precise taxi instructions% E% c! \; v9 i7 ^
given to a pilot unfamiliar with the airport or issued0 m1 D' m# V4 I4 o' _
in stages as the aircraft proceeds along the taxi route.
6 k U" O+ h7 M7 F" z6 Y9 JPROHIBITED AREA(See SPECIAL USE AIRSPACE.); Q: v1 M$ m$ [5 X# r/ q* R. d
(See ICAO term PROHIBITED AREA.)
5 S I! C2 d0 T/ oPROHIBITED AREA [ICAO]- An airspace of j7 o6 D- v8 U3 ]) p P7 M# ^
defined dimensions, above the land areas or territorial" c9 d5 U- ]/ b% x* C
waters of a State, within which the flight of aircraft
! }: b1 f8 O$ M7 w' e" fis prohibited.- \# i+ C9 R1 F, s7 r' N6 p7 h0 q
PROPOSED BOUNDARY CROSSING TIME-
% [1 V. |6 V, REach center has a PBCT parameter for each internal# G5 v/ @7 F5 y* [/ D
airport. Proposed internal flight plans are transmitted8 @7 `$ r( z" x6 m
to the adjacent center if the flight time along the2 q! A% v ], V0 A
proposed route from the departure airport to the/ v; ]. t* g& I& Q: C5 E
center boundary is less than or equal to the value of
( w" P7 c% R. s2 K6 Z7 lPBCT or if airport adaptation specifies transmission0 Q3 P& d+ `% N3 ?4 m2 ]
regardless of PBCT.
+ K( S& x( T1 V" n& y6 xPROPOSED DEPARTURE TIME- The time that the+ R8 z; t; z' _! S2 {
aircraft expects to become airborne.
7 c' q# J2 k* |$ E& h; G1 }PROTECTED AIRSPACE- The airspace on either
' ?3 ~ Q, X2 X: x( F1 cside of an oceanic route/track that is equal to one‐half/ R6 g4 L f% S/ O9 N' Z' Z
the lateral separation minimum except where% b# d F7 S k7 `) ~/ c! I6 Y4 v
reduction of protected airspace has been authorized. ^' `: `0 y9 _! E
PT(See PROCEDURE TURN.). J+ |# f4 L- T
PTP(See POINT-TO-POINT.)6 }$ x- A# B6 {! ~& K/ L
PTS(See POLAR TRACK STRUCTURE.)
+ g% e: a6 |7 GPUBLISHED ROUTE- A route for which an IFR
" d1 d w/ J# S% f% X8 Qaltitude has been established and published; e.g.,
4 r8 W5 }" C9 M( }4 H8 I, MFederal Airways, Jet Routes, Area Navigation
: G% G! _0 `, E( l! V3 j& E' g! mRoutes, Specified Direct Routes.6 e$ e. m a0 M9 S
Pilot/Controller Glossary 2/14/08- \/ C+ s% J# c w7 S# J: M% j2 K
PCG Q-1
$ O& S& J$ _+ K# {/ d4 i5 B8 IQ6 U) }! w, K3 K9 D L4 Q- Z3 r) e
Q ROUTE- `Q' is the designator assigned to
# ?. K x4 X' x; Xpublished RNAV routes used by the United States.
: ]1 _+ K% [/ Z8 yQNE- The barometric pressure used for the standard
: b8 \% ?- ?* {. n, h. maltimeter setting (29.92 inches Hg.).
- _ N7 d& [/ |: M1 sQNH- The barometric pressure as reported by a
. {+ l# H# {& T$ F5 `particular station.
; y+ m/ _9 x J+ Z0 s/ gQUADRANT- A quarter part of a circle, centered on9 v* w& R9 N2 M/ @" x$ d9 w3 _' z. I
a NAVAID, oriented clockwise from magnetic north
% F3 B3 o. }$ h& J$ _as follows: NE quadrant 000‐089, SE quadrant
7 W5 B/ {; Q9 C( N; `) s& a090‐179, SW quadrant 180‐269, NW quadrant8 ]# {5 M& G# M& P: w! h# S8 o; o
270‐359.
: h# s% ]8 X1 }# G5 XQUEUING(See STAGING/QUEUING.)& g8 y5 s3 i5 [ Z
QUICK LOOK- A feature of the EAS and ARTS
3 A3 p6 H7 ^: v, n' r6 n! u0 rwhich provides the controller the capability to
6 s7 q# H' |& O; Zdisplay full data blocks of tracked aircraft from other, @9 s/ q- e- A0 W7 E X# L; n0 s
control positions. i. ?9 A4 Z5 }' Y: f5 h
Pilot/Controller Glossary 2/14/08
( `) `/ w9 x/ ]: p' ePCG R-1$ O5 g- r* ]. t2 l' [; R5 G
R
# b0 u c. f4 k3 b. x! ~& hRAA(See REMOTE AIRPORT ADVISORY.)2 [0 R+ m' J9 T) x6 x0 D6 I
RADAR- A device which, by measuring the time
% h5 j0 Y4 v+ d. p. Kinterval between transmission and reception of radio: m* J4 V, _4 L1 { E6 T v9 S
pulses and correlating the angular orientation of the
/ V- w* B" i- P1 \7 \radiated antenna beam or beams in azimuth and/or: s# u6 D5 z0 `0 i9 Q) j1 |, |$ m" f
elevation, provides information on range, azimuth,/ Y* R% F8 s! s3 b
and/or elevation of objects in the path of the1 s5 U: u! d7 X% a- t$ v
transmitted pulses.$ Z& T, a2 P/ Y0 W, F
a. rimary Radar- A radar system in which a, @' @2 f4 f/ b' R. F0 a# ]
minute portion of a radio pulse transmitted from a site. _- n0 j3 q' P6 X
is reflected by an object and then received back at that
" Z& @3 a% @& B) s Isite for processing and display at an air traffic control4 [, d; t; l9 M( h# H/ g4 [6 _$ ]
facility.
M! V; H" j# e+ jb. Secondary Radar/Radar Beacon (ATCRBS)- A7 Q% f% Y6 g& ]" C$ B* {4 f9 H( w
radar system in which the object to be detected is
: d# D# G" I5 Rfitted with cooperative equipment in the form of a0 N' p' X7 g5 E4 ?
radio receiver/transmitter (transponder). Radar
: D2 F' v+ \1 B! O! W9 Y- k, Opulses transmitted from the searching transmitter/re‐/ C2 E- X1 Q; k: r
ceiver (interrogator) site are received in the
) i8 a6 D8 ~6 }" o% ?) p/ }8 acooperative equipment and used to trigger a
7 b `+ F: W- o* K* kdistinctive transmission from the transponder. This
& t3 \6 ~1 H' X* b) G7 E F! n1 H1 preply transmission, rather than a reflected signal, is
$ M( s1 |5 ?" n8 qthen received back at the transmitter/receiver site for
* a4 G5 b. i5 ~ J1 ~4 ~processing and display at an air traffic control facility.4 M4 X/ @* `/ t1 {; i; }8 a
(See INTERROGATOR.)
' c1 [3 G3 |* F: g1 P/ r(See TRANSPONDER.)$ e8 H" p. ]; ?# f$ E
(See ICAO term RADAR.)1 K" o5 o, m5 |
(Refer to AIM.)
; R0 m- [, }, \4 URADAR [ICAO]- A radio detection device which X- F x1 t- k' C
provides information on range, azimuth and/or
, A7 G. x4 Y$ B, R4 qelevation of objects.
* b- T, O" u9 G6 F" }a. rimary Radar- Radar system which uses
6 `+ |9 d; Z* E# A5 x, Yreflected radio signals.
* j3 x( V- t7 Jb. Secondary Radar- Radar system wherein a! y& V5 @, u% I0 ^1 O) k1 G" ?1 T
radio signal transmitted from a radar station initiates
" E3 o; ]" V# E- A& J) xthe transmission of a radio signal from another6 `8 E* ?/ I: G+ o- X
station.
" z2 h% C- _% `. S b/ U" JRADAR ADVISORY- The provision of advice and
_3 N* I' ?' C& o: k( G- Vinformation based on radar observations.& ^, A% P& H& @
(See ADVISORY SERVICE.)
9 a W( p* U. t1 e3 ?8 i, n/ _RADAR ALTIMETER(See RADIO ALTIMETER.)
. {' l* S8 E1 `/ }/ l( `RADAR APPROACH- An instrument approach+ @! P" S! W% r: K- `' @' W: X
procedure which utilizes Precision Approach Radar; R) o# U3 p2 ^. _
(PAR) or Airport Surveillance Radar (ASR).
6 N* V& |# N0 O3 D(See AIRPORT SURVEILLANCE RADAR.)
; W( X4 @9 X; ]6 V; N(See INSTRUMENT APPROACH, U" a7 R$ n) X3 K9 b# I- v( v
PROCEDURE.)& l( f( ^, O8 z! a1 v) w+ m# Z3 U! O
(See PRECISION APPROACH RADAR.)
+ {* ]5 L t9 M9 P- N+ @1 o5 G(See SURVEILLANCE APPROACH.)* Z- v, i K1 J6 ]
(See ICAO term RADAR APPROACH.)
' m$ l$ _0 H, @2 C _(Refer to AIM.)
7 }1 H# i& x' H' v7 GRADAR APPROACH [ICAO]- An approach,/ i: I: k) D# x' z8 O
executed by an aircraft, under the direction of a radar
: y& D! v( Q- p+ wcontroller.
R, ^) v& v$ V* m* t) d$ t. KRADAR APPROACH CONTROL FACILITY- A
4 @- x7 N( M; ~terminal ATC facility that uses radar and nonradar# r: j' U5 o5 ?% ^+ k9 c8 P* p
capabilities to provide approach control services to6 b% F: g" H5 p' s, P: H
aircraft arriving, departing, or transiting airspace
w, t. i9 h) ~+ s, fcontrolled by the facility.
8 I! l6 L `6 z5 [. S* V! C(See APPROACH CONTROL SERVICE.)
+ C' _7 z5 @" D* ?a. rovides radar ATC services to aircraft! K& r* i1 x) U0 V; ?
operating in the vicinity of one or more civil and/or9 ]6 U9 H) p( c/ e$ Q1 i
military airports in a terminal area. The facility may! d; a4 ^' [+ O5 c
provide services of a ground controlled approach
8 h+ p4 z1 [7 m) k$ a- D(GCA); i.e., ASR and PAR approaches. A radar' a% x( M. _. n6 h# J0 z2 m% w& [
approach control facility may be operated by FAA,
' \# f. s: u. {. J! T1 ]4 t( JUSAF, US Army, USN, USMC, or jointly by FAA
( S: f# A! l8 Q# ]; }! Yand a military service. Specific facility nomencla‐% h$ k: e1 r0 T y
tures are used for administrative purposes only and
( V! t- ?5 S, Tare related to the physical location of the facility and V" y2 h; p6 J. j) O
the operating service generally as follows:" i V4 ?+ n p) L; W7 K
1. Army Radar Approach Control (ARAC)
, e4 A% n4 @6 d ]/ ~(Army).9 |; c- R% _& T$ y+ W+ c0 ^
2. Radar Air Traffic Control Facility (RATCF)
9 @1 Y$ @, ?4 x) e, l' T2 Q1 [(Navy/FAA).
4 o9 Z5 `! n1 O7 H: W3 g! T4 s3. Radar Approach Control (RAPCON) (Air* ]8 Y/ ?% M# |" Q
Force/FAA).# x; Q( A8 R# e$ x1 T5 ^$ z. p0 `
4. Term inal Radar Approach Control
/ g; p' w% d) I! W# B; f(TRACON) (FAA).
- e& b( |; m5 G5. Air Traffic Control Tower (ATCT) (FAA).
2 b( t$ _8 k4 Y- H: L P(Only those towers delegated approach control+ ?9 g7 p* I2 h& l, u: }
authority.)
2 V+ {7 E; ^( JRADAR ARRIVAL- An aircraft arriving at an, M$ a! d/ g/ @ @: c) J
airport served by a radar facility and in radar contact
: W2 t2 L) d8 F3 D& \with the facility.
8 a, G; ~# A8 h6 v; V$ l(See NONRADAR.)
( _2 t1 c- ]$ \! w$ x& ]7 h# kPilot/Controller Glossary 2/14/088 t9 n; S! e; _0 [
PCG R-2
2 x( Y9 P" N/ t: h6 qRADAR BEACON(See RADAR.)
% x$ W0 K, i1 w7 oRADAR CLUTTER [ICAO]- The visual indication
1 g- r& `5 m. W) u! v3 oon a radar display of unwanted signals.+ `( J* s( Z% r
RADAR CONTACTa. Used by ATC to inform an aircraft that it is
2 q3 X6 Y# G6 O2 `7 J* \- yidentified on the radar display and radar flight+ W Q% W; H9 ] j ?
following will be provided until radar identification
$ x) a9 g# n5 T# N' U( his terminated. Radar service may also be provided! {* o& F- U; x) B9 O& D) p) j
within the limits of necessity and capability. When a7 A/ l6 z. Q- a2 _
pilot is inform ed of “radar contact,” he/she0 u4 ?: A& O: ^' t, V9 [( U% S2 \7 Z
automatically discontinues reporting over compulso‐$ O$ l# s% X: k/ ?
ry reporting points.
" S7 |$ K$ w, H" p, {(See RADAR CONTACT LOST.) c7 n) B" S2 J9 o! k( g
(See RADAR FLIGHT FOLLOWING.)
+ t2 ?1 h, P$ U6 i8 e8 c- d(See RADAR SERVICE.): y' u$ f0 i; F/ B8 L0 y
(See RADAR SERVICE TERMINATED.)
4 r' T8 x/ b9 u" U: }$ y9 m4 q% T$ l(Refer to AIM.)
1 \) M. V' n" L% N9 \b. The term used to inform the controller that the( Q! Y3 e; Y+ R
aircraft is identified and approval is granted for the
! a3 E6 N8 M* }+ l" X! haircraft to enter the receiving controllers airspace.
5 \& B9 p! z2 H w/ ^: S) S(See ICAO term RADAR CONTACT.)+ q* h: y7 @$ |6 [, P- v
RADAR CONTACT [ICAO]- The situation which: ]; i e0 E6 I0 n
exists when the radar blip or radar position symbol of/ F* T- D8 H8 ]* ^1 @1 j4 \5 L
a particular aircraft is seen and identified on a radar
" k+ ~$ v: V$ u: c, q2 Ldisplay.
5 c( n6 T+ m# T2 u4 b1 oRADAR CONTACT LOST- Used by ATC to inform
- k( z- C5 V* r; `0 L; A- r' @a pilot that radar data used to determine the aircraft's* L3 z% Q3 c( u* R# k p+ I
position is no longer being received, or is no longer d0 w% i& w1 Z0 f& N# s* ^+ N- n3 w
reliable and radar service is no longer being provided.
5 g( ~: W! g/ y1 kThe loss may be attributed to several factors, c! _) ]8 t& z. ]
including the aircraft merging with weather or ground
$ u$ y* h$ k8 D2 X3 W' b1 Z5 c$ U' Iclutter, the aircraft operating below radar line of sight
4 E, m1 A( V; C; k9 scoverage, the aircraft entering an area of poor radar& ]1 x' y0 E" t
return, failure of the aircraft transponder, or failure of
3 P9 [, r2 \# O2 E/ n- z. K' p: c" ^* ithe ground radar equipment.2 q d9 u8 Q5 ]* q& p; t3 A
(See CLUTTER.)! t+ l2 u* V1 G8 f" M( I, l
(See RADAR CONTACT.)
7 [8 l6 C* [8 l# `RADAR ENVIRONMENT- An area in which radar
- T/ `3 h+ a1 @' ^service may be provided.. d2 [# v- n/ u- w( i
(See ADDITIONAL SERVICES.). A6 l, s) G; v R# V8 O
(See RADAR CONTACT.)& t T( {7 X* U4 H) N1 T7 o
(See RADAR SERVICE.). w0 I0 Y \ \
(See TRAFFIC ADVISORIES.)9 ^3 r5 g0 V" f- R: R; T3 h
RADAR FLIGHT FOLLOWING- The observation
3 F P. l4 {* i& p9 A( zof the progress of radar identified aircraft, whose! C/ t: n; I4 m% J' a6 M' W% A. c
primary navigation is being provided by the pilot,) M7 j! l# M- x7 Y7 R% G/ |
wherein the controller retains and correlates the+ s; o% j8 s* |6 i# _* x& T
aircraft identity with the appropriate target or target5 A3 k9 I' T1 m% h! c: B
symbol displayed on the radar scope.
/ b+ K! b/ E4 [& P% w(See RADAR CONTACT.)+ A! Q! |6 |% T1 q
(See RADAR SERVICE.)
. u* l* p6 v: f) D9 e' [! {1 l1 x(Refer to AIM.)0 p" ?% r2 z, R2 C# t2 A+ Z
RADAR IDENTIFIC ATION- The process of# z0 I1 K2 \4 ~" Z
ascertaining that an observed radar target is the radar
! T* g. Z: c8 i* w1 qreturn from a particular aircraft.7 S; }9 V0 r* H* r1 v
(See RADAR CONTACT.)1 y4 T4 W4 W% V! X" w2 S. k6 I; J
(See RADAR SERVICE.)
: N! h6 B+ K4 p6 k4 \(See ICAO term RADAR IDENTIFICATION.)
7 `# ^, x* n7 V" b# r7 {' JRADAR IDENTIFICATION [ICAO]- The process% a1 d* {- n7 ~9 O7 a& N
of correlating a particular radar blip or radar position0 g, b+ o7 A5 w l" A; n
symbol with a specific aircraft.% m. W; k7 {/ ?
RADAR IDENTIFIED AIRCRAFT- An aircraft, the7 \8 M5 b( D2 Q1 t9 V
position of which has been correlated with an% T- h& B7 J, G- |
observed target or symbol on the radar display.
% D! c6 g# R% b, m5 E0 I2 ^7 K(See RADAR CONTACT.)
0 D. Y. `2 O5 q* f) h$ S2 a% K8 a+ {8 ~(See RADAR CONTACT LOST.)
/ c) @& v0 J) }5 k2 R7 U9 tRADAR MONITORING(See RADAR SERVICE.)
+ i+ V9 T. u8 d1 T/ N ^. S! a0 uRADAR NAVIGATIONAL GUIDANCE(See RADAR SERVICE.)9 g, _/ l! r. ~7 f1 [' _
RADAR POINT OUT- An action taken by a4 N3 p Y" ^; ^
controller to transfer the radar identification of an
8 R# ?" t+ \7 A+ ~8 Qaircraft to another controller if the aircraft will or may& _2 ?9 e& [. Q. P7 N% D& [6 g
enter the airspace or protected airspace of another. n+ s2 d, t* ^; ]5 U& W" }' {) @
controller and radio communications will not be
% b( m$ h2 e0 y. E4 `transferred.# |, B2 x) Z- @7 y
RADAR REQUIRED- A term displayed on charts1 n0 ~* J- M2 J4 C# x
and approach plates and included in FDC NOTAMs" O" w8 ?1 `' S5 k
to alert pilots that segments of either an instrument& F( f* q& ?4 B/ F& H4 X5 @
approach procedure or a route are not navigable8 q( u9 e* K; o! t/ [ ?; Q6 {: Y
because of either the absence or unusability of a
+ ?8 [4 u; Z, C# P+ R# G7 h1 a: TNAVAID. The pilot can expect to be provided radar
( a& ^; ]- D6 o6 K J9 S' |6 Rnavigational guidance while transiting segments" W7 q) P. Q: Y% R& Z U
labeled with this term. a4 c8 T* Q3 l
(See RADAR ROUTE.)6 h/ c) H) }7 l" o* I0 N; J
(See RADAR SERVICE.)5 g0 H0 K, z# E7 a5 a9 o6 L
RADAR ROUTE- A flight path or route over which
5 l# i; I4 v& K+ W+ b% ]+ @* Van aircraft is vectored. Navigational guidance and4 I) z% r$ F9 ^9 _. Y
altitude assignments are provided by ATC.1 z8 z6 _( l+ L8 y3 c: M
(See FLIGHT PATH.)9 f# X$ s: u& j6 i W' Z3 n% g
(See ROUTE.)
0 c1 Q5 {& X1 ?1 kRADAR SEPARATION(See RADAR SERVICE.)
" x3 {& v6 C8 w1 l7 APilot/Controller Glossary 2/14/08
n$ `. k U5 XPCG R-3# @7 ?: E) l3 `( q
RADAR SERVICE- A term which encompasses one
: g# [ T* ]/ r Jor more of the following services based on the use of; P( T) O5 G6 n6 P
radar which can be provided by a controller to a pilot: O" g3 j% H$ O4 @4 Z5 _8 w
of a radar identified aircraft.0 M+ @9 x/ ~: T' _" V( o# a7 A
a. Radar Monitoring- The radar flight‐following' b! m d- T, o1 r" f5 c
of aircraft, whose primary navigation is being
6 `7 [6 N# ~. ?5 k& [/ ?* @performed by the pilot, to observe and note deviations
5 `+ x' x0 c: @! e$ f1 J3 xfrom its authorized flight path, airway, or route.
* E) G. k! @! yWhen being applied specifically to radar monitoring( u/ e! F* y8 H0 x
of instrument approaches; i.e., with precision5 l+ A, j# d3 ]) ~
approach radar (PAR) or radar monitoring of
/ e1 `" b: A$ J% m+ f: xsimultaneous ILS/MLS approaches, it includes, g/ @- ]* r K' f- t
advice and instructions whenever an aircraft nears or2 e Y9 _/ h" W+ E! { c
exceeds the prescribed PAR safety limit or
+ t3 Q% s; U: x: N7 Msimultaneous ILS/MLS no transgression zone.
, X0 q6 N. P/ ~1 x(See ADDITIONAL SERVICES.)+ K t( }7 ~+ R% Y
(See TRAFFIC ADVISORIES.)
4 a3 A0 Y& ^' m6 eb. Radar Navigational Guidance- Vectoring/ f3 e' l. L$ J# W" A9 m
aircraft to provide course guidance.
4 D# }+ b6 C. b2 @& V+ K( V6 ~c. Radar Separation- Radar spacing of aircraft in9 h5 Y$ ^0 y( e0 j. }0 R
accordance with established minima.
0 @9 C% k1 u% D. M, P' Z(See ICAO term RADAR SERVICE.) G3 }$ L; q* C) U0 o+ @8 t# \2 T
RADAR SERVICE [ICAO]- Term used to indicate
" v6 `9 W+ ~+ M2 u$ H1 ka service provided directly by means of radar.
8 ?; `% r w5 ea. Monitoring- The use of radar for the purpose of
+ n& w# F5 V+ d# q4 y( pproviding aircraft with information and advice0 Q# j# S3 ]7 q& k( e
relative to significant deviations from nominal flight0 y6 m6 p& c1 c/ t
path.; T/ t0 Z7 h9 u+ n1 Y
b. Separation- The separation used when aircraft$ F! i% z9 C) h" ]' ~+ w# O. N M
position information is derived from radar sources.1 J) g2 a5 A1 | g1 M7 @, ?: I _
RADAR SERVICE TERMINATED- Used by ATC) Y" ?7 o# [* E
to inform a pilot that he/she will no longer be
: a' Y+ L$ Z) w' jprovided any of the services that could be received8 i# T) r' }' ^' ~2 O
while in radar contact. Radar service is automatically
% s! ]6 n2 G9 I* n0 O# ?6 ^terminated, and the pilot is not advised in the
B s. C. H9 ]0 {# r" A7 v" _following cases:8 ?7 t. p1 h; J
a. An aircraft cancels its IFR flight plan, except3 s. O' [6 z, N7 \ U) r' T
within Class B airspace, Class C airspace, a TRSA,
5 p* e# R- Q1 [! Cor where Basic Radar service is provided.
2 t; i$ _. H# g7 u! qb. An aircraft conducting an instrument, visual, or: Y; x( R0 t' D6 \' a8 Y
contact approach has landed or has been instructed to) {; A9 y: x! {. U0 G& ^* j6 x4 {
change to advisory frequency.
- z5 m2 f9 n: Y3 L1 K# G2 `/ Xc. An arriving VFR aircraft, receiving radar* y% a2 x. T( C ?- _/ c9 V' h( K
service to a tower‐controlled airport within Class B* D1 P/ q0 T( H
airspace, Class C airspace, a TRSA, or where
2 F! c; U, ?. e9 Osequencing service is provided, has landed; or to all/ A3 L6 s* `9 x' p1 h
other airports, is instructed to change to tower or
! F* Z* D# M. z; S* I) k9 hadvisory frequency.3 u1 |) t0 W/ H6 i! J* T, V6 O5 h
d. An aircraft completes a radar approach.
6 L: s" W# s8 r) T; u' ZRADAR SURVEILLANCE- The radar observation
& p1 G$ f% p0 N5 v; _/ n1 z/ Iof a given geographical area for the purpose of
+ o- P: b+ X0 ?; y6 g- b/ Mperforming some radar function. p4 ^9 ?$ p9 N# S. |$ ] v- W
RADAR TRAFFIC ADVISORIES- Advisories
9 a7 B$ G1 |2 U, W$ A2 i' z: Iissued to alert pilots to known or observed radar
( G+ q, |5 L0 X# ]) i& }% N$ ktraffic which may affect the intended route of flight
# w% g6 G8 o" ^; J' z- Tof their aircraft.9 R! Y& G4 u* O. Q! U7 P( }
(See TRAFFIC ADVISORIES.)7 s* ~6 m+ P/ p* r* W% I
RADAR TRAFFIC INFORMATION SERVICE(See TRAFFIC ADVISORIES.)
' _ n4 @" _( S% r% y$ M7 SRADAR VECTORING [ICAO]- Provision of: z: _8 k# l+ M# U2 u
navigational guidance to aircraft in the form of/ T! B/ s) E* w$ ^
specific headings, based on the use of radar., E; ]* N( {7 k4 U4 ^. C
RADIAL- A magnetic bearing extending from a
6 u" s- ~- e& H3 xVOR/VORTAC/TACAN navigation facility.& f# h0 ~5 K9 c0 H* }. U2 N4 O: b
RADIOa. A device used for communication.
$ o6 R& Y5 V6 {" {b. Used to refer to a flight service station; e.g.,
. z- P2 U5 O; A3 J) l“Seattle Radio” is used to call Seattle FSS.: ?3 D4 @5 f7 Q- C
RADIO ALTIMETER- Aircraft equipment which
: h/ F% G2 _, u e1 v1 ~" Dmakes use of the reflection of radio waves from the
) U) O& A' B: }1 ] O6 J' X6 hground to determine the height of the aircraft above9 W1 N/ ^: [$ S0 I; |6 y4 c
the surface.
) ^5 `. U# X. ^2 _RADIO BEACON(See NONDIRECTIONAL BEACON.)
! F, N- k; k. q9 e7 s6 xRADIO DETECTION AND RANGING(See RADAR.)
- ~! n/ W' a7 N; j/ C# p6 DRADIO MAGNETIC INDICATOR- An aircraft
; E4 T5 {) A8 B4 n& f& Onavigational instrument coupled with a gyro compass
L5 X' _: X; l4 e/ f4 U0 Sor similar compass that indicates the direction of a$ N5 P' [2 j% r- T$ U
selected NAVAID and indicates bearing with respect
+ u- z1 [$ U, X, C+ Lto the heading of the aircraft.3 }" u9 F j c! W5 U' Q4 V
RAIS(See REMOTE AIRPORT INFORMATION9 S3 ^5 n7 e+ i: v0 e* F* w0 `4 x
SERVICE.)( z% {: o# w2 E) R% c
RAMP(See APRON.)
4 c! |1 T1 W: e: ?$ G( D5 Z/ SRANDOM ALTITUDE- An altitude inappropriate" B" h0 ?2 x9 z; o! M5 w
for direction of flight and/or not in accordance with9 R- e& G+ L' t
FAAO JO 7110.65, Para 4-5-1, VERTIC AL
& Q) a1 L1 A" a1 TSEPARATION MINIMA.$ z% C6 ~/ {1 S' q" ]. N, d) Q
Pilot/Controller Glossary 2/14/08
5 `, Y7 P1 L+ Z" |/ @' y5 N; LPCG R-4
) ?$ |9 l3 r5 l o; kRANDOM ROUTE- Any route not established or
* u/ P' z! i# {% Scharted/published or not otherwise available to all
2 K# A, u% m( ?9 X" t! `1 t" O) fusers.
/ ?# Y1 R" B& }9 K5 a$ A- rRC(See ROAD RECONNAISSANCE.)) C4 |' ~* c4 p$ h' A; _( t, O L* r
RCAG(See REMOTE COMMUNICATIONS
! Z; U* \; b2 r. g; `- C2 r; zAIR/GROUND FACILITY.)& L/ g/ t0 D0 J
RCC(See RESCUE COORDINATION CENTER.)
' \6 g' j/ E; D/ P& r2 Q" _RCO(See REMOTE COMMUNICATIONS OUTLET.)6 B. h* T2 ?( b+ Y* m4 h
RCR(See RUNWAY CONDITION READING.)8 n7 M; @ v4 X/ r3 u9 m
READ BACK- Repeat my message back to me.; [7 s. {6 @; E: k4 _3 U1 g
RECEIVER AUTONOMOUS INTEGRITY MON‐' C# P4 ]2 `0 O. |8 [# N: a. n. P4 j
ITORING (RAIM)- A technique whereby a civil
; A, k6 o. p* R. C {. mGNSS receiver/processor determines the integrity of; b0 j F7 q1 x, g! P: }& w
the GNSS navigation signals without reference to
, w2 _" s& Q5 w: N- v2 _4 c% y& _sensors or non‐DoD integrity systems other than the( H( g' ]& A# D" D
receiver itself. This determination is achieved by a- V4 p. N: P9 w1 {5 u# v) R& z$ T4 a
consistency check among redundant pseudorange' K; T% i& J% P% `. e
measurements.6 s1 X$ X. l) ?9 ~2 g' q" j
RECEIVING CONTROLLER- A controller/facility# M$ s: H4 `& D
receiving control of an aircraft from another$ `7 Y$ B7 f) [* K
controller/facility.0 B7 q3 t. e1 M# P7 Y9 p f' v
RECEIVING FACILITY(See RECEIVING CONTROLLER.)" V! I* c8 a o; l4 a0 V( d, H1 e
RECONFORMANCE- The automated process of9 V/ M4 F9 u2 `' G3 ~! I9 x4 B- }
bringing an aircraft's Current Plan Trajectory into0 r! J7 C! D5 i; y' v+ O/ s
conformance with its track.
`8 j5 p, f5 \) Z% R$ m6 p, xREDUCE SPEED TO (SPEED)-1 F+ `$ P0 f- i6 C9 C j
(See SPEED ADJUSTMENT.)$ ~4 C( @! v+ y- T. O8 P8 i
REIL(See RUNWAY END IDENTIFIER LIGHTS.) O. m! _! O4 g0 [4 G8 ~5 H
RELEASE TIME- A departure time restriction
) i8 ~% {. A* t# s# I0 h. T8 V! {issued to a pilot by ATC (either directly or through an
6 Y8 ?/ w: C+ h, Y3 t, wauthorized relay) when necessary to separate a' g: H; E/ O9 G7 Y# b
departing aircraft from other traffic.! | f+ g( S1 p4 _" x; }
(See ICAO term RELEASE TIME.)% v1 ]4 T& `( Y! q* `2 {% y7 o
RELEASE TIME [ICAO]- Time prior to which an
& l$ G( z; O. N9 F1 Qaircraft should be given further clearance or prior to
8 B9 n* l2 a5 Gwhich it should not proceed in case of radio failure.
. n8 B) X( p L7 N9 u( lREMOTE AIR PORT ADVIS ORY (RAA)- A1 U8 S$ j4 e, c, X& n% ?1 ?1 H
remote service which may be provided by facilities,
" G% s2 X: Y4 jwhich are not located on the landing airport, but have
% c% K; k ^8 A/ k' Ta discrete ground-to-air communication frequency
$ i9 L5 p2 @: Z; }: m; ]2 x* N6 sor tower frequency when the tower is closed,
& l/ }0 m7 J5 p/ [ t- _automated weather reporting with voice available to8 Z* }% p5 ?# J! d8 D
the pilot at the landing airport, and a continuous$ n$ S, Y! T# {0 Q7 \, b7 f
ASOS/AWOS data display, other direct reading
: P" T4 B# K$ U' u+ [0 D6 [% ^instruments, or manual observation is available to the1 E. m7 z ^7 |. J
AFSS specialist.4 `2 C4 a" o, U. M' x; z X# j
REMOTE AIRPORT INFORMATION SERVICE! Q% z; @( G, M+ l- u4 C
(RAIS)- A temporary service provided by facilities,
& S: P5 A+ r1 F' g1 v! C) ywhich are not located on the landing airport, but have
6 o2 F( _. m* @% ]' a! Gcommunication capability and automated weather, c$ h# `% s; F- n- \4 p
reporting available to the pilot at the landing airport.
+ ~' p- a! |% d- n J7 z! wREMOTE COMMUNICATIONS AIR/GROUND/ n( f1 K) p+ k" K
FACILITY- An unmanned VHF/UHF transmitter/
! c1 w, W( Q! c1 u, Wreceiver facility which is used to expand ARTCC
& h7 U$ K3 I6 ?air/ground communications coverage and to facilitate
" e# b& c/ P5 ^3 k3 d# a+ r1 @0 f" wdirect contact between pilots and controllers. RCAG' @! b2 N# ?5 v3 h( Z9 z
facilities are sometimes not equipped with emergen‐
" ^9 p$ g1 c' W' x0 @6 ecy frequencies 121.5 MHz and 243.0 MHz.; ?/ s/ ~8 t. o, x. z
(Refer to AIM.)4 l* v5 F; Q; _+ m" ]1 W+ t! d
REMOTE COMMUNICATIONS OUTLET- An$ `; b- m9 R( [" S0 a c* L
unmanned communications facility remotely con‐' x' H9 F- ^& t8 a1 G+ b( {
trolled by air traffic personnel. RCOs serve FSSs.1 O9 T9 n& l7 I! X% | z, |
RTRs serve terminal ATC facilities. An RCO or RTR
; u3 L* Z, z7 F, p" H& [, Tmay be UHF or VHF and will extend the
$ N8 S7 H3 b! k" x5 Pcommunication range of the air traffic facility. There1 k/ b. a0 A& }
are several classes of RCOs and RTRs. The class is
2 t4 N' {. L. B m V$ e5 f0 x5 Pdeterm ined by the number of transmitters or4 v$ l0 }/ ~, D# y3 S, D
receivers. Classes A through G are used primarily for4 J5 B6 n3 c1 g) z, T4 G
air/ground purposes. RCO and RTR class O
& j" I+ ?8 `' y) G' t$ Z( a1 |2 Y$ N9 bfacilities are nonprotected outlets subject to
3 U$ o& e* y8 N" U" U, L! nundetected and prolonged outages. RCO (O's) and
, b: n9 T* w5 M; @7 J, f2 fRTR (O's) were established for the express purpose4 G K1 r' C% _* r0 x
of providing ground‐to‐ground communications
" `. |/ {% S9 l$ R; ?between air traffic control specialists and pilots1 x& k5 M: \3 g# R0 u/ N8 |
located at a satellite airport for delivering en route( @( u+ `, U. r. }4 [
clearances, issuing departure authorizations, and8 A5 z0 B" M$ y: Y: I
acknowledging instrument flight rules cancellations
1 E0 ~) ]8 K& V9 s0 q( s3 Q# ior departure/landing times. As a secondary function,
d8 b9 o+ E* L* \9 mthey may be used for advisory purposes whenever the
& T1 e+ c2 W8 K- _( N' }! baircraft is below the coverage of the primary( O7 s9 o, L) C
air/ground frequency.
/ l( X) \0 G$ O* s. F2 G3 ?# IREMOTE TRANSMITTER/RECEIVER(See REMOTE COMMUNICATIONS OUTLET.)2 A* J4 A/ @1 B' a! J9 |
Pilot/Controller Glossary 2/14/08. Z a. n# U# H. V
PCG R-51 [5 Q7 v8 z- J$ r; o; y# K5 Y1 F
REPORT- Used to instruct pilots to advise ATC of
0 R# J, a6 u0 V6 R, d: y' x5 vspecified information; e.g., “Report passing Hamil‐
, S# K, p; F7 O2 Tton VOR.”& b' p2 f$ \* F, t4 s
REPORTING POINT- A geographical location in
( c3 y' u# m& y$ K1 h( X( Wrelation to which the position of an aircraft is
4 d$ }/ r5 h. W i0 S$ Y9 Oreported.7 t2 L1 ]0 X8 R
(See COMPULSORY REPORTING POINTS.)
3 p+ a6 d7 {: s5 E1 f' B" _(See ICAO term REPORTING POINT.)
) W' g; y3 a6 x1 H8 j& k7 w7 d(Refer to AIM.)! b( P+ C( G0 e$ R3 ^& Y% K
REPORTING POINT [ICAO]- A specified geo‐7 x$ x+ ?5 @: e6 w/ [/ a
graphical location in relation to which the position of# z2 q. \! w5 w7 F# l7 r
an aircraft can be reported.
& n f) R5 c6 B# H, c- ^! d* d; IREQUEST FULL ROUTE CLEARANCE- Used7 Z+ i( u& w* {1 B
by pilots to request that the entire route of flight be
' d% ^7 v. \7 z. x P' ^( kread verbatim in an ATC clearance. Such request
6 A, I1 E" H5 |4 Tshould be made to preclude receiving an ATC. i, W( F- N# c p; Y1 H
clearance based on the original filed flight plan when; w4 K3 w0 b2 A$ H8 N$ C
a filed IFR flight plan has been revised by the pilot,
; R7 G" Z8 R) ncompany, or operations prior to departure.
5 a0 P) s9 X! S/ `( uREQUIRED NAVIGATION PERFORMANCE- R3 F: a/ E# P; t1 U, o. y; S( A# b# _
(RNP)– A statement of the navigational performance/ s; ~9 p( N) o0 I! w% j% H) C% ?' [. K
necessary for operation within a defined airspace.
6 c& j' q2 ^6 }+ c1 V* NThe following terms are commonly associated with
. z x+ Q. ?, E; z: U: y$ g, U# |RNP:# z$ ]: ?: S/ G3 M2 v
a. Required Navigation Performance Level or
; R' j' M7 l# ~Type (RNP‐X). A value, in nautical miles (NM), from
1 Q' O. X( a+ z7 @5 rthe intended horizontal position within which an4 n2 I! Z6 x# D- ~" J
aircraft would be at least 95‐percent of the total flying
6 A6 T+ T, M( P( A- htime.
# J7 v: H" k5 q: u& q- ?b. Required Navigation Performance (RNP)1 \/ O$ H6 ~$ {" c) {$ t
Airspace. A generic term designating airspace, route
5 r% K6 z, y$ _, I. K- _. i(s), leg (s), operation (s), or procedure (s) where5 p1 }7 ?' T2 c8 p6 ?8 N/ [
minimum required navigational performance (RNP)
2 @6 a) h3 T3 ghave been established.
?+ }( P# u& r" o* O6 rc. Actual Navigation Performance (ANP). A
. T' m- y& C3 z5 g& }1 wmeasure of the current estimated navigational
1 S2 W: ~8 e/ q. g$ Q k+ hperformance. Also referred to as Estimated Position
& z( q3 I9 C: t1 C1 `3 g% k/ _3 j- tError (EPE).
# U* n/ a# ~& ud. Estimated Position Error (EPE). A measure of% ^/ _6 _# C o0 N: H
the current estimated navigational performance. Also/ E2 m3 w. S% K) `% K# t7 g- l
referred to as Actual Navigation Performance (ANP).
3 g2 G) E3 I% `9 V4 Ge. Lateral Navigation (LNAV). A function of area4 n. U$ J: A. N. f
navigation (RNAV) equipment which calculates,
& x3 J4 \ W1 X- W3 ~# A. g9 ]displays, and provides lateral guidance to a profile or
4 }. [) i- S) @& p8 ^, N' zpath.
" Q: Q* W5 v0 m: g4 \) n, t* F$ Ef. Vertical Navigation (VNAV). A function of area$ f5 h3 v/ Y8 P
navigation (RNAV) equipment which calculates," m! z' A' ~ F/ R
displays, and provides vertical guidance to a profile
' x/ }6 V. I0 R$ vor path.
0 O/ ^: M" v$ `- ?! ], ^+ lRESCUE COORDINATION CENTER- A search/ R J! p/ A }+ E
and rescue (SAR) facility equipped and manned to& z# E$ u8 l* }8 q7 v7 n; r
coordinate and control SAR operations in an area
3 f3 ~4 E4 ^5 ?0 ]designated by the SAR plan. The U.S. Coast Guard
" @7 B+ M+ e! u1 t" d' v" l8 rand the U.S. Air Force have responsibility for the4 B5 | N6 t$ }- ~0 p6 L. g
operation of RCCs.
/ d' B: `" r2 x! @8 A# l(See ICAO term RESCUE CO‐ORDINATION- L- e/ Y c9 i% m. ^$ @
CENTRE.)
2 x& o4 U. r- j7 x" nRESCUE CO‐ORDINATION CENTRE [ICAO]- A/ E& s4 p' a0 _) L3 P4 u
unit responsible for promoting efficient organization6 \# w2 }9 t1 o- ?5 ^
of search and rescue service and for coordinating the. z5 B" [ H9 m4 Q) g
conduct of search and rescue operations within a
/ h+ I& g2 u% T& G* P+ ]search and rescue region.
5 W0 v% Q1 f6 i6 e. N3 G I6 QRESOLUTION ADVISORY-A display indication! r* O: u* N8 G8 @ {
given to the pilot by the traffic alert and collision! H! v6 E( d% {" d: C9 l3 d
avoidance systems (TCAS II) recommending a
( C, L# k% }! emaneuver to increase vertical separation relative to an
+ k) {: o) g) J- m! i* x2 gintruding aircraft. Positive, negative, and vertical
8 R/ A( R$ g8 `+ S9 j* K0 q8 ~" qspeed limit (VSL) advisories constitute the resolution
& d/ B, h0 Z+ m( Zadvisories. A resolution advisory is also classified as
$ k9 Z: w" }; e5 [# ^; l. Ncorrective or preventive
! N+ N) `! y2 u+ |2 }RESTRICTED AREA(See SPECIAL USE AIRSPACE.)& N1 ^4 B% i* Y7 m; q; r2 M
(See ICAO term RESTRICTED AREA.)
& ~3 I# t y0 k9 @+ C+ HRESTRICTED AREA [ICAO]- An airspace of
6 R! r8 ^/ F# b0 vdefined dimensions, above the land areas or territorial5 t8 W4 k+ L7 ]6 ] v
waters of a State, within which the flight of aircraft
) O0 ]" V2 }; G- f1 {8 c" ~4 yis restricted in accordance with certain specified, L1 e6 H/ h/ S
conditions.7 ]& ?9 ?& E( J {+ b i
RESUME NORMAL SPEED- Used by ATC to; A |9 ~9 P2 ]3 P+ {
advise a pilot that previously issued speed control
/ U, v" N( e( b$ |restrictions are deleted. An instruction to “resume; w; j; {7 f8 |6 F" [" D) |
normal speed” does not delete speed restrictions that
1 G( G; [0 q% p! H9 sare applicable to published procedures of upcoming
7 |" s3 T/ I8 m2 J* r5 u: Fsegments of flight, unless specifically stated by ATC.3 A# a4 C- f3 `
This does not relieve the pilot of those speed
2 K$ ~5 _' z7 D2 Z+ m% k4 prestrictions which are applicable to 14 CFR, F' T9 ^, b0 V7 k
Section 91.117.6 M n3 a7 P. s/ w$ `1 N0 W$ M3 {
RESUME OWN NAVIGATION- Used by ATC to
* `4 K- b) d8 @: {advise a pilot to resume his/her own navigational
, I3 n$ Z. r' Dresponsibility. It is issued after completion of a radar; t+ |: \+ ~$ k
Pilot/Controller Glossary 2/14/08
$ U& d2 [9 ]; F. b; R3 N/ t; j- J$ SPCG R-6
) J; l# n' O: f3 }) P7 `vector or when radar contact is lost while the aircraft
. ?# e; p, Z" V3 O" H9 F' A- gis being radar vectored.2 o- B* ?' s1 o1 u8 E9 E6 u7 h0 c$ T
(See RADAR CONTACT LOST.)$ w: G& C# O' g W
(See RADAR SERVICE TERMINATED.)1 a% D& g9 n2 V+ `5 z" W
RMI(See RADIO MAGNETIC INDICATOR.)/ ?7 U' `, e# {8 o6 e, N6 g& y
RNAV(See AREA NAVIGATION.)
- f9 u6 B2 W# A9 C, L(See ICAO Term AREA NAVIGATION.)
/ d. I0 `1 a; D+ C+ f' kRNAV APPROACH- An instrument approach/ g+ i" m `3 ^7 x
procedure which relies on aircraft area navigation w. A& ]% \. o8 I) m0 h- E, R6 x
equipment for navigational guidance.
. a' L1 f7 p3 X+ p7 N# u; D(See AREA NAVIGATION.)
1 T4 d) ~ @# ~0 m(See INSTRUMENT APPROACH" E3 d/ N" U( E3 ?! C' J
PROCEDURE.)
/ ], ~9 k* J; VROAD RECONNAISSANCE- Military activity
3 I ~2 S8 M5 r Trequiring navigation along roads, railroads, and6 j: M" _: x7 O9 D2 J
rivers. Reconnaissance route/route segments are
2 e2 R/ N1 m6 `% I2 Wseldom along a straight line and normally require a- ^. K2 P# y2 n/ b% r4 L; k* E$ P
lateral route width of 10 NM to 30 NM and an altitude- A& w3 U* o) S
range of 500 feet to 10,000 feet AGL.
6 K* r( s/ ?) b. g z2 L l7 w& Y. _ROGER- I have received all of your last
* V! E; a" g# R7 L! S* [transmission. It should not be used to answer a! _8 u1 u5 W5 `0 V
question requiring a yes or a no answer.
; I0 ? ~% D$ C c, T# }7 y(See AFFIRMATIVE.)' w) x0 s8 J/ N' ~
(See NEGATIVE.)- F/ `4 N3 @ \. `/ \
ROLLOUT RVR(See VISIBILITY.)# r3 h# }1 a( l/ T' B
ROUTE- A defined path, consisting of one or more& c( |/ K! `3 z1 \) O0 o C0 j! U+ \
courses in a horizontal plane, which aircraft traverse# H1 ~! j, ^5 y% {- Z# R ?1 }
over the surface of the earth.# L y- j- }0 u' y
(See AIRWAY.)! `" ^6 Y$ \( A' X0 R2 b
(See JET ROUTE.)
) ^6 ^: }5 X2 |) P1 h(See PUBLISHED ROUTE.)
" `8 \2 J0 g# W5 s. _% G) k(See UNPUBLISHED ROUTE.)
O4 M* B7 S1 n$ }: q Z: O& JROUTE ACTION NOTIFICATION- URET notifi‐
4 s9 Z7 O9 b0 C7 _8 acation that a PAR/PDR/PDAR has been applied to the. _ ?1 [& H. S' J/ N3 [: N/ X
flight plan. y" i4 X/ r2 U9 }7 V" X. d+ c' z
(See ATC PREFERRED ROUTE! H) D3 Z+ Z- \8 O# _* r T9 K
NOTIFICATION.)- t7 g" t1 r& s
(See USER REQUEST EVALUATION TOOL.)
7 I/ c( T$ j$ ^+ U, \$ P* y. ~ROUTE SEGMENT- As used in Air Traffic Control,
; x* e/ U J- Z' O7 |a part of a route that can be defined by two
+ j$ [+ o$ R- B2 k/ T" D; y- Y$ S4 Znavigational fixes, two NAVAIDs, or a fix and a9 l/ e O% R7 D6 R
NAVAID.8 u" V* S; `, m
(See FIX.)
! [- x5 ^* a6 [; g* Y7 N8 C5 r(See ROUTE.). V) ^. v1 {9 z' O
(See ICAO term ROUTE SEGMENT.)
& ~; H- x: X: r# ^1 d d3 F# [% SROUTE SEGMENT [ICAO]- A portion of a route to$ C) N* Q5 c$ n# J
be flown, as defined by two consecutive significant
, B, N1 m$ d# Y5 _: u/ O- @% @points specified in a flight plan.( R1 O" d% f$ h! h
RSA(See RUNWAY SAFETY AREA.)+ G8 K- N9 v0 P; V: ^
RTR(See REMOTE TRANSMITTER/RECEIVER.)
4 X4 z8 y- w8 z- {9 QRUNWAY- A defined rectangular area on a land
. u" _9 X# E, s% Lairport prepared for the landing and takeoff run of( \$ E! D+ L8 q! T; |% R
aircraft along its length. Runways are normally
8 E9 g d$ ], X" \2 d9 V' Rnumbered in relation to their magnetic direction
, k6 { L5 R% b! b1 I3 `. E) A5 F4 Trounded off to the nearest 10 degrees; e.g., Runway. V9 g2 O4 [* Q7 Q: p
1, Runway 25.% A: p% X+ a# R3 T: a5 p2 o
(See PARALLEL RUNWAYS.)
: G: }% l6 Q7 f6 t(See ICAO term RUNWAY.)
0 `0 U4 y7 q+ x/ T. RRUNWAY [ICAO]- A defined rectangular area on a
- v( o5 Y) p$ k" ^0 Uland aerodrome prepared for the landing and take‐off. h3 Q$ n& w5 V2 D; j5 V, {# _9 U6 G
of aircraft.
$ a% L$ y; R$ b YRUNWAY CENTERLINE LIGHTING(See AIRPORT LIGHTING.)
: c' y2 |, I9 {" {" vRUNWAY CONDITION READING- Numerical
6 }! a5 d& z( e$ x* w, e. j! Ndecelerometer readings relayed by air traffic
. H& d. L4 c5 v( i5 Wcontrollers at USAF and certain civil bases for use by5 G. D, \2 H( b- H6 _! U
the pilot in determining runway braking action.
1 \4 `2 x* y4 N" W1 xThese readings are routinely relayed only to USAF0 t4 T& Q" B" X9 u! ^- S7 v
and Air National Guard Aircraft.5 |1 j0 B# R7 y( W6 X
(See BRAKING ACTION.)0 N; Q3 U8 X! A1 ~: o8 G; }
RUNWAY END IDENTIFIER LIGHTS(See AIRPORT LIGHTING.)) l# A, O8 v8 \2 |
RUNWAY GRADIENT- The average slope, mea‐( K6 J7 m* l$ L( _5 z
sured in percent, between two ends or points on a
6 X# o8 ~- Z n x: w4 m6 Qrunway. Runway gradient is depicted on Government; e z2 p! W. v% P( ]. F& Q
aerodrome sketches when total runway gradient9 ~% t, a7 p t3 ^ ?
exceeds 0.3%.
, S# H* y4 N0 F e1 r0 `+ NRUNWAY HEADING- The magnetic direction that: Q7 }9 e4 `: J& j. ]
corresponds with the runway centerline extended, not
4 L% u. F4 W% }7 v; p% Nthe painted runway number. When cleared to “fly or- M# p9 N4 ?# O' C* S. J% H
maintain runway heading,” pilots are expected to fly: _6 M9 r7 S2 x6 b9 Y7 t: q
or maintain the heading that corresponds with the
- m& |4 w6 s( l0 l* u6 r! ]4 ~extended centerline of the departure runway. Drift
& F' E( b, ~+ W0 l- [( ]& tcorrection shall not be applied; e.g., Runway 4, actual
a( b" `7 l2 uPilot/Controller Glossary 2/14/08* ]2 w% }: o) h" M
PCG R-7
' c0 p& T1 q a5 Dmagnetic heading of the runway centerline 044, fly. F W F, Y4 f7 _) d0 H, _4 R/ M% t
044., c3 [6 U3 p+ h9 N! Z+ k- l
RUNWAY IN USE/ACTIVE RUNWAY/DUTY
, \* ]1 L; p9 k) M' V9 @/ `! ]RUNWAY- Any runway or runways currently being, o9 I4 H2 Z0 `& x" x+ Y7 o
used for takeoff or landing. When multiple runways
; |: E& a) j+ ?( qare used, they are all considered active runways. In
+ ]. I0 p4 Z h# z! Y: cthe metering sense, a selectable adapted item which
0 t7 N# }$ J: g9 dspecifies the landing runway configuration or
0 K$ M$ A" t ^8 }direction of traffic flow. The adapted optimum flight
2 J" Q" F1 b- D' I$ N0 V4 K' Cplan from each transition fix to the vertex is
& [ k4 y) O2 k! [3 sdetermined by the runway configuration for arrival
- W$ |0 }4 O& D1 t1 K! Mmetering processing purposes.
" ]8 c7 W5 W- r! G) HRUNWAY LIGHTS(See AIRPORT LIGHTING.)
5 `4 w$ O% v( X" uRUNWAY MARKINGS(See AIRPORT MARKING AIDS.)
8 N/ k9 ]4 e6 A% y, r" o: xRUNWAY OVERRUN- In military aviation exclu‐! n6 i5 ? t% ]$ H$ o4 a: p! C0 X8 S
sively, a stabilized or paved area beyond the end of a; y2 J( B$ R9 L4 \! G8 z& N8 d
runway, of the same width as the runway plus" C6 l t! `7 W1 _. u
shoulders, centered on the extended runway
+ g5 h0 h: H W$ n" r( Z/ D' Hcenterline.
) f& O. ^6 A1 d4 SRUNWAY PROFILE DESCENT- An instrument+ V# W0 b2 ?8 t7 }4 g
flight rules (IFR) air traffic control arrival procedure
+ P9 L& K; V% E: j* F) _to a runway published for pilot use in graphic and/or& \9 }+ t1 Q4 P- _6 \* V8 i
textual form and may be associated with a STAR.
3 ?/ j+ z. V1 U ]2 I: LRunway Profile Descents provide routing and may0 [) J9 C) v! H" G
depict crossing altitudes, speed restrictions, and
" a, l8 [8 z; t7 }3 @: R8 M3 eheadings to be flown from the en route structure to the
$ M7 c& u6 E0 q3 |: B* gpoint where the pilot will receive clearance for and Q1 M' H3 {6 |: S7 f
execute an instrument approach procedure. A4 o8 f; M- A3 h! N* L9 f) n3 J. C2 L
Runway Profile Descent may apply to more than one
6 o/ m$ R% Z6 f" Frunway if so stated on the chart.
: S; D7 P, V- x0 [+ A9 z(Refer to AIM.)
" o3 z# |! o# ^( F& X# U# a) x$ m) D5 K7 fRUNWAY SAFETY AREA- A defined surface
3 l5 f V4 M* \9 |2 v- {surrounding the runway prepared, or suitable, for; Q7 ]: X6 a+ i
reducing the risk of damage to airplanes in the event
# C B& Y6 s/ V+ [, t( Sof an undershoot, overshoot, or excursion from the
/ w3 |7 g5 W& J& V6 irunway. The dimensions of the RSA vary and can be
" j* P2 z! h$ b# E. qdetermined by using the criteria contained within
( l1 ?' R. ~$ g$ a* LAC 150/5300‐13, Airport Design, Chapter 3.
( w3 y9 ]7 I; e5 p8 YFigure3-1 in AC 150/5300‐13 depicts the RSA. The
' _* D4 g- e! O: C3 T! _design standards dictate that the RSA shall be:) Y& w8 n: }$ c0 r5 P
a. Cleared, graded, and have no potentially
& ^. v/ ^% B0 C2 o; T) Qhazardous ruts, humps, depressions, or other surface
" h. p7 k; N8 i6 d) L, F3 k+ svariations;7 N1 A% Z9 h- M6 ^$ A2 s' l, y1 a
b. Drained by grading or storm sewers to prevent6 p- m1 X+ r9 G4 P) {3 }* ^- z5 i
water accumulation;. h* F1 S5 i( F" a. D! {' L
c. Capable, under dry conditions, of supporting
9 v: z/ |* c2 Z% L* Ssnow rem oval equipment, aircraft rescue and
2 J- J; d; U D; q7 ?8 |: Qfirefighting equipment, and the occasional passage of
( M4 Y5 p4 ]0 Y' waircraft without causing structural damage to the
; ^/ D: e- A% O: ~aircraft; and,
& s& T' a8 P, W" |d. Free of objects, except for objects that need to. s( _7 }9 k' _1 y- B% _
be located in the runway safety area because of their* w6 h4 T1 z% k. \
function. These objects shall be constructed on low0 }) M# R' X4 r4 M
impact resistant supports (frangible mounted struc‐
4 }& p6 I* E$ {: _% f! ytures) to the lowest practical height with the frangible* `% _6 O) d1 E4 E! _' X
point no higher than 3 inches above grade.+ i4 u/ j. Y) s7 ~, ^
(Refer to AC 150/5300‐13, Airport Design,6 T( U% r5 l0 B( Q, D
Chapter 3.)) x2 B! Y2 k# s; o) v; b* v/ \
RUNWAY TRANSITIONa. Conventional STARs/SIDs. The portion of a
( h* A) s9 P7 `( @STAR/SID that serves a particular runway or# o* S- T3 H `9 w, E
runways at an airport.
+ N! w' P3 G) f; }+ ?b. RNAV STARs/SIDs. Defines a path(s) from
p( ^6 N2 h6 T nthe common route to the final point(s) on a STAR. For1 g, C/ Y/ N$ K+ ?) L! q
a SID, the common route that serves a particular
* r |3 q9 s; p$ d2 Qrunway or runways at an airport.# O6 l; ]3 E3 u* J/ ?) I4 H
RUNWAY USE PROGRAM- A noise abatement
: R9 N8 R0 O L: Wrunway selection plan designed to enhance noise5 y) a$ S& k6 P% d$ ?
abatement efforts with regard to airport communities
7 q8 O# k9 P: n+ \* ~5 z* a# ~! W/ [for arriving and departing aircraft. These plans are# X$ c2 c# J+ z% Y
developed into runway use programs and apply to all" Y' Q: B& \. q+ t5 L2 \- T" }& c
turbojet aircraft 12,500 pounds or heavier; turbojet' Q: @ ^9 O8 W2 w4 L3 s# f& `4 ?
aircraft less than 12,500 pounds are included only if% p5 n, J5 n9 V3 i& N8 y; ~
the airport proprietor determines that the aircraft
4 `7 q; _& G9 [+ K8 F" F- ecreates a noise problem. Runway use programs are* f. Z, v- G; x% b
coordinated with FAA offices, and safety criteria
+ \( P, u& k8 l2 e, Nused in these programs are developed by the Office of
; d ]3 N N" {5 S; P$ J8 GFlight Operations. Runway use program s are, m% w& m4 z I" |( M- l& Q+ d
administered by the Air Traffic Service as “Formal”5 R! t, V" H$ O; Z
or “Informal” programs.4 M7 x! B9 T# }, S! R( x& z1 s# L
a. Formal Runway Use Program- An approved+ L2 X- u2 b/ j+ N% L* z$ z
noise abatement program which is defined and* H3 @5 H: |' g9 }0 v
acknowledged in a Letter of Understanding between8 F, d9 `0 w! s7 s8 u& |* E- l2 C
Flight Operations, Air Traffic Service, the airport
! c2 N( \! x( S6 P: C. ?proprietor, and the users. Once established, participa‐
- m: k7 L0 F- S/ ]( Y; ~tion in the program is mandatory for aircraft operators! j2 m& \4 _& O2 L( l) A
and pilots as provided for in 14 CFR Section 91.129.
* x% x0 Q" m, g/ c5 {: b' Ub. Informal Runway Use Program- An approved
( \1 ]: z3 q' `9 Z/ v) y, fnoise abatement program which does not require a
8 E$ \- D D5 ]. t, kLetter of Understanding, and participation in the6 x+ @, A4 W# q% k6 Q) A
program is voluntary for aircraft operators/pilots.' ~( F9 d% u: ^+ d2 b
Pilot/Controller Glossary 2/14/084 Y; o5 B$ K, w9 f
PCG R-8$ G" @! L" D6 n) A) y' l9 y- g' t
RUNWAY VISIBILITY VALUE(See VISIBILITY.)& I9 J& I! L- s0 Q# \4 Y# E# ?8 m. `
RUNWAY VISUAL RANGE(See VISIBILITY.)
% @* C! K# C( [. H0 U* ^Pilot/Controller Glossary 2/14/084 |$ e4 q3 ]) v6 @. t% W
PCG S-1
$ U/ V) X4 ^7 v" P3 n+ h+ s5 PS+ |$ n* y: B. z9 P# y$ B+ f
SAA(See SPECIAL ACTIVITY AIRSPACE.)) o; l1 H3 u( @# O: h
SAFETY ALERT- A safety alert issued by ATC to% J: d# \1 u3 p+ t/ [+ x# n
aircraft under their control if ATC is aware the aircraft
0 O3 u! S1 j/ I, Bis at an altitude which, in the controller's judgment,
. a5 o4 ~* e( a6 c% Wplaces the aircraft in unsafe proximity to terrain,1 @5 z8 n- K- n2 G, w) i
obstructions, or other aircraft. The controller may* x! S- c, N: @% L
discontinue the issuance of further alerts if the pilot
! w# `: I1 F7 n: ?advises he/she is taking action to correct the situation0 w9 t& x' y' \2 @+ f
or has the other aircraft in sight.
$ L% B( b! \! T3 ~a. Terrain/Obstruction Alert- A safety alert issued' E" Z1 g0 ]) }: j0 A
by ATC to aircraft under their control if ATC is aware3 I. v: S) g& G4 f+ b
the aircraft is at an altitude which, in the controller's/ y- y& \0 i ?1 M
judgment, places the aircraft in unsafe proximity to
7 X4 K0 y1 }/ [# `. c0 N6 X/ nterrain/obstructions; e.g., “Low Altitude Alert, check) F& c. G! H. i* M0 H2 y
your altitude immediately.”3 { W7 R. z7 ]" N
b. Aircraft Conflict Alert- A safety alert issued by0 u0 ~& f/ b0 p X: y3 V; t4 k
ATC to aircraft under their control if ATC is aware of2 ?% z+ f J2 Q5 E
an aircraft that is not under their control at an altitude
( N9 X) i" u9 r3 dwhich, in the controller's judgment, places both
, ~$ v5 N: j& A3 p' x# M% g, g* Qaircraft in unsafe proximity to each other. With the
" ^7 I( G) _: d, @2 i5 balert, ATC will offer the pilot an alternate course of
2 [8 ~: R5 v" {3 X& paction when feasible; e.g., “Traffic Alert, advise you& N) M- {3 b) s' g3 x; N
turn right heading zero niner zero or climb to eight1 s. X( u$ U4 T f0 T. _
thousand immediately.”, k" h) |+ t3 J7 `
Note:The issuance of a safety alert is contingent
% _0 _- [6 r2 Z4 f9 D1 t( p* ?+ t0 Gupon the capability of the controller to have an) \# y0 f9 D' p& a) c4 F7 `# a7 Q+ ~
awareness of an unsafe condition. The course of& B7 o" _# r4 x2 u; ], k! K
action provided will be predicated on other traffic
$ k# d& Y4 J6 T ^1 O# [under ATC control. Once the alert is issued, it is
7 F* ~6 d$ G! Isolely the pilot's prerogative to determine what
6 N: }* c s4 u7 S5 mcourse of action, if any, he/she will take.6 M/ v- m( C5 c" I% i
SAFETY LOGIC SYSTEM- A software enhance‐% O- z, f( T% H5 }+ b; V, \
ment to ASDE-3, ASDE-X, and ASDE-3X, that \( o- K+ E: X+ _( u5 f' y" I
predicts the path of aircraft landing and/or departing,
8 |. T5 Q4 V7 z4 A, \7 pand/or vehicular movements on runways. Visual and( i- c& `7 x! Z7 T5 |
aural alarms are activated when the safety logic5 @. ]3 [% p1 d0 ?7 g! _" s, G6 n d
projects a potential collision. The Airport Movement, y2 M, ~. }' }8 z: x8 F
Area Safety System (AMASS) is a safety logic
. }" F8 C+ f2 T% K' \, O, q6 d' osystem enhancement to the ASDE-3. The Safety
+ W' ]+ X" S. E1 [* S' \2 U6 JLogic System for ASDE-X and ASDE-3X is an
; Y! F3 W% i7 Y- q# hintegral part of the software program.
. z7 ~7 m( H0 [SAFETY LOGIC SYSTEM ALERTSa. ALERT- An actual situation involving two real. F2 M% U0 c% z! ^3 K) X- f6 N
safety logic tracks (aircraft/aircraft, aircraft/vehicle,
, t( T2 a' _: A) w" t# mor aircraft/other tangible object) that safety logic has
8 j$ g/ J. I/ P& a$ V. Ipredicted will result in an imminent collision, based
: F# g" x. L* I1 w$ z% Y3 O9 r* C- a5 nupon the current set of Safety Logic parameters.
' d2 A( b: v0 d, u' O! A& Yb. FALSE ALERT1. Alerts generated by one or more false- Y# m$ {1 H: v3 L
surface-radar targets that the system has interpreted$ I* u T3 P* T
as real tracks and placed into safety logic.
& A/ f8 W; j" c2. Alerts in which the safety logic software did: l: {) d! h: g, v$ N" q6 M
not perform correctly, based upon the design
0 S1 K- L {) S3 v; M$ Z' ?specifications and the current set of Safety Logic2 {9 `8 d, {1 T6 Q1 A
parameters.4 k4 y9 z. J( e0 R
c. NUISANCE ALERT- An alert in which one or4 d$ Z! H/ l, v
more of the following is true:
0 \) l6 ^0 s0 S' o5 k0 k+ ^& I1. The alert is generated by a known situation+ `# ]# J2 ?) s- s- ~
that is not considered an unsafe operation, such as; v; q: E) @0 ^
LAHSO or other approved operations.5 u2 ?# o0 v1 D7 K) E3 [
2. The alert is generated by inaccurate secon‐
* X5 _& A8 t" k3 P0 `! }# ddary radar data received by the Safety Logic System.
7 A b9 y3 a& N3. The alert is generated by surface radar targets
: X [3 K5 y0 tcaused by moderate or greater precipitation.
& G5 y" ]+ @, ^6 l4 l) r' z4. One or more of the aircraft involved in the/ j) v* |/ w) P) {4 Y6 R# V( a$ P
alert is not intending to use a runway (i.e., helicopter,
; p; y4 d( g/ ` \pipeline patrol, non-Mode C overflight, etc.).3 h4 S* N I* }8 h. W' p. T
d. VALID NON-ALERT- A situation in which
4 ]+ j* ^' ?7 I: t# X! g# jthe safety logic software correctly determines that an
$ J) w- r/ U- o' n! ealert is not required, based upon the design* F* N5 u6 e6 @" \
specifications and the current set of Safety Logic
\- l' m! v5 C7 Gparameters.
: ^ H0 z8 ], t" s; `" j" o+ ne. INVALID NON-ALERT- A situation in which6 ?3 l9 @3 {& E. K
the safety logic software did not issue an alert when
4 P8 ^9 s" w5 u* i6 ]) w; O4 aan alert was required, based upon the design. V3 |) G1 }. a0 K; _5 x
specifications.
7 O. W4 | {8 f7 j& ySAIL BACK- A maneuver during high wind
a7 Q8 l+ _* V/ G2 pconditions (usually with power off) where float plane d! h5 C% Z+ |* ~9 l2 ?8 _
movement is controlled by water rudders/opening
( o0 V( ~/ W, |and closing cabin doors.
$ [8 u7 o; K' Y6 ISAME DIRECTION AIRCRAFT- Aircraft are
( c7 ?9 I+ k) o5 {operating in the same direction when:) k6 ], j/ i& R$ _, ^$ K
a. They are following the same track in the same' R. k9 ^8 l) C: |; e
direction; or0 b* h4 m& \, N
b. Their tracks are parallel and the aircraft are- o: F% m2 _' b. U0 l1 K" }4 ?
flying in the same direction; or
8 e# L; D! H* U) g$ l1 fc. Their tracks intersect at an angle of less than 45, @1 k" e/ t x h) H2 z. `1 }# \
degrees.
$ s0 [8 g. Y8 u' H9 i: u( v( ~Pilot/Controller Glossary 2/14/082 e. ]9 z7 P% K
PCG S-2% r* I! `1 U/ V" n& p
SAR(See SEARCH AND RESCUE.)
4 a2 r" r# h2 D9 b' o2 hSAY AGAIN- Used to request a repeat of the last
1 M( B2 ]; \+ N+ q; m H+ Gtransmission. Usually specifies transmission or3 ^/ p& l: }. c y. j( M, H+ v
portion thereof not understood or received; e.g., “Say
5 ~/ I6 W3 ^0 J8 B5 Jagain all after ABRAM VOR.”5 f# d6 \ A; \
SAY ALTITUDE- Used by ATC to ascertain an
; h! B4 f! e! |0 Y* Faircraft's specific altitude/flight level. When the: {4 X2 H, F* {" ]; m B# x4 y& g
aircraft is climbing or descending, the pilot should
6 t) F6 h/ K/ K8 j; H& dstate the indicated altitude rounded to the nearest 100# C8 P4 Q, E( O
feet.3 p! L$ k! |" w
SAY HEADING- Used by ATC to request an aircraft! ]6 t8 ?4 Q6 H( w( z3 q. c7 v$ V; d
heading. The pilot should state the actual heading of
' O: S3 n) g& ^4 @' Gthe aircraft.0 d V* e5 h" x' J
SCHEDULED TIME OF ARRIVAL (STA)- A STA
9 t. P% H7 U4 |0 |* Dis the desired time that an aircraft should cross a I; m/ g! \7 p& s2 Y/ z
certain point (landing or metering fix). It takes other
9 B) `& d, |; Utraffic and airspace configuration into account. A, @! [, }: N6 _1 R! |; r
STA time shows the results of the TMA scheduler7 Y8 P8 a4 D7 n! a
that has calculated an arrival time according to1 E% V$ w9 V2 z6 X4 K
parameters such as optimized spacing, aircraft
5 ~ E5 Y! ?3 |" {3 T9 N* [$ Bperformance, and weather.
3 E0 Q- X/ J$ P4 qSDF(See SIMPLIFIED DIRECTIONAL FACILITY.)8 f' v4 r! ~' w6 A# D% V
SEA LANE- A designated portion of water outlined/ k1 U) a" w, r9 I
by visual surface markers for and intended to be used
D n0 n' [/ U( y4 c2 Vby aircraft designed to operate on water.
8 [/ B; C) w0 [' l6 E2 JSEARCH AND RESCUE- A service which seeks
. g- T# _( r. d1 z$ s& \( `missing aircraft and assists those found to be in need) W9 S" L9 I. L: T
of assistance. It is a cooperative effort using the
0 y; d# I T7 }* \ _facilities and services of available Federal, state and9 H' J) F3 m7 W8 i& ?2 i
local agencies. The U.S. Coast Guard is responsible& H3 m) y* J( J2 M+ f4 w2 h. D: s; L8 [
for coordination of search and rescue for the Maritime
7 u' p# H/ p9 A* p0 FRegion, and the U.S. Air Force is responsible for
0 E4 Q! L8 D6 c4 i' X5 n- A) q3 jsearch and rescue for the Inland Region. Information
' f, |# `; R |4 npertinent to search and rescue should be passed
+ e" P& Q( W- T& e: s" t0 Pthrough any air traffic facility or be transmitted' G8 y- t. {. U0 [' T. `. T
directly to the Rescue Coordination Center by
* ~+ w9 D% _& W4 t2 Ttelephone.
; Q+ l$ N2 U9 k5 o& X ?) K2 H(See FLIGHT SERVICE STATION.)
6 o* a, Q2 o) T. h9 G, T(See RESCUE COORDINATION CENTER.)' T* x: C h, b' Y6 o* `
(Refer to AIM.)
* Z3 c H& G# z- G8 w: E& I; ySEARCH AND RESCUE FACILITY- A facility: D: \ Y- I8 z4 x+ h
responsible for maintaining and operating a search
7 R# X8 v$ M0 u! T8 h& Z$ F# jand rescue (SAR) service to render aid to persons and
8 Z _ u f$ j8 fproperty in distress. It is any SAR unit, station, NET,' H9 ~' u4 V3 T( t
or other operational activity which can be usefully
; W+ j, j% ?$ u4 G/ Femployed during an SAR Mission; e.g., a Civil Air3 u% |: s7 u; N6 @+ h4 A* b1 S
Patrol Wing, or a Coast Guard Station.% u, W! k# r+ B& b& N& s% \9 K
(See SEARCH AND RESCUE.)
0 w8 H0 L2 [; i2 BSECONDARY RADAR TARGET- A target derived$ G0 y8 ?' O) [: m8 E9 s7 M8 G2 Y
from a transponder return presented on a radar c" H3 a C# e+ h
display.* c+ s/ i) ]3 s& |
SECTIONAL AERONAUTICAL CHARTS(See AERONAUTICAL CHART.)- c1 \ F. v8 Y$ w; M2 c
SECTOR LIST DROP INTERVAL- A parameter$ P# [0 r0 D; ?
number of minutes after the meter fix time when; ?8 j. V/ |$ T) p( r: a [' N
arrival aircraft will be deleted from the arrival sector
2 i4 o. L5 k r1 ?( wlist.
- Z- j: h( F3 w3 p/ U) r6 x$ {4 v0 ^SEE AND AVOID- When weather conditions
6 b# N& B2 f1 a& i; |permit, pilots operating IFR or VFR are required to
7 |5 m$ Y% u$ k& ]observe and maneuver to avoid other aircraft.
" T% r# O) {: [& A1 Y7 ?. n/ Q1 XRight‐of‐way rules are contained in 14 CFR Part 91.& U. e9 l- L5 I# |, k, A
SEGMENTED CIR CLE- A system of visual: F, y& c' T0 H9 t, D$ n' l+ h
indicators designed to provide traffic pattern- s: M |7 P# c# O
information at airports without operating control
4 g4 p4 F: m gtowers.& Q; ]! |9 b& O
(Refer to AIM.)+ I# M: e) b8 E5 o1 c4 x( Q- d; Q
SEGMENTS OF AN INSTRUMENT APPROACH
) S% M. C( ]0 [- E8 zPROCEDURE- An instrument approach procedure& D4 M9 U z, {
may have as many as four separate segm ents
9 }- j3 W2 O- i3 {/ W6 Fdepending on how the approach procedure is
; N1 s, g- r. {1 M1 N) x, rstructured.
! U3 y! v; x& F7 ~; ya. Initial Approach- The segment between the6 Z! P: y5 @; B4 g- A
initial approach fix and the intermediate fix or the
3 v, z$ @; d; ~! q1 M2 Kpoint where the aircraft is established on the5 ]( K* y( V/ @
intermediate course or final approach course.3 h1 f7 d6 @+ r; Z2 ?
(See ICAO term INITIAL APPROACH
x+ ]; m) Q1 z: `& W5 `6 z; ^/ JSEGMENT.)' u0 W1 O, k+ |! \4 g
b. Intermediate Approach- The segment between
% N8 {" f. R7 F% f, R! A' B0 Fthe intermediate fix or point and the final approach$ R2 a" ^' w4 |0 F, ] P
fix.: t( H! i: K5 a1 ?( |$ H
(See ICAO term INTERMEDIATE APPROACH
% h; T( D0 j& r6 N; sSEGMENT.)
7 O8 d6 N. j8 u$ _. O" X7 Yc. Final Approach- The segment between the final
9 D$ o9 |1 K% F1 Uapproach fix or point and the runway, airport, or: Z4 @7 Y" D/ U: m4 K! \4 @/ K
missed approach point.
/ I! W- ?* f& Z2 N% m' o6 V(See ICAO term FINAL APPROACH SEGMENT.)
+ X) Q0 }4 Z* X* p* nd. Missed Approach- The segment between the( s3 R7 e$ i2 ?) O
missed approach point or the point of arrival at' D9 ^" U% S5 ~
Pilot/Controller Glossary 2/14/08$ g$ y, b* f3 k" @
PCG S-3
' l8 U; Q: H( ^3 U* [0 O/ Odecision height and the missed approach fix at the3 ~4 B1 [$ \ k' Y: ^3 n; z
prescribed altitude." ~1 r/ X% \ z) O7 Z+ Z
(Refer to 14 CFR Part 97.)
* L) t8 X- m" `3 o6 S0 _(See ICAO term MISSED APPROACH0 B& g( P+ ^: w6 J' a$ T/ [
PROCEDURE.)) W9 |, N( y/ z- {5 Z" C
SEPARATION- In air traffic control, the spacing of
5 Z c1 M- v% c0 Y" \$ _' kaircraft to achieve their safe and orderly movement in7 y3 E/ O4 i, L& t
flight and while landing and taking off.
* A, X& f5 y, ?8 I(See SEPARATION MINIMA.)
/ l7 r% f0 C; G5 o! W: L6 }(See ICAO term SEPARATION.)
+ y! t: Z$ n, h$ _- ySEPARATION [ICAO]- Spacing between aircraft,4 [4 H' C( V" s# r1 g
levels or tracks.
7 L& g N2 H) a; C1 P% ASEPARATION MINIMA- The minimum longitudi‐9 n! r* {! Y/ R2 x1 w Q. I
nal, lateral, or vertical distances by which aircraft are
8 k5 V" }) ^5 F; R" g" J; Y4 espaced through the application of air traffic control
) G/ r4 j( @9 I1 Lprocedures.
; H/ d1 b- ^. n0 d(See SEPARATION.)6 L8 N2 i$ r8 ]: E+ _$ q( k
SERVICE- A generic term that designates functions
0 G; J6 X r) h* b" p6 \or assistance available from or rendered by air traffic
+ H! \; p s/ P' n6 ]control. For example, Class C service would denote o" c! Y/ l8 C* v' B) Y! W
the ATC services provided within a Class C airspace
. M5 z- ~3 h$ Q' K: Iarea.) P: y1 ]8 M3 `. e
SEVERE WEATHER AVOIDANCE PLAN- An9 E1 Z; d7 y5 \, H+ j) [4 j% R4 y
approved plan to minimize the affect of severe
. {. P( S* W. m9 K2 Uweather on traffic flows in impacted terminal and/or
" Q, x3 |' i; D$ ~! j5 S6 s; NARTCC areas. SWAP is normally implemented to, I3 R" H; k3 ~+ g9 u K6 w
provide the least disruption to the ATC system when/ E9 C3 C3 b" G+ ^
flight through portions of airspace is difficult or0 o" Q. ~% b; i3 p$ K
impossible due to severe weather.
5 k! p8 f. Z/ N3 [" T8 W+ w( wSEVERE WEATHER FORECAST ALERTS-3 D, w" q$ M% H; P6 D- W0 {) a
Preliminary messages issued in order to alert users
$ `" X/ f* W$ O8 Z7 F9 gthat a Severe Weather Watch Bulletin (WW) is being- g/ s6 t* Y6 h/ e$ t! _+ Z
issued. These messages define areas of possible
# ?" U4 L( G% K3 Tsevere thunderstorms or tornado activity. The0 t2 u Z8 E2 U' B( `
messages are unscheduled and issued as required by
1 o) }; r* H( v: p6 nthe Storm Prediction Center (SPC) at Norman,
% y6 b" s. G8 U7 T q+ n- g# q! eOklahoma.1 S4 S& P; W$ h7 @: S1 \# l# h: V
(See AIRMET.)
, P1 o& e1 G$ F2 K. B% t0 Y(See CONVECTIVE SIGMET.)( I4 H. |! Q6 h: S7 W5 q
(See CWA.)
7 `! k: S% l0 D* A5 N- N- @(See SIGMET.)* G3 r. j* Y7 S% S) F4 ~+ o m
SFA(See SINGLE FREQUENCY APPROACH.)
5 d! y# s) R0 z0 Y( WSFO(See SIMULATED FLAMEOUT.)
* D x D- s* |) n. M$ K7 VSHF(See SUPER HIGH FREQUENCY.): I% T1 ?+ I* Z- L3 G
SHORT RANGE CLEARANCE- A clearance+ h6 h9 q, M R& a
issued to a departing IFR flight which authorizes IFR m A/ y. z; Y& G3 ]
flight to a specific fix short of the destination while
: w0 a8 s, Y' }' L7 Pair traffic control facilities are coordinating and7 X6 k0 b5 g4 a
obtaining the complete clearance.
% k: O4 r" L. G. x0 e- S8 g4 p1 g* `3 xSHORT TAKEOFF AND LANDING AIRCRAFT-
: a6 V. z, l$ H5 R- a1 K- \An aircraft which, at some weight within its approved
0 [! b5 d. N6 g& {( Aoperating weight, is capable of operating from a
9 E. G5 N7 ~, \9 y& e6 b; f! JSTOL runway in compliance with the applicable
5 h9 R- e7 G' I- DSTOL characteristics, airworthiness, operations,2 b* t3 W1 e( @
noise, and pollution standards.
5 z3 Z9 l" X) l7 a# q(See VERTICAL TAKEOFF AND LANDING
; j) ]0 e' y, v& dAIRCRAFT.)0 m- p" A6 P+ P# g7 h
SIAP(See STANDARD INSTRUMENT APPROACH
4 i$ Q/ a, _# [8 j+ LPROCEDURE.)
% {2 S0 K8 T8 p$ l+ E' FSID(See STANDARD INSTRUMENT DEPARTURE.)
6 D# ^# E+ ]% o5 m" O8 YSIDESTEP MANEUVER- A visual maneuver3 b/ _! W7 j) p# ~) C4 F: P
accomplished by a pilot at the completion of an/ I0 }/ ^- e1 a* N% ?$ K
instrument approach to permit a straight‐in landing
$ z; U0 c2 \4 O0 @7 _) X& {on a parallel runway not more than 1,200 feet to either+ R1 M3 R# G8 h! T) n$ x; S& R5 q/ K
side of the runway to which the instrument approach1 ? m2 {+ E& b* r' D+ G l
was conducted.
. G# |3 C( l; N( F" A7 o(Refer to AIM.)3 c; N& N, a" ], M* h n
SIGMET- A weather advisory issued concerning
8 Q; C/ D+ ^$ i7 h1 hweather significant to the safety of all aircraft.& v0 G" g) v& ?9 S
SIGMET advisories cover severe and extreme8 x2 {5 g! b$ y7 t6 f
turbulence, severe icing, and widespread dust or4 B1 c- e1 u! `8 {5 L; P/ ^
sandstorms that reduce visibility to less than 3 miles.
* j. q( |" g+ F5 `1 i1 E(See AIRMET.)
, \- z" }) d% j5 z e% a(See AWW.)
; z8 N, J" I9 E0 L0 I, T) ^(See CONVECTIVE SIGMET.)
0 a( O1 g" ?+ e( @8 O7 b. H) @(See CWA.)
. q0 K- |% N" N1 A+ M(See ICAO term SIGMET INFORMATION.)
7 \& R5 D/ x7 {" b(Refer to AIM.)+ R( l. h s& r
SIGMET INFORMATION [ICAO]- Information
8 G( ?8 g2 H. X5 vissued by a meteorological watch office concerning
# C; Y: X6 p" q, p# ~) p1 ?. Kthe occurrence or expected occurrence of specified
5 e) X/ f0 Z8 i4 sen‐route weather phenomena which may affect the
4 J3 R; f" P% ~' |# k fsafety of aircraft operations.
" P! o! @) e3 D/ F2 ZSIGNIFICANT METEOROLOGICAL INFOR‐- t( v$ Z j; @* s$ l' q
MATION(See SIGMET.)
& P) h+ h7 u/ {2 O& tSIGNIFICANT POINT- A point, whether a named
8 g/ K0 g# F! Wintersection, a NAVAID, a fix derived from a: z% B, w# q3 `# r, V" x
Pilot/Controller Glossary 2/14/08
! x! y1 T( S/ v1 P' jPCG S-4
/ w! U! g, q0 a' y. gNAVAID(s), or geographical coordinate expressed in
/ I" y* v; Y7 P: {degrees of latitude and longitude, which is
3 n R8 R2 j4 r. I5 ^. l, J! Oestablished for the purpose of providing separation,! P% K- Y! q0 _7 \$ Y
as a reporting point, or to delineate a route of flight.% g7 f7 d4 q' _( p
SIMPLIFIED DIRECTIONAL FACILITY- A
+ S/ i. S h) h6 E, { O S, W2 ~NAVAID used for nonprecision instrument ap‐8 @, g7 C+ z: K- d9 p1 R
proaches. The final approach course is similar to that1 E' f8 W; T$ ^' S
of an ILS localizer except that the SDF course may be
, {1 X" W! w3 v4 u# T' Soffset from the runway, generally not more than 3% }4 w% H! t) l' b
degrees, and the course may be wider than the
+ N6 N1 j# B& \8 p# D# Clocalizer, resulting in a lower degree of accuracy.) F' p$ L. h+ o ^* Z+ k/ d
(Refer to AIM.)
% i7 d: l& s% S& XSIMULATED FLAMEOUT- A practice approach- L: [1 W/ [: p+ ?5 h
by a jet aircraft (normally military) at idle thrust to a1 S9 Z0 ~5 j. \ K# e
runway. The approach may start at a runway (high
( t. F2 f8 u. h5 hkey) and may continue on a relatively high and wide
, L1 g/ z* s$ A1 Y0 Jdownwind leg with a continuous turn to final. It
/ }8 l Y6 @. I1 x4 ?/ mterminates in landing or low approach. The purpose
# E8 h- a, |2 f+ j. a! bof this approach is to simulate a flameout.
" Z$ {! p" M0 U3 R2 H8 M+ h(See FLAMEOUT.) t4 F$ {# h- L
SIMULTANEOUS ILS APPROACHES- An ap‐! l1 A: r3 Y8 D6 A$ [1 M1 y) X% s: [
proach system permitting simultaneous ILS/MLS
$ Y, V, G2 E. y* }: iapproaches to airports having parallel runways7 o: t2 B$ j [/ N0 t, H5 l: [
separated by at least 4,300 feet between centerlines.
7 ~: \( I+ \: G3 M: U2 E3 ?Integral parts of a total system are ILS/MLS, radar,
0 j) S8 @8 U" t8 Kcommunications, ATC procedures, and appropriate; X z+ _) t# @7 e0 Z' @; ~. ?
airborne equipment.
{: T0 ?# V9 y. q! G(See PARALLEL RUNWAYS.)
( R" V# u% Z# D: t5 A, U(Refer to AIM.)
( F* {3 T1 i7 u" S( xSIMULTANEOUS MLS APPROACHES(See SIMULTANEOUS ILS APPROACHES.)( C7 p- ^3 j1 Z/ {/ K. h
SINGLE DIRECTION ROUTES- Preferred IFR D# x1 ^" x6 ^1 }
Routes which are sometimes depicted on high
) z+ L$ u( p _ |, Q+ `altitude en route charts and which are normally flown) S/ C1 q6 o C! h3 E+ F
in one direction only.: {/ ~6 R! e4 `7 Y. s6 c
(See PREFERRED IFR ROUTES.)# e+ s4 I0 i0 h3 d, S
(Refer to AIRPORT/FACILITY DIRECTORY.)
; O& @- D0 D& G( a. B- wSINGLE FREQUENCY APPROACH- A service
# o8 D8 g' a! y5 E, B1 [- lprovided under a letter of agreement to military0 S: ~! ?7 D% Z& g9 `$ @5 d7 B# E
single‐piloted turbojet aircraft which permits use of
4 a3 O! a0 I1 s d l# sa single UHF frequency during approach for landing.' O, X' A) ^, a! G* i
Pilots will not normally be required to change% I+ G8 h% r# N) _3 k! h8 D2 `
frequency from the beginning of the approach to
5 X9 ~. X `5 [3 A! W" ftouchdown except that pilots conducting an en route( d/ u7 f/ Y% V1 x5 j
descent are required to change frequency when
" z' }5 L: E1 c) }* Y3 }control is transferred from the air route traffic control
& a) |6 d6 X; t; Z6 C5 N8 R" Icenter to the terminal facility. The abbreviation, W/ W/ j) v3 g% D4 V6 U$ c
“SFA” in the DOD FLIP IFR Supplement under
2 X0 P7 T& E) G8 u( j“Communications” indicates this service is available- m) U! @! f- [: U, O1 k
at an aerodrome.4 X# E7 }# u: K) l
SINGLE‐PILOTED AIRCRAFT- A military turbo‐
+ V, ~( w/ T, i: S5 gjet aircraft possessing one set of flight controls,
' r" {/ i0 M* l, b8 R! \+ vtandem cockpits, or two sets of flight controls but
: S; v x) b. o: g5 ^operated by one pilot is considered single‐piloted by3 f( ]- N" L% C$ _3 d0 V
ATC when determining the appropriate air traffic
" G- G! k: h8 i' V/ rservice to be applied.# n: `3 j1 G3 D2 v2 ?
(See SINGLE FREQUENCY APPROACH.)$ H) j7 x8 B/ N% P8 I4 H y* S
SKYSPOTTER- A pilot who has received special‐
, r3 j b5 P1 n0 A1 wized training in observing and reporting inflight: G1 S- c, c: v9 v {6 c% H# p$ W
weather phenomena.
" ]! {" _0 O b, {4 }0 B( zSLASH- A radar beacon reply displayed as an
* n% H- Q* L1 J. nelongated target.
% S4 x( s( _: p- G" C8 N& }" HSLDI(See SECTOR LIST DROP INTERVAL.)2 N8 G9 t1 T6 B
SLOT TIME(See METER FIX TIME/SLOT TIME.)
" e& A! o9 j/ R" o2 V2 o! c! SSLOW TAXI- To taxi a float plane at low power or
/ }; [4 J3 L% A3 d3 w/ Ylow RPM.
) S! J; V% W! TSN(See SYSTEM STRATEGIC NAVIGATION.). b6 `5 ]9 K, N6 }' K) R6 f& J) M
SPEAK SLOWER- Used in verbal communications$ S0 H [6 ~! `
as a request to reduce speech rate.
4 n8 y0 V) u5 f1 U5 Q- J' fSPECIAL ACTIVITY AIRSPACE (SAA)- Any
0 y4 p2 I& P* I8 D% p; y3 Jairspace with defined dimensions within the National5 X1 D+ ~' o6 H) P; x+ T0 `; q
Airspace System wherein limitations may be# T# G# L. {7 X0 ~3 P
imposed upon aircraft operations. This airspace may6 g& o; i* Y' f* e7 u
be restricted areas, prohibited areas, military
# d4 P; J9 a9 C, Moperations areas, air ATC assigned airspace, and any
' G- b) E% G' B5 J+ O( q4 o! Qother designated airspace areas. The dimensions of
# ?. {- I: a1 G5 F: b2 }( Tthis airspace are programmed into URET and can be3 ?* A2 l; R/ w( x' T' e/ T" y
designated as either active or inactive by screen entry.
: L2 P \, S8 o, MAircraft trajectories are constantly tested against the! t" [5 [- R$ E" B+ X! J2 F
dimensions of active areas and alerts issued to the
1 p; K5 r/ x$ f% Happlicable sectors when violations are predicted./ ^! F/ ?8 w: t; P% R
(See USER REQUEST EVALUATION TOOL.)2 U- L/ V2 w# `0 | W) |) F- i
SPECIAL EMERGENCY- A condition of air piracy, }/ ~1 O; z. K* R
or other hostile act by a person(s) aboard an aircraft% \& b+ A& Q% G z/ J2 r1 I1 U5 g- T# U
which threatens the safety of the aircraft or its
# o- q. _8 s( b9 h Tpassengers.8 ]* L* r! {" L3 R: R$ m2 [
SPECIAL INSTRUMENT APPROACH PROCE‐
' X/ a; ` d; c: Q9 w TDURE(See INSTRUMENT APPROACH PROCEDURE.)
0 Y1 L6 H) }& l* P; `! FPilot/Controller Glossary 2/14/08* d6 K% r* `' K5 N5 J
PCG S-56 }" v: H; y; N
SPECIAL USE AIRSPACE- Airspace of defined
Y( k- u* d' V |6 ~. _; x4 Mdimensions identified by an area on the surface of the5 d# _8 X" I! D; d( E
earth wherein activities must be confined because of4 o' F: x/ S' z/ a5 H' T% T8 N
their nature and/or wherein limitations may be0 {% d) g/ a/ L% F5 U
imposed upon aircraft operations that are not a part of
$ ~- X4 ]5 M( p& J5 e/ Hthose activities. Types of special use airspace are:
5 q0 C+ Q, O+ E- M) Ca. Alert Area- Airspace which may contain a high+ n) c, |' L1 T0 h3 B* S
volume of pilot training activities or an unusual type0 \! _. q1 H: u, [1 I0 F
of aerial activity, neither of which is hazardous to3 b. \: e5 k" [/ N
aircraft. Alert Areas are depicted on aeronautical9 w" X! q* h( B5 x4 P( Y7 p* i, s
charts for the information of nonparticipating pilots.
- ?" }+ Y1 f6 w. ?3 q; `2 U: RAll activities within an Alert Area are conducted in
& O* x9 l4 _6 t- A6 h# `1 @0 ]accordance with Federal Aviation Regulations, and( h. ~" Y, i/ v- ?
pilots of participating aircraft as well as pilots
$ i) S6 G8 f: p8 l5 q8 ?transiting the area are equally responsible for
. e! F9 K5 Q* z4 ~( y& xcollision avoidance.; W" `6 I' }! q3 q7 \+ ^" e
b. Controlled Firing Area- Airspace wherein' `* }5 T, Q; ^4 c- G) g0 f* d
activities are conducted under conditions so
+ q. O4 l& e# R, b- ucontrolled as to eliminate hazards to nonparticipating
1 \# H8 p5 w \ [( haircraft and to ensure the safety of persons and' W! t' ^ m% H
property on the ground.
& K7 s8 c9 s+ `& c; ?; p2 ]% Fc. Military Operations Area (MOA)- A MOA is
3 [ D( d% G |( Pairspace established outside of Class A airspace area/ d" X9 M( d4 L# V6 |1 z% e: E
to separate or segregate certain nonhazardous1 z& r" q( {9 Q
military activities from IFR traffic and to identify for
; M5 X. v/ y1 M4 H' ~% T$ p6 vVFR traffic where these activities are conducted.
( E0 |0 @8 Y( s f5 ~1 n H. C(Refer to AIM.)
0 f) K9 g' \! Y, td. rohibited Area- Airspace designated under |4 L- F1 a; n
14 CFR Part 73 within which no person may operate
8 `9 i! F! @8 Xan aircraft without the permission of the using
+ J( W. _6 J4 i% \agency.' ]. r4 s" H) Q- J0 O
(Refer to AIM.)* n r5 @; T5 ^" J/ P: Y
(Refer to En Route Charts.)" o# N8 ?! s- i4 M! @1 U4 c9 D' M
e. Restricted Area- Airspace designated under$ w8 W1 ~2 W" ~
14 CFR Part 73, within which the flight of aircraft,- |) V4 {5 ^5 E, x
while not wholly prohibited, is subject to restriction.: Z7 B: [' Q- `% Y- L; w
Most restricted areas are designated joint use and
4 ^" s8 O4 x: ~& s* YIFR/VFR operations in the area may be authorized by
; Q5 ]3 f) l. ` f% kthe controlling ATC facility when it is not being
! E, Q9 s) G- ^4 g" autilized by the using agency. Restricted areas are
7 m8 k8 M) y# N" F: Tdepicted on en route charts. Where joint use is
+ {; b( W" j" y1 i S. Cauthorized, the name of the ATC controlling facility+ y; M3 h; _! g* ~# t
is also shown.
4 T2 v# j4 j6 R7 u(Refer to 14 CFR Part 73.)
$ M% h z+ A) G( W% K(Refer to AIM.)1 w7 X1 s8 H: x2 ^+ e* @
f. Warning Area- A warning area is airspace of
* j$ L }5 r8 B. W1 s! [defined dimensions extending from 3 nautical miles( o! w9 d& H& d# m) M! N9 V
outward from the coast of the United States, that
5 W( D/ x5 a2 z8 a& K: q% A" T4 C6 Y0 icontains activity that may be hazardous to
8 _- _$ [) d, B) @4 r6 ^$ Vnonparticipating aircraft. The purpose of such, y! l) o1 [$ @( n
warning area is to warn nonparticipating pilots of the; K8 S* E: |' d# y* _
potential danger. A warning area may be located over/ f5 p2 @/ T( u3 y8 x, ^
domestic or international waters or both.& ?0 |. {8 {9 r8 I
SPECIAL VFR CONDITIONS- Meteorological
: p/ Y) G" W. Econditions that are less than those required for basic5 c& Z6 I0 l3 d3 p4 v! z# T
VFR flight in Class B, C, D, or E surface areas and
2 R0 ?% @; W/ t% w9 jin which some aircraft are permitted flight under. N! S: ~! Z3 A" K( ?
visual flight rules.
$ a) [8 U$ s' x, W(See SPECIAL VFR OPERATIONS.)9 s: _9 o* U% _! ^. | G6 g- T" P
(Refer to 14 CFR Part 91.)7 W' s; e: ^: q8 M2 ]6 c4 W
SPECIAL VFR FLIGHT [ICAO]- A VFR flight( q5 M6 m$ [9 |/ d5 X9 h
cleared by air traffic control to operate within Class7 t# l; x { {" _. C) f {
B, C, D, and E surface areas in metrological6 k9 _2 r+ @! @/ Z
conditions below VMC.
2 I+ R' |) ~0 Y# N; Q* aSPECIAL VFR OPERATIONS- Aircraft operating1 u" \; V1 O4 d" e6 O' Q
in accordance with clearances within Class B, C, D,# P1 {5 ~# Y, u6 f; { l
and E surface areas in weather conditions less than the1 V. _( W$ a4 D0 K# k9 X
basic VFR weather minima. Such operations must be M0 e; H& c# W; n9 L' E3 ~3 P2 \ }
requested by the pilot and approved by ATC.! e# n9 {" m( I" I b
(See SPECIAL VFR CONDITIONS.)0 ^ r6 B0 v: R1 O0 ^
(See ICAO term SPECIAL VFR FLIGHT.)
" x4 T& |) X: |- d- Z$ E& @, bSPEED(See AIRSPEED.)
2 t0 ?4 I* H5 p2 \(See GROUND SPEED.)
6 N4 }' r/ o% M* a- cSPEED ADJUSTMENT- An ATC procedure used to
; t# E' s) E; zrequest pilots to adjust aircraft speed to a specific
+ k: u8 m8 ^4 P% r; c1 x( ^value for the purpose of providing desired spacing.
7 H+ i$ \6 i' x ]4 B1 @Pilots are expected to maintain a speed of plus or
( A3 X8 A+ b: P0 Q3 c( eminus 10 knots or 0.02 Mach number of the specified. H# j5 Y0 }& R6 Y+ w
speed. Examples of speed adjustments are:
/ @2 t$ t3 `# m( T ea. “Increase/reduce speed to Mach point (num‐
$ i* O' L/ O* \8 I Vber.)”0 b( G% U: c9 v" E
b. “Increase/reduce speed to (speed in knots)” or+ p7 ^, M7 B4 j, p1 g
“Increase/reduce speed (number of knots) knots.”
B8 A1 z) q& [* ]5 ySPEED BRAKES- Moveable aerodynamic devices
! V3 `+ W/ u6 O; P, B; ?on aircraft that reduce airspeed during descent and
+ j" u8 ?3 b3 q+ E( z8 Slanding.
3 M& |, L6 x' N* OSPEED SEGMENTS- Portions of the arrival route5 l& n/ X9 P# @3 Z
between the transition point and the vertex along the' A: V# M' f: ?
optimum flight path for which speeds and altitudes
. A* y' b; G( @' c* ~" t- Bare specified. There is one set of arrival speed( l- F1 d) t; x* X/ j: c( s& U
segments adapted from each transition point to each: E0 x; h* Q' U5 ]
vertex. Each set may contain up to six segments.' D* v5 P$ z/ E1 y
SQUAWK (Mode, Code, Function)- Activate
' M1 O1 K- \3 z' A9 mspecific modes/codes/functions on the aircraft8 i: n; _9 o2 Q3 E9 }) J9 c
transponder; e.g., “Squawk three/alpha, two one zero
3 V4 }: D7 @& r# nfive, low.”/ C, Z# ~0 o& o, P
(See TRANSPONDER.)
% H N6 H: |4 w* ~) jPilot/Controller Glossary 2/14/08
. W# @# w' A0 I* ~( U/ QPCG S-6
2 C+ w* T& l) cSTA(See SCHEDULED TIME OF ARRIVAL.)
( K' P5 N# [4 ?/ r( MSTAGING/QUEUING- The placement, integration,
8 b, Q% n% k4 y) O& p gand segregation of departure aircraft in designated
) ]. S$ J: N0 E/ n( w- p- hmovement areas of an airport by departure fix, EDCT,- z* \, I8 \# z6 u: ]5 t5 r
and/or restriction.
+ Z% V) u6 R" H; v8 N; }STAND BY- Means the controller or pilot must
3 `! [6 ?( @- N! u: Mpause for a few seconds, usually to attend to other( s1 K' u" a# d" E1 o. W
duties of a higher priority. Also means to wait as in7 c. }% j/ B5 w0 b# t, k W1 c' Y
“stand by for clearance. ” The caller should& J5 c" E+ n& Q6 M _
reestablish contact if a delay is lengthy. “Stand by” is
+ Y) e8 o2 l$ q7 Q7 q, z& bnot an approval or denial.& N* ^5 P; c1 K
STANDARD INSTRUMENT APPROACH PRO‐+ T p# h5 r0 F" _
CEDURE (SIAP)-
) H a$ u* m6 W3 m(See INSTRUMENT APPROACH PROCEDURE.)
; }$ Z& \: R4 ?9 HSTANDARD INSTRUMENT DEPARTURE (SID)-
5 I; R* q! l4 a' g% ~0 n& M8 zA preplanned instrument flight rule (IFR) air traffic* D6 i& Y" M( c8 R k1 t+ n, I
control (ATC) departure procedure printed for
5 [' R, x& Z0 mpilot/controller use in graphic form to provide$ D, O2 y" u! b1 `
obstacle clearance and a transition from the terminal9 }& I8 e+ O/ Q
area to the appropriate en route structure. SIDs are/ g# Z. v/ S- [6 {2 S/ ^
primarily designed for system enhancement to
9 l* ?. b- s/ t1 R$ s$ V( D- g) r# l/ Zexpedite traffic flow and to reduce pilot/controller
2 m$ t6 G. o4 X# ?" D: |2 [# Zworkload. ATC clearance must always be received: s0 Y$ T$ s0 \+ _4 g. ^% l( ]
prior to flying a SID.
1 R$ ~& N' u, I1 |(See IFR TAKEOFF MINIMUMS AND1 z& a) r1 p) r a- N; s
DEPARTURE PROCEDURES.)9 m' G' Q4 x/ R; P/ H
(See OBSTACLE DEPARTURE PROCEDURE.)
6 X( _ O8 c |/ }, B% H(Refer to AIM.)
4 X4 i D2 A# M; z; N+ nSTANDARD RATE TURN- A turn of three degrees
" H4 o( v" `& ~1 `4 m" bper second.
9 W$ R2 U* C3 O$ c# jSTANDARD TERMINAL ARRIVAL- A pre‐
9 ]+ D' q* u1 bplanned instrument flight rule (IFR) air traffic control. p/ v* g/ |7 i5 `
arrival procedure published for pilot use in graphic
' N3 f0 W# \0 |% b- cand/or textual form. STARs provide transition from
k/ t; H9 R+ ^5 e0 h* zthe en route structure to an outer fix or an instrument
* Q4 @( O8 n. A1 M, \- ?) xapproach fix/arrival waypoint in the terminal area.) O3 B% H$ _2 {
STANDARD TERMINAL ARRIVAL CHARTS(See AERONAUTICAL CHART.)# ~) J# f3 v& ?# m4 t- _
STANDARD TERMINAL AUTOMATION RE‐
) Q$ P1 X4 Y' K) ?, LPLACEMENT SYSTEM (STARS)-2 {' J' P- ?& G! D# R
(See DTAS.)! q8 y( H% B% P+ c; h5 p
STAR(See STANDARD TERMINAL ARRIVAL.)% V+ t* b, W H$ ]& A6 N
STATE AIRCRAFT- Aircraft used in military,
4 M. d4 h2 A7 `9 h0 B$ T' T& Bcustoms and police service, in the exclusive service3 _+ I5 \; ]2 T; g
of any government, or of any political subdivision,
6 g. F# G! r* G6 ]% Pthereof including the government of any state,
`* q1 h; t7 E7 _9 ~territory, or possession of the United States or the8 `, X3 P) @ T0 v( B1 r
District of Columbia, but not including any( _: N; W7 l" W' I9 X
government‐owned aircraft engaged in carrying
% |! K8 [, T2 v; _8 bpersons or property for commercial purposes.
' P8 j2 }- m5 A- o/ a) ]& aSTATIC RESTRICTIONS- Those restrictions that: `) f5 f' a4 P/ d8 J6 K
are usually not subject to change, fixed, in place,6 B8 f; W2 r3 @. @" P
and/or published.* Q( l- G% _5 S0 [
STATIONARY RESERVATIONS- Altitude reserva‐
9 R1 N) H3 j \- d% vtions which encompass activities in a fixed area.7 o) ]+ E# m7 w3 h% f
Stationary reservations may include activities, such
; ?7 B% l& ]9 I# S7 o" }2 Las special tests of weapons systems or equipment,
, d, ^. ^3 L8 J& K9 |certain U.S. Navy carrier, fleet, and anti‐submarine& R2 C3 X8 {" R7 ~+ f$ K3 ?( ^
operations, rocket, missile and drone operations, and
2 C3 Q" z# y9 l% hcertain aerial refueling or similar operations.; v9 x4 ?1 Y5 G( C% g
STEP TAXI- To taxi a float plane at full power or# k3 }5 l+ O, `4 v! z5 h
high RPM.' L; W8 v: W6 @4 l8 G1 ^
STEP TURN- A maneuver used to put a float plane
& B u r2 R) Z) O0 O& |9 tin a planing configuration prior to entering an active
/ M5 Y; n1 P8 j+ M( p- ?: Z1 q; csea lane for takeoff. The STEP TURN maneuver- s$ P7 C: n g5 q
should only be used upon pilot request.* D- _1 M0 c4 J0 S
STEPDOWN FIX- A fix permitting additional
/ C& o; S/ k7 _+ h$ `descent within a segment of an instrument approach
# f0 D) ], c+ s- G5 Zprocedure by identifying a point at which a" \/ S% p, W% W% L
controlling obstacle has been safely overflown.8 M* |( {. Y( Y, j
STEREO ROUTE- A routinely used route of flight/ [0 o) t- a" y) E8 d
established by users and ARTCCs identified by a
: ?7 ^3 l O" Scoded name; e.g., ALPHA 2. These routes minimize3 ]( Y' W6 o V% z
flight plan handling and communications.- [) e4 R& ^2 n
STOL AIRCRAFT(See SHORT TAKEOFF AND LANDING
" G' B6 p, {; _: b+ `0 I8 YAIRCRAFT.): @& [' Y$ ^4 o
STOP ALTITUDE SQUAWK- Used by ATC to" B" u) z) v! [8 @' X" _
inform an aircraft to turn‐off the automatic altitude) W( Q: \( y6 O. y' C# ~& w: V
reporting feature of its transponder. It is issued when
, f7 {& L4 n& p$ w" T/ M( v+ E4 ^: Sthe verbally reported altitude varies 300 feet or more* c9 a' M2 h7 @
from the automatic altitude report.3 w: J' [ t4 j6 |3 _ n) i% S; b: [+ V
(See ALTITUDE READOUT.)9 Z- a6 ?: c2 R/ @- D3 {/ k
(See TRANSPONDER.)$ z4 c/ `: ]" w& p7 [2 m, K
STOP AND GO- A procedure wherein an aircraft
3 N- p) i$ U1 q" \will land, make a complete stop on the runway, and
; D2 R) E6 o4 z) Jthen commence a takeoff from that point.1 x/ C6 f1 c( k1 {
(See LOW APPROACH.)
D2 v% D: m4 R! h1 w(See OPTION APPROACH.)
- j* z, s* }+ `7 X" w3 s3 SPilot/Controller Glossary 2/14/08
. n; B: K9 ~4 {! ^+ XPCG S-7
$ T% U ~; `3 C' d2 K5 g& F6 Y$ FSTOP BURST(See STOP STREAM.)7 t3 I( s& D) I6 a
STOP BUZZER(See STOP STREAM.)
3 U" j/ [% H4 Q5 o1 x: G! o) hSTOP SQUAWK (Mode or Code)- Used by ATC to
4 d8 ]. c2 g# M u" htell the pilot to turn specified functions of the aircraft( q5 a1 [1 T$ X% y, j4 U
transponder off., [' Q- l n$ C! z+ ?5 N5 t9 |9 f
(See STOP ALTITUDE SQUAWK.)5 U; M& g& _/ U3 h0 L
(See TRANSPONDER.)
- S2 P. x# r5 m# X ~2 q2 B, n( l) Y0 DSTOP STREAM- Used by ATC to request a pilot to4 @6 ~; ~. r4 P6 ]: Y
suspend electronic attack activity.1 ?- ]( M9 ]2 l% ]
(See JAMMING.)' f/ t3 V7 N0 ?3 J8 x1 r
STOPOVER FLIGHT PLAN- A flight plan format: @7 Y" g4 h2 {) R
which permits in a single submission the filing of a0 a) W9 r( g. d) w+ q$ I
sequence of flight plans through interim full‐stop6 ?5 `9 n' X3 k0 G4 Z8 }) p
destinations to a final destination.
% `. A1 j1 C h1 nSTOPWAY- An area beyond the takeoff runway no: Q# \9 a8 ~; |2 o; j- B
less wide than the runway and centered upon the
( Q; |" ~" x% A' o3 ^+ _8 w* b8 B. ]0 Lextended centerline of the runway, able to support the
9 q' |! e' n0 r, }airplane during an aborted takeoff, without causing( J3 |, S5 v0 X$ E( S4 d; a3 S
structural damage to the airplane, and designated by
3 L! [" q9 L1 H, ?. A! M |the airport authorities for use in decelerating the
' V6 f3 ~. ~5 fairplane during an aborted takeoff.* F7 x2 |( ]0 J3 {
STRAIGHT‐IN APPROACH IFR- An instrument
8 v, X) g3 Y* Tapproach wherein final approach is begun without5 c+ @ T2 [8 t" ` D
first having executed a procedure turn, not
% v' J5 F: g) onecessarily completed with a straight‐in landing or8 v3 {0 j) `3 u
made to straight‐in landing minimums.' n( X7 k9 v- ]- c
(See LANDING MINIMUMS.)
8 [) L) z+ I3 L% j& T(See STRAIGHT‐IN APPROACH VFR.)
\& ] J# _3 ^; f(See STRAIGHT‐IN LANDING.)0 D+ I' e; M1 c+ r. A# D
STRAIGHT‐IN APPROACH VFR- Entry into the
7 X. z1 | I, c w$ G, L. Xtraffic pattern by interception of the extended runway
6 h% m, W& X4 f' Tcenterline (final approach course) without executing8 a" o7 h/ ^* ^+ j; t$ C- F( k
any other portion of the traffic pattern.
; K- T& S4 S; {0 ~, V) C! q2 l+ {(See TRAFFIC PATTERN.)
, t1 h: W6 L- U1 FSTRAIGHT‐IN LANDING- A landing made on a
- D8 P( L' b! \- f% I! grunway aligned within 30 of the final approach
( i6 y# n+ P! T! tcourse following completion of an instrument) n* |3 I6 ^9 L
approach.4 ~. f3 ^& M0 }' o9 A8 N
(See STRAIGHT‐IN APPROACH IFR.)
3 h# x8 h3 j$ @8 d1 Z! k9 k$ cSTRAIGHT‐IN LANDING MINIMUMS(See LANDING MINIMUMS.)
# `8 H, k+ T4 H* _STRAIGHT‐IN MINIMUMS(See STRAIGHT‐IN LANDING MINIMUMS.)
6 p; ?$ a+ ^" T" Q% W( tSTRATEGIC PLANNING- Planning whereby4 x3 q: [& B+ ?# X
solutions are sought to resolve potential conflicts.
1 k4 Q8 v. O u' WSUBSTITUTE ROUTE- A route assigned to pilots9 V2 W O% m& D& F0 _; q
when any part of an airway or route is unusable
) k' A) {' h# O" z. V- e; _because of NAVAID status. These routes consist of:
: g4 k+ x- ]" V2 Z# [$ U6 Ua. Substitute routes which are shown on U.S.
* _; A3 L' p2 d O/ y9 Z0 |" i4 hGovernment charts.
, O, O$ l0 m6 O7 R0 wb. Routes defined by ATC as specific NAVAID- W( |6 N7 X1 a0 [
radials or courses.5 H! g; _" y& J) T
c. Routes defined by ATC as direct to or between0 @; S) B( F% R+ s' ^9 e5 B! O
NAVAIDs.6 t3 w% ?+ u0 H6 ^1 j
SUNSET AND SUNRISE- The mean solar times of
1 m; h( U* @2 i5 b" n" Msunset and sunrise as published in the Nautical
7 q9 e/ Y% n/ Q. LAlmanac, converted to local standard time for the" O1 _2 D- ]! ~ L* a
locality concerned. Within Alaska, the end of evening
1 L6 F2 S$ ]( v0 ~civil twilight and the beginning of morning civil6 c- N3 h7 J5 R% ^
twilight, as defined for each locality.
, d0 d2 t- z7 }% }* ^% r9 {2 ]SUPER HIGH FREQUENCY- The frequency band
0 a. a: L( K/ z: w: }/ L3 P( obetween 3 and 30 gigahertz (GHz). The elevation and* P* U% E, R' b
azimuth stations of the microwave landing system
2 u' K) K7 G' T$ koperate from 5031 MHz to 5091 MHz in this# j* b) C) B) f/ k9 l9 H
spectrum.
/ l1 p. Y; T: V3 {9 [8 `3 d, wSUPPLEMENTAL WEATHER SERVICE LOCA‐2 t C6 w1 V3 d: M7 J
TION- Airport facilities staffed with contract# q2 D; C n2 Z9 C9 k4 b3 X; D6 o
personnel who take weather observations and
/ G' M. U$ a% x: Q' Kprovide current local weather to pilots via telephone
; \: |! J$ V5 L! I6 ror radio. (All other services are provided by the parent% S4 V/ r; s: n4 m& V6 ?
FSS.)
; _' P, M/ Y6 d8 T5 A1 Q* @! TSUPPS- Refers to ICAO Document 7030 Regional
; Q8 {9 y! r( L* p+ o& c2 xSupplementary Procedures. SUPPS contain proce‐
' I' N1 o! p# E- mdures for each ICAO Region which are unique to that
% a8 @/ L9 k" i" K$ Q. pRegion and are not covered in the worldwide
" i; V) Z+ t9 m' T. H3 h# Cprovisions identified in the ICAO Air Navigation" g- }$ ?: j! H9 u( A
Plan. Procedures contained in Chapter 8 are based in
( y! S; i4 y/ ^) M( m+ `2 vpart on those published in SUPPS.4 g5 A' _: W y6 t* Q
SURFACE AREA- The airspace contained by the! S& M2 y8 m- J( ] }+ b. {
lateral boundary of the Class B, C, D, or E airspace
3 W3 a a4 r1 c) J' @+ ~designated for an airport that begins at the surface and
t" |) ?5 M; f% Oextends upward.
5 O4 W8 V* Q) w; f# ~/ @3 {$ OSURPIC- A description of surface vessels in the area
3 ^5 q/ z" G0 O$ V; V& A$ ]5 Q8 M& jof a Search and Rescue incident including their/ U6 r; D" ?. ^: _: Y2 m9 m
predicted positions and their characteristics.3 t. `7 Q$ ~- q; B: W4 R
(Refer to FAAO JO 7110.65, Para 10-6-4,) v% F6 v. u6 p4 `; B1 O
INFLIGHT CONTINGENCIES.)
$ W+ S0 G( h& X( s4 p# hSURVEILLANCE APPROACH- An instrument
1 {! u" P8 Y4 m4 C- d# [approach wherein the air traffic controller issues
' _' p0 }% T Z. Pinstructions, for pilot compliance, based on aircraft
5 s R+ v. L1 APilot/Controller Glossary 2/14/08
- a. p1 c' V7 ]3 y- tPCG S-8
# F8 c1 @; h p. W8 B6 pposition in relation to the final approach course
0 m; i/ \4 Z" S4 I(azimuth), and the distance (range) from the end of
- Q3 t& v% v n. w, U% e+ lthe runway as displayed on the controller's radar8 L" D0 l2 f: o7 ~
scope. The controller will provide recommended
5 O, J/ S3 h, D& ~, }altitudes on final approach if requested by the pilot.
: v; C% n) F1 D5 q(Refer to AIM.)
8 s( l$ r: L8 }SWAP(See SEVERE WEATHER AVOIDANCE PLAN.)3 W' \% V4 {- B; k
SWSL(See SUPPLEMENTAL WEATHER SERVICE
/ u: y; v3 j: ]2 t' ~LOCATION.)+ Z9 z4 x% O4 g
SYSTEM STRATEGIC NAVIGATION- Military6 v _ i, v; M6 D& u+ p
activity accomplished by navigating along a
' C c; U6 t8 r" J/ x0 Ppreplanned route using internal aircraft systems to! `) s4 P/ u5 _1 L) X- @/ Z: Y
maintain a desired track. This activity normally4 S* K8 E. \8 \- K' U' N( @
requires a lateral route width of 10 NM and altitude
. V( }" P; @6 D9 ^& Frange of 1,000 feet to 6,000 feet AGL with some route: v1 \3 Z4 R1 [$ e( x6 o. w
segments that permit terrain following.
" u, e x, g, D% }" O' `Pilot/Controller Glossary 2/14/085 ]0 W* k7 n, B2 z
PCG T-1
% f3 ?. q5 y4 wT
6 N; r5 L# K# k+ s" o6 sTACAN(See TACTICAL AIR NAVIGATION.)
1 ^! ?. B& v3 `. LTACAN‐ONLY AIRCRAFT- An aircraft, normally( i- g$ l& Y; ]5 p9 r" t
military, possessing TACAN with DME but no VOR' ]- N& N1 ?; ~
navigational system capability. Clearances must
' e8 m# s2 q7 N' k9 G" Vspecify TACAN or VORTAC fixes and approaches.
7 j& V ]: V4 E& F! pTACTICAL AIR NAVIGATION- An ultra‐high
1 a9 l* l2 L0 X& H4 afrequency electronic rho‐theta air navigation aid6 j" o6 B$ `3 S4 g& @- I7 o$ b+ W
which provides suitably equipped aircraft a. ~9 n0 ^: N9 i0 L) m( X
continuous indication of bearing and distance to the
9 k, D' x" J3 m; ?9 k/ ^5 QTACAN station.
0 u4 D- t1 C1 W; s ]$ P# h4 j# u(See VORTAC.)
) v8 N/ m% ?! v/ i9 o4 e(Refer to AIM.)8 D% W6 M' K$ _
TAILWIND- Any wind more than 90 degrees to the
& A' A) S4 {+ G, q/ F+ p1 qlongitudinal axis of the runway. The magnetic/ U. \1 K9 B# w1 g
direction of the runway shall be used as the basis for8 c: d. I4 s5 ~2 V% G& N2 I6 x! W
determining the longitudinal axis.9 U2 e6 J5 I6 ~. x4 Y
TAKEOFF AREA(See LANDING AREA.)
( G2 T& h) |4 H& N! KTAKE‐OFF DISTANCE AVAILABLE [ICAO]- The
; Z6 q# q4 _1 _" Ilength of the take‐off run available plus the length of3 g* v. G/ u/ Y! D
the clearway, if provided.; X) | d+ \# C6 J. O
TAKE‐OFF RUN AVAILABLE [ICAO]- The length
2 q0 H" R# _% O `of runway declared available and suitable for the2 _( T, N x8 k8 W% x: t/ [
ground run of an aeroplane take‐off.$ D( ?6 u) U+ `+ W8 Q
TARGET- The indication shown on an analog
( }" H' n+ W6 ^0 f: `' z0 \- J0 wdisplay resulting from a primary radar return or a7 f, _- d, N K, Q$ l( [8 x
radar beacon reply.
( G2 _; l. F$ s7 ~2 Q+ W$ N; s(See ASSOCIATED.)' j+ _( u. |! h( i1 W
(See DIGITAL TARGET.)
% c% ]% X5 R) i( n F(See DIGITIZED RADAR TARGET.)! N. q, {" r; Y1 j
(See PRIMARY RADAR TARGET.)
0 K7 H- [4 H4 X6 v* L0 ^(See RADAR.)
9 b+ { |8 e) \(See SECONDARY RADAR TARGET.)8 P' [: S( C3 }) I) ^. C
(See TARGET SYMBOL.)
) d1 w5 c1 l% H; e# H+ y(See ICAO term TARGET.)
( l+ b5 R" j4 C; [ Q8 k: ?(See UNASSOCIATED.)$ ^6 Q) X7 V8 s' B6 |1 t# m0 `
TARGET [ICAO]- In radar:% w: R& w5 g8 ^$ _; f+ }( Q5 U, }
a. Generally, any discrete object which reflects or k# M2 }5 q9 t9 _( z% K8 t
retransmits energy back to the radar equipment.
2 k7 C; B8 l5 b/ tb. Specifically, an object of radar search or- J2 c2 r# H; i" ~
surveillance.
( s7 s3 {) K( g' uTARGET RESOLUTION- A process to ensure that
) n2 n. `) _- Q5 E* a: u( ccorrelated radar targets do not touch. Target) p/ i6 q5 D, B6 \1 h5 q
resolution shall be applied as follows:
: j. G3 I; O% d4 K: Aa. Between the edges of two primary targets or the
/ q5 o4 Z: a/ L" Z$ B5 E' ]edges of the ASR‐9 primary target symbol.
z# P5 N9 q1 y# ?" O: `: _. ~ `b. Between the end of the beacon control slash and5 H* {& c* R5 S5 c
the edge of a primary target.8 s' n+ w3 G1 o* A6 a7 p2 @
c. Between the ends of two beacon control slashes., C8 l" R8 ~0 r/ d
Note 1:MANDATORY TRAFFIC ADVISORIES4 G/ N g. i- p$ u8 V8 t+ E5 T
AND SAFETY ALERTS SHALL BE ISSUED
: x; \3 v- ]0 ^, i6 sWHEN THIS PROCEDURE IS USED.
2 W- w: Q+ u) f, ]Note 2:This procedure shall not be provided* z5 p x2 {7 Y; _" P' N
utilizing mosaic radar systems.) t. m- X0 m& e
TARGET SYMBOL- A computer‐generated indica‐
0 H* ~' M: W( g8 ption shown on a radar display resulting from a
9 r: [* F3 R4 H+ l1 b" z1 }* U5 }3 mprimary radar return or a radar beacon reply.6 p/ K( a# ?* ]6 h* z
TAS(See TERMINAL AUTOMATION SYSTEMS.)
( v; s$ ]- p* o7 S3 W" K0 E) b8 kTAWS(See TERRAIN AWARENESS WARNING
* V) [) {( w: L: P/ d& F" eSYSTEM.)( W9 e$ k1 e. {
TAXI- The movement of an airplane under its own
- a. _# i; @2 W! t, k! m9 Zpower on the surface of an airport (14 CFR D1 {$ r# J7 x& I- }6 a+ {
Section 135.100 [Note]). Also, it describes the9 ?( g8 ?& Q/ T7 @6 t
surface movement of helicopters equipped with
# L4 r4 n6 j1 Y) k: q' Pwheels.
* q8 ~$ k- ?9 q5 W `) V f(See AIR TAXI.)" K$ d/ ^' L- @
(See HOVER TAXI.) O7 M0 Q( i# Q, v' T
(Refer to 14 CFR Section 135.100.)
m. [1 j5 o8 w1 \(Refer to AIM.)
$ L7 o; G/ c7 |/ Q3 Q& KTAXI PATTERNS- Patterns established to illustrate
: q- ~/ W" x1 P0 \ gthe desired flow of ground traffic for the different
8 N7 T4 i! R5 _9 L' |( Grunways or airport areas available for use.3 h. L7 I3 Y# T, ^$ F4 M$ p* h
TCAS(See TRAFFIC ALERT AND COLLISION
6 g* \) R G1 p5 B- f9 U7 K5 KAVOIDANCE SYSTEM.)
4 h M/ n- I/ ~4 e) U3 oTCH(See THRESHOLD CROSSING HEIGHT.)
. D2 |/ V) f& D. L8 ]4 x, NTCLT(See TENTATIVE CALCULATED LANDING
, o1 w; q+ I7 Z% u5 B; \TIME.)
* Z" A: n/ h2 P) B" N: nTDLS(See TERMINAL DATA LINK SYSTEM.)
1 k3 s6 A+ ^. q( M1 |Pilot/Controller Glossary 2/14/08; L/ q5 G9 c$ q9 }- \
PCG T-2
& a3 m0 I- ~/ r$ Z0 } C# w1 A/ g- i: ATDZE(See TOUCHDOWN ZONE ELEVATION.)
( \( F* z! K4 g q% M0 STELEPHONE INFORMATION BRIEFING SER‐
& B3 _" F* X0 pVIC E- A continuous telephone recording of
$ z+ w! f+ d' y0 q& Smeteorological and/or aeronautical information.
# I; w5 x! n8 n' @3 A w6 k0 g(Refer to AIM.)
4 L, M6 W* Z/ y0 @TENTATIVE CALCULATED LANDING TIME- A
, ?' l* f4 L7 I5 r" sprojected time calculated for adapted vertex for each
# C1 X; ?6 O' k( Carrival aircraft based upon runway configuration,
8 y. P. d7 N+ L* vairport acceptance rate, airport arrival delay period,
! t. v; g3 b; t# I) m4 Aand other metered arrival aircraft. This time is either
4 O7 b, p* W8 ~' i6 n4 Q4 j* ythe VTA of the aircraft or the TCLT/ACLT of the
1 E: P( S$ q3 I1 V( a7 V+ uprevious aircraft plus the AAI, whichever is later.
5 M+ y$ Y) r4 ]7 v; N. G- r2 yThis time will be updated in response to an aircraft's$ f5 \% i$ J% l6 N5 [2 X
progress and its current relationship to other arrivals.( e) N8 J# j; ]! {
TERMINAL AREA- A general term used to describe
" s* Z+ x1 X8 nairspace in which approach control service or airport$ C% @9 W# R4 e1 [' D
traffic control service is provided.
7 r& b* }) V! a( hTERMINAL AREA FACILITY- A facility provid‐( K: `8 @3 |; U; e3 w( q0 K4 k) b! v
ing air traffic control service for arriving and6 c$ ]; r( O' y+ D1 I* q
departing IFR, VFR, Special VFR, and on occasion/ g& ^' }2 T0 f7 y" ^) ^" F
en route aircraft.- m' |! O- X D e8 q, H& \9 g
(See APPROACH CONTROL FACILITY.)
, _: O V. j6 w9 b- i2 w(See TOWER.)! e5 Z+ q- Z! @; X, l
TERMINAL AUTOMATION SYSTEMS (TAS)-
- c+ _$ v$ A6 U4 Q" h. T' L0 P/ WTAS is used to identify the numerous automated& S& r, w& ~3 k4 Q0 y4 t1 I% B
tracking systems including ARTS IIE, ARTS IIIA,) S5 L4 c/ T: Y& M% r4 o1 [
ARTS IIIE, STARS, and MEARTS.# u) W: ]) O1 w' B5 c
TERMINAL DATA LINK SYSTEM (TDLS)- A
5 n2 V. g1 O V; Y2 d' Csystem that provides Digital Automatic Terminal
- O# }& w: Q8 f6 m$ fInformation Service (D-ATIS) both on a specified
8 D0 B( w: |% d+ D* Y8 K2 Q3 r+ Xradio frequency and also, for subscribers, in a text
$ I3 o* K4 P' P* m2 K! ]message via data link to the cockpit or to a gate
: a+ W: Q8 h, sprinter. TDLS also provides Pre-departure Clear‐& K, h9 G( K( W) f n, A$ r! `
ances (PDC), at selected airports, to subscribers,
& x1 j( }7 y- }3 B* k8 Jthrough a service provider, in text to the cockpit or to
) m, e9 H6 ]3 P ?a gate printer. In addition, TDLS will emulate the
) F: f9 A7 n4 }0 q) c1 u. H: lFlight Data Input/Output (FDIO) information within
- x+ j0 ^6 y! q3 {. j' I/ X0 jthe control tower.
" S0 u3 b/ Z2 OTERMINAL RADAR SERVICE AREA- Airspace
0 k, D2 |# G* ?7 l8 v! _surrounding designated airports wherein ATC7 M6 m1 x+ z6 s/ ?: N( S' ~& l
provides radar vectoring, sequencing, and separation5 ?4 @6 K7 ?$ p! s
on a full‐time basis for all IFR and participating VFR8 p& }! t; [: C/ c. i5 t) v
aircraft. The AIM contains an explanation of TRSA.+ ?" I: D: `/ h, g
TRSAs are depicted on VFR aeronautical charts.
7 K% r& ^% E. N- O \6 @# R' pPilot participation is urged but is not mandatory.9 P: } M" l/ p# |
TERMINAL VFR RADAR SERVICE- A national
U! E; _& F. ^0 S# v# Iprogram instituted to extend the terminal radar
+ W7 b, H8 z, ?, ?$ k. Iservices provided instrument flight rules (IFR)* |$ p6 N, J1 g2 p" Y! Y- ]
aircraft to visual flight rules (VFR) aircraft. The
" C) x3 @1 z( G( ?+ O, z: u& h, _9 Eprogram is divided into four types service referred to3 {" q/ w9 B% V1 g# I5 `9 _4 R
as basic radar service, terminal radar service area
( x# t. H* I8 y( V(TRSA) service, Class B service and Class C service.
5 W1 H$ b: h& p8 PThe type of service provided at a particular location
: O, }6 I4 g3 z/ }! G$ I# |! lis contained in the Airport/Facility Directory.
$ M) ^' a3 v8 M6 X7 b5 Ia. Basic Radar Service- These services are. g' G1 u4 o! a1 a( n! I8 k
provided for VFR aircraft by all commissioned
+ Q0 z/ k/ e5 ?/ ?! aterminal radar facilities. Basic radar service includes# o) _: c, r; [. p9 x( Q' M6 l
safety alerts, traffic advisories, limited radar
% A; T0 }$ v+ ]0 ~+ Z0 @vectoring when requested by the pilot, and; @, Z6 t N1 [, k2 l
sequencing at locations where procedures have been
$ ~5 o5 c# ]! F! `/ d7 k# {established for this purpose and/or when covered by, F& s& e& j6 u4 N
a letter of agreement. The purpose of this service is to0 k# {) D/ B( q, V0 \4 s; p
adjust the flow of arriving IFR and VFR aircraft into
6 w& F' }4 Y- ythe traffic pattern in a safe and orderly manner and to
t9 M% g* j9 Y8 ~ i. Zprovide traffic advisories to departing VFR aircraft., N* `: U% z* f4 E" g; l
b. TRSA Service- This service provides, in
: D! P: H/ u- u' ]: E4 ~addition to basic radar service, sequencing of all IFR
6 k* P2 l1 j x* J: kand participating VFR aircraft to the primary airport! l, q6 V9 Z# m8 o9 \, o7 V: V4 R% e
and separation between all participating VFR, p' u; {, D0 F+ W
aircraft. The purpose of this service is to provide
# D% t) c: L" N5 e; tseparation between all participating VFR aircraft and& d" u: b" K% W q% ~ {8 R6 A
all IFR aircraft operating within the area defined as a' [& O. B* P2 Y; w, \) e6 K% M
TRSA.$ G9 O/ A3 y$ M# `" J- z2 ?$ M! R
c. Class C Service- This service provides, in! C" B) F1 ^. ?! k' o
addition to basic radar service, approved separation
6 L8 O3 d0 I; w7 p+ ?2 u4 abetween IFR and VFR aircraft, and sequencing of
+ A8 c: ?& K. t, I: L8 A2 @1 P; \VFR aircraft, and sequencing of VFR arrivals to the
- J4 c- j$ A' }+ [: m9 i$ c4 _ ~primary airport.9 j0 a. |% M0 P# V! j# c& ^7 ]# l
d. Class B Service- This service provides, in7 h8 R* Y0 J1 j h E$ v: ?3 {
addition to basic radar service, approved separation' o, R4 R& L# \/ R* `
of aircraft based on IFR, VFR, and/or weight, and
: d! N% O, n, h. Y( |3 V. Nsequencing of VFR arrivals to the primary airport(s).
9 T; P+ y5 H, X3 U(See CONTROLLED AIRSPACE.)! P: Y6 a5 J3 Y9 L3 L+ t, e. ?
(See TERMINAL RADAR SERVICE AREA.)
' U3 E1 j. e }1 N7 ?(Refer to AIM.)( o4 r* j' ?; {4 P. K. J2 R
(Refer to AIRPORT/FACILITY DIRECTORY.)7 w+ K8 x$ U6 N3 z1 \) H B& X' [
TERMINAL‐VERY HIGH FREQUENCY OMNI‐ m( _/ {- V: W7 R% p' ?
DIRECTIONAL RANGE STATION- A very high0 H4 b& d2 l- s+ _; t5 c7 n p7 l2 A& R
frequency terminal omnirange station located on or
& _, e: `( n% [" B7 ~( Mnear an airport and used as an approach aid.7 E" b% x0 e0 n% K
(See NAVIGATIONAL AID.)
7 U' R1 J' }8 n(See VOR.)' q3 b4 {% I8 a
TERRAIN AWARENESS WARNING SYSTEM: v4 J3 F" a; ^$ _% x4 I
(TAWS)- An on-board, terrain proximity alerting( s5 Q8 x: z# ?
Pilot/Controller Glossary 2/14/08' C# o& K R) [6 f1 j* J o
PCG T-33 B T7 v6 I- k0 E3 w5 A& I
system providing the aircrew `Low Altitude
6 |/ ]- a ^$ A/ M, i4 j% m. U2 Lwarnings' to allow immediate pilot action.$ r/ \) C- G$ O* ?) p
TERRAIN FOLLOWING- The flight of a military' w9 g* f8 B3 R+ U+ C% T
aircraft maintaining a constant AGL altitude above
1 {' B6 e' A2 r5 x6 Nthe terrain or the highest obstruction. The altitude of
: O( v1 S+ N- Y3 K3 i T7 zthe aircraft will constantly change with the varying& T* H; m/ \* K# y
terrain and/or obstruction.
2 ?5 | ]7 t$ ^" VTETRAHEDRON- A device normally located on! Z) l6 N ]! k
uncontrolled airports and used as a landing direction! n- o) i$ N9 [1 k i) J
indicator. The small end of a tetrahedron points in the$ m& P# k/ g8 ^* Y' w1 C( ~
direction of landing. At controlled airports, the$ `4 z9 m! N( q0 b
tetrahedron, if installed, should be disregarded
% O! \/ G0 |& p! ]; C6 |' rbecause tower instructions supersede the indicator.
" z" x8 A6 J: I3 ^- Q(See SEGMENTED CIRCLE.)# I/ l, ~% d9 `" [* m
(Refer to AIM.); L% Z& Y" f: } @$ t2 T: b0 h
TF(See TERRAIN FOLLOWING.)" U, f% i" U6 s/ y* r8 ~9 \
THAT IS CORRECT- The understanding you have
j5 w+ F! a" o% L- L/ \is right.6 `. [1 L; i W# @3 c
360 OVERHEAD(See OVERHEAD MANEUVER.)/ b: ?3 J& W: S+ ]4 r" q* l5 M9 K% |
THRESHOLD- The beginning of that portion of the1 f$ V1 E* G- [. x9 I5 ], \
runway usable for landing.+ u# z1 Y( G2 ~. c2 G5 Q4 t% F" U$ |
(See AIRPORT LIGHTING.)5 a. y: h9 x7 F! v Q& T: l0 M
(See DISPLACED THRESHOLD.)
+ P4 A- u. H1 a p3 cTHRESHOLD CROSSING HEIGHT- The theoreti‐/ c# e& S& ^' l# v
cal height above the runway threshold at which the3 t1 r+ L" w5 o& G9 N; Y0 N8 f
aircraft's glideslope antenna would be if the aircraft
+ t1 c6 ^4 v3 x* u, R( dmaintains the trajectory established by the mean ILS
6 G6 d" U4 r2 ^& {/ g' gglideslope or MLS glidepath.
% s- A! R# C& V& e, R" x(See GLIDESLOPE.)
/ z( T* J* n" [ D, H z) m8 X(See THRESHOLD.)9 v, n! ?: b, c& |. T
THRESHOLD LIGHTS(See AIRPORT LIGHTING.)
: E. x* l$ h s# dTIBS(See TELEPHONE INFORMATION BRIEFING
2 F0 D5 U% i4 d7 zSERVICE.)
1 H5 @& F8 M( H- G/ ~TIME GROUP- Four digits representing the hour2 g1 @' t: U3 f/ z4 B: ?; G
and minutes from the Coordinated Universal Time' E2 `% O' S+ ?
(UTC) clock. FAA uses UTC for all operations. The
3 P* [" i1 u- M* o4 c% H1 w4 U7 Kterm “ZULU” may be used to denote UTC. The word D$ ]4 s6 E% f, F" t' |: p
“local” or the time zone equivalent shall be used to
, S1 p1 ~' _! @0 I7 Z9 L' x6 Ldenote local when local time is given during radio and
" Y# V: d) a* r4 ctelephone communications. When written, a time
% o' c0 G% w. k- Izone designator is used to indicate local time; e.g.# \# T* O7 u3 Y1 ]8 n3 m7 b
“0205M” (Mountain). The local time may be based
/ p/ m( D7 f" b9 J3 Z& B( Qon the 24‐hour clock system. The day begins at 0000( ~0 ]0 c* Q9 T9 V: P
and ends at 2359.
+ b% Y* Q a6 p ^# {' k4 h! H2 j2 KTMA(See TRAFFIC MANAGEMENT ADVISOR.)
8 B0 d2 _) V& Y3 c- O8 sTMPA(See TRAFFIC MANAGEMENT PROGRAM$ L$ O& G$ F+ ]+ d
ALERT.)
/ J7 ]# g7 X P. B9 DTMU(See TRAFFIC MANAGEMENT UNIT.)
7 z8 G5 B; W4 R5 j2 ZTODA [ICAO]-
- J0 b4 S: u* N1 E* i(See ICAO Term TAKE‐OFF DISTANCE
/ h% ]7 J. X3 j& G2 k) I( CAVAILABLE.)
! S% J$ C9 h/ Q, M" KTORA [ICAO]-' _# g. A5 N2 R! E7 V; u
(See ICAO Term TAKE‐OFF RUN AVAILABLE.)
8 c0 e) h1 {( C0 h/ V. r+ eTORCHING- The burning of fuel at the end of an1 M1 {& n7 p% m& r3 g
exhaust pipe or stack of a reciprocating aircraft
+ B0 V" E" T8 \3 hengine, the result of an excessive richness in the fuel
, ~) I* r, l F- g3 E& |air mixture.
$ n. z" Y) Q) t% ~1 U- }& RTOTAL ESTIMATED ELAPSED TIME [ICAO]-& g. o5 x# K r( s2 S
For IFR flights, the estimated time required from
- f/ F, d; i) b, p' h. y8 M( Stake‐off to arrive over that designated point, defined
3 m6 h5 X0 ^$ ^ u/ Y$ Lby reference to navigation aids, from which it is
$ o8 G5 y' ?2 m/ m% m2 o# L5 Vintended that an instrument approach procedure will; W9 Z: V9 T; y2 U
be commenced, or, if no navigation aid is associated
+ Y8 a5 z2 j6 r. n) P# `/ I' d6 R7 pwith the destination aerodrome, to arrive over the
/ l7 X. ?8 F7 d, I+ ydestination aerodrom e. For VFR flights, the
7 D, t0 P. p$ n# M0 l" festimated time required from take‐off to arrive over
+ j7 X- j) \' j0 n+ Rthe destination aerodrome.
% v! `* L5 @: _9 h8 ^(See ICAO term ESTIMATED ELAPSED TIME.)5 X' G% s2 r* V
TOUCH‐AND‐GO- An operation by an aircraft that
' H1 I7 u, F( W$ X: F' wlands and departs on a runway without stopping or4 [0 b1 g7 s2 Z3 @" ]+ H
exiting the runway.- G/ s7 l" ?& z- e# v9 e
TOUCH‐AND‐GO LANDING(See TOUCH‐AND‐GO.)9 [ r: f" F& D
TOUCHDOWNa. The point at which an aircraft first makes0 m C; ^& k! u( x
contact with the landing surface.7 ^$ t5 l+ T$ z$ O- q8 a. X
b. Concerning a precision radar approach (PAR),7 Q% }" l$ X- g" j
it is the point where the glide path intercepts the3 e) g/ e1 ^ z9 H# ^
landing surface.$ O" p7 |" d+ y' y& S5 ?7 l
(See ICAO term TOUCHDOWN.)8 m9 |, K0 B. k" Z8 N
Pilot/Controller Glossary 2/14/08
+ ~# L7 z4 l6 y! m9 fPCG T-4) l" g5 ?* ]# r7 j; v8 c
TOUCHDOWN [ICAO]- The point where the
! A Z* S3 {8 c0 M0 q& x6 L0 znominal glide path intercepts the runway.
) X9 ]$ X- `2 X3 `7 M& v' Y! {! aNote:Touchdown as defined above is only a datum
" R4 l5 R( n& C5 `# g7 wand is not necessarily the actual point at which the: d ?7 b% d! ^2 x( w
aircraft will touch the runway.9 ], T0 B/ g0 L @, s" _
TOUCHDOWN RVR(See VISIBILITY.)
* o9 T* S8 Z8 u& M# ?TOUCHDOWN ZONE- The first 3,000 feet of the
$ M2 O/ ^8 ]! D( i& }2 prunway beginning at the threshold. The area is used6 O( S8 D" n# }% n8 r
for determination of Touchdown Zone Elevation in) ]5 [2 s* u0 `1 h, ]& B
the development of straight‐in landing minimums for! j8 B. J1 v2 f" Q
instrument approaches.) v) l2 p, z# _8 I0 g& C
(See ICAO term TOUCHDOWN ZONE.)+ Z* L" A- M1 H! y% U+ _/ u( U
TOUCHDOWN ZONE [ICAO]- The portion of a
2 x& i1 Z9 W0 p3 I. `runway, beyond the threshold, where it is intended
' ]: N f& A* S5 _! D' F4 Vlanding aircraft first contact the runway.
6 @1 N& }9 V+ Y. {+ r9 ^TOUCHDOWN ZONE ELEVATION- The highest. ~9 {# y) r' P, _3 d- ]4 S* I
elevation in the first 3,000 feet of the landing surface.8 W1 Z# F& k) @7 X8 X) y7 j
TDZE is indicated on the instrument approach3 y4 A6 a& O( j# _1 O4 L- c
procedure chart when straight‐in landing minimums7 z Q2 k5 f& k; d& M1 j
are authorized.
' C0 @" c; k; a' ~4 H, N4 l4 n(See TOUCHDOWN ZONE.)
, f w: I5 S/ F" ^TOUCHDOWN ZONE LIGHTING(See AIRPORT LIGHTING.)( N" a; Q1 p+ o2 l2 a6 m
TOWER- A terminal facility that uses air/ground
' y* q" K$ }0 a* N! ~+ O% Zcommunications, visual signaling, and other devices
: D* p# b, X0 d% \; mto provide ATC services to aircraft operating in the& f2 m9 {& b# ~3 q+ A+ O; v: C
vicinity of an airport or on the movement area., @" f& [6 p+ j' @! o1 S }( |0 @
Authorizes aircraft to land or takeoff at the airport; m- r6 a6 ~0 Z' k% _& o( a
controlled by the tower or to transit the Class D
9 J% z4 g' T+ G# ^airspace area regardless of flight plan or weather6 S x& b/ u" s) h
conditions (IFR or VFR). A tower may also provide
: w {( h4 q. h+ G8 P J5 Zapproach control services (radar or nonradar).! X6 ^% F. P" t |
(See AIRPORT TRAFFIC CONTROL SERVICE.)
6 Y% |: @6 }5 ~7 J& X(See APPROACH CONTROL FACILITY.)# W) d# P N3 Z. r4 p: X/ Y: W
(See APPROACH CONTROL SERVICE.)7 a6 [% a! Q* p& h4 ]3 k
(See MOVEMENT AREA.)6 B/ M3 _- U) U* @- h6 r
(See TOWER EN ROUTE CONTROL' k' ~, K5 B6 l8 k6 b" P0 H
SERVICE.)& J$ n( r- N+ l; v2 ]: t% e8 d
(See ICAO term AERODROME CONTROL
# u" N) \7 ~8 YTOWER.)
% h. a, [. O" q(Refer to AIM.): V' Q+ Z8 f' E* H
TOWER EN ROUTE CONTROL SERVICE- The+ C5 \& e* u6 o) ~1 H3 G1 S
control of IFR en route traffic within delegated
+ a {7 T% ^5 s$ R e5 yairspace between two or more adjacent approach
. g; g, p# E8 q# D* ]2 R! s2 dcontrol facilities. This service is designed to expedite8 K! T3 B0 l/ h9 x$ `8 r0 Q
traffic and reduce control and pilot communication
" u* O+ x3 h9 U z" urequirements.' a' b |7 w9 `1 c+ W) B
TOWER TO TOWER(See TOWER EN ROUTE CONTROL
. K8 z4 Z; p; R( J0 O# SSERVICE.)
1 C- G) v. X$ T7 |3 [, hTPX‐42- A numeric beacon decoder equipment/
) i- `* A$ i6 W: ~7 wsystem. It is designed to be added to terminal radar
1 }: s& e7 `1 X; l. |systems for beacon decoding. It provides rapid target
! ]( o( w' h. m; s& f( | s- ridentification, reinforcement of the primary radar1 a: _/ z! K% `, H
target, and altitude information from Mode C.
" l# U3 d' ^0 u1 R. o$ f(See AUTOMATED RADAR TERMINAL9 |/ R W) O0 y( y8 i
SYSTEMS.)& M1 b U$ U$ @' x; Q- |
(See TRANSPONDER.)3 r& p0 M* A- t O# u# Y+ a& z
TRACEABLE PRESSURE STANDARD- The
) J; U1 \3 ~' Y' a9 e; yfacility station pressure instrument, with certifica‐6 o: P: b# h2 ~
tion/calibration traceable to the National Institute of
5 U$ e( Y. w6 [; WStandards and Technology. Traceable pressure& [/ M3 C* t6 M: L" X+ ^% d
standards may be mercurial barometers, commis‐) {7 l. `5 g7 r. n. ]
sioned ASOS or dual transducer AWOS, or portable
% S9 B7 t8 j- P8 n$ X v' lpressure standards or DASI.
) J: W1 ~$ V8 h# D" M, cTRACK- The actual flight path of an aircraft over the
* V/ v5 Q& c5 f9 @# ~7 W6 e) ksurface of the earth." R: g, r/ M6 b& P& c$ d
(See COURSE.)* E% A2 I+ @: o9 X$ a2 ]9 C' T3 p
(See FLIGHT PATH.)
& ~2 I" i- Y* M(See ROUTE.)3 y0 B; b s7 b7 T
(See ICAO term TRACK.)- n3 a$ h# ~7 ?1 [/ t. U
TRACK [ICAO]- The projection on the earth's/ i- s, o" }9 P& ]5 h+ k# o& N
surface of the path of an aircraft, the direction of
5 Y9 z1 n1 N0 w: K4 B, Lwhich path at any point is usually expressed in
$ z4 V; ^7 S' m" n j$ W8 o) zdegrees from North (True, Magnetic, or Grid).
: g R- C9 x0 z# cTRAFFICa. A term used by a controller to transfer radar$ v; A* T( p. f! Y# V h* n
identification of an aircraft to another controller for
. E, d. v5 L# |+ |; p6 wthe purpose of coordinating separation action. Traffic9 F3 v/ v* z, X
is normally issued:
u! F: b% @1 [8 ~1. In response to a handoff or point out,/ X% q$ E' y% [) V
2. In anticipation of a handoff or point out, or
7 m3 ]: N+ j/ J5 H3 j! s3. In conjunction with a request for control of an' _1 X! F9 ^4 ]! d5 a' T0 z
aircraft.
7 G- b7 \' Z2 M$ c3 Pb. A term used by ATC to refer to one or more9 Q0 {2 q3 X* T z/ c( J9 ~
aircraft." s7 e! u3 q7 B% L9 Q% v
TRAFFIC ADVISORIES- Advisories issued to alert2 i8 [2 l% z; j" K
pilots to other known or observed air traffic which/ ]6 Z5 _* _- y- h% {! ?; K
may be in such proximity to the position or intended) j; Z1 i' ]; }& b8 k* ?* h9 b# n
route of flight of their aircraft to warrant their+ T7 d# ?. P) e$ @2 E
attention. Such advisories may be based on:! z" p) x- \0 a& n9 R5 @
a. Visual observation.
1 n. Q; D+ t# ^Pilot/Controller Glossary 2/14/08. s. b+ z9 H" y5 W0 R4 Y
PCG T-5
- f& ^# W5 V5 |b. Observation of radar identified and nonidenti‐- b9 \) G( N/ d& U+ `
fied aircraft targets on an ATC radar display, or1 `2 }+ e6 F0 y m3 N1 T7 c$ N# a' [
c. Verbal reports from pilots or other facilities.) E7 @" z/ l1 c% W
Note 1:The word “traffic” followed by additional" j. N; X8 X }6 _! b
information, if known, is used to provide such% H5 M! w' C' j) v+ ]5 @
advisories; e.g., “Traffic, 2 o'clock, one zero miles,& v, O. `* {4 a% i) h
southbound, eight thousand.”9 V7 v3 |% i7 ^6 L
Note 2:Traffic advisory service will be provided to1 c# `# B. U f5 V" f
the extent possible depending on higher priority
- J# @( `" r3 o. l4 X; Uduties of the controller or other limitations; e.g.,; E" f/ O- z0 D
radar limitations, volume of traffic, frequency5 g1 K6 e8 s) Y4 C
congestion, or controller workload. Radar/" ~$ o; M) D8 P4 x0 k$ Z$ P& @/ w
nonradar traffic advisories do not relieve the pilot$ s& I2 f" L' d% L* Q. @/ q$ a4 f5 m
of his/her responsibility to see and avoid other
% Z @5 Z) s) Iaircraft. Pilots are cautioned that there are many+ G% Z" Q+ q& t3 a: ^' `3 G
times when the controller is not able to give traffic
5 X" x( D( x8 h) Zadvisories concerning all traffic in the aircraft's3 z! B% Q' ]- ^/ k
proximity; in other words, when a pilot requests or, j* g( _! R0 ]3 f0 Q$ F
is receiving traffic advisories, he/she should not
; p8 | [) o( W6 J; ?# ?& ?+ G! tassume that all traffic will be issued.
, F$ m9 ~9 q A# j$ l(Refer to AIM.)0 L# g& g1 N* p( E) H1 O% `" d, ?, q
TRAFFIC ALERT (aircraft call sign), TURN
( X; y5 `- f2 d" h' ?(left/right) IMMEDIATELY, (climb/descend) AND
1 @1 s9 w; d+ `; `+ vMAINTAIN (altitude).+ w9 C& H! U6 n) Z3 Z/ Z L5 T# A$ a
(See SAFETY ALERT.)
3 h: |* h' X3 ~+ |TRAFFIC ALERT AND COLLISION AVOID‐
: Z9 C# i6 H/ H+ @- V" ^& BANCE SYSTEM- An airborne collision avoidance
' ? f! H8 s t. K, Osystem based on radar beacon signals which operates" Y3 R7 `/ r# a2 X2 V5 v! e$ Z
independent of ground‐based equipment. TCAS‐I, X( l) R7 X8 j) H# x
generates traffic advisories only. TCAS‐II generates
" h9 \. }0 W, I- o( D' Ktraffic advisories, and resolution (collision avoid‐+ r4 l; I# \' T" v1 I) W% Z
ance) advisories in the vertical plane.8 S/ x5 p4 {+ R& @
TRAFFIC INFORMATION(See TRAFFIC ADVISORIES.)
' j- f! e3 o/ i1 h8 e2 ~TRAFFIC IN SIGHT- Used by pilots to inform a' I* j" u+ q* a; X$ z" w
controller that previously issued traffic is in sight.$ V% R* j) Q( J* J& E- d
(See NEGATIVE CONTACT.)" x8 t) h# \& X' K) J k
(See TRAFFIC ADVISORIES.)
/ _$ |. i: N' E5 B9 L& lTRAFFIC MANAGEMENT ADVISOR (TMA)- A
; h8 {# r) x- X5 acomputerized tool which assists Traffic Management- V6 C- j' u7 W# w5 W; H
Coordinators to efficiently schedule arrival traffic to/ @1 \7 ? Q2 I
a metered airport, by calculating meter fix times and
: s* D. B& s* Z0 d3 ?2 V; vdelays then sending that information to the sector$ R0 l8 c4 j% t% q7 J5 O% D1 y6 [7 i
controllers.4 j3 h- x1 p9 o
TRAFFIC MANAGEMENT PROGRAM ALERT-% q9 r+ s# l/ S" H
A term used in a Notice to Airmen (NOTAM) issued T) J. C* ~& k: l: g9 C
in conjunction with a special traffic management6 z) w4 O7 W& @( m) s
program to alert pilots to the existence of the program- P0 L' d5 P1 D ^
and to refer them to either the Notices to Airmen
; w7 s* Z* `9 k5 {4 Upublication or a special traffic management program
" [( f q4 F. R+ badvisory message for program details. The contrac‐" d! {, j( H, ^# g+ I2 C
tion TMPA is used in NOTAM text.
7 R, W& y4 S; h0 Z) DTRAFFIC MANAGEMENT UNIT- The entity in
; b! q" z' m5 }- w5 s9 |ARTCCs and designated terminals directly involved$ U f/ U h& W' `
in the active management of facility traffic. Usually: e2 P2 e8 g" ~9 V& |' s& P* G2 `
under the direct supervision of an assistant manager. j* h. X% Y0 a
for traffic management.8 N# R: l. N5 \. H; p
TRAFFIC NO FACTOR- Indicates that the traffic
+ a; f e) N0 Udescribed in a previously issued traffic advisory is no2 V8 a, b0 d, Z- }( ~8 P% I: R
factor.6 Z% e$ v5 P! A7 P; u; T
TRAFFIC NO LONGER OBSERVED- Indicates( s" m( l3 G, R, a2 B
that the traffic described in a previously issued traffic
4 e+ e9 r/ Z4 Qadvisory is no longer depicted on radar, but may still
' T; r0 _) b5 o% _$ b3 _be a factor.# J0 l- M' e; M2 P
TRAFFIC PATTERN- The traffic flow that is; j* S/ m% L a
prescribed for aircraft landing at, taxiing on, or taking; U3 ?# D+ `+ |$ b! Q4 V
off from an airport. The components of a typical# R/ D* N) z3 }) i; P; T
traffic pattern are upwind leg, crosswind leg,& M7 w- |; X) @5 o8 z! X/ c) A+ V- {6 D
downwind leg, base leg, and final approach.
7 B% R" J( s/ [6 ba. Upwind Leg- A flight path parallel to the
6 C( J. l+ n5 x7 z1 j1 E5 `2 Q/ _landing runway in the direction of landing.
9 Y4 J, l; `- ?5 Pb. Crosswind Leg- A flight path at right angles to- T3 \, F/ s+ A% ^" [7 j3 i( K
the landing runway off its upwind end.
2 i6 |( B4 Z0 B7 z! u4 M: kc. Downwind Leg- A flight path parallel to the
" s- s/ J5 D$ w1 O% Z& S1 Y7 flanding runway in the direction opposite to landing.
4 q) Q5 X3 c8 _7 Q/ t3 A& E; x# tThe downwind leg normally extends between the
: Z2 l( @3 ^" e' B! w3 Qcrosswind leg and the base leg.0 {7 r5 }4 r; @3 Z0 v, d. a4 {
d. Base Leg- A flight path at right angles to the" Z) b: X! y' Z7 V f7 I5 m; b
landing runway off its approach end. The base leg% h/ N5 U! @) B/ N1 z
normally extends from the downwind leg to the
$ ]7 G& @0 z! w7 ]$ E2 D! b8 pintersection of the extended runway centerline.9 E1 j: a" j& ?2 t8 f( M6 z* g, Y
e. Final Approach. A flight path in the direction of/ I: a% j$ o1 }
landing along the extended runway centerline. The7 D' [5 ]. H* s; ^. s# Y, i+ \7 L! z
final approach normally extends from the base leg to
% x& a: g3 N* a) X5 cthe runway. An aircraft making a straight‐in approach
: l# v/ w0 f. j8 ?, N/ q, z kVFR is also considered to be on final approach./ [- D u% u4 S% X& h: m/ ?- t
(See STRAIGHT‐IN APPROACH VFR.)
3 z! \. b* q; c/ L1 {9 g(See TAXI PATTERNS.)
) `* y: T+ ~+ M5 C0 e. Q(See ICAO term AERODROME TRAFFIC
; Q( j9 |9 A# `, D, n( _CIRCUIT.)
* k' E% [( b5 X& }$ n(Refer to 14 CFR Part 91.)- b/ ?9 _7 B7 o* y, u
(Refer to AIM.)
4 E4 B0 b9 C7 J* n1 {TRAFFIC SITUATION DISPLAY (TSD)- TSD is a
6 J k) Q2 N# M3 p+ k; Z6 r7 Zcomputer system that receives radar track data from. z* t9 W% D a# `; L) b
all 20 CONUS ARTCCs, organizes this data into a# K, Z7 @% k. P6 W
mosaic display, and presents it on a computer screen.
; `! I( g% d1 g, V; Q; x! hPilot/Controller Glossary 2/14/08
- {7 p4 P% J7 z& ~+ J yPCG T-6* @0 h w' Y9 b* d
The display allows the traffic management coordina‐0 ?. q) r" S4 u5 G0 h. W
tor multiple methods of selection and highlighting of0 g2 d8 A+ O" b
individual aircraft or groups of aircraft. The user has+ {+ ?; k4 }/ g! j7 ]
the option of superimposing these aircraft positions! ^5 v9 q9 L2 w% k4 `
over any number of background displays. These
! x5 E5 i, ~+ Y0 _- Wbackground options include ARTCC boundaries, any
- F5 T" |) F; p" H! m$ b3 z# I4 gstratum of en route sector boundaries, fixes, airways,
! e9 _ j0 G# S$ ]military and other special use airspace, airports, and7 U7 v, G) [( [
geopolitical boundaries. By using the TSD, a7 e) C y6 i8 R/ t6 a6 }
coordinator can monitor any number of traffic9 ?) N2 r0 `" Q, Y6 v
situations or the entire systemwide traffic flows.- E" v. L; j! F' x
TRAJECTORY- A URET representation of the path, y" N. \- N3 o, t4 {
an aircraft is predicted to fly based upon a Current% r8 [1 l6 S! @
Plan or Trial Plan.
8 L- Y7 D, r2 L(See USER REQUEST EVALUATION TOOL.)/ D. A( f4 S: ]2 q' x; H) @
TRAJECTORY MODELING- The automated pro‐. J6 U5 k8 g( g4 y: z
cess of calculating a trajectory.* R( P' `5 x; L* P( A
TRANSCRIBED WEATHER BROADCAST- A5 W1 o* s& W# h d! O. v. I" u
continuous recording of meteorological and aeronau‐9 Y0 y5 h! m# u# [& ]- y6 U1 X
tical information that is broadcast on L/MF and VOR) \$ \! x0 j( c3 B6 F0 H
facilities for pilots. (Provided only in Alaska.)) l2 t. P& l' L4 y* w
(Refer to AIM.)" v9 k; m6 z6 N. n, s5 j4 m5 p
TRANSFER OF CONTROL- That action whereby
9 {9 t7 N% b$ u ]/ N& O1 K$ Z* ?" tthe responsibility for the separation of an aircraft is9 m- K5 A3 x6 ~; L3 |! n# U
transferred from one controller to another.8 Q# G. i, m: ?$ N7 Q0 X; R& W
(See ICAO term TRANSFER OF CONTROL.)0 B4 i$ b1 b/ l2 s' E- d/ t
TRANSFER OF CONTROL [ICAO]- Transfer of+ @& r. M* ?* R3 i
responsibility for providing air traffic control service.
& U( _6 R1 f& b& @2 T7 NTRANSFERRING CONTROLLER- A controller/
* Y& P+ F. d! pfacility transferring control of an aircraft to another5 x( t' L) }* L! |/ v6 ` ~
controller/facility. D) S, C5 M6 R
(See ICAO term TRANSFERRING
9 c0 ?) o7 h- A: g, r; s/ _) zUNIT/CONTROLLER.)4 j" v: V1 i$ j# {+ G
TRANSFERRING FACILITY(See TRANSFERRING CONTROLLER.)
9 `- S( t7 t5 E3 t8 X7 t; uTRANSFERRING UNIT/CONTROLLER [ICAO]-
5 Z. J. |8 z+ VAir traffic control unit/air traffic controller in the
& K4 ? r0 C8 |! Zprocess of transferring the responsibility for0 \( D4 p8 A5 Z! P1 X+ Q' y. x
providing air traffic control service to an aircraft to @" W! [. P/ B4 J' {
the next air traffic control unit/air traffic controller8 Q- g ^" N4 ^; [* T
along the route of flight.) |; c# j. P- b2 F5 Q4 D: z
Note:See definition of accepting unit/controller.
9 H8 E; w9 [# e+ x6 r/ U, UTRANSITIONa. The general term that describes the change from
6 p5 S. y8 ?2 F \ i# eone phase of flight or flight condition to another; e.g.,5 d$ ^0 T& n/ }3 _6 f
transition from en route flight to the approach or
1 B* |7 q) S8 \transition from instrument flight to visual flight.8 ^, q. `, U8 h5 Q V: W
b. A published procedure (DP Transition) used to# E- n/ j* _! Q( ? Q, M# V
connect the basic DP to one of several en route
/ h" o V8 }) P. c2 O) `1 Hairways/jet routes, or a published procedure (STAR
! i! P+ Z/ x0 D4 o( j. R# [& vTransition) used to connect one of several en route* M1 X7 w* {2 ]; g$ v9 D
airways/jet routes to the basic STAR.5 M2 `) ]# q% D1 B0 a/ q- s- W
(Refer to DP/STAR Charts.)8 j$ P& N; }$ d6 P. I9 l) K
TRANSITION POINT- A point at an adapted# K6 B t: V, n$ A8 N1 s
number of miles from the vertex at which an arrival" J( ~7 M/ Y- ]# V! L
aircraft would normally commence descent from its
+ X1 N9 u9 t( K' m- een route altitude. This is the first fix adapted on the
7 W: ~4 U, |' v) F3 Marrival speed segments.: C% e" Y$ g4 \9 U) a" R
TRANSITION WAYPOINT- The waypoint that
: S/ N; a& r9 v0 t( Z5 pdefines the beginning of a runway or en route% U j8 @7 x* {0 `& S
transition on an RNAV SID or STAR.
+ L7 v8 e8 K5 Q. e# i& i" _TRANSITIONAL AIRSPACE- That portion of8 Q5 ? M% `% E$ v# k8 x
controlled airspace wherein aircraft change from one7 }! S" `4 h b1 g
phase of flight or flight condition to another./ J: _* e) n" U( i: |
TRANSMISSOMETER- An apparatus used to* i! n- A$ ^4 Y' b' ~. Y( D n
determine visibility by measuring the transmission of
! |) j" ?& D m3 flight through the atmosphere. It is the measurement3 t7 q! V4 X+ L2 @
source for determining runway visual range (RVR)
3 M% H0 V9 J0 x/ B- n. |and runway visibility value (RVV).: d5 T( o l+ u! v( ]; M
(See VISIBILITY.)0 z: j3 d% ]' J1 c& {5 L* F' l
TRANSMITTING IN THE BLIND- A transmis‐
2 N, b% e% p" E, h$ Zsion from one station to other stations in
, L- f0 ?, E4 m4 d& i9 a& y# Scircumstances where two‐way communication5 ~$ c6 F: k7 ?8 @- g
cannot be established, but where it is believed that the
4 T: {! e. w1 ccalled stations may be able to receive the( [% q- m! m( d8 X5 n- h3 G, ~
transmission.
! p% M" V3 V3 E' b. p% v, |7 \TRANSPONDER- The airborne radar beacon
# B$ O w8 k/ D, Breceiver/transmitter portion of the Air Traffic Control& ?7 I! v# W: o/ [$ v2 X
Radar Beacon System (ATCRBS) which automati‐
* o1 n& K; y. u j( w6 n! Z; N+ Y- \ ccally receives radio signals from interrogators on the' \0 R2 o+ o1 A, y6 `
ground, and selectively replies with a specific reply
5 ?- R' E$ [" p* I& \ J6 N4 apulse or pulse group only to those interrogations, \- C+ A# L: g
being received on the mode to which it is set to
, a3 H: C/ y- y7 y# [- \respond.
9 g/ w$ m5 G5 K# y+ Y, |8 v4 k, V(See INTERROGATOR.) ]+ t& C# S+ V9 p, ^: B$ ~) D
(See ICAO term TRANSPONDER.)
$ J2 ]- C2 l# p( c(Refer to AIM.)
% y; p$ ]& V; dTRANSPONDER [ICAO]- A receiver/transmitter- i7 k- R5 y0 k% x& R8 E- v% i
which will generate a reply signal upon proper
2 a! D+ S! {% t. `+ F7 }interrogation; the interrogation and reply being on( e9 _: t/ G8 e3 H6 M# y
different frequencies.
+ q: O* n; o3 H g" rTRANSPONDER CODES(See CODES.)
/ m0 r% n! M" C: ]: T# j4 JPilot/Controller Glossary 2/14/08/ ?. D2 q! W: O% x5 n; F
PCG T-7- W2 O2 W4 X/ F8 ?/ y0 D; K- V
TRIAL PLAN- A proposed amendment which: |* ~7 Y Y5 W3 [" {
utilizes automation to analyze and display potential; H& r4 K2 G$ U/ Y0 |% e. S- e
conflicts along the predicted trajectory of the selected
3 Z, S/ ]' \/ U3 T8 L. Naircraft.
/ R% d+ g* m3 \7 kTRSA(See TERMINAL RADAR SERVICE AREA.)+ {. P8 {* s* ]6 B0 ~
TSD(See TRAFFIC SITUATION DISPLAY.)
: ^0 o, ^# h3 M- j( {TURBOJET AIRCRAFT- An aircraft having a jet$ K9 Y! R$ r0 Q8 _
engine in which the energy of the jet operates a
5 b" n# A) Z- fturbine which in turn operates the air compressor.
3 Q) b. w3 L+ eTURBOPROP AIRCRAFT- An aircraft having a jet0 g! ?6 M) z2 [ n; @) w" s
engine in which the energy of the jet operates a0 M$ `+ s! d; d9 O( i/ a' J( L
turbine which drives the propeller. B" K0 m% K; [
TURN ANTICIPATION- (maneuver anticipation).; m9 H5 C( d+ l6 t/ M& m( H
TVOR(See TERMINAL‐VERY HIGH FREQUENCY
/ p& N, N0 }4 JOMNIDIRECTIONAL RANGE STATION.): Q0 B: U& p8 B+ ?( k+ q
TWEB(See TRANSCRIBED WEATHER BROADCAST.)
& G( s( z2 Y8 q9 _2 a3 @5 sTWO‐WAY RADIO COMMUNICATIONS FAIL‐( @- h. i$ f: X5 V2 j/ P- v
URE(See LOST COMMUNICATIONS.)* V5 H! P8 ~: m5 Q) h' P* o3 x
Pilot/Controller Glossary 2/14/08; N- o' `0 L- b
PCG U-1
2 F$ A) p9 }/ G' z; K" Z$ ?! cU4 `4 l! }2 j, O& W
UDF(See DIRECTION FINDER.)
7 N8 w9 N# e q# c5 AUHF(See ULTRAHIGH FREQUENCY.)7 Z; w9 h- B% {) R, F/ O
ULTRAHIGH FREQUENCY- The frequency band. [% t( y6 H. [% u. I" ?
between 300 and 3,000 MHz. The bank of radio
' _# s$ ^" k% J* X7 Tfrequencies used for military air/ground voice
. w( z& l5 G, q1 m! x3 ecommunications. In some instances this may go as
$ z3 Y( ~% d1 W* b, Zlow as 225 MHz and still be referred to as UHF.1 t0 u5 f. L, A- b
ULTRALIGHT VEHICLE- An aeronautical vehicle
# a4 t4 F/ g) I; [$ Toperated for sport or recreational purposes which
7 f7 e- ?( K5 r9 ?does not require FAA registration, an airworthiness
+ m: H1 r7 ]" k1 f8 E% Ycertificate, nor pilot certification. They are primarily' R* o) B6 M8 \5 P: T" m1 ~2 H* L
single occupant vehicles, although some two‐place
7 c. |6 t1 O2 R5 O: Cvehicles are authorized for training purposes.5 ^, u9 N" Y* ~7 Z7 s) J$ i8 ^ G
Operation of an ultralight vehicle in certain airspace9 B" J2 |8 v: P2 w* v0 ]
requires authorization from ATC.
6 j* s5 _" d5 v0 E, s6 i4 Q% s(Refer to 14 CFR Part 103.)' k1 b" Y% v% C, l
UNABLE- Indicates inability to comply with a
6 F& E! J( J9 J5 z3 ^$ U. {( sspecific instruction, request, or clearance.0 n+ v! _* t! d8 I, K
UNASSOCIATED- A radar target that does not
+ y9 h: K7 z4 O; F8 Ydisplay a data block with flight identification and# g! `6 k a8 z
altitude information." h0 e( R6 q( u8 R" O; H- L
(See ASSOCIATED.)
" W: N, j/ Z J6 i% mUNDER THE HOOD- Indicates that the pilot is- X. N3 j& Q4 G& Q6 U# |
using a hood to restrict visibility outside the cockpit6 P' v- f) k7 ]# Y3 g& ?0 K" T) k e
while simulating instrument flight. An appropriately
+ Q. j3 z! Q2 f+ w! n) B; Brated pilot is required in the other control seat while) U6 P" n- |; ]8 @
this operation is being conducted.7 v% H) M9 H# I& j$ Z H
(Refer to 14 CFR Part 91.)
, _: h8 O$ V( |. {2 UUNFROZEN- The Scheduled Time of Arrival (STA)
2 H$ V5 S# G3 rtags, which are still being rescheduled by traffic
* ?1 ^" |9 i$ g2 t! `$ F* }management advisor (TMA) calculations. The: s+ n' H" J, o$ J
aircraft will remain unfrozen until the time the
4 {7 [3 y" p7 S% V% k+ ncorresponding estimated time of arrival (ETA) tag2 X& O* C8 J; h3 H9 }1 c9 A- a0 s! e, G% c
passes the preset freeze horizon for that aircraft's
7 `9 a# e. `3 D2 Astream class. At this point the automatic rescheduling
' p l* h# D/ M) Iwill stop, and the STA becomes “frozen.”
4 U7 B/ G0 e9 G- SUNICOM- A nongovernment communication facil‐
1 M9 \# |! U: O8 I9 b2 Eity which may provide airport information at certain: g6 Y& m+ w+ J
airports. Locations and frequencies of UNICOMs are
$ I, s5 Q$ V! q& ~$ g4 wshown on aeronautical charts and publications.. r4 M- E1 p! @3 R0 E4 w
(See AIRPORT/FACILITY DIRECTORY.)
! F* s& r$ T6 I! R4 ` j4 _$ }(Refer to AIM.)/ z$ J( X' l, u1 D
UNPUBLISHED ROUTE- A route for which no
" i O) p5 M- |- O. Ominimum altitude is published or charted for pilot2 @9 d0 a& [: \% ?$ C) a
use. It may include a direct route between NAVAIDs,
1 v& E; W1 j; C, B! s1 f4 V- ua radial, a radar vector, or a final approach course
6 v8 l- M3 U; G. v0 c# t8 Xbeyond the segments of an instrument approach: j: Q0 I3 s- [! j; }
procedure.: \8 I0 a6 L' `3 M* n. U
(See PUBLISHED ROUTE.)5 G2 S, w' k+ w3 m. Y
(See ROUTE.)
$ C, o0 J) Z' r9 P1 Z1 n8 aUNRELIABLE (GPS/WAAS)- An advisory to
3 G4 C+ A& n& [2 wpilots indicating the expected level of service of the
& g3 V" g! [, }" Z' y7 l: mGPS and/or WAAS may not be available. Pilots must
, t! d0 m% a: B1 ythen determine the adequacy of the signal for desired
; X+ }! N# a; ~5 N; Euse.
! L7 ?* W7 F- C! c% r9 `UPWIND LEG(See TRAFFIC PATTERN.)1 |( O1 n4 s0 S( C" G7 l
URET(See USER REQUEST EVALUATION TOOL.)* t. a7 {' Q" t3 z
URGENCY- A condition of being concerned about
# T8 n U+ D8 V$ ?% tsafety and of requiring timely but not immediate
, z& d5 `5 v. R& W" E2 ?assistance; a potential distress condition.
* u0 |% m6 c6 c, m(See ICAO term URGENCY.)" G. E! g C6 f' a1 B# H
URGENCY [ICAO]- A condition concerning the$ l( d/ P, P* J) h7 d! l0 s
safety of an aircraft or other vehicle, or of person on- a6 S2 W0 h* s6 ^2 ?5 |, X: j# [
board or in sight, but which does not require
( d; ], R2 D0 y6 Q) ?( h5 R# e3 yimmediate assistance./ v1 F+ C' N" f/ { a$ I' A, r
USAFIB(See ARMY AVIATION FLIGHT INFORMATION
6 f) C5 `$ ]- P TBULLETIN.)
" G( H7 i# O; q0 y bUSER REQUEST EVALUATION TOOL (URET)-
& Y& {4 g0 V: p3 s( d5 FUser Request Evaluation Tool is an automated tool4 U, b7 B' Q7 b% V+ g! i
provided at each Radar Associate position in selected% R) ]: ?/ Q9 }$ Q6 n9 g7 `" O; c
En Route facilities. This tool utilizes flight and radar
5 r' w7 m P H( E9 t0 v: J6 }data to determine present and future trajectories for
' o$ P' _6 J4 hall active and proposal aircraft and provides
: y3 G: e$ b C* S$ D/ d- z9 kenhanced, automated flight data management.
# ^; [. m% E' n. sUVDF(See DIRECTION FINDER.)
~' g6 f) q5 J. O+ p7 _ B( rPilot/Controller Glossary 2/14/08
) X& ]: w+ s- o0 }, zPCG V-1
! K; d2 Q- H9 q; m2 n3 T! YV
. u& q7 t" f& y e4 K; E" Y6 P: C vVASI(See VISUAL APPROACH SLOPE INDICATOR.)
1 n3 r7 H8 H6 C+ c- s, H8 vVCOA(See VISUAL CLIMB OVER AIRPORT.): q$ J. y9 u7 p4 Q- C
VDF(See DIRECTION FINDER.)
- M5 i4 w+ e0 \4 C) T e: K8 OVDP(See VISUAL DESCENT POINT.)# O* ~9 V: `0 S5 v
VECTOR- A heading issued to an aircraft to provide
" {- l+ z/ _! j# O. Tnavigational guidance by radar.
" V; ] q( `: r* Y(See ICAO term RADAR VECTORING.)9 Y7 O( r' g1 k% [
VERIFY- Request confirmation of information;
7 Z$ N, E0 o* m3 ze.g., “verify assigned altitude.”
# @5 u" A; S2 \6 tVERIFY SPECIFIC DIRECTION OF TAKEOFF
_. x. \ E0 G, t8 Z- i: N(OR TURNS AFTER TAKEOFF)- Used by ATC to& s: [1 A$ p% c6 v
ascertain an aircraft's direction of takeoff and/or
0 H9 Q& d! i0 r, Zdirection of turn after takeoff. It is normally used for
! l. f( F5 D, o; _0 ]* d1 @8 p1 kIFR departures from an airport not having a control# S7 _& e# V% R, k$ ]* B
tower. When direct communication with the pilot is( c7 [$ ~: B$ N: h6 D' l
not possible, the request and information may be/ [8 u2 k2 g5 Z+ ]! T+ z
relayed through an FSS, dispatcher, or by other' _, n' q, H$ G( \
means.
) E. Y6 ^5 }" a$ a(See IFR TAKEOFF MINIMUMS AND
) R; ~- z. l7 k' l& g& M! [0 KDEPARTURE PROCEDURES.)$ } Y X. P. q5 ?" v4 R: k, t
VERTEX- The last fix adapted on the arrival speed
0 R, ]% Z, h1 C, @: ^7 usegments. Normally, it will be the outer marker of the
/ ]3 i3 a' Y1 N6 x0 i9 l; ]runway in use. However, it may be the actual) k# {5 M* D( Z3 Y, i0 e# }
threshold or other suitable common point on the
) U/ K# A a2 s7 Mapproach path for the particular runway configura‐- @: w( O! [5 U; ]/ F1 N4 W
tion.* d A3 R$ W$ @" E1 r. h! f8 _
VERTEX TIME OF ARRIVAL- A calculated time of
4 @% ]5 S1 x0 Faircraft arrival over the adapted vertex for the runway; C' H( f' s; x+ E8 E: g6 ^4 Y
configuration in use. The time is calculated via the) \2 `! x n! h
optimum flight path using adapted speed segments.
l6 P A- \ P1 j& s7 j# k& P0 ^- hVERTICAL NAVIGATION (VNAV)– A function of
/ X/ V' B3 l' _! A2 Aarea navigation (RNAV) equipment which calculates,
; [: y& e5 R& ?) Ddisplays, and provides vertical guidance to a profile4 _- l! w" G/ l% H/ B0 R6 ^4 {
or path.
' S, p+ n: L9 G' x3 @" ^VERTICAL SEPARATION- Separation established' c" t* n9 q- L9 V N; d
by assignment of different altitudes or flight levels.; K# u: @# ~) r3 ^7 F4 F. [, T" ~
(See SEPARATION.)/ u! D# Y- n" u; N( K$ p0 |
(See ICAO term VERTICAL SEPARATION.)
: f- ?' s1 h9 t( _3 Z5 _: I& eVERTICAL SEPARATION [ICAO]- Separation
; R1 M6 Q. Q$ E& cbetween aircraft expressed in units of vertical7 E a- k4 | r& Y' F" a2 K. g% a
distance.- P1 q& C$ u2 T+ B4 h# ~2 i; B
VERTICAL TAKEOFF AND LANDING AIR‐; u+ r* V. [3 W1 q3 o
CRAFT- Aircraft capable of vertical climbs and/or
. H/ \* I( j9 f3 zdescents and of using very short runways or small4 \$ o$ N. a! f& l" {# ~8 G
areas for takeoff and landings. These aircraft include,
! e& Z- Z- B" m/ }; S) \but are not limited to, helicopters.
* C# g6 @. t7 H! y+ p(See SHORT TAKEOFF AND LANDING
$ D6 E9 ]* E- G n% _, j3 G4 aAIRCRAFT.)$ k7 r4 G$ J' y( |; i2 L4 c' A0 U: V
VERY HIGH FREQUENCY- The frequency band6 z+ \2 C6 h8 N- i2 h
between 30 and 300 MHz. Portions of this band, 108. N* x# q# o* [' R2 ~# [
to 118 MHz, are used for certain NAVAIDs; 118 to2 ^' W- P5 _+ n
136 MHz are used for civil air/ground voice' y* m' U+ C6 X, z( Y1 X
communications. Other frequencies in this band are
: d6 V( j& S, z: k" [ y2 J0 [0 Tused for purposes not related to air traffic control.
9 V, C: h; J) _6 l7 ?; AVERY HIGH FREQUENCY OMNIDIRECTION‐& P$ }/ d5 f& v- z
AL RANGE STATION(See VOR.)! K) l4 K7 u2 ?4 T
VERY LOW FREQUENCY- The frequency band
5 h, u; w8 ?0 }1 v2 Y9 P; Hbetween 3 and 30 kHz.
7 V) z8 Y! _- D) j7 {9 iVFR(See VISUAL FLIGHT RULES.)" {5 Z8 J, I: r# \' M! j
VFR AIRCRAFT- An aircraft conducting flight in
4 l& l, `, _! N( n9 T& faccordance with visual flight rules.
- C9 T( x3 W8 E( B$ t$ N(See VISUAL FLIGHT RULES.)
/ g! j4 n$ o8 O* g' `/ I* C: z/ |VFR CONDITIONS- Weather conditions equal to
; d% c3 J! y+ ~8 N7 H& T( Ior better than the minimum for flight under visual& C7 a( Z# i( P% a P
flight rules. The term may be used as an ATC9 h+ O4 q5 v1 V* @$ `4 {3 f
clearance/instruction only when:
5 _& J2 Q9 ?' c6 e2 I' t' Qa. An IFR aircraft requests a climb/descent in, ^6 j! u0 q5 j1 I5 p) \
VFR conditions./ ~( z l( x, l5 n# F) w
b. The clearance will result in noise abatement
9 k D0 I9 V2 h" n2 Vbenefits where part of the IFR departure route does' m+ m5 r; V, R: ]& J) s
not conform to an FAA approved noise abatement
4 |7 u4 }6 P% F1 X) N1 croute or altitude.
. D" g% a$ P' V- k |c. A pilot has requested a practice instrument
% R0 z. d$ ^0 G1 tapproach and is not on an IFR flight plan.% F* F8 @# U7 Q
Note:All pilots receiving this authorization must
' X! T$ y* v4 O- T Gcomply with the VFR visibility and distance from7 C4 o* R1 w1 [0 G3 b6 Q+ G
cloud criteria in 14 CFR Part 91. Use of the term
. h5 V: K6 ^1 T: n# a) [+ Gdoes not relieve controllers of their responsibility to8 H. Z" x% o& ]! w; @! T- ~
separate aircraft in Class B and Class C airspace1 X+ n4 K0 e |& H. w6 O2 q' v# ]) G
or TRSAs as required by FAAO JO 7110.65. When1 q, I6 w$ h( C, K$ `6 [' }$ n, V
Pilot/Controller Glossary 2/14/08" f) e! `5 p3 W4 X
PCG V-2' P2 A# V8 S& Q6 ]$ f: O3 k
used as an ATC clearance/instruction, the term) Z c) @+ o+ W( t
may be abbreviated “VFR;” e.g., “MAINTAIN. I( Q+ r& I$ _7 q u2 C5 l
VFR,” “CLIMB/DESCEND VFR,” etc.' e5 w' E' ^: `8 r
VFR FLIGHT(See VFR AIRCRAFT.)0 v! d" ^+ @$ {9 m6 q! ?
VFR MILITARY TRAINING ROUTES- Routes
% X, ~7 h& a0 {& d; eused by the Department of Defense and associated) ^$ e' H5 C' Y" N! B+ p3 W' ~ {
Reserve and Air Guard units for the purpose of
9 Y! e+ u5 ?% N$ o3 i; j) kconducting low‐altitude navigation and tactical
5 f$ Z& J% [7 C* Straining under VFR below 10,000 feet MSL at
* e: I5 K* q# G' Mairspeeds in excess of 250 knots IAS.: u, s& |) M9 A P8 W e
VFR NOT RECOMMENDED- An advisory
; }& D( V$ u: b# @) uprovided by a flight service station to a pilot during
/ z. t5 f6 \; S9 Q+ x3 C0 {$ D; \# ha preflight or inflight weather briefing that flight" y% m% J0 @2 S5 ]3 U6 z
under visual flight rules is not recommended. To be- x6 @) W& B6 K
given when the current and/or forecast weather" I. Q0 G& T: I4 {1 O
conditions are at or below VFR minimums. It does
6 X9 `! l' P4 ^& y- v# |not abrogate the pilot's authority to make his/her own
2 m2 `% q+ W( D- o5 ~decision.
# q* `8 G, y6 uVFR‐ON‐TOP- ATC authorization for an IFR; h1 |+ @- q5 t- s, Y7 ^
aircraft to operate in VFR conditions at any
+ h; q8 n4 z" {2 f* Vappropriate VFR altitude (as specified in 14 CFR and2 b( C+ m& O8 f$ j: h8 I" H+ S6 n1 j
as restricted by ATC). A pilot receiving this& @4 \) X# ~4 ]8 v
authorization must comply with the VFR visibility,2 R7 E9 |* O7 E! }& K5 x
distance from cloud criteria, and the minimum IFR0 A* R" [$ i6 g" F- W
altitudes specified in 14 CFR Part 91. The use of this
$ n o: ^ E9 B: Dterm does not relieve controllers of their responsibil‐
1 B$ g7 V! d$ i( d9 C. ]ity to separate aircraft in Class B and Class C airspace0 I! v; q- S5 I8 A9 Z) ^! t
or TRSAs as required by FAAO JO 7110.65./ Z. A8 B7 s8 D; z' M( t
VFR TERMINAL AREA CHARTS(See AERONAUTICAL CHART.)
0 ~4 R6 X3 M$ ?. g; n8 \) KVFR WAYPOINT(See WAYPOINT.)
2 U. D1 x% B! s' \% O! G8 N, ^VHF(See VERY HIGH FREQUENCY.)
. N; x( A0 h3 JVHF OMNIDIRECTIONAL RANGE/TACTICAL0 E2 @! g1 `7 L' V# j
AIR NAVIGATION(See VORTAC.)' y) M* V) T0 J( l6 Q, f3 e8 t
VIDEO MAP- An electronically displayed map on x) }% y5 k# t8 R. Z/ i4 p8 Q
the radar display that may depict data such as airports,0 H F* f8 y: \# Q# Z1 B4 w: w
heliports, runway centerline extensions, hospital
& _$ s* o* s! J9 k7 p# memergency landing areas, NAVAIDs and fixes,
- i! V, P9 l" }, T2 [reporting points, airway/route centerlines, bound‐
" n4 v5 e5 Q. V) v- ^ Q& E9 zaries, handoff points, special use tracks, obstructions,
. ]6 o- u4 i4 Qprominent geographic features, map alignment
6 @/ B- d+ g8 l. V1 C/ ]6 o* W ^indicators, range accuracy marks, minimum vector‐2 {4 q& w% I3 ]' f0 @9 A# H
ing altitudes.& ]1 C+ _6 D, W2 |. s0 Y% G
VIS IBILITY- The ability, as determ ined by$ W; i* c" t& o9 B; e+ B
atmospheric conditions and expressed in units of
, f0 j6 m6 B8 h7 }distance, to see and identify prominent unlighted
# w7 x4 i+ [" a/ O7 Uobjects by day and prominent lighted objects by0 t9 |5 l$ B5 `* ^- G
night. Visibility is reported as statute miles, hundreds- W, q7 K4 P r6 v4 _' G' K
of feet or meters.7 y3 |; v) V8 ]" U
(Refer to 14 CFR Part 91.)5 M. L$ K( x- z7 z! |
(Refer to AIM.)
9 h" `5 A2 W9 y3 c- @/ s- p+ da. Flight Visibility- The average forward horizon‐6 i! z0 R: K6 M6 }' H
tal distance, from the cockpit of an aircraft in flight,- f7 H" I7 r, V" g/ A# _5 P+ u+ d
at which prominent unlighted objects may be seen8 n: L- ^5 D" @
and identified by day and prominent lighted objects! F, C4 ~, Y8 l; t& |" Z
may be seen and identified by night.3 W' t# w f! ]) R
b. Ground Visibility- Prevailing horizontal visi‐+ K5 C2 M; Y: K$ e
bility near the earth's surface as reported by the
/ e# ~) M, M3 m. iUnited States National Weather Service or an
d5 C4 m3 ~# p2 jaccredited observer.
# |% [& |2 ?: x+ Sc. revailing Visibility- The greatest horizontal2 x% _& M3 ]5 d9 e0 C7 z
visibility equaled or exceeded throughout at least half! |) B' ^) J& }. o
the horizon circle which need not necessarily be
! ~0 ~+ v" K! i" _- J: z# Ocontinuous.
6 N7 L) _; r: Qd. Runway Visibility Value (RVV)- The visibility0 a" A0 f3 S1 w/ u7 a' L
determined for a particular runway by a transmis‐+ }8 e/ ^( X! L% u8 ^
someter. A meter provides a continuous indication of& `: _* L, g* T" m5 A0 M& Z$ Y: U
the visibility (reported in miles or fractions of miles)0 Z6 |/ m# U# O8 V. i% W' b3 b
for the runway. RVV is used in lieu of prevailing
( @, i3 v( v+ e2 L" u" [1 z6 D" _! jvisibility in determining minimums for a particular5 j6 \0 Y* g M! I$ ]0 R' ~
runway.
, n( H9 x8 S' ^8 O* @* U8 T! f1 Q+ ge. Runway Visual Range (RVR)- An instrumen‐" l5 K t# |0 B, Q# N C8 r" d2 L
tally derived value, based on standard calibrations,
5 a/ P, b" }5 K& \) ~! W7 N, M- _that represents the horizontal distance a pilot will see
& F. B; F1 \4 b- wdown the runway from the approach end. It is based1 v+ @) s B& X% G# O
on the sighting of either high intensity runway lights
* g! y" U# T# n9 \or on the visual contrast of other targets whichever
: D- J5 ]3 [ qyields the greater visual range. RVR, in contrast to# M6 B7 v6 i% m; }+ q
prevailing or runway visibility, is based on what a) X* j+ r& X7 ?$ c$ W7 X! s
pilot in a moving aircraft should see looking down the
4 M* f. a5 Q# d6 S. V, o5 nrunway. RVR is horizontal visual range, not slant( Y$ c% `* s$ F* Z4 K7 E( }
visual range. It is based on the measurement of a
" k0 B2 J3 I' ztransmissometer made near the touchdown point of
) W/ ^5 T& Y% Q Jthe instrument runway and is reported in hundreds of
# [) E2 D3 h9 B5 p7 [: y- j# ^feet. RVR is used in lieu of RVV and/or prevailing
9 g- A9 ]$ F8 k7 r" d% ^# Evisibility in determining minimums for a particular, m! G- ^' i9 p# S9 |( ^, M% w
runway.
4 y# X0 J& t& n2 B1. Touchdown RVR- The RVR visibility
) U8 b/ h. \( ~: ^readout values obtained from RVR equipment
6 h, y& Y( U @ pserving the runway touchdown zone.& s1 u& [- e8 y, V( d! F. g
Pilot/Controller Glossary 2/14/08% Y( J7 V, c a+ U
PCG V-3' x* G+ h% Y/ s! Z2 i3 @! x
2. Mid‐RVR- The RVR readout values obtained* \/ F5 h5 c% h- {
from RVR equipment located midfield of the runway.
' j5 Y' M+ @ n" e+ S3. Rollout RVR- The RVR readout values
% M# w; D& w. b/ e# v" F6 z; U8 ~obtained from RVR equipment located nearest the" Y) e1 X. t: t2 |: `% m2 s
rollout end of the runway.0 P; `& k2 d' f( y7 F. k
(See ICAO term FLIGHT VISIBILITY.)0 q' S3 T& |) Q0 a/ `" y. _
(See ICAO term GROUND VISIBILITY.)
1 l/ R, M2 A1 U5 N" Q, S7 C' t(See ICAO term RUNWAY VISUAL RANGE.), X9 C0 A$ P: ^; B
(See ICAO term VISIBILITY.)1 p; R6 U1 D6 J$ s9 b( |
VISIBILITY [ICAO]- The ability, as determined by
@2 H5 ?; V& D* Gatmospheric conditions and expressed in units of Z5 W& A' i6 p# j9 q7 S
distance, to see and identify prominent unlighted' q$ g4 o- d/ r2 k2 a
objects by day and prominent lighted objects by( {4 D! h3 ~7 a8 Z2 Y
night.1 H6 v6 x* \. ~0 g. c9 ?
a. Flight Visibility-The visibility forward from. M. j: ^; O' @/ [
the cockpit of an aircraft in flight.
' s/ f& r, M3 k9 nb. Ground Visibility-The visibility at an aero‐
; a4 K9 O7 O; Sdrome as reported by an accredited observer.9 z- }% i* D' i+ e* J$ Z
c. Runway Visual Range [RVR]-The range over
( a+ H+ ~' G# r6 owhich the pilot of an aircraft on the centerline of a
6 p* u$ l4 j$ c. m- w/ y+ i5 vrunway can see the runway surface markings or the4 x( i s" z' ~
lights delineating the runway or identifying its1 ?5 f) M4 V' q/ z4 r, A" o
centerline.& |2 w K4 w- k' Z& {4 G
VISUAL APPROACH- An approach conducted on5 _; u4 M' j! S' C- X5 I
an instrument flight rules (IFR) flight plan which
/ y+ o$ U( R/ z- [& Gauthorizes the pilot to proceed visually and clear of
$ N* P4 J$ E9 A7 ^5 }clouds to the airport. The pilot must, at all times, have
- a" k1 m7 J# Zeither the airport or the preceding aircraft in sight., v" {, {4 [4 e5 _9 y* N
This approach must be authorized and under the
7 r [/ y- {8 |1 i8 wcontrol of the appropriate air traffic control facility.
) V! t( ?, [( {0 @Reported weather at the airport must be ceiling at or; |9 [% B0 C1 E8 ^# E
above 1,000 feet and visibility of 3 miles or greater.: k- W+ h" v, \. h V2 ?/ |6 u
(See ICAO term VISUAL APPROACH.)+ e# H! j7 d7 ]4 \
VISUAL APPROACH [ICAO]- An approach by an
& X0 K# i0 S7 U! T# K: \IFR flight when either part or all of an instrument
2 M/ Y5 h; s/ ^. X. D+ b/ W' ^approach procedure is not completed and the7 Y2 i' K4 t' k& I4 E9 I1 g
approach is executed in visual reference to terrain.& l% S! x# A9 u1 a8 x) V1 R
VISUAL APPROACH SLOPE INDICATOR(See AIRPORT LIGHTING.)- J( h+ a \) N) l, q
VISUAL CLIMB OVER AIRPORT (VCOA)- A3 |# r9 L& f" Q9 Z
departure option for an IFR aircraft, operating in
i$ C/ b" @$ @' D. r4 W; |- Nvisual meteorological conditions equal to or greater
d0 m. V3 e) O8 Z# Fthan the specified visibility and ceiling, to visually5 r# p2 t) p s5 I
conduct climbing turns over the airport to the- }5 d, T( S/ O' t* I$ `+ c, a
published “climb-to” altitude from which to proceed ^8 U% U* S+ a# b" y$ p" u1 n
with the instrument portion of the departure. VCOA" u$ {- J4 B2 c- Q0 L9 K! y& x
procedures are developed to avoid obstacles greater
8 U& a2 ~- ?8 y bthan 3 statute miles from the departure end of the
) W- d/ X' }! C5 ^$ z8 X" xrunway as an alternative to complying with climb7 g: \) p2 y" r- O
gradients greater than 200 feet per nautical mile.: a/ O a5 L. K* O! p
These procedures are published in the `Take-Off0 g; u. Z; n Y4 W) j- }) ]$ g8 |
Minimums and (Obstacle) Departure Procedures'. X9 i0 D7 v* {1 q, v) M- {9 ^
section of the Terminal Procedures Publications.
6 C# \* U: |) M. N5 Y0 g3 G(See AIM.)
[ \! J, Q7 l9 T9 n8 x6 x5 TVISUAL DESCENT POINT- A defined point on the8 Y* q2 t" n2 T6 D3 C8 S1 F
final approach course of a nonprecision straight‐in
! _& E% o' J1 g7 ]: mapproach procedure from which normal descent from6 x" h: l. }6 c9 a6 x( O
the MDA to the runway touchdown point may be' s' j" g6 c) A: N8 Z
commenced, provided the approach threshold of that
; k8 a3 U4 {, o( ^5 ]runway, or approach lights, or other markings
. Q* ^& x9 W$ |& M& h; n9 jidentifiable with the approach end of that runway are
: E9 M& B. Y- rclearly visible to the pilot.
5 o1 b/ m, s+ } {- pVISUAL FLIGHT RULES- Rules that govern the6 o5 ?2 e' r- \) ]! ~
procedures for conducting flight under visual
2 [) T& w9 i) n+ D- b; |6 vconditions. The term “VFR” is also used in the
g" J3 q0 w! M% gUnited States to indicate weather conditions that are
0 `! \+ Z# D5 a6 m6 J( Jequal to or greater than minimum VFR requirements.
+ O! W% ~/ J- _6 \In addition, it is used by pilots and controllers to
: l6 ]' w8 e) _! o4 U: n$ d: cindicate type of flight plan.
, C2 Z5 B, P& Q5 @" w1 ^/ _. T* q(See INSTRUMENT FLIGHT RULES.)
; Z! r# P4 N: K9 R8 t3 [* u _(See INSTRUMENT METEOROLOGICAL' {& ?2 J" ]6 ]8 Q2 b% r. f) e6 N- L
CONDITIONS.)" A1 ~& @6 C5 q H- b9 w. y; [& V. x
(See VISUAL METEOROLOGICAL$ V- j* w$ s p; J" c9 V8 o
CONDITIONS.)' k" v& V+ [& B" X9 l
(Refer to 14 CFR Part 91.)& N& x9 B8 n/ R3 j: p( u1 |% z
(Refer to AIM.)
3 i5 n) @3 e! `- }# W. F, ^VISUAL HOLDING- The holding of aircraft at' R; i) T1 B$ a* [3 v2 r
selected, prominent geographical fixes which can be; Q- r, }' k; K* f9 @! f
easily recognized from the air.
( J2 ?0 \7 D& h(See HOLDING FIX.)9 V3 \) c' ~1 c; Z$ M: E% X* k
VISUAL METEOROLOGICAL CONDITIONS-
% e7 [# F, z1 K# f9 ^. ]Meteorological conditions expressed in terms of! q' K1 K$ c h) W q9 S
visibility, distance from cloud, and ceiling equal to or+ H6 X6 D7 @% T. Q' U( P$ w
better than specified minima.
% T3 ^: h: O9 U$ X. E(See INSTRUMENT FLIGHT RULES.)" K" g8 f2 h7 p' G. K7 f- O! K& A
(See INSTRUMENT METEOROLOGICAL
2 Z6 @4 k9 [7 R' m9 |" SCONDITIONS.)4 r5 i# v0 I: [) P9 r, i9 t
(See VISUAL FLIGHT RULES.)
; d w# m: ?: u4 e+ R9 f1 O" hVISUAL SEPARATION- A means employed by3 r: _" g d- ?9 {# I- j; @7 z4 `
ATC to separate aircraft in terminal areas and en route
. Y1 Y# x: u+ d: Mairspace in the NAS. There are two ways to effect this# o: z$ w0 g( L2 I- U
separation:
' u( i B4 m0 W' z6 y% Z9 `9 I% ia. The tower controller sees the aircraft involved* z. s% b5 S* W1 j8 v# Y
and issues instructions, as necessary, to ensure that6 \2 P# A+ ^% e" N' a. W8 I
the aircraft avoid each other.* M- b; B8 }$ d& E) n7 K) B
b. A pilot sees the other aircraft involved and upon
8 M; Q6 U/ I. }instructions from the controller provides his/her own
. y7 G* T Y9 k% K; x2 \Pilot/Controller Glossary 2/14/08
: _0 m5 D4 ?0 Y7 G- [1 QPCG V-4+ Y7 w L$ d& `; T0 j) | H1 k9 ?
separation by maneuvering his/her aircraft as, W' {7 o: o" Z2 o: B2 R2 C( M
necessary to avoid it. This may involve following$ n2 X1 S& S+ ]! K
another aircraft or keeping it in sight until it is no
3 p$ y' `5 \9 Y* P" T( qlonger a factor.
. u, v6 ~0 O9 K(See SEE AND AVOID.)
% M) Z( j6 Y$ H/ @(Refer to 14 CFR Part 91.)/ V3 `" } z% R, S- O, x5 Y8 M
VLF(See VERY LOW FREQUENCY.)" I1 ?# O$ X% p- P4 y- U2 B
VMC(See VISUAL METEOROLOGICAL6 P9 t8 f' v% Q
CONDITIONS.)9 {: z2 f5 c4 g3 \* n) @* @
VOICE SWITCHING AND CONTROL SYSTEM-
. R- D4 ?. y7 a1 ^! `5 i8 IThe VSCS is a computer controlled switching system- y: i, y9 @, s, ?
that provides air traffic controllers with all voice
/ b# f! b8 }: q7 Bcircuits (air to ground and ground to ground)
0 F* _. u, f2 inecessary for air traffic control.& Z# U# ^& \% W" F- H9 g1 S$ p) o3 k
(See VOICE SWITCHING AND CONTROL& d2 D' y- y3 Y2 F& a9 d
SYSTEM.)
. ^& [( ^, c! h+ s U; T(Refer to AIM.)/ `5 f3 q) D K5 O Y( }( ]
VOR- A ground‐based electronic navigation aid$ C, a2 b# q4 W- Q
transmitting very high frequency navigation signals,9 P6 h) v* S; j. O1 a/ h
360 degrees in azimuth, oriented from magnetic7 I3 T0 u7 E: y K+ w$ T; f
north. Used as the basis for navigation in the National
s! D7 J: y3 b1 LAirspace System. The VOR periodically identifies
( i- ^$ T Y' U2 l# D! B) `' titself by Morse Code and may have an additional
: S" F1 M Y8 Gvoice identification feature. Voice features may be
/ h: U7 M1 g2 k# F) Dused by ATC or FSS for transmitting instructions/: ]3 f, i! l1 s% V3 j4 \/ Y
information to pilots.0 l5 D. u v% ^( [/ W* Y
(See NAVIGATIONAL AID.)
+ a8 i! d. D2 _6 ?8 e& S# J(Refer to AIM.)1 Y& ^9 \; k. _ _
VOR TEST SIGNAL(See VOT.)
9 [9 b! w. i4 E7 S* _VORTAC- A navigation aid providing VOR
% E/ S# }' l9 F! E% B: C: ^azimuth, TACAN azimuth, and TACAN distance2 t3 A+ C% B. M. z: X
measuring equipment (DME) at one site.* X; X2 _ V' o/ J7 m4 {
(See DISTANCE MEASURING EQUIPMENT.)
4 U# x& ^9 F# r& X(See NAVIGATIONAL AID.)) g# B0 w. ^, i& Q
(See TACAN.)
* ^5 x% t5 ~* l+ i) X% H(See VOR.)
* [" j7 i& {$ J% D/ D {* w(Refer to AIM.), l- O5 O D6 C4 ]" L X6 n
VORTICES- Circular patterns of air created by the
' f1 X! U" {0 ?- Y* p& ymovem ent of an airfoil through the air when( G, k$ ~ m8 Z% A _2 K0 B2 |$ Z
generating lift. As an airfoil moves through the) s2 u3 N Q# M7 ?
atmosphere in sustained flight, an area of area of low9 y4 ^8 Z: m4 y7 O0 f
pressure is created above it. The air flowing from the2 d2 z C. ?$ { D2 e
high pressure area to the low pressure area around and
, E( O; I( ~6 Q4 P* jabout the tips of the airfoil tends to roll up into two
' j" E# |$ C& M3 `$ h. O/ b$ a- mrapidly rotating vortices, cylindrical in shape. These
0 x- q' G/ S2 _2 z7 |vortices are the most predominant parts of aircraft9 q- R- q% r" d3 y" n o1 O
wake turbulence and their rotational force is
, m$ l" D2 _& I5 _- gdependent upon the wing loading, gross weight, and [# @* E& b- }4 d1 V0 g
speed of the generating aircraft. The vortices from
$ U1 F% A: @$ _9 J$ ?7 R: h' r8 Zmedium to heavy aircraft can be of extremely high$ L6 v2 h5 ^9 f5 k& p
velocity and hazardous to smaller aircraft.' Y$ {0 Z7 L5 i8 K/ k- W
(See AIRCRAFT CLASSES.)
, Y. C3 F. j9 l9 P5 u(See WAKE TURBULENCE.)
3 T0 n$ v# H( q* `, Y* t(Refer to AIM.)/ D9 W0 B% C5 V% x8 ~2 C$ i) y j% ?
VOT- A ground facility which emits a test signal to: q P z; @3 G# U, J
check VOR receiver accuracy. Some VOTs are
6 h* q. g @' {# I$ navailable to the user while airborne, and others are
1 ^5 x$ q% L( mlimited to ground use only.- y1 l- _6 U5 @$ i5 |0 s- R
(See AIRPORT/FACILITY DIRECTORY.)
8 }( A0 @; u: [) c( S6 }(Refer to 14 CFR Part 91.); c2 m+ y) {& D4 A4 p" s
(Refer to AIM.)1 j9 e6 z, f3 q( W
VR(See VFR MILITARY TRAINING ROUTES.)
' X, M# {; W, `6 A( R/ R$ UVSCS(See VOICE SWITCHING AND CONTROL* m" v' G& ~0 t+ O
SYSTEM.)* m! S4 {0 Q: k1 X
VTA(See VERTEX TIME OF ARRIVAL.): M5 I$ u& @" h- s
VTOL AIRCRAFT(See VERTICAL TAKEOFF AND LANDING9 g# z4 Z& F* Z" G
AIRCRAFT.)
; E9 X1 G8 m8 dPilot/Controller Glossary 2/14/08
/ h* H" H/ ?1 u, P! {PCG W-1: I- X* q- r7 g7 O* U/ O
W& h& J. T0 v$ q# P5 B3 X
WA(See AIRMET.)$ f4 s: I- O" v
(See WEATHER ADVISORY.)
3 o, \4 x2 s4 }6 w3 C: c) P# DWAAS(See WIDE‐AREA AUGMENTATION SYSTEM.)- O7 `3 u, M5 D1 o
WAKE TURBULENCE- Phenomena resulting from
6 Q* p: o, U F% F3 d* b% lthe passage of an aircraft through the atmosphere.) a5 D, e; P* x8 b3 c1 P
The term includes vortices, thrust stream turbulence,
7 M, t. T0 l8 M1 j7 r& [/ e1 gjet blast, jet wash, propeller wash, and rotor wash4 P* q0 ~3 s/ }$ g o& {! J0 ]
both on the ground and in the air.! J7 J6 G( F$ ]5 f3 }
(See AIRCRAFT CLASSES.)% U! T9 J; Q2 ]0 s2 Y9 l: Z' i
(See JET BLAST.)
* R9 \3 k: e, C6 m4 j+ Z* Y4 S(See VORTICES.)9 x8 S& O O6 Z; z) a
(Refer to AIM.)' h! ~$ E+ l5 h0 O/ h& l
WARNING AREA(See SPECIAL USE AIRSPACE.): _; t8 p( h6 B* V- l0 c8 S5 m* S4 J2 c
WAYPOINT- A predetermined geographical posi‐
8 n+ a/ Z* o% h w/ @tion used for route/instrument approach definition,; m& }* Q* W& `2 b+ \; E# T! Q
progress reports, published VFR routes, visual2 `, @% u* _' ^* k3 V. {/ |
reporting points or points for transitioning and/or2 {/ t; L/ [; O& V8 g5 B
circumnavigating controlled and/or special use
8 H6 Q" |; i+ zairspace, that is defined relative to a VORTAC station
w, ? d: w3 |/ }( A. For in terms of latitude/longitude coordinates.7 |. ?$ z7 a0 P3 Y1 B4 F4 P. H4 i5 D0 v
WEATHER ADVISORY- In aviation weather1 k* p: E% z! S4 a" i) g! j
forecast practice, an expression of hazardous weather
" L. g# A1 H% `6 {. Iconditions not predicted in the area forecast, as they. R& {/ V! K/ S. e- X
affect the operation of air traffic and as prepared by
, n; }* |, J& Q W) C, {the NWS.4 X8 p$ F8 ]5 Q* p- d3 S4 V
(See AIRMET.)
3 O+ `, {8 o+ ](See SIGMET.)
9 H/ t8 r/ I; l0 X) h9 w7 dWHEN ABLE- When used in conjunction with ATC6 c) R0 t4 i4 _+ X9 i
instructions, gives the pilot the latitude to delay2 g- U' h0 x# W5 z" K
compliance until a condition or event has been% U7 k% Z/ N2 U' ~( J
reconciled. Unlike “pilot discretion,” when instruc‐0 x# y! j% P$ `: D% z. E% \) @
tions are prefaced “when able,” the pilot is expected
% Q4 G# l, a+ D* z$ D; D0 lto seek the first opportunity to comply. Once a
! s5 I2 ^3 ^$ c9 q! Kmaneuver has been initiated, the pilot is expected to
& q- O: v, r4 X7 x1 l, G6 fcontinue until the specifications of the instructions& N$ z; q- v/ Z x
have been met. “When able,” should not be used" Q% i4 N0 I, B4 c3 r3 w
when expeditious compliance is required.& O4 d5 c' _1 N
WIDE‐AREA AUGMENTATION SYSTEM
& a! J! h; l5 S4 t8 ?(WAAS)- The WAAS is a satellite navigation system
# i* V! E& w7 W6 \9 Z4 Pconsisting of the equipment and software which
5 P7 d& J: G! j4 r' }1 V$ h, ^8 \augments the GPS Standard Positioning Service1 u8 M& r6 t) Y
(SPS). The WAAS provides enhanced integrity,, w$ }5 A$ y- k9 P ~% G$ \) ^
accuracy, availability, and continuity over and above9 [3 L1 s0 J( e; p: c( n
GPS SPS. The differential correction function2 V7 G4 v9 ~. N+ N! \1 U! w
provides improved accuracy required for precision
% K8 K6 M5 Q, @approach.8 y( A; h& X. _: M3 n: `
WILCO- I have received your message, understand
4 `; P Y/ r ^: G$ T/ Fit, and will comply with it.
7 q# U6 W. N% K1 `! C! O2 kWIND GRID DISPLAY- A display that presents the
3 N; |' ]7 U+ Z1 alatest forecasted wind data overlaid on a map of the
* r \# j5 A) P6 KARTCC area. Wind data is automatically entered and- T j; o- @- r2 t& d- j
updated periodically by transmissions from the* |2 W0 X* l2 m. P
National Weather Service. Winds at specific2 G L9 W9 f% S% N p
altitudes, along with temperatures and air pressure8 |% W- J; H% p' L- `/ g! I
can be viewed.; v5 Z2 W w' c; P
WIND SHEAR- A change in wind speed and/or wind' D: M( F$ A( o# p1 \
direction in a short distance resulting in a tearing or
& C7 y3 v0 r6 P) B0 f$ xshearing effect. It can exist in a horizontal or vertical
7 Q: r& T- Q% r/ odirection and occasionally in both.
; m" p k( o+ ]WING TIP VORTICES(See VORTICES.)
1 W5 [1 o' m4 jWORDS TWICEa. As a request: “Communication is difficult.
) U; M4 e& M3 h; {+ d+ MPlease say every phrase twice.”9 `: L9 R E1 o# {
b. As information: “Since communications are
8 p4 z" Z4 ~( E- Ldifficult, every phrase in this message will be spoken& Y) n9 L. X! I0 M" ^; Z' F- ^3 `
twice.”
7 _0 G% ]& [$ ^) w0 c% D+ N: O' y1 jWORLD AERONAUTICAL CHARTS(See AERONAUTICAL CHART.)
( I4 l6 K1 H$ K3 hWS(See SIGMET.); j2 s) T* K. L4 q7 Q; i5 |
(See WEATHER ADVISORY.): u) E; ~" U: S
WST(See CONVECTIVE SIGMET.)3 l- G( b* s! i2 d
(See WEATHER ADVISORY.) |
|