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Departures (17)

Callsign Dep Arr Status ETA
SVA42 KLAX OEJN Enroute 0904
FIN2 KLAX EFHK Enroute 1002
UAE216 KLAX OMDB Enroute 1546
TAP1212 KLAX LPPT Enroute 1007
VOZ2 KLAX YSSY Enroute 1443
N2PR KLAX Enroute 1312
UAL360 KLAX KDEN Enroute 1319
SWA2013 KLAX KSFO Enroute 1604
AAL2218 KLAX KSFO Enroute 1258
QTR35P KLAX OTHH Enroute 1718
DAL658 KLAX KSEA Enroute 1440
UAL916 KLAX KSLC Enroute 1600
N60US KAVX KSAN Enroute 1747
SWA1283 KLAX KLAS Enroute 1831
GTI1114 KLAX KSFO Enroute 1600
FFA524 KLAX KJFK Enroute 1600
LSP603 KLAX SCEL Enroute 1245

Arrivals (14)

Callsign Dep Arr Status ETA
DAL12 YMML KLAX Enroute 1000
ZLA777 PHNL KLAX Enroute 1043
UAL639 KBOS KLAX Enroute 1251
DLH452 EDDM KLAX Enroute 1304
UAL1963 KCVG KLAX Enroute 1259
JBU2223 KJFK KLAX Enroute 1258
KLM124 KLAS KLAX Enroute 1600
FDX1423 KSEA KLAX Enroute 1600
SWA4877 KSJC KLAX Enroute 1335
SKW3602 KSAN KLAX Enroute 2051
FDX754 KSEA KLAX Enroute 2150
UAL3915 KBUR KLAX Enroute 1841
BAW7D EGLL KLAX Enroute 1243
AAL1776 EGLL KLAX Departing

Los Angeles (SoCal) 31

Departures (2)

Callsign Dep Arr Status ETA
SWA3160 KONT KPHX Enroute 1551
UPS962 KONT KOAK Enroute 0317

Arrivals (1)

Callsign Dep Arr Status ETA
EJM680 KLNK KPOC Departing

Empire (SoCal) 3

Departures (7)

Callsign Dep Arr Status ETA
N921CR KSAN PHLI Enroute 1510
SWA2670 KSAN KLAS Enroute 1600
SWA534 KSAN KLAS Enroute 1600
SWA77Y KSAN KDEN Enroute 1315
SKW3602 KSAN KLAX Enroute 2051
UAL2475 KSAN KSEA Enroute 1600
BAW9SW KSAN EGLL Enroute 1600

Arrivals (3)

Callsign Dep Arr Status ETA
N33WF KSAN Enroute 0622
N60US KAVX KSAN Enroute 1747
NKS517 KPHX KSAN Enroute 1856

San Diego (SoCal) 10

Departures (1)

Callsign Dep Arr Status ETA
UAL2656 KSNA KDEN Enroute 1254

Coast (SoCal) 1

Departures (2)

Callsign Dep Arr Status ETA
UAL2854 KBUR KSFO Enroute 2049
UAL3915 KBUR KLAX Enroute 1841

Arrivals (2)

Callsign Dep Arr Status ETA
UAL2411 KDEN KBUR Enroute 1600
SWA4977 KOAK KBUR Enroute 1600

Burbank (SoCal) 4

Departures (15)

Callsign Dep Arr Status ETA
N152FJ KLAS KMSP Enroute 0319
HAL932 KLAS SKMR Enroute 0520
DAL2261 KLAS KMSP Arriving
DAL4271 KLAS KMSP Arriving
DAL1522 KLAS KMSP Enroute 0320
N440WM KLAS KMSP Arriving
UAL2456 KLAS KORD Enroute 0347
SCX106 KLAS KMSP Enroute 0428
KLM124 KLAS KLAX Enroute 1600
N604KE KLAS KMKC Enroute 0442
DAL2134 KLAS KSFO Enroute 1342
AAY12 KLAS KFAT Enroute 1338
HNT6629 KLAS KSFO Enroute 1243
VGK1 KLAS KRDU Enroute 1600
N986SA KLAS KRPX Enroute 2007

Arrivals (6)

Callsign Dep Arr Status ETA
SWA2670 KSAN KLAS Enroute 1600
SWA534 KSAN KLAS Enroute 1600
SWA1137 KBZN KLAS Enroute 1336
SWA1283 KLAX KLAS Enroute 1831
KAL5 RKSI KLAS Enroute 1943
AAL2230 KSFO KLAS Enroute 2111

Las Vegas 21

Departures (1)

Callsign Dep Arr Status ETA
WAT3650 KSBA KSMF Enroute 1322

Santa Barbara 1

Departures (1)

Callsign Dep Arr Status ETA
VEC410 KSGU KSEA Enroute 1709

Arrivals (1)

Callsign Dep Arr Status ETA
N995 KSLC KSGU Enroute 1600

Other 2
  • Flights To/From ZLA: 73
  • Flights in ZLA Airspace: 31
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    June 10th, 2026

    No sessions found for selected date

    Ok, I've read the METAR, now what does all that mean?

    At some point, whether you are controlling or flying, in the real world or the Flight Simulator world, you have read a METAR. But what do all those letters and numbers mean? This article is dedicated to all the pilots and controllers who have been scratching their heads wondering how to decode this mess.

    Well first off what is a METAR? A METAR is an Aviation Routine Weather Report, issued for an airport every hour. A METAR consists of several parts first of which is the station identifier, followed by the current date in time (UTC); the wind; visibility; weather elements; sky condition; temperature & dew point; atmospheric pressure and lastly the remarks.

    For this article we will use the following METAR as an example:

    KLAX 291950Z 22011G22KT 1/2SM R24R/2600FT RA BR SCT001 OVC005 10/09 A2992 REFG WS RWY24R RMK SF4NS8 SLP113

    Confused yet? Hopefully after reading this article you will have a much better understanding.

    To decode this METAR I will break it down into its individual parts, and explain each in detail:

    KLAX

    This is the easy part, the station identifier. In this example we will use Los Angeles.

    291950Z

    This is the date and the time the METAR was issued. In this case it was issued on the 29th day of the month at 19:50 zulu (UTC).

    22011G22KT

    This is the wind direction and speed. Here the wind is blowing from the southwest, 220 degrees at 11 gusting to 22 knots. Wind speeds of less than 3 knots are considered calm winds. Sometimes you will see VRB in front of the wind speed instead a direction. This indicates that the wind direction is variable. For example VRB05KT indicates that the wind direction is variable at 5 knots.


    1/2SM R24L/2600FT

    This is the visibility. In this example the 1/2SM indicates that the visibility is one half of a statute mile. The R24R/2600FT is the Runway visual Range or RVR for a particular runway, this is measured in feet. In this case the RVR for runway 24R is 2600 feet. RVR is measured with an instrument called a transmissometer. What is a transmissometer you ask? A transmissometer is a projector and a receiver on opposite sides of the runway. A known intensity of light is sent from the projector to the receiver. Any obscuring matter such as rain, snow, dust, fog, haze or smoke reduces the light intensity arriving at the receiver. The resultant intensity is then converted to an RVR value by a signal data converter. These values are displayed by readout equipment in the air traffic facility and is updated once every minute for controllers to issue to pilots. The RVR indication issued in the METAR is the average RVR over the last hour before the METAR was issued. As mentioned before the RVR is measured in feet, since there are 5280 feet in a mile, we know that an RVR reading of 2600 is approximetely half a mile. An RVR reading is only issued when the visibility is less than 1 mile.

    RA BR

    This is the weather elements section. In this example RA BR means rain and mist. I will list below all of the codes for the weather elements. The weather elements can be divided into three categories. Precipitation; obscuration; other. Also preceding any of these categories can be a descriptor. The intensity can also be indicated. A + preceding the precipitation means heavy, no sigh indicates moderate and a indicates light. For example RA indicates light rain. In the example above the precipitation is rain and the obscuration is mist, there are no other weather elements. Meaning there is rain falling and the sky is obscured in mist. Listed below are all the different weather elements:

    Descriptor:

    MI SHALLOW BC PATCHES SH - SHOWER

    DR DRIFTING BL BLOWING TS THUNDERSTORM

    PR PARTIAL FR FREEZING

    Precipitation forms:

    DZ DRIZZLE RA RAIN SN SNOW

    SG SNOW GRAINS PE ICE PELLETS GR - HAIL

    GS SNOW PELLETS IC ICE CRYSTALS UP UNKNOWN

    Obscuration forms:

    BR MIST FG FOG HZ HAZE

    SA SAND FU SMOKE DU DUST

    VA VOLCANIC ASH

    Other phenomena:

    PO DUST/SAND WHIRLS SS SAND STORM

    DS DUST STORM SQ SQUALLS

    +FC TORNADO/WATER SPOUT FC FUNNEL CLOUD

    SCT001 OVC005

    This is the sky condition; it is measured in hundreds of feet and is always in a three digit form. In the example there is a scattered cloud layer at 100 feet and an overcast layer at 500 feet. 050 would mean 5000 feat and 500 would mean 50000 feet, you get the point! Cloud layers in a METAR are shown as height above ground level or AGL. For the cloud layer to be considered a ceiling it must be either a broken or overcast layer. Sky condition is measured in 1/8s or oktas. Listed below are the codes for the various sky conditions:

    SKC Sky clear or no cloud present.

    FEW Sky is less than 2/8s covered with cloud.

    SCT Sky is 3/8s 4/8 covered with cloud.

    BKN Sky is 5/8s 7/8s covered with cloud.

    OVC Sky is 8/8s, or completely covered with cloud.

    10/09

    This is the temperature and dew point and it is measured in degrees Celsius. The temperature always comes before the dew point. In this case the temperature is 10 degrees and the dew point is 9. If the temperature or dew point were below 0 degrees than it would be preceded by an M, so a temperature of minus 10 would read as M10. We all know what temperature is but what is dew point and why is it important? Well the dew point is the point to which the air has to be cooled to for 100% saturation to occur, meaning if the temperature and the dew point are the same then we have 100% relative humidity (we all know what 100% humidity feels like). This means that the air can hold no more water vapor and condensation occurs. This condensation can come in the form of fog, mist, haze etc. So when the temperature and dew point are only 1 degree apart, you can expect one of these to occur. Especially in the evening as the temperature cools and gets closer to the dew point.

    A2992

    This is the atmospheric pressure, better known to us as the altimeter setting. It is measured in inches of mercury or INHG. In this case the altimeter is 29.92 INHG This is important to us because it ensures that we get a correct reading on the aircraft altimeter, which is essentially a barometer in the aircraft that uses the difference in pressure on the ground to that at altitude to calculate the actual height above Sea Level or ASL.


    REFG

    The RE means recent, so REFG would mean recent fog, and basically it is as it sounds, there was fog in the area recently, REFZRA, would mean recent freezing rain, etc.

    WS RWY24R

    WS indicates Low level windshear (within 1600 feet AGL) on the takeoff and approach path. The runway identifier follows the WS warning. The example tells us that windshear was encountered on either the approach or departure for runway 24R. If windshear was encountered on all runways the METAR would read WS ALL RWY.

    RMK SF4NS8 SLP113

    This is the remarks section. It is used to show any other information that may be needed. It shows various things such as cloud types, sea level pressure, or anything else the weather reporter feels is important. In the example here the SF4NS8, is showing us the cloud types. So the SF4 means the first cloud layer (SCT001) is the stratus fractus type cloud. The NS8 means the second could layer (OVC005) in the nimbostratus type cloud. I will list all the cloud types below with a brief description. The SLP113 is the Sea Level Pressure measured in hectopascals or hpa. They are automatically preceded by 10, and the last number is a decimal place. So in this case the sea level pressure is 1011.3 hpa. 95% of the remarks in a METAR are irrelevant to VATSIM, but I will give a brief description of them. TORNADO, FUNNEL CLOUD or WATERSPOUT may be in the remarks section and are pretty self explanatory, they may also be followed by the direction they are moving, N E S or W. A01, means an automated weather station with out a precipitation discriminator, and A02 is an automated weather station with a precipitation discriminator. TWR VIS 2, is the visibility reported by tower personnel. LTG NE, shows lightning, in this case there is lightning to the Northeast. CIG 013V019, this tells us that the ceiling is variable between 1300 and 1900 feet. P0004 indicates the amount of precipitation in hundredths of an inch since the last weather observation. This shows 4/100 of an inch in the last hour. A trace is shown as P0000. There are a few other sections that can be in the remarks section, but are rarely seen so I wont really get into it here.

    Here are the various cloud types and a brief description:

    CI Cirrus AS - Altostratus

    ST Stratus AC - Altocumulus

    CS - Cirrostratus CF Cumulus Fractus

    SF Stratus Fractus ACC Altocumulus Castellanus

    CC Cirrocumulus TCU Heavy or Towering Cumulus

    SC Stratocumulus NS Nimbostratus

    CU Cumulus CB - Cumulonimbus

    The term fractus usually means a broken layer and the term nimbo usually indicates rain clouds.

    Stratus clouds form in horizontal layers, they look like a blanket in the sky, usually form in overcast layers.

    Cirrus clouds are the very high level thin wispy clouds, made of ice crystals.

    Cirrocumulus clouds are thin, cotton like clouds that form a very high overcast layer, usually a sign of bad weather to come in the near future.

    Cirrostratus clouds are a very high thin sheet of clouds which the sun or moon are visible through, producing a halo effect. They are an indication of a warm front coming, therefore deteriorating weather.

    Altocumulus clouds are a mid-level series of patches of rounded masses of cloud that lie in groups or lines, usually not an indication of any future weather.

    Altocumulus Castellanus clouds are an altocumulus with a turreted appearance, instable. Showers and turbulence can be expected.

    Altostratus clouds are thick grey clouds that cover the whole sky. Indicates the near approach of a warm front, some light rain or snow may fall from these clouds. Aircraft icing will almost always occur in this type of cloud.

    Stratus cloud is a low level cloud resembling fog, but not resting on the ground, drizzle usually falls. When stratus clouds are broken up by wind, they are called stratus fractus.

    Stratocumulus clouds are a series of low level patches or rounded masses, usually in a broken layer, you usually see patches of blue sky through the holes in the cloud. Usually common with a high pressure system in the winter. Gives little or no precipitation.

    Nimbostratus clouds are a uniform layer of dark grey cloud, these clouds are usually 15000 feet thick and bring full days of rain or snow.

    Cumulus clouds form in rising air currents and are evidence of unstable air. These are the white puffy clouds. Expect light turbulence. These clouds are also the early stage of a thunderstorm.

    Towering Cumulus clouds build up into high towering masses, hence the name. Rough air will occur under these clouds, as well as icing in them.

    Cumulonimbus clouds are huge cumulus clouds that rise well above the freezing level, the top usually forms an anvil shape as it flattens along the tropopause. These are thunderstorm clouds, and should be avoided due to severe turbulence, severe icing and lightning. Hail is usually present in the cloud. Extra caution should be used because these clouds are commonly embedded in a stratus layer, and cannot be seen.


    That concludes my article on METARs. I hope it was helpful, and cleared up any confusion you may have had. In my next article, I will go into detail on Terminal Area Forecasts (TAF).