Technical Bulletins

Preparing for Metop-C data

Metop-C was successfully launched on 7 November 2018. In this section you'll find regularly updated information to help you plan and prepare for when data becomes available.

Metop-C has been placed in same orbit as Metop-A and B and at equal distance to both platforms, with LT equator crossing at 9:30 UTC, the same as for Metop-A and B ('tristar' configuration – see Figure 1, left). This platform phasing is the most favourable phasing for LEOP and satellite and instrument and in-orbit verification (SIOV), providing the best margin at the data downlink stations.

During the course of commissioning, and based on early data-user feedback, the decision will be made to either remain in a tristar phasing configuration or to shift Metop-C 180 degrees opposite Metop-B (original A/B configuration) with Metop-A in-between (“trident” configuration – see Figure 1, right).

Figure 1
Figure 1: Left: Three Metops phasing with 120 degree separation (Tristar) adopted for SIOV and commissioning phase. Right: Trident phasing with 180 degree separation between Metop-B and C and Metop-A phased approx 90 degrees in-between.

Once we start to disseminate Metop-C data, you will be able to subscribe via our Earth Observation Portal (EOP).

Watch the Metop-C launch on YouTube

Last Updated:  Monday, 17 December 2018

What are the main applications of Metop data?

Operational meteorology

  • Global and regional numerical weather prediction at ranges from 12 hours to 10 days;
  • Regional nowcasting of high impact weather at mid and high latitudes.

Thumbnail - Metop-C Launch - 3Marine applications

  • Marine meteorology and sea state forecasting;
  • Operational oceanography.

Environment monitoring

  • Air quality monitoring and forecasting;
  • Ozone monitoring.

Climate monitoring

  • Long-term series/climate records of various essential climate variables.

What observations will Metop-C collect?

  • Vertical profiles of temperature and humidity in the troposphere, even in the presence of clouds;
  • Vertical profiles of ozone concentration, column contents of NO2, SO2, CO and other atmospheric constituents, properties of aerosols;
  • Imagery and properties of clouds;
  • Sea surface temperature, wind at the surface of the ocean and sea ice;
  • Soil moisture, vegetation, land surface temperature;
  • Measurements of charged particles in the space environment.

What are the main applications of Metop data?

Metop-C data dissemination via EUMETCast Satellite

Metop-C global data are being made available to Cal/Val partners.

Once operational, they will be available to all registered users from the High Volume Service on Transponder 1.

The information below will help you prepare your EUMETCast reception systems to be ready to receive Metop-C data. Note: TP1 = Transponder 1.

A) DVB reception changes

If your system is ready for reception from the High Volume Service on Transponder 1 (HVS-1), go to section B).

  1. Users currently receiving Metop-A/B data (i.e. receiving only the Basic Service on TP1 and not High Volume Service) can simply reconfigure the existing receiver to receive the Basic Service and the High Volume Service, please note that a bigger antenna is needed to receive both services.
  2. Please follow the DVB receiver setup guides in the Devices section on the Reception Station Set-up page to configure the receivers for TP1.
  3. Linux users that have installed the dvb-eumetcast package using the EUMETSAT provided tar/rpm/deb packages can update to the latest version supporting all EUMETCast services on all transponders using multiple DVB cards or a DVB card with multiple inputs. The latest dvb-eumetcast package is supporting Metop-C channels and is available for download from our ftp site:

B) Tellicast client changes to receive Metop-C data on TP1

Metop-C global data will be disseminated on HVS-1 using the following channels:

Product HVS-1 Channel Multicast address PID
GOME L2 PMAp E1H-EPS-1 600
AMSU-A L1 E1H-EPS-2 600
ASCAT L1 E1H-EPS-3 600
ASCAT L2 E1H-EPS-3 600
GOME L1 E1H-EPS-5 600
GRAS L1 E1H-EPS-6 600
MHS L1 E1H-EPS-8 600
AVHRR L1 E1H-EPS-10 600
AVHRR L2 Winds E1H-EPS-10 600
IASI L1 E1H-EPS-11 600
IASI L2 E1H-EPS-11 600

Tellicast client configuration change: for the users that already receive HVS-1, add to cast-client-channels_hvs-1.ini the following:

Linux configuration file:



name= E1H-EPS-2


name= E1H-EPS-3


name= E1H-EPS-5


name= E1H-EPS-6


name= E1H-EPS-8


name= E1H-EPS-10


name= E1H-EPS-11


Or, alternatively, use a single target directory for Metop-C:



Or, alternatively, add (or use the existing) generic entry for all data on HVS-1:



You can use your own directories, but the location of tmp and target directory must be in the same file system.

Windows configuration file looks similar, using the Windows specific tmp and target directories, e.g.:


For more information, contact our User Service Helpdesk.

Working with the United States

Thumbnail - Metop-C Launch - IJPS logo

The EUMETSAT Polar System is Europe’s contribution to the Initial Joint Polar System (IJPS) shared with the National Oceanic and Atmospheric Administration (NOAA) of the United States. In order to provide an enhanced coverage with a higher revisit frequency at mid latitudes, EUMETSAT’s Metop satellites fly in the mid-morning polar orbit while the NOAA JPSS satellites fly in the complementary afternoon orbit.

Global Metop data are acquired twice per orbit, approximately every 50 minutes, at Svalbard, Spitzbergen, and McMurdo, Antarctica, and processed products are delivered approximately two hours after sensing to users worldwide for ingestion in global numerical prediction models.

By continuing to use this website, you are giving consent for EUMETSAT to store certain information about you. To learn more about what information EUMETSAT collects and how it is used, please view our Terms of Use page.