NTCM G: Galileo single-frequency ionospheric corrections

Last modified at Aug 12th, 2024, 12:00 GMT

Description

The Neustrelitz Total Electron Content (TEC) Model for Galileo satellite navigation systems NTCM G can be used to determine Galileo single-frequency ionospheric corrections. It is proposed as an alternative to the reference algorithm NeQuick G. The model was developed by the German Aerospace Center (DLR) and validated with the support of ESA, and the Joint Research Centre (JRC) of the European Commission. The reduced complexity and runtime of the NTCM G algorithm are beneficial, in particular in user-segments where the equipment has limited resources available, like for civil avionics receivers or location-based services for smartphones.

Capabilities

Data Levels

Further Information and Resources

Resources

More Properties

Property Value
Algorithm Not used
Name (from Processing Input (1/11) > Input Output) Effective ionisation level 1st order parameter [sfu] (optional)
Character String (from Processing Input (1/11) > Input Output > Description > LE Source > Description) Broadcast parameter a_i0 in solar flux units.
Name (from Processing Input (2/11) > Input Output) Effective ionisation level 2nd order parameter [sfu/deg] (optional)
Character String (from Processing Input (2/11) > Input Output > Description > LE Source > Description) Broadcast parameter a_i1 in solar flux units per degree.
Name (from Processing Input (3/11) > Input Output) Effective ionisation level 3rd order parameter [sfu/deg^2] (optional)
Character String (from Processing Input (3/11) > Input Output > Description > LE Source > Description) Broadcast parameter a_i2 in solar flux units per square degree.
Name (from Processing Input (4/11) > Input Output) Carrier frequency [Hz]
Character String (from Processing Input (4/11) > Input Output > Description > LE Source > Description) Carrier frequency in Hertz.
Name (from Processing Input (5/11) > Input Output) Receiver altitude [km]
Character String (from Processing Input (5/11) > Input Output > Description > LE Source > Description) Altitude of the receiver in kilometers.
Name (from Processing Input (6/11) > Input Output) Receiver latitude [deg]
Character String (from Processing Input (6/11) > Input Output > Description > LE Source > Description) Latitude of the receiver in degrees (signed decimal number).
Name (from Processing Input (7/11) > Input Output) Receiver longitude [deg]
Character String (from Processing Input (7/11) > Input Output > Description > LE Source > Description) Longitude of the receiver in degrees (signed decimal number).
Name (from Processing Input (8/11) > Input Output) Satellite altitude [km]
Character String (from Processing Input (8/11) > Input Output > Description > LE Source > Description) Altitude of the satellite in kilometers.
Name (from Processing Input (9/11) > Input Output) Satellite latitude [deg]
Character String (from Processing Input (9/11) > Input Output > Description > LE Source > Description) Latitude of the satellite in degrees (signed decimal number).
Name (from Processing Input (10/11) > Input Output) Satellite longitude [deg]
Character String (from Processing Input (10/11) > Input Output > Description > LE Source > Description) Longitude of the satellite in degrees (signed decimal number).
Name (from Processing Input (11/11) > Input Output) Date-Time [ISO]
Character String (from Processing Input (11/11) > Input Output > Description > LE Source > Description) Date and time of interest given as an ISO 8601 compliant string.
Software Reference Not used
Metadata Information
Editor German Aerospace Center - DLR - Institute for Solar-Terrestrial Physics
Version 1
Created Monday 12th Aug. 2024, 12:00
Last Modified Monday 12th Aug. 2024, 12:00