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Newer beacons operating at a frequency of 406 MHz are being introduced. The power has been increased to 5 W, which should permit locational accuracy to 3 to 5 km (Scales and Swanson, 1984). The 406-MHz carrier is modulated with information such as an identifying code, the last known position, and the nature of the emergency. The satellite has the equipment for storing and forwarding the information from a continuous memory dump, providing complete worldwide coverage with 100 percent availability. The polar orbiters, however, do not provide continuous coverage. The mean time between a distress alert being sent and the appropriate search and rescue coordination center being notified is estimated at 27 min satellite storage time plus 44 min waiting time for a total delay of 71 min (Cospas-Sarsat, 1994a, b). The nominal frequency is 406 MHz, and originally, a frequency of 406.025 MHz was used. Because of potential conflict with the GEOSAR system, new channels at 406.028 MHz and 406.037 MHz have been opened, and type approval for the 406.025 MHz channel ceased in January 2002. However, beacon types approved before the January 2001 date and still in production may continue to operate at 406.025 MHz. More details will be found at http://www.cospas-sarsat.org/Beacons/406Bcns.htm. The status of the Cospas-Sarsat low earth orbiting search and rescue (LEOSAR) satellites as of April 19, 2005 is shown in Table 1.9.

Status of LEOSAR Payload Instruments Repeater instruments, MHz 121.5 F F 243 F L 406 F F Search and rescue processor Global NO F Local NO F

Intermittent loss of the 243-MHz service, which may affect an entire or partial satellite pass. Intermittent loss of the 121.5-MHz service, which may affect an entire or partial satellite pass.

NOTES: SOURCE:

Figure 12-1

F fully operational; L limited operation; NO not operational; NA not applicable. http://www.cospas-sarsat.org/Status/spaceSegmentStatus.htm

The nominal space segment of LEOSAR consists of four satellites, although as shown in Table 1.9 more satellites may be in service at any one time. The status of the 121.5-MHz LEOSAR system as of November 2004 consisted of repeaters on five polar orbiters, 43 ground receiving stations (referred to as LEOSAR local user terminals, or LEOLUTs), 26 mission control centers (MCCs), and about 680,000 beacons operating at 121.5 MHz, carried mostly on aircraft and small vessels. The MCC alerts the rescue coordination center (RCC) nearest the location where the distress signal originated, and the RCC takes the appropriate action to effect a rescue. In 2006, Cospas-11 will be launched aboard a new LEO satellite called Sterkh. This is a small, 190 kg satellite designed specifically for Cospas-Sarsat operations. The status of the GEOSAR segment of the Cospas-Sarsat system is shown in Table 1.10. Since the geostationary satellites are by definition stationary with respect to the earth, there is no Doppler shift of the received beacon carrier. The 406-MHz beacons for the GEOSAR component carry positional information obtained from the global navigational satellite systems such as the American GPS (see Sec. 17.5) system, the Russian global navigation satellite system (GLONASS) and Galileo (European). These navigational systems employ medium earth orbiting (MEO) satellites, and the space agencies responsible for these navigational systems have plans to include 406-MHz repeaters on the MEO satellites. Although the GEOSAR system provides wide area coverage it does not cover the polar regions, the antenna footprint being limited to latitudes of about 75 N and S. The coverage areas are shown in Fig. 1.10.

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Satellite GOES-9 (155 E) GOES-East (75 W) GOES-West (135 W) INSAT 3A (93.5 E)

INSAT 3A is currently under test; however, alerts from the system are distributed operationally. INSAT system does not process second protected field of long format messages.

MSG-1 (3.4 W)