This paper describes the orbit determination process, results and filter strategies used by the Mars Science Laboratory Navigation Team during cruise from Earth to Mars. The new atmospheric entry guidance system resulted in an orbit determination paradigm shift during final approach when compared to previous Mars lander missions. The evolving orbit determination filter strategies during cruise are presented. Furthermore, results of calibration activities of dynamical models are presented. The atmospheric entry interface trajectory knowledge was significantly better than the original requirements, which enabled the very precise landing in Gale Crater
After a seven-month interplanetary cruise, the Mars Reconnaissance Orbiter arrived at Mars and execu...
Carrying six science instruments and three engineering payloads, the Mars Reconnaissance Orbiter (MR...
One challenge driving Mars entry, descent and landing technology development is to land at higher el...
The Mars Exploration Rover project consisted of two missions (MER-A: spirit rover and MER-B: opportu...
The Mars Science Laboratory (MSL) spacecraft had ambitious navigation delivery and knowledge accurac...
The Mars Science Laboratory (MSL), carrying the Curiosity rover to Mars, was launched on November 26...
Several international missions scheduled for years 2011--2013 have as objective a Mars surface sampl...
The Mars Phoenix Lander mission was launched on August 4th, 2007. To land safely at the desired land...
NASA s Mars Science Laboratory mission will launch the next mobile science laboratory to Mars in the...
During the extended science phase of the Mars Reconnaissance Orbiter's lifecycle, the operational du...
The Mars Science Laboratory spacecraft, carrying the Curiosity rover to Mars, hit the top of the Mar...
The Mars Reconnaissance Orbiter began science operations in November 2006, with a suite of seven ins...
Station. The heavyweight spacecraft will use a Lockheed-Martin Atlas V-401 launch vehicle. It will b...
This paper presents the orbit determination strategy employed by the Odyssey navigation team, as wel...
Carrying six science instruments and three engineering payloads, the Mars Reconnaissance Orbiter (MR...
After a seven-month interplanetary cruise, the Mars Reconnaissance Orbiter arrived at Mars and execu...
Carrying six science instruments and three engineering payloads, the Mars Reconnaissance Orbiter (MR...
One challenge driving Mars entry, descent and landing technology development is to land at higher el...
The Mars Exploration Rover project consisted of two missions (MER-A: spirit rover and MER-B: opportu...
The Mars Science Laboratory (MSL) spacecraft had ambitious navigation delivery and knowledge accurac...
The Mars Science Laboratory (MSL), carrying the Curiosity rover to Mars, was launched on November 26...
Several international missions scheduled for years 2011--2013 have as objective a Mars surface sampl...
The Mars Phoenix Lander mission was launched on August 4th, 2007. To land safely at the desired land...
NASA s Mars Science Laboratory mission will launch the next mobile science laboratory to Mars in the...
During the extended science phase of the Mars Reconnaissance Orbiter's lifecycle, the operational du...
The Mars Science Laboratory spacecraft, carrying the Curiosity rover to Mars, hit the top of the Mar...
The Mars Reconnaissance Orbiter began science operations in November 2006, with a suite of seven ins...
Station. The heavyweight spacecraft will use a Lockheed-Martin Atlas V-401 launch vehicle. It will b...
This paper presents the orbit determination strategy employed by the Odyssey navigation team, as wel...
Carrying six science instruments and three engineering payloads, the Mars Reconnaissance Orbiter (MR...
After a seven-month interplanetary cruise, the Mars Reconnaissance Orbiter arrived at Mars and execu...
Carrying six science instruments and three engineering payloads, the Mars Reconnaissance Orbiter (MR...
One challenge driving Mars entry, descent and landing technology development is to land at higher el...