This documents the results of a one-year multi-center NASA study on the prospect of sending humans to Jupiter's moon, Callisto, using an all Nuclear Electric Propulsion (NEP) space transportation system architecture with magnetoplasmadynamic (MPD) thrusters. The fission reactor system utilizes high temperature uranium dioxide (UO2) in tungsten (W) metal matrix cermet fuel and electricity is generated using advanced dynamic Brayton power conversion technology. The mission timeframe assumes on-going human Moon and Mars missions and existing space infrastructure to support launch of cargo and crewed spacecraft to Jupiter in 2041 and 2045, respectively
In response to a request by the NASA Deep Space Exploration Technology Program, NASA Glenn Research ...
Advancement of U.S. scientific, security, and economic interests requires high performance propulsio...
Nuclear electric propulsion (NEP) offers significant benefits to missions for outer planet explorati...
Nuclear Electric Propulsion (NEP) can offer multiple advantages in regards to space exploration. Sig...
The performance of Nuclear Electric Propulsion (NEP) in transporting cargo and propellant from Low E...
The Jupiter Icy Moons Orbiter (JIMO) is a bold new mission under development by the Office of Space ...
NASA is charged with landing the first American woman and next American man on the South Pole of the...
There is a renewed interest in the development of nuclear fission power sources for space applicatio...
The Disruptive Technologies for Power and Propulsion (DiPoP) Study reviewed advanced space technolog...
This paper summarizes the content of a NASA-led study performed to identify revolutionary concepts a...
The use of nuclear systems for propulsion and power are being examined as system options for impleme...
Fission power is a promising technology, and it has been proposed for several future space uses. It ...
Nuclear thermal and nuclear electric propulsion systems will enable and/or enhance important space e...
NASA has initiated a technology program to establish the readiness of nuclear propulsion technology ...
Abstract. Over the last year, a large effort that involved several NASA agencies and DOE was initiat...
In response to a request by the NASA Deep Space Exploration Technology Program, NASA Glenn Research ...
Advancement of U.S. scientific, security, and economic interests requires high performance propulsio...
Nuclear electric propulsion (NEP) offers significant benefits to missions for outer planet explorati...
Nuclear Electric Propulsion (NEP) can offer multiple advantages in regards to space exploration. Sig...
The performance of Nuclear Electric Propulsion (NEP) in transporting cargo and propellant from Low E...
The Jupiter Icy Moons Orbiter (JIMO) is a bold new mission under development by the Office of Space ...
NASA is charged with landing the first American woman and next American man on the South Pole of the...
There is a renewed interest in the development of nuclear fission power sources for space applicatio...
The Disruptive Technologies for Power and Propulsion (DiPoP) Study reviewed advanced space technolog...
This paper summarizes the content of a NASA-led study performed to identify revolutionary concepts a...
The use of nuclear systems for propulsion and power are being examined as system options for impleme...
Fission power is a promising technology, and it has been proposed for several future space uses. It ...
Nuclear thermal and nuclear electric propulsion systems will enable and/or enhance important space e...
NASA has initiated a technology program to establish the readiness of nuclear propulsion technology ...
Abstract. Over the last year, a large effort that involved several NASA agencies and DOE was initiat...
In response to a request by the NASA Deep Space Exploration Technology Program, NASA Glenn Research ...
Advancement of U.S. scientific, security, and economic interests requires high performance propulsio...
Nuclear electric propulsion (NEP) offers significant benefits to missions for outer planet explorati...