How unreachable are Jupiter's moons from Mars with the technology developed for going to Mars?Is there night...
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How unreachable are Jupiter's moons from Mars with the technology developed for going to Mars?
Is there night photos from rovers of Mars? Specially sky of Mars with two moonsMay the chemical propulsion (only) provide sustainable transportation to MarsHow would a robotic landing on an icy moon like Europa differ from landings on the Moon, Mars, Venus, Jupiter, Titan, asteroids, comets?What are the travel times associated with different low-thrust accelerations going to Mars?Which are the space station projects for a Mars mission using the current propulsion technology capabilities?Protecting technology from radiation on marsWhy are most of Jupiter's moons retrograde?Xenon vs Hydrazine, “Should I Stay or Should I go?” Dawn mission decisionsTerraform via moving Ceres To Mars orbit, using ion driveWill the duration of traveling to Ceres using the same tech developed for going to Mars be proportional to the distance to go to Mars or not?
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Jupiter's moons in their closest point to Mars (when Jupiter is closest to the sun) are like 7 times the distance between Earth and Mars, and in a return journey they will farther away. Is there any chance to reach them in the following decades? I would like to know how far the technology for going there is in a one shot journey, once humans are able to go to Mars, how much will they have to improve (in other topic someone mentioned that something that consumes fuel is the proximity to the sun pulling and decelerating the spaceship, besides from Mars escaping the planet will consume less fuel) to reach Jupiter from Mars, and also, how about if it's possible to set a permanent base in Ceres, Pallas or Vesta, for at least a partial resupply, could that help or be feasible at all?
mars jupiter europa ceres spaceport
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Jupiter's moons in their closest point to Mars (when Jupiter is closest to the sun) are like 7 times the distance between Earth and Mars, and in a return journey they will farther away. Is there any chance to reach them in the following decades? I would like to know how far the technology for going there is in a one shot journey, once humans are able to go to Mars, how much will they have to improve (in other topic someone mentioned that something that consumes fuel is the proximity to the sun pulling and decelerating the spaceship, besides from Mars escaping the planet will consume less fuel) to reach Jupiter from Mars, and also, how about if it's possible to set a permanent base in Ceres, Pallas or Vesta, for at least a partial resupply, could that help or be feasible at all?
mars jupiter europa ceres spaceport
New contributor
$endgroup$
add a comment |
$begingroup$
Jupiter's moons in their closest point to Mars (when Jupiter is closest to the sun) are like 7 times the distance between Earth and Mars, and in a return journey they will farther away. Is there any chance to reach them in the following decades? I would like to know how far the technology for going there is in a one shot journey, once humans are able to go to Mars, how much will they have to improve (in other topic someone mentioned that something that consumes fuel is the proximity to the sun pulling and decelerating the spaceship, besides from Mars escaping the planet will consume less fuel) to reach Jupiter from Mars, and also, how about if it's possible to set a permanent base in Ceres, Pallas or Vesta, for at least a partial resupply, could that help or be feasible at all?
mars jupiter europa ceres spaceport
New contributor
$endgroup$
Jupiter's moons in their closest point to Mars (when Jupiter is closest to the sun) are like 7 times the distance between Earth and Mars, and in a return journey they will farther away. Is there any chance to reach them in the following decades? I would like to know how far the technology for going there is in a one shot journey, once humans are able to go to Mars, how much will they have to improve (in other topic someone mentioned that something that consumes fuel is the proximity to the sun pulling and decelerating the spaceship, besides from Mars escaping the planet will consume less fuel) to reach Jupiter from Mars, and also, how about if it's possible to set a permanent base in Ceres, Pallas or Vesta, for at least a partial resupply, could that help or be feasible at all?
mars jupiter europa ceres spaceport
mars jupiter europa ceres spaceport
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asked 8 hours ago
PabloPablo
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Let's go back our old friend the Pork chop plotter. Earth to Jupiter using minimum fuel takes around 2 years and you get one opportunity per year, more or less, to get there. You can shorten the journey to perhaps 20 months with minimal extra fuel. The delta-V required at Earth (over and above escape velocity) is about 9.3 km/s (you can in theory aerobrake at Jupiter, although the velocities involved, and the radiation environment might make this a bit exciting).
Mars to Jupiter with minimal fuel takes longer. Intuitively I think this is because Mars' orbital velocity around the Sun is lower. Journey times are around 30 months, but the delta-V needed (again over and above Mars escape) is only about 6 km/s.
A fully-fueled SpaceX Starship is expected to have about 9 km/s delta-V capability (with a very small payload) so it could reach Jupiter if refuelled in high elliptical Earth orbit, or possibly directly from the surface of Mars. Refueling in Low Mars orbit would certainly be enough.
Bases on asteroids seem unlikely to help much. Matching orbit with them is too hard and you probably still have to get the fuel there. If you could make fuel on Ceres that would be quite appealing in terms of delta-V and payload mass, although the mission would get still slower.
TLDR: If you can make fuel on Mars, or on Ceres, it will help you move more payload to Jupiter without needing to launch insane amounts of fuel from Earth, but such missions are generally longer in duration than direct missions.
$endgroup$
add a comment |
$begingroup$
I whomped up a spreadsheet to compare scenarios like this: Hohmann.xls.
Typing Earth into departure planet cell and Mars into destination planet I get
Launch windows open each 2.14 years (synodic period)
Trip time .71 years
Delta V Low Earth Orbit to Low Mars Orbit: 5.7 km/s
Typing Mars into departure planet and Jupiter into destination:
Launch window: Each 2.23 years
Trip time 3.1 years
Delta V Low Mars Orbit to Jupiter Capture orbit: 4.4 km/s
Jupiter capture orbit has periapsis 300 km above Jupiter's cloud tops and apoapsis about 4.8 million kilometers.
Matching orbit with a moon would take more. Altitude of Jupiter's larger moons can be found in cells J27 to J30. For example setting Jupiter's destination orbit at Europa's altitude boosts delta V to more than 10 km/s. This doesn't take into account Europa's gravity.
Due to Jupiter's strong magnetic field Jupiter's moons suffer from a very harsh radiation environment.
Caveat: My spreadsheet assumes circular, coplanar orbits. So accuracy is only ballpark.
TL;DR Going from Mars to Jupiter's moons is a lot harder than going from Earth to Mars.
$endgroup$
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2 Answers
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$begingroup$
Let's go back our old friend the Pork chop plotter. Earth to Jupiter using minimum fuel takes around 2 years and you get one opportunity per year, more or less, to get there. You can shorten the journey to perhaps 20 months with minimal extra fuel. The delta-V required at Earth (over and above escape velocity) is about 9.3 km/s (you can in theory aerobrake at Jupiter, although the velocities involved, and the radiation environment might make this a bit exciting).
Mars to Jupiter with minimal fuel takes longer. Intuitively I think this is because Mars' orbital velocity around the Sun is lower. Journey times are around 30 months, but the delta-V needed (again over and above Mars escape) is only about 6 km/s.
A fully-fueled SpaceX Starship is expected to have about 9 km/s delta-V capability (with a very small payload) so it could reach Jupiter if refuelled in high elliptical Earth orbit, or possibly directly from the surface of Mars. Refueling in Low Mars orbit would certainly be enough.
Bases on asteroids seem unlikely to help much. Matching orbit with them is too hard and you probably still have to get the fuel there. If you could make fuel on Ceres that would be quite appealing in terms of delta-V and payload mass, although the mission would get still slower.
TLDR: If you can make fuel on Mars, or on Ceres, it will help you move more payload to Jupiter without needing to launch insane amounts of fuel from Earth, but such missions are generally longer in duration than direct missions.
$endgroup$
add a comment |
$begingroup$
Let's go back our old friend the Pork chop plotter. Earth to Jupiter using minimum fuel takes around 2 years and you get one opportunity per year, more or less, to get there. You can shorten the journey to perhaps 20 months with minimal extra fuel. The delta-V required at Earth (over and above escape velocity) is about 9.3 km/s (you can in theory aerobrake at Jupiter, although the velocities involved, and the radiation environment might make this a bit exciting).
Mars to Jupiter with minimal fuel takes longer. Intuitively I think this is because Mars' orbital velocity around the Sun is lower. Journey times are around 30 months, but the delta-V needed (again over and above Mars escape) is only about 6 km/s.
A fully-fueled SpaceX Starship is expected to have about 9 km/s delta-V capability (with a very small payload) so it could reach Jupiter if refuelled in high elliptical Earth orbit, or possibly directly from the surface of Mars. Refueling in Low Mars orbit would certainly be enough.
Bases on asteroids seem unlikely to help much. Matching orbit with them is too hard and you probably still have to get the fuel there. If you could make fuel on Ceres that would be quite appealing in terms of delta-V and payload mass, although the mission would get still slower.
TLDR: If you can make fuel on Mars, or on Ceres, it will help you move more payload to Jupiter without needing to launch insane amounts of fuel from Earth, but such missions are generally longer in duration than direct missions.
$endgroup$
add a comment |
$begingroup$
Let's go back our old friend the Pork chop plotter. Earth to Jupiter using minimum fuel takes around 2 years and you get one opportunity per year, more or less, to get there. You can shorten the journey to perhaps 20 months with minimal extra fuel. The delta-V required at Earth (over and above escape velocity) is about 9.3 km/s (you can in theory aerobrake at Jupiter, although the velocities involved, and the radiation environment might make this a bit exciting).
Mars to Jupiter with minimal fuel takes longer. Intuitively I think this is because Mars' orbital velocity around the Sun is lower. Journey times are around 30 months, but the delta-V needed (again over and above Mars escape) is only about 6 km/s.
A fully-fueled SpaceX Starship is expected to have about 9 km/s delta-V capability (with a very small payload) so it could reach Jupiter if refuelled in high elliptical Earth orbit, or possibly directly from the surface of Mars. Refueling in Low Mars orbit would certainly be enough.
Bases on asteroids seem unlikely to help much. Matching orbit with them is too hard and you probably still have to get the fuel there. If you could make fuel on Ceres that would be quite appealing in terms of delta-V and payload mass, although the mission would get still slower.
TLDR: If you can make fuel on Mars, or on Ceres, it will help you move more payload to Jupiter without needing to launch insane amounts of fuel from Earth, but such missions are generally longer in duration than direct missions.
$endgroup$
Let's go back our old friend the Pork chop plotter. Earth to Jupiter using minimum fuel takes around 2 years and you get one opportunity per year, more or less, to get there. You can shorten the journey to perhaps 20 months with minimal extra fuel. The delta-V required at Earth (over and above escape velocity) is about 9.3 km/s (you can in theory aerobrake at Jupiter, although the velocities involved, and the radiation environment might make this a bit exciting).
Mars to Jupiter with minimal fuel takes longer. Intuitively I think this is because Mars' orbital velocity around the Sun is lower. Journey times are around 30 months, but the delta-V needed (again over and above Mars escape) is only about 6 km/s.
A fully-fueled SpaceX Starship is expected to have about 9 km/s delta-V capability (with a very small payload) so it could reach Jupiter if refuelled in high elliptical Earth orbit, or possibly directly from the surface of Mars. Refueling in Low Mars orbit would certainly be enough.
Bases on asteroids seem unlikely to help much. Matching orbit with them is too hard and you probably still have to get the fuel there. If you could make fuel on Ceres that would be quite appealing in terms of delta-V and payload mass, although the mission would get still slower.
TLDR: If you can make fuel on Mars, or on Ceres, it will help you move more payload to Jupiter without needing to launch insane amounts of fuel from Earth, but such missions are generally longer in duration than direct missions.
answered 4 hours ago
Steve LintonSteve Linton
7,85512144
7,85512144
add a comment |
add a comment |
$begingroup$
I whomped up a spreadsheet to compare scenarios like this: Hohmann.xls.
Typing Earth into departure planet cell and Mars into destination planet I get
Launch windows open each 2.14 years (synodic period)
Trip time .71 years
Delta V Low Earth Orbit to Low Mars Orbit: 5.7 km/s
Typing Mars into departure planet and Jupiter into destination:
Launch window: Each 2.23 years
Trip time 3.1 years
Delta V Low Mars Orbit to Jupiter Capture orbit: 4.4 km/s
Jupiter capture orbit has periapsis 300 km above Jupiter's cloud tops and apoapsis about 4.8 million kilometers.
Matching orbit with a moon would take more. Altitude of Jupiter's larger moons can be found in cells J27 to J30. For example setting Jupiter's destination orbit at Europa's altitude boosts delta V to more than 10 km/s. This doesn't take into account Europa's gravity.
Due to Jupiter's strong magnetic field Jupiter's moons suffer from a very harsh radiation environment.
Caveat: My spreadsheet assumes circular, coplanar orbits. So accuracy is only ballpark.
TL;DR Going from Mars to Jupiter's moons is a lot harder than going from Earth to Mars.
$endgroup$
add a comment |
$begingroup$
I whomped up a spreadsheet to compare scenarios like this: Hohmann.xls.
Typing Earth into departure planet cell and Mars into destination planet I get
Launch windows open each 2.14 years (synodic period)
Trip time .71 years
Delta V Low Earth Orbit to Low Mars Orbit: 5.7 km/s
Typing Mars into departure planet and Jupiter into destination:
Launch window: Each 2.23 years
Trip time 3.1 years
Delta V Low Mars Orbit to Jupiter Capture orbit: 4.4 km/s
Jupiter capture orbit has periapsis 300 km above Jupiter's cloud tops and apoapsis about 4.8 million kilometers.
Matching orbit with a moon would take more. Altitude of Jupiter's larger moons can be found in cells J27 to J30. For example setting Jupiter's destination orbit at Europa's altitude boosts delta V to more than 10 km/s. This doesn't take into account Europa's gravity.
Due to Jupiter's strong magnetic field Jupiter's moons suffer from a very harsh radiation environment.
Caveat: My spreadsheet assumes circular, coplanar orbits. So accuracy is only ballpark.
TL;DR Going from Mars to Jupiter's moons is a lot harder than going from Earth to Mars.
$endgroup$
add a comment |
$begingroup$
I whomped up a spreadsheet to compare scenarios like this: Hohmann.xls.
Typing Earth into departure planet cell and Mars into destination planet I get
Launch windows open each 2.14 years (synodic period)
Trip time .71 years
Delta V Low Earth Orbit to Low Mars Orbit: 5.7 km/s
Typing Mars into departure planet and Jupiter into destination:
Launch window: Each 2.23 years
Trip time 3.1 years
Delta V Low Mars Orbit to Jupiter Capture orbit: 4.4 km/s
Jupiter capture orbit has periapsis 300 km above Jupiter's cloud tops and apoapsis about 4.8 million kilometers.
Matching orbit with a moon would take more. Altitude of Jupiter's larger moons can be found in cells J27 to J30. For example setting Jupiter's destination orbit at Europa's altitude boosts delta V to more than 10 km/s. This doesn't take into account Europa's gravity.
Due to Jupiter's strong magnetic field Jupiter's moons suffer from a very harsh radiation environment.
Caveat: My spreadsheet assumes circular, coplanar orbits. So accuracy is only ballpark.
TL;DR Going from Mars to Jupiter's moons is a lot harder than going from Earth to Mars.
$endgroup$
I whomped up a spreadsheet to compare scenarios like this: Hohmann.xls.
Typing Earth into departure planet cell and Mars into destination planet I get
Launch windows open each 2.14 years (synodic period)
Trip time .71 years
Delta V Low Earth Orbit to Low Mars Orbit: 5.7 km/s
Typing Mars into departure planet and Jupiter into destination:
Launch window: Each 2.23 years
Trip time 3.1 years
Delta V Low Mars Orbit to Jupiter Capture orbit: 4.4 km/s
Jupiter capture orbit has periapsis 300 km above Jupiter's cloud tops and apoapsis about 4.8 million kilometers.
Matching orbit with a moon would take more. Altitude of Jupiter's larger moons can be found in cells J27 to J30. For example setting Jupiter's destination orbit at Europa's altitude boosts delta V to more than 10 km/s. This doesn't take into account Europa's gravity.
Due to Jupiter's strong magnetic field Jupiter's moons suffer from a very harsh radiation environment.
Caveat: My spreadsheet assumes circular, coplanar orbits. So accuracy is only ballpark.
TL;DR Going from Mars to Jupiter's moons is a lot harder than going from Earth to Mars.
answered 1 hour ago
HopDavidHopDavid
11.8k2560
11.8k2560
add a comment |
add a comment |
Pablo is a new contributor. Be nice, and check out our Code of Conduct.
Pablo is a new contributor. Be nice, and check out our Code of Conduct.
Pablo is a new contributor. Be nice, and check out our Code of Conduct.
Pablo is a new contributor. Be nice, and check out our Code of Conduct.
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