Category:Partial G Health Experiment - Revision history

RikvanRiel: move to a normal main page

2007-07-20T04:02:58Z

move to a normal main page

RikvanRiel: /* Introduction */

2007-07-20T03:58:29Z

Introduction

RikvanRiel: concept

2007-07-20T03:36:48Z

concept

RikvanRiel: improve typography

2007-07-20T03:29:50Z

improve typography

RikvanRiel: add mission statement

2007-07-20T03:22:50Z

add mission statement

RikvanRiel: New page: The impact of zero G on human health has been studied for decades on Russian and US space stations. However, nothing is known about the health impact of long term living in partial G envi...

2007-07-20T03:00:56Z

New page: The impact of zero G on human health has been studied for decades on Russian and US space stations. However, nothing is known about the health impact of long term living in partial G envi...

New page

The impact of zero G on human health has been studied for decades on Russian and US space stations. However, nothing is known about the health impact of long term living in partial G environments, specifically 0.15G on the Moon and 0.4G on Mars. We know the human body needs gravity, but we have no idea how much it needs.

One way to test the long term impact of lower gravity on the human body would be to set up stations on the Moon and Mars and have people live there for a long time. However, this is very expensive and could be dangerous - sending people to another planetary body without the right exercise equipment could seriously impact their health.

Testing the impact of partial gravity on human health in low earth orbit has several advantages:
* Astronauts could be brought back to earth quickly if health problems come up.
* The gravity on a space station can be adjusted, so various levels of gravity can be tested in one laboratory.
* It may be possible to assemble the space station from available components and launch it with "commodity" launchers.

The impact of the last item cannot be underestimated. If an experiment like this is too expensive, it will not be done. However, if it can be designed "on the cheap", it may be possible to get the funding required to carry out the experiment. Using off the shelf components as much as possible could greatly reduce development and launch costs.

[[Category:Life Support]]

← Older revision		Revision as of 04:02, 20 July 2007
Line 1:		Line 1:
	'''The mission: research the long term impact of partial gravity on human health.'''		'''The mission: research the long term impact of partial gravity on human health.'''
−
−	* What is the impact of partial gravity on human health?
−	* How much gravity does a human body need to stay healthy?
−	* What kinds of exercise are needed to keep the human body healthy at partial gravity?
−	* How much exercise is needed to keep the human body healthy at partial gravity?
−	* Specifically: what is the health impact of Moon and Mars gravity?
−
−	~~== Introduction ==~~
−
−	The impact of zero gravity on human health has been studied for decades on Russian and US space stations. We know the human body needs gravity to stay healthy, but nobody knows how much gravity is needed. We need research on the health impact of long term living in partial gravity environments, especially the 0.15G on the Moon and 0.4G on Mars.
−
−	One way to test the long term impact of lower gravity on the human body would be to set up stations on the Moon and Mars and have people live there for a long time. However, this is very expensive and could be dangerous - sending people to another planetary body without the right exercise equipment could seriously impact their health.
−
−	~~Testing the impact of partial gravity on human health in low earth orbit has several advantages:~~
−	* Astronauts could be brought back to earth quickly if health problems come up.
−	* The gravity on a space station can be adjusted, so various levels of gravity can be tested in one laboratory.
−	* It may be possible to assemble the space station from available components and launch it with "commodity" launchers.
−
−	The impact of the last item cannot be underestimated. If an experiment like this is too expensive, it will not be done. However, if it can be designed "on the cheap", it may be possible to get the funding required to carry out the experiment. Using off the shelf components as much as possible could greatly reduce development and launch costs.
−
−	~~== Concept ==~~
−
−	~~Initial back-of-the-envelope idea:~~
−	* Modify a large Bigelow inflatable space station so it can be rotated to simulate partial gravity.
−	* Launch the equipment and crew on SpaceX rockets. Chances are those will be ready before this experiment has been fully planned.
−
−	By using off the shelf components, the budget for infrastructure design can be minimalized. Getting maximum science return per dollar is the only thing that can make this kind of experiment feasible!
−
−	~~== Community involvement ==~~
−
−	Figuring out all the details involved in a partial gravity health experiment is a lot of work. If you have the time and/or knowledge to "fill in the blanks" in our outline, feel free to do so. If you want to discuss the experiment feel free to join us on irc.freenode.net in #space.
−
−	~~Several of the components of the project can be found in these pages:~~

	[[Category:Life Support]]		[[Category:Life Support]]

@@ Line 9: / Line 9: @@
 == Introduction ==
-The impact of zero G on human health has been studied for decades on Russian and US space stations.  However, nothing is known about the health impact of long term living in partial G environments, specifically 0.15G on the Moon and 0.4G on Mars.  We know the human body needs gravity, but we have no idea how much it needs.
+The impact of zero gravity on human health has been studied for decades on Russian and US space stations. We know the human body needs gravity to stay healthy, but nobody knows how much gravity is needed.  We need research on the health impact of long term living in partial gravity environments, especially the 0.15G on the Moon and 0.4G on Mars.
 One way to test the long term impact of lower gravity on the human body would be to set up stations on the Moon and Mars and have people live there for a long time.  However, this is very expensive and could be dangerous - sending people to another planetary body without the right exercise equipment could seriously impact their health.

← Older revision		Revision as of 03:36, 20 July 2007
Line 19:		Line 19:

	The impact of the last item cannot be underestimated. If an experiment like this is too expensive, it will not be done. However, if it can be designed "on the cheap", it may be possible to get the funding required to carry out the experiment. Using off the shelf components as much as possible could greatly reduce development and launch costs.		The impact of the last item cannot be underestimated. If an experiment like this is too expensive, it will not be done. However, if it can be designed "on the cheap", it may be possible to get the funding required to carry out the experiment. Using off the shelf components as much as possible could greatly reduce development and launch costs.
		+
		+	== Concept ==
		+
		+	Initial back-of-the-envelope idea:
		+	* Modify a large Bigelow inflatable space station so it can be rotated to simulate partial gravity.
		+	* Launch the equipment and crew on SpaceX rockets. Chances are those will be ready before this experiment has been fully planned.
		+
		+	By using off the shelf components, the budget for infrastructure design can be minimalized. Getting maximum science return per dollar is the only thing that can make this kind of experiment feasible!

	== Community involvement ==		== Community involvement ==

@@ Line 1: / Line 1: @@
-The mission: research the long term impact of partial gravity on human health.
+'''The mission: research the long term impact of partial gravity on human health.'''
 * What is the impact of partial gravity on human health?
@@ Line 6: / Line 6: @@
 * How much exercise is needed to keep the human body healthy at partial gravity?
 * Specifically: what is the health impact of Moon and Mars gravity?
 The impact of zero G on human health has been studied for decades on Russian and US space stations.  However, nothing is known about the health impact of long term living in partial G environments, specifically 0.15G on the Moon and 0.4G on Mars.  We know the human body needs gravity, but we have no idea how much it needs.
@@ Line 17: / Line 19: @@
 The impact of the last item cannot be underestimated.  If an experiment like this is too expensive, it will not be done.  However, if it can be designed "on the cheap", it may be possible to get the funding required to carry out the experiment.  Using off the shelf components as much as possible could greatly reduce development and launch costs.
 [[Category:Life Support]]

← Older revision		Revision as of 03:22, 20 July 2007
Line 1:		Line 1:
		+	The mission: research the long term impact of partial gravity on human health.
		+
		+	* What is the impact of partial gravity on human health?
		+	* How much gravity does a human body need to stay healthy?
		+	* What kinds of exercise are needed to keep the human body healthy at partial gravity?
		+	* How much exercise is needed to keep the human body healthy at partial gravity?
		+	* Specifically: what is the health impact of Moon and Mars gravity?
		+
	The impact of zero G on human health has been studied for decades on Russian and US space stations. However, nothing is known about the health impact of long term living in partial G environments, specifically 0.15G on the Moon and 0.4G on Mars. We know the human body needs gravity, but we have no idea how much it needs.		The impact of zero G on human health has been studied for decades on Russian and US space stations. However, nothing is known about the health impact of long term living in partial G environments, specifically 0.15G on the Moon and 0.4G on Mars. We know the human body needs gravity, but we have no idea how much it needs.