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Chapter 8: Problem 63

The Google Lunar X Prize (http://googlelunarxprize.org) goes to the first privately funded team to send a robot to the Moon. The winning robot must travel some distance on the Moon's surface, and send back pictures, by December 2015 On the website, click on "The Teams" and read about a few of the teams. For each team, consider these questions: What kind of people and companies are on the team? What is their plan to go to the Moon? Aside from this prize, why do they want to go to the Moon; what commercial opportunities on the Moon do they anticipate?

Short Answer

Expert verified
Visit the Google Lunar X Prize website, navigate to 'The Teams', choose a few teams, and summarize their team members, mission plans, and anticipated commercial opportunities on the Moon.

Step by step solution

01

- Visit the Website

Go to http://googlelunarxprize.org. This is the official website of the Google Lunar X Prize.
02

- Navigate to The Teams Section

On the website, find and click on the 'The Teams' section. This section provides detailed information about all the teams competing in the challenge.
03

- Choose a Team to Research

Select a few teams to read about. Each team has its own profile including information on their members, their strategies, and their mission plans.
04

- Identify Team Members and Companies

For each team you've selected, note down the kind of people involved (e.g., engineers, scientists, entrepreneurs) and the companies that are part of the team.
05

- Understand Their Plan

Read about the specific plan each team has to send a robot to the Moon. This might include details on the technology they are using, the design of their robot, and the steps they will take to achieve their mission.
06

- Commercial Opportunities

Look for information on why these teams want to go to the Moon beyond just winning the prize. Identify any commercial opportunities they anticipate, such as mining for resources, tourism, or scientific research.
07

- Compile Your Findings

Summarize your findings for each team. Note the makeup of the team, their plan to reach the Moon, and the commercial opportunities they foresee.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Robotics in Space
Robotics play an essential role in space exploration, especially when it comes to missions like the Google Lunar X Prize. Robots can perform complex tasks in harsh conditions where humans would face significant risks. They can help collect samples, take pictures, and explore areas that are hard to reach. In the context of the Google Lunar X Prize, teams are developing advanced robots capable of traveling on the Moon's surface and transmitting valuable data back to Earth. These robots need to be durable, autonomous, and highly efficient to accomplish their missions successfully.
Lunar Exploration
Exploring the Moon is vital for various scientific and commercial reasons. Lunar exploration helps scientists understand more about the Moon's history and geology. Moreover, it can reveal insights into the early solar system. Teams participating in the Google Lunar X Prize are contributing to this exploration by sending their robots to the Moon. These missions provide opportunities for testing new technologies and collecting new data, which can lead to further discoveries and advancements in space science.
Commercial Opportunities in Space
The Moon holds significant commercial opportunities that teams in the Google Lunar X Prize are eager to explore. Some potential opportunities include:
  • Mining for precious resources such as rare earth elements and Helium-3, which can be used in future energy solutions.
  • Developing lunar tourism, offering unique experiences for humans to visit and explore the Moon.
  • Establishing scientific research facilities that can provide a base for further space exploration missions, such as those aimed at Mars.
These opportunities make lunar missions highly attractive not just for their scientific value but also for their economic potential.
Team Strategies in Space Missions
Each team participating in the Google Lunar X Prize has its strategies for reaching the Moon and accomplishing their goals. These strategies incorporate various elements:
  • The composition of the team, which often includes a mix of engineers, scientists, entrepreneurs, and sometimes artists to bring creative solutions to technical challenges.
  • The choice of technology and design being used, such as the specific type of rover or lander, and the materials selected for construction.
  • Logistical planning, such as launch schedules, landing sites, and how the mission will be executed step-by-step.
By understanding these strategies, one can see the diverse approaches taken by different teams to solve the same problem.
Technology in Space Exploration
Advancements in technology are critical to the success of space exploration missions. For the Google Lunar X Prize, teams are leveraging the latest technologies in robotics, materials science, and information technology. Some key technological aspects include:
  • Autonomous navigation systems that allow the robots to operate independently on the Moon's surface.
  • High-precision instruments for scientific measurements and data collection.
  • Communication technologies that ensure the data collected by the robots can be effectively transmitted back to Earth.
These technological innovations not only make missions more feasible but also pave the way for future advancements in the field of space exploration.

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Most popular questions from this chapter

Lava flows on the Moon and Mercury created large, smooth plains. We don't see similar features on Earth because a. Earth has less lava. b. Earth had fewer large impacts in the past. c. Earth has plate tectonics that recycle the surface. d. Earth is large compared to the size of these plains, so they are not as noticeable. e. Earth rotates much faster than either of these other worlds.

Archaeological samples are often dated by radiocarbon dating. The half-life of carbon-14 is 5,700 years. a. After how many half-lives will the sample have only \(1 / 64\) as much carbon-14 as it originally contained? b. How much time will have passed? c. If the daughter product of carbon-14 is present in the sample when it forms (even before any radioactive decay happens), you cannot assume that every daughter you see is the result of carbon-14 decay. If you did make this assumption, would you overestimate or underestimate the age of a sample?

If crater \(\mathrm{A}\) is inside crater \(\mathrm{B}\), we know that a. crater A was formed before crater B. b. crater B was formed before crater A. c. both craters were formed at about the same time. d. crater B formed crater A. e. crater A formed crater B.

Different radioisotopes have different half-lives. For example, the half-life of carbon-14 is 5,700 years, the half-life of uranium-235 is 704 million years, the half-life of potassium-40 is 1.3 billion years, and the half-life of rubidium-87 is 49 billion years. a. Why wouldn't you use an isotope with a half-life similar to that of carbon-14 to determine the age of the Solar System? b. The age of the universe is approximately 14 billion years. Does that mean that no rubidium- 87 has decayed yet?

Do a news search to see the latest news story about water on the Moon or water on Mars. What is the story based on-new space data? improved analysis of old data? If the information comes from a current space mission, go to the mission website and read the original press release. How does the news story compare with the press release? Is it just a summation? Did the writer get comments from scientists who were not directly involved in the study? How certain are the results about water?
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