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Scope
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Introduction
Math
Activities
Pre-Mission
Preparation
Mission
Your
"To-Do" List
Resources
|
Overview
Students will run an
activity, called a “mini mission,” using
practice data.
Recommended Preparation
- Assign students to a team. Do not
assign the Communications Team roles yet,
because these students will not have much to
prepare. Instead, wait until the day before the
mission and assign the roles to two students who
have not taken on heavy team roles. Give these
students the Communications Team instructions
and ask them to read it as homework. Make sure
your choice for Data Officer includes a student
who can type well.
- For homework before this class,
students should read:
- Overview of Teams
- Their team’s instructions
Duration
10-15 minutes: Organize the
students into teams and give directions
30-45 minutes: Run the
mini-mission
Materials Needed
Set up Classroom and
Assign Roles
- Organize your students following the
Classroom Setup directions. For the mini-mission
you will need only one computer. This computer
will be used for the online moon map by a member
of the Moon Mapping Team. You can also access the
online moon map by a link available in the
Pre-mission Preparation web page.
- Using their team instructions, students
may self-organize and choose one of the roles
listed. Alternatively, you might want to make
assignments.
Run Mini-Mission
- Standing at the front of the room, the
teacher or a student may hand out Mini-mission
Reading 1, one apiece, to each team.
- The Crisis Management Team needs to become
familiar with the inventory and astronauts on
each base. Decide where and how to move people
and equipment at each base.
- Each team should start processing the
information, filling in the report forms, and
giving them back to you, where you check them
against the answer key.
- After six minutes, hand out
Mini-mission Reading 2 to the Comet Tracking and
Moon Mapping Teams.
- Continue handing out the remaining
readings to the Comet Tracking and Moon Mapping
Teams every six minutes.
- During the mini-mission you should look
for communication flow bottlenecks and make
modifications now or write them down for
discussion later. The idea is that when Mission
Day arrives, the students will be well prepared
with the mechanics of the mission and will be
able to advance to more critical thinking and
problem solving during the live event.
Mini-Mission Reading 1:
Comet Tracking Team
UTC |
Diameter of Comet
(m) |
Distance to Moon
(km) |
Speed (km/sec) |
0100 |
2,000 |
750,600 |
34 |
Mini-Mission Reading 2:
Comet Tracking Team
UTC |
Diameter of Comet
(m) |
Distance to Moon
(km) |
Speed (km/sec) |
0130 |
2,000 |
686,600 |
38 |
Mini-Mission Reading 3:
Comet Tracking Team
UTC |
Diameter of Comet
(m) |
Distance to Moon
(km) |
Speed (km/sec) |
0200 |
1,500 |
457,200 |
45 |
Mini-Mission Reading 4:
Comet Tracking Team
UTC |
Diameter of Comet
(m) |
Distance to Moon
(km) |
Speed (km/sec) |
0230 |
1,500 |
388,800 |
43 |
Mini-Mission Reading 1:
Moon Mapping Team
UTC |
Radius (km) |
Latitude
|
Longitude |
0100 |
450 |
15°
N |
40°
E |
Mini-Mission Reading 2:
Moon Mapping Team
UTC |
Radius (km) |
Latitude
|
Longitude |
0130 |
450 |
25°
N |
35°
E |
Mini-Mission Reading 3:
Moon Mapping Team
UTC |
Radius (km) |
Latitude
|
Longitude |
0200 |
425 |
30°
N |
25°
E |
Mini-Mission Reading 4:
Moon Mapping Team
UTC |
Radius (km) |
Latitude
|
Longitude |
0230 |
425 |
33°
N |
15°
E |
Mini-mission Reading 1: Crisis Management
Team
Sample Inventory
|
|
Latitude |
Longitude |
Base A |
Lunar
Port |
10°
N |
15°
E |
Base B |
Mining
Site |
20°
N |
20°
N |
Base C |
Mobile
Lab |
25°
N |
30°
W |
Astronaut Roster
Astronaut |
Job Title |
Location |
Abdelkarim, Will |
Rover Operator |
Lunar Port |
Allen, Peter |
Rover Operator |
Mine |
Canters, Lily |
Mine
Precision Specialist |
Mine |
Carter, Nicolas |
Copilot |
Lunar Port |
Castillo, Jośe |
Shuttle Engineer |
Mobile Lab-Mobitat |
Chen, Michael |
Mining Equipment Speacilist |
Mobile Lab-Habot |
Transportation Resources
Resource |
Location |
Capacity |
Speed & Maximum
Range |
Description |
Pressurized Rover |
Lunar
Port: 1
Mine: 1 |
4 astronauts & 400
kg supplies per vehicle |
75km/hr
200km max. |
This
vehicle looks a little like a Hummer
with inflatable tires. The pressurized
seating area provides life support for
eight hours, eliminating the need for
space suits. The rover may dock with the
air lock at the lunar port. |
Unpressurized Rover |
Mobile Lab: 1
Mine: 1 |
2
astronauts & 200 kg supplies per vehicle |
100km/hr 500km max. |
This vehicle is similar to the moon
rovers of the 1960s & ’70s—somewhat like
a dune buggy. Not useful for longer
journeys because it requires the
astronauts to wear their spacesuits. |
Space
Shuttlecraft |
Lunar
Port: 1 |
6 astronauts |
29,000km/hr 600,000 km max. |
Launch
vehicle designed by NASA capable of
traveling in space for exploration and
discovery. In an emergency Earth-based
shuttlecraft may also be sent to the
Moon to arrive in about 20 hours. |
Jetpacks |
|
1
astronaut per jetpack |
200km/hr
200km max. |
These rechargeable personal
transportation devices are used
frequently for travel. Astronauts always
travel and work in pairs. Each has 24
nitrogen gas thrusters with handheld
joysticks for maneuvering. Astronauts
may carry additional weight, but doing
so will consume the fuel faster. |
Habots |
Mobile
Lab: 1 |
4 astronauts per
unit |
5km/hr
2000 km max. |
This
“habitation robot” may be lived in and
may also be moved robotically from a
distance, using either wheels or six
“walking” legs. Ideal for setting up a
temporary lunar base, without need for
personnel on site. Astronauts may live
for one month on board if necessary. |
Mobitats |
Mobile Lab: 2 |
2
astronauts per unit |
50km/hr 2000 km max. |
This “mobile habitat” may be driven by
two astronauts to a site of interest and
linked with habots to form a temporary
living laboratory for exploration.
Astronauts may live for two months on
board if necessary. |
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