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Developing the Mission
Flight Plan
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| Related Subject Area:
Science, Geography, Math
Overall Problem:
Where are the active lava flows on the Kilauea volcano?
Relationship of problem in this lesson to
overall problem: In the previous lesson students developed and
categorized a list of
questions that need to be answered to select the best aircraft for their mission. Students will
now find the answers to their questions and use the answers to 1) select the best aircraft for the
mission and 2) create a flight plan given the
mission parameters. Students begin by identifying the characteristics of
the available NASA research
aircraft. Then, they participate in a series of activities to gather
information that will help them select the optimal NASA aircraft and prepare to create a flight plan. Students are split into
three groups and assigned to investigate one of
three mission planning parameters: 1) selecting aircraft based on remote sensing
instrument parameters, 2) selecting aircraft based on mission planning
factors, and 3) selecting aircraft based on flight planning parameters. Each group
will decide which aircraft are best given what they learned, share their findings, and
together as a class identify the optimal aircraft for
the mission given all of the identified information. Students then use their
new knowledge on mission planning parameters to create a flight plan.
Finally, the students will compare their flight plan to one that was used
to fly the mission over Kilauea.
Estimated Time
Required: to be determined
Student Outcomes/Objectives:
- The students will choose the best aircraft
for the remote sensing mission by analyzing aircraft characteristics,
remote sensing instrument characteristics, mission planning factors,
and flight planning.
- The students will identify the characteristics of
available NASA research aircraft.
- The students will identify the characteristics of the
remote sensing instrument.
- The students will describe factors to be
considered when planning an airborne remote sensing mission.
- The students will describe factors to be
considered when developing a flight plan.
- The students will create the flight plan for their mission.
- The students will compare their flight plan to the
actual NASA mission flight plan.
Prerequisite skills or knowledge:
- Ability to work in teams.
- Basic internet skills.
- Basic reading and writing skills.
- Basic understanding of problem
solving.
- Basic presentation preparation skills.
Teacher Preparation:
- Print copies of the NASA Airborne Science Flight
Request Form (also used in the What are Airborne Mission Scientists and
What do they do? lesson plan)
- Print Student Journal / Worksheet pages
for these activities.
- Bookmark appropriate web-sites for students.
Student Reflection and Assessment: Reflection | Assessment
Education Standards supported by this
Lesson:
National
Science Education Standards | Project
2061 Benchmarks
National
Standards for School Mathematics | National
Technology Standards | National
Geography Standards
Extension Ideas to support National Education
Standards for this Lesson:
Math | Technology
| Geography
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Teacher
Activities
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Student
Activities
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| FRAME the Lesson:
Ask What is the overall problem that we have been
investigating?
Ask What types of questions do we need to answer
to identify which aircraft is best for this mission?
State NASA has five research aircraft that we can
choose from to conduct this mission. But before we choose the best one for
our mission you need to find information about the characteristics of each
aircraft.
Prompt students to identify the characteristics of
the available NASA research aircraft. Students should create or complete a table that
shows important characteristics of each aircraft.
Teacher note: There is no ONE correct table
format for gathering data for this activity. The table should be
developed based on the questions that students think are most important
about the aircraft. If they are unable to narrow their choices with the
information they gather, then they may need to go back and add additional
information to their table. This exploration and decision making
process is important in developing understanding of scientific process. The sample
solution table we provide for the
teacher, and in the student journal, contains the minimum
amount of information categories required to select the appropriate
aircraft for a mission. Based on your students needs for support in this
type of an activity, you may choose to use the given table or not to give
the table to the students, rather have them create their own.
Provide students with NASA research aircraft
websites or lithographs and prompt them to identify and record important aircraft
characteristics in their table.
Ask Can you select the best aircraft for this
mission based on what you now know?
- If they think they can, record their choice and ask
for rationale. (Note: at this point they have not answered all of
their questions and not have a complete rationale for their choice.
They may know enough from the lessons to date, so inform them that we
need to continue to answer their questions to see if their choice and
rational hold up to the remaining mission parameters.
Ask What else do we need to consider about the mission to select
the best aircraft?
Discuss the next steps.... investigating
important content for selecting suitable aircrafts for their
mission.
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- Identifying active lava flows on Kilauea
- Students refer to the list of questions they created in the previous
lesson (if that lesson was not conducted, use this time to have
students brainstorm a list of questions and rationalize why they are
important to the selecting aircraft for a mission - See "Defining
the Parameters of a Airborne Remote Sensing Mission" lesson plan.
Student activity
- Students work in groups to search given aircraft websites and
record information in answer to their questions. They will use the
data they collect in their table for comparison and decision making
throughout the remainder of the unit.
- Students build a table
and begin to enter data based on their review of the different
aircraft websites.
(Note: You may want to assign groups of students to investigate
one of the aircraft and enter the information for their assigned aircraft
on their table. Then, bring the class together to share each groups'
findings on their specific aircraft and have the class generate a table
with all of the data for each aircraft.)
Sample responses:
- All of the aircraft are possible at this point, unless the students
do understand that the SR-71 is not used for these types of missions,
rather is primarily used on aerodynamics research.
Sample responses:
- Characteristics of the remote sensing instrument (AViRIS)
- Outside factors such as weather
- Factors that affect flight planning
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| INFORM students
that they will be assigned to one of three groups and participate in an
activity to help find the answers to their questions. Together,
their answers should help the class select the best aircraft and prepare
to develop a flight plan for the mission.
Break
students into small groups and assign each group to the title of one of the following
activity to select the optimal aircrafts for their group's mission.
- Activity: Selecting aircraft based on remote
sensing instrument parameters (To develop an understanding of
AVIRIS and prompt students to think about the relationship between aircraft
and remote sensing instrument)
- Activity: Selecting aircraft based on mission planning
factors (To develop an understanding
of factors, such as weather, that affect mission planning and prompt students to
think
about why identifying such factors is critical to the aeronautics)
- Activity: Selecting aircraft based on flight
planning parameters (To develop an understanding of factors that
affect fight planning and prompt students to think about their flight
plan)
Circulate
around to the groups and ask the following questions:
- Which aircrafts are appropriate for your mission?
- Why do you think that your chosen aircrafts are
appropriate for your group's mission?
- Why do you think that other aircrafts are not
appropriate for your group's mission?
Teacher note:
Optional activities: Include a in-depth series of
activities and explorations on meteorology and weather related to
flight. Some engaging activities include:
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Student activity:
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| Explore each
groups' answers to their questions and
as a class select the best aircraft or determine which information is
still missing to select the best aircraft. Provide rational for the
optimal aircraft selection based on analyzing all of the collected data.
Prompt each group, one at a time, to present their selected
aircraft and their rationale as to why it/they is/are best given their
information.
Discuss
each groups' selection and determine the best aircraft for the the groups'
given mission parameters.
-
Each
group provides feedback about other groups' selection (s).
-
Be
sure to point out the given parameters for each group and how the
introduction of additional parameters from different perspectives
helps to make the ultimate selection possible.
-
During
these presentations the students construct an overall table with all
key information necessary to select the best aircraft. (note:
Students may record notes on the provided worksheet or perhaps create
a combined table on the chalk board or poster paper.)
Ask
Which aircraft is best aircraft for this mission? why?
Ask
How does this choice compare to your initial selection after identifying
the characteristics of each of the aircraft?
Discuss
next step---- develop flight plan for the mission.
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Student
responses:
-
Group
1: ER-2, DC-8, King Air (based on information on the remotes sensing
instruments)
-
Group
2: SR-71, ER-2, DC-8, Pathfinder (based on information about mission
and weather requirements)
-
Group
3: SR-71, ER-2, pathfinder (based on information about flight plan
parameters)
(Note:
Students may have already removed the SR-71 from the list of viable choices based on
fact that the research purpose of the SR-71 altitude and speed research
and not remote sensing missions, however, students may find references to
historical used of the SR-71 for aerial reconnaissance - taking pictures.)
Sample
responses:
-
ER-2
- purpose, altitude, crew, airport runways lengths available, flight distance
and time, AViRIS requirements.
-
Students
reflect back on their original choice and how their original selection
was supported with the new information and needed to change based on
what they learned.
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TRY using new knowledge about the aircraft and mission planning to
develop a flight plan for the mission.
Brainstorm ideas for creating
the mission flight plan, what do we need to know and do to create our flight plan?
Refer
students to the NASA Airborne Sciences Flight Request Form in their
journal. Remind them that they completed one like this in a previous
lesson "What are airborne mission scientists?"
Ask
What else do we need to develop to plan this flight, e.g., we know the
type of aircraft and remote sensing instrument, the purpose for the
flight, the location and time for data collection ... what is missing? (Prompt
for creating a map of the flight)
Ask
Where is the aircraft stationed?
Prompt
students to think about the mission: Where are the take-off and
landing locations? How far is it between these locations? What are the
capabilities of the aircraft? What other conditions need to be accounted
for in the mission plan?
Project examples of
flight paths for other types
of missions. This will give students an idea of how mission planners
create different patterns to collect different types of data.
Prompt
student to think about:
State
these are complex flight plans and should give you an idea about
specific plans the mission planner provides to a pilot who flies a
mission. Our flight path will be much simpler, basically we will fly from
Dryden (home of the ER-2) to the mission target (Kilauea) and eventually
back to Dryden. Your job is to think about the mission parameters
and develop a flight plan to go with the NASA Airborne Sciences
Flight Request
Form.
Remind
students to consider the information they gathered on their worksheet, e.g.,
aircraft characteristics, remote sensing instrument requirements, weather, etc.
Direct
students to work in groups to complete the NASA Airborne Sciences
Flight Request Form and
create a flight plan for their mission.
***
INCORPORATE FLIGHT PLAN ACTIVITY FROM MARK AND SHELLEY HERE ***
Debrief
activity by having students share their flight plans.
Prompt
students to compare their flight plans to the actual mission flight plan
and discuss:
- What
are there differences between your plans and the actual mission plan?
-
Why?
Summarize
lesson and introduce next steps ... collecting and analyzing the data!
Teacher
Resource:
Other
sample flight paths for remote sensing missions:
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Student
activity:
Sample
responses:
- Where will the mission start?
- Where will the mission end?
- What is the best flight path for the mission?
Sample
response:
- NASA Dryden Flight Research Center
at Edwards Air Force Base in southern California.
*** INCORPORATE
FLIGHT PLAN ACTIVITY FROM MARK AND SHELLEY HERE *** |
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Student
Reflection Activities
In their journals, have the students respond to the following:
- Why do you need to consider aircraft characteristics,
remote sensing instrument, outside factors, and the flight planning
parameters when planning a mission?
- What was their original thought on the best aircraft
for the mission given only the aircraft characteristics and how did it
change after considering other factors and mission parameters?
- What role does questioning play in scientific
inquiry?
- Why does understanding the principles of flight help
you develop a mission plan?
Assessment
- Check the information collected by the students on their worksheets
for accuracy.
- Check students rationale for selecting aircraft given the
information they gathered.
- Review flight plans for accuracy.
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Ideas for Math lesson
enhancements:
- Measurement: Student make measurements between take-off and landing
locations and convert between metrics and U.S. measures.
- Ratios: Student draw a scale map of the flight path, calculating the
miles equivalents in inches and converting them to metrics.
- Calculation: Student use the R*T=D formula to calculate different
either rate, time, or distance to compare different flight plans during
the flight plan activity
Related National Education Math Standards
Standard:
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Ideas for Geography lesson
enhancements:
- Regional climate: Students study the weather conditions for each
location, Southern California and Hawaii for different times of the year
and use this information to determine when the best time of year is for
conducting this mission.
- Geography / latitude and longitude: Students develop relief maps of
the target location and plot the old and new lava flows on their
map/model using latitude and longitude measures.
Related National Education Geography
Standards Standard:
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Ideas for Technology lesson
enhancements:
- Presentation software: Students learn
to use presentation software while creating a presentations on their
information and selected aircraft
- Spreadsheets: Student use spreadsheet
to help calculate distances for their flight plan.
- Databases: Students capture weather
data and patterns on the flight locations overtime.
- Graphics software: Student create their
flight plans using graphics software.
- Web site development: Students create a
web site describing the mission parameters and flight plan.
Related National Education Science
Technology Standard:
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Aircraft Characteristics
The blue bolded
text represents the information that students identify from the given
websites
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SR-71
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ER-2
|
DC-8
|
King-Air
|
Pathfinder
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Aircraft characteristics
|
Purpose |
|
high
altitude / high speed research |
Flying
laboratory, environmental research |
Flying
laboratory, environmental research |
Environmental
research, people transport |
Environmental
research |
| Maximum
Equipment Weight |
|
2,000
lbs |
2600
lbs |
30,000
lbs |
4400
lbs |
100
lbs |
| Maximum
Equipment Power |
|
some
available |
high
capacity 28 volts DC |
high
capacity AC/DC 125 KW 400hz & 60hz |
some
available AC/DC 60 amps DC |
2
KW |
| Altitude |
|
85,000
ft |
65,000
- 70,000 ft |
41,000
ft |
35,000
ft usually 26,000 ft. |
80,200+
ft |
| Maximum Speed |
|
2,200
mph |
470
mph |
600
mph |
120-238
knots |
15-20
mph |
| Maximum Cruise
Duration |
|
1-2
hrs |
6.5
hr. |
12
hrs |
4
- 5.5 hrs |
14+ hrs |
| Crew |
|
1-2 |
1 |
4
to 50 |
2
to 4 |
0 |
| Weather
requirements |
|
clear,
stable |
take-off
in up to 15 knot cross winds |
take-off
in up to 35 knot cross winds |
anything
but icy weather |
maximum
12 mph wind at take off, limited or no clouds |
| Needed Runway
Length |
|
. |
500
to 1500 ft. |
6,000
ft |
1900
ft. |
200
ft. |
| Expense |
|
very
high |
moderate |
moderate |
low |
low |
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Group
Activity Reference Sites
| Groups |
Student Activity |
|
Group 1- Selecting
aircraft based on remote sensing instrument parameters
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Students are encouraged to think through the process of
selecting the most appropriate research aircraft given specific remote sensing instrument
parameters. Students will use an
activity sheet to compare important features of
AVIRIS with those of NASA research aircraft.
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Group 2- Selecting aircraft
based on mission planning factors
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Students are encouraged to explore various factors that
affect flight and propose which aircraft would be best suitable for the overall
mission. Students will use an activity
sheet to investigate the factors that may affect mission
planning.
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Group 3- Selecting aircraft
based on flight planning parameters
|
Students are encouraged to identify the appropriate airports, available
airport runway length, flight distance, and time to help them identify
flight planning parameters that are important in mission planning. Students will
use an activity
sheet to help them select the best aircraft based on flight
planning parameters.
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Activity
Sheet: Selecting aircraft based on
remote sensing instrument parameters
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There
are many different kinds of remote sensing instruments. They come in
a wide variety of sizes and weights based on their purpose and the
methods they use for data communication and storage. Some remote
sensing instruments work best at certain altitudes or below certain
speeds. Others may be limited to the certain weather conditions. All
of these factors must be considered when choosing the most
appropriate aircraft for the mission.
- The remote sensing instrument for this mission
is the AVIRIS.
Characteristics of the AVIRIS include:
- weight: 720+ pounds
- power requirements: 28 volts DC, 400 hz
- best altitudes for data collection: 35,000 to 65,000 feet
- best speed for collecting data: 450 mph
Consider the following questions as you consider
the
optimal aircraft for flying a mission using the AVIRIS:
-
How
much power does the remote sensing instrument need to operate?
Is it available on the aircraft?
-
At
what altitude can the aircraft fly? What is the optimal altitude
for operating AVIRIS?
-
How
fast does the aircraft fly? What is the optimal speed for collecting
data using the AVIRIS?
|
Aircraft
Selection Table based on Remote Sensing Instrument
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|
|
SR-71 |
ER-2 |
DC-8 |
King-Air |
Pathfinder |
Remote Sensing Instrument
|
Equipment
Weight |
720
lbs |
|
|
|
|
|
| Necessary
Equipment Power |
28
volts DC, 400hz |
|
|
|
|
|
| Aircraft
Altitude |
30,000
to 65,000 ft. |
|
|
|
|
|
| Aircraft Speed |
300-470
mph |
|
|
|
|
|
| Select
the best Aircraft |
|
. |
X |
X |
X |
. |
| Why
or why not? |
|
too fast, lacks
equipment power
|
altitude,
payload, speed |
altitude,
payload, speed |
altitude, payload
|
too much payload
|
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Activity
Sheet: Selecting aircraft based on
mission planning factors
Suppose
that you are preparing to take a vacation. Generally you think about
where you are going, when you will leave and arrive, and what will
you do while away. You might also think about other possibilities
that might affect your journey such as car trouble, weather, and
money. Like planning a vacation, mission planners think about
factors that might affect a mission. What factors do you think need
to be considered when developing a mission plan?
-
When
to fly, flight distance and duration, target locations, weather,
number of flight passes (duration), time of day for data
collection, people involved in flight
operations, ground crew
Here
is information provided by a mission planner that needs to be
considered for this mission.
Mission Planning Factors
| How
long will data be collected* |
6 hour flight
|
| How
often will data need to be collected? |
1
time
|
| What
time of day will data need to be collected |
daylight
|
| What
are the weather requirements for the mission? |
clear
skies, less than 15% clouds
|
* This flight will be 6 hours because other data is being
collected at the same time.
Select the
optimal aircraft while thinking about the following questions:
1.
What is/are the best aircraft considering the duration of
testing needed?
2.
What is/are the best aircraft considering time of day for
data collection?
3.
What is/are the best aircraft considering the required weather
conditions?
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Aircraft Selection Table based on
Mission Planning Factors
| |
|
|
SR-71
|
ER-2
|
DC-8
|
King-Air
|
Pathfinder
|
mission
possibilities
|
How long do I
need to collect data? |
6 hours
|
|
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| How many passes are needed for data collection? |
1 time
|
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| When do I need
to sense data? |
day
|
|
|
|
|
|
| Weather
requirements |
clear skies
|
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|
|
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| Select
the best Aircraft |
|
. |
X |
X |
. |
X |
|
Why and why
not? |
|
too
fast to collect data, flight
time |
flight
time |
flight
time |
flight
time |
Flight
time |
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Activity
Sheet: Selecting aircraft based on
flight planning parameters
|
When a mission planner develops a flight
plan, many different parameters are defined that help select the
aircraft and plan the mission. The following questions are commonly
researched: What
aircraft is available to fly the mission? What is the necessary
runway length for the available aircraft? Where will the aircraft
need to fly, how long will it fly? What airports are near the target
site? Do we have access to those airports? Do the available airports
have the necessary equipment to support the aircraft?
For this mission, consider the available
airports between the aircrafts' home base and the target remote
sensing location. Where are the airports that can be used to support
this mission?
Edwards
AFB -home of the NASA Dryden research aircraft- and airport in Hawaii,
e.g., Honolulu, Hilo, Hikkum
Where is NASA Dryden located? NASA
Dryden is on Edwards Air Force Base in Southern California
Where is the remote sensing target
location? Kilauea Volcano
is on the Big Island of Hawaii
How far is it from the home base to the
target? Approximately
2550 miles between
Dryden and the Kilauea
Here
is additional information provided by mission planning.
-
One
pilot is available who is prepared to fly the mission, no
other pilots are available, ground and support crews are
available to support any type of aircraft at all airports.
-
Data
need to be gathered from an altitude of 65,000 ft.
-
Airport
runway lengths are between 5,600 and 12,000 ft.
Consider the following questions while
selecting the optimal aircraft for this mission.
1.
What aircraft is best given the availability of crew?
2.
Which aircraft is best given the altitude requirement?
3.
Which aircraft is best given the runway length of the
available airports?
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Aircraft
Properties Table for Mission Possibilities for Flight Plan
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| |
|
|
SR-71
|
ER-2
|
DC-8
|
King-Air
|
Pathfinder
|
|
Airport
Runway |
5,600
- 12,000 ft. |
|
|
|
|
|
| Crew
available |
1 |
|
|
|
|
|
| Altitude
of image |
65,000
ft |
|
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|
|
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| Select
the best Aircraft |
|
X |
X |
. |
. |
.X |
|
Why
and why not? |
. |
altitude, crew
|
altitude, crew
|
altitude,
not enough crew |
altitude,
not enough crew |
altitude,
runway |
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Name:
Material/information
required:
-
Map
on take-off, mission target, and landing sites
-
Type
of Aircraft for the mission
-
Ruler
and unit conversion information
-
Sample
flight plan form
Activity:
Develop a flight plan for the mission considering the following
questions...
Step
1: To identify flight path
Step
2: Gather airport information on place of take off
-
What is the departure airport?
-
When with the aircraft take off?
-
What will be the cruise
speed of the aircraft?
-
What weather is required for take off?
Step 3: Gather landing location information.
-
What is the destination airport?
-
What time will landing occur?
-
What weather is required for landing?
Step 4: Gather
information on flying mission.
-
What time will the aircraft take-off?
-
What direction and how far will the aircraft fly to get to
the data collection location?
-
At what speed will you fly to get to the data collection
area and how long will it take to get to the pattern location?
-
What flight speed is
required for collecting data with remote sensing instrument?
-
What kind of a pattern will you fly during data collection?
-
Calculate the flight plan
distance and map:
-
Distance from take-off to data collection pattern
-
Distance for data
gathering pattern
-
Distance from data
gathering location to landing.
-
Calculate time for
collecting data during mission
-
What is the take-off
time?
-
What time should the R/S
instrument be turned on?
-
What time should the RS
instrument be turn off ?
-
What will the aircraft
land?
Reflection
about my flight plan: Write a one page essay answering the questions below
...
-
How
will this flight plan help me to conduct this mission?
-
Is
this flight plan adequate for the mission? why or why not?
-
What
else do you need to know to have a successful mission?
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AIRBORNE
SCIENCE FLIGHT REQUEST
National
Aeronautics and
Space Administration
|
|
Investigation
Title:
Reason for requesting use of NASA
Facilities:
|
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Investigator(s):
|
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Background and Primary Science
Objectives:
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Aircraft
Required: ER-2
DC-8
P-3B Orion
(circle)
King Air
Pathfinder SR-71
Blackbird
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|
Data requirements and Aircraft sensor:
TYPE OF DATA BEING COLLECTED: (describe)
SENSORS (circle):
MODIS
AVIRIS
MAMS
MACAWS
Harvard Co2
Dual-Beam UV-Absorption Spectrometer
Aerial Camera Systems
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General Flight Window
(Month):
General Site Location (State or Country):
A)
A)
B)
B)
C)
C)
D)
D)
|
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This Form must be completed and
returned to NASA/DFRC
by:
(Do
not mark in this space/For office use only)
|
Mail
completed forms to:
Dryden Flight Research
Center
National
Aeronautics and
Space Administration
Attn.: Airborne Science
Directorate, Flight Requests
MS D1623H
P.O. Box 273
Edwards, CA
93523-0273
Phone
(661) 258-7540 FAX (661) 258-3719
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***
Add sample solution flight plan ***
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2/24/01(ver.
beta)
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