KC-135: Particle Damping - PowerPoint PPT Presentation

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KC-135: Particle Damping

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KC-135: Particle Damping Bill Tandy Tim Allison Rob Ross John Hatlelid – PowerPoint PPT presentation

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Title: KC-135: Particle Damping


1
KC-135 Particle Damping
  • Bill Tandy
  • Tim Allison
  • Rob Ross
  • John Hatlelid

2
Introduction
  • Team Overview
  • Project Description
  • Theory
  • Design
  • Budget
  • Schedule

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
3
The Team-Bill Tandy
  • Internship Experiences Lead to the Concept
  • Became the de Facto Leader
  • Overall Responsibility for the Project
  • Point Man for NASA
  • Attends Department Meetings Events

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
4
The Team-Tim Allison
  • Hard Working and Diligent
  • Responsible for Funding
  • Arranged Hotel and Travel
  • Theoretical Background

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
5
The Team-Rob Ross
  • Aptitude for Design and Construction
  • Given Responsibility for Construction
  • Cabinet Design and Construction
  • Experiment Materials and Setup
  • Volunteered to Write Weekly Memos

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
6
The Team-John Hatlelid
  • Dedicated and Thorough
  • Determined Components of the Experiment
  • Responsibility for Applying for Donations
  • Worked with Rob on Construction

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
7
KC-135 Program
  • Annual opportunity for undergraduate student
    research
  • KC-135 Aircraft flies parabolic trajectory to
    create microgravity environment
  • Microgravity environment available for 20-30
    seconds

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
8
Goals for this Semester
  • Understand the underlying concepts of vibrating
    cantilever beams
  • Devise an experiment to test the impact of
    particle damping
  • Gather data on the ground
  • Gather data in flight
  • Compare the two sets of data

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
9
Project Background
  • Ball Aerospace Needed Unique Solutions to
    Damping Vibrations in Space Structures
  • Particle Damping was Investigated, but Discarded
    Due to Lack of Data
  • NASAs Student Flight Program Provided the
    Perfect Platform for Data Acquisition

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
10
Experiment Basics
  • Vibrating Cantilever Beam Filled with Particles
    of Different Material Properties

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
11
Particle Variations
  • Twelve Pre-Filled Beams
  • Three Materials of Different Density
  • Each Material Will Have Two Sizes
  • Each Size Will Fill the Beam 50 75

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
12
Data Reduction
  • Accelerometer will acquire acceleration at the
    tip of beam
  • Peak acceleration amplitude will be plotted vs.
    time
  • We will compare the duration amplitude of
    transient, steady-state, and decay period
    vibrations for each sample

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
13
Theory Overview
  • Viscoelastic Damping
  • Frictional Damping
  • Beam Response
  • Problems

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
14
Theory Viscoelastic Damping
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Particles collide with other particles and with
    the cavity wall
  • Energy only conserved for perfectly elastic
    collisions, where particles are undeformed
  • Particles may be represented with Maxwell model
  • Dashpot in Maxwell model represents viscoelastic
    damping within material

Source University of Texas
Bill Tandy Tim Allison Rob Ross John Hatlelid
15
Theory Frictional Damping
  • Friction forces act on particles as they scrape
    against each other and cavity walls, converting
    kinetic energy to thermal energy
  • Particle-Particle
  • Particle-Cavity
  • Particle-Cavity Equations are only useful in a
    gravitational field

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Source Olson Drake, University of Dayton
Bill Tandy Tim Allison Rob Ross John Hatlelid
16
Theory Beam Response
  • System is a cantilever beam with sinusoidal base
    excitation
  • Differential EOM is
  • Solution is an infinite sum

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
y(t)Y0sin(?t)
u(x,t)
Algebraic Eigensolutions
Solutions to Modal ODEs
Bill Tandy Tim Allison Rob Ross John Hatlelid
17
Theory - Problems
  • Theoretical solution possible for hollow rod,
    but with added particles the problem becomes
    extremely complex
  • A theoretical prediction of the beams motion
    will not be attempted
  • The effect of particles will be analyzed
    experimentally on the KC-135

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
18
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
19
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
20
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
21
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
22
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
23
Test Bay Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Some factors influencing the design
  • Requirements
  • Size
  • Procedures
  • Materials

Bill Tandy Tim Allison Rob Ross John Hatlelid
24
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
25
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
26
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
27
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
28
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
29
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
30
Test Bay Design Requirements
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Structurally sound (withstand 9 Gs)
  • Secure to Aircraft
  • Test equipment security
  • Test equipment containment
  • Weight per spacer
  • Non-hazardous

Bill Tandy Tim Allison Rob Ross John Hatlelid
31
Test Bay Design Size
  • Layout
  • Spacing
  • Weight
  • Timing

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
32
Test Bay Design Size
  • Layout
  • Spacing
  • Weight
  • Timing

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
33
Test Bay Design Size
  • Layout
  • Spacing
  • Weight
  • Timing

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
34
Test Bay Design Size
  • Layout
  • Spacing
  • Weight
  • Timing

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
35
Test Bay Design Size
  • Layout
  • Spacing
  • Weight
  • Timing

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
36
Test Bay Design Size / Layout
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • KC-135 cross-section
  • KC-135 floor spacers

Bill Tandy Tim Allison Rob Ross John Hatlelid
37
Test Bay Design Size / Layout
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • KC-135 cross-section
  • KC-135 floor spacers

Bill Tandy Tim Allison Rob Ross John Hatlelid
38
Test Bay Design Size / Layout
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • KC-135 cross-section
  • KC-135 floor spacers

Bill Tandy Tim Allison Rob Ross John Hatlelid
39
Test Bay Design Size / Spacing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Ample room for test operation
  • Specimens laid end to end
  • Function generator, Line conditioner, Surge
    protector
  • Computer, Work space

Bill Tandy Tim Allison Rob Ross John Hatlelid
40
Test Bay Design Size / Spacing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Ample room for test operation
  • Specimens laid end to end
  • Function generator, Line conditioner, Surge
    protector
  • Computer, Work space

Bill Tandy Tim Allison Rob Ross John Hatlelid
41
Test Bay Design Size / Spacing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Ample room for test operation
  • Specimens laid end to end
  • Function generator, Line conditioner, Surge
    protector
  • Computer, Work space

Bill Tandy Tim Allison Rob Ross John Hatlelid
42
Test Bay Design Size / Spacing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Ample room for test operation
  • Specimens laid end to end
  • Function generator, Line conditioner, Surge
    protector
  • Computer, Work space

Bill Tandy Tim Allison Rob Ross John Hatlelid
43
Test Bay Design Size / Spacing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Ample room for test operation
  • Specimens laid end to end
  • Function generator, Line conditioner, Surge
    protector
  • Computer, Work space

Bill Tandy Tim Allison Rob Ross John Hatlelid
44
Test Bay Design Size / Weight
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 200 lbs per spacer used
  • 6 spacers required
  • 300 lbs max weight
  • Our weight approximately 280 lbs

Bill Tandy Tim Allison Rob Ross John Hatlelid
45
Test Bay Design Size / Weight
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 200 lbs per spacer used
  • 6 spacers required
  • 300 lbs max weight
  • Our weight approximately 280 lbs

Bill Tandy Tim Allison Rob Ross John Hatlelid
46
Test Bay Design Size / Weight
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 200 lbs per spacer used
  • 6 spacers required
  • 300 lbs max weight
  • Our weight approximately 280 lbs

Bill Tandy Tim Allison Rob Ross John Hatlelid
47
Test Bay Design Size / Weight
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 200 lbs per spacer used
  • 6 spacers required
  • 300 lbs max weight
  • Our weight approximately 280 lbs

Bill Tandy Tim Allison Rob Ross John Hatlelid
48
Test Bay Design Size / Weight
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 200 lbs per spacer used
  • 6 spacers required
  • 300 lbs max weight
  • Our weight approximately 280 lbs

Bill Tandy Tim Allison Rob Ross John Hatlelid
49
Test Bay Design Size / Timing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 30 second zero G maneuver
  • 40 seconds for test specimen swap and test setup
  • Requires that test areas be uncluttered

Bill Tandy Tim Allison Rob Ross John Hatlelid
50
Test Bay Design Size / Timing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 30 second zero G maneuver
  • 40 seconds for test specimen swap and test setup
  • Requires that test areas be uncluttered

Bill Tandy Tim Allison Rob Ross John Hatlelid
51
Test Bay Design Size / Timing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 30 second zero G maneuver
  • 40 seconds for test specimen swap and test setup
  • Requires that test areas be uncluttered

Bill Tandy Tim Allison Rob Ross John Hatlelid
52
Test Bay Design Size / Timing
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 30 second zero G maneuver
  • 40 seconds for test specimen swap and test setup
  • Requires that test areas be uncluttered

Bill Tandy Tim Allison Rob Ross John Hatlelid
53
Test Bay Design Procedures
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch Upper Bay doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper bay doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas bay door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
54
Test Bay Design Procedures / Latch
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch Upper Bay doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper bay doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas bay door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
55
Test Bay Design Procedures / Latch
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch upper bay doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper bay doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas bay door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
56
Test Bay Design Procedures / Latch
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch Upper doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper bay doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas bay door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
57
Test Bay Design Procedures / Latch
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch Upper Bay doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas bay door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
58
Test Bay Design Procedures / Latch
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Prior to parabola, move into position in front of
    experimental assembly
  • Unlatch plexiglass door
  • Remove safety pins from specimens
  • Remove point mass from specimen
  • Remove specimen from base mass
  • Unlatch Upper Bay doors
  • Select next specimen from storage bay
  • Note new specimen selected
  • Replace previous specimen in storage bay
  • Close and latch upper bay doors
  • Insert new specimen into base mass
  • Attach point mass
  • Insert safety pins
  • Close and latch Plexiglas door
  • Configure LabView for next parabola

Bill Tandy Tim Allison Rob Ross John Hatlelid
59
Test Bay Design Materials
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Cost Availability to strength ratios
  • Base - MDF
  • Frame - Steel
  • Walls and Shelves 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
60
Test Bay Design Materials
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Cost Availability to strength ratios
  • Base - MDF
  • Frame - Steel
  • Walls and Shelves 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
61
Test Bay Design Materials
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Cost Availability to strength ratios
  • Base - MDF
  • Frame - Steel
  • Walls and Shelves 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
62
Test Bay Design Materials
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Cost Availability to strength ratios
  • Base - MDF
  • Frame - Steel
  • Walls and Shelves 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
63
Test Bay Design Materials
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Cost Availability to strength ratios
  • Base - MDF
  • Frame - Steel
  • Walls and Shelves 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
64
Test Bay Design Materials / Base
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 4 2X4 ft and half in. thick sheets of MDF
  • 4 Casters Rated for 150 lbs each

Bill Tandy Tim Allison Rob Ross John Hatlelid
65
Test Bay Design Materials / Base
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 4 2X4 ft and half in. thick sheets of MDF
  • 4 Casters Rated for 150 lbs each

Bill Tandy Tim Allison Rob Ross John Hatlelid
66
Test Bay Design Materials / Base
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 4 2X4 ft and half in. thick sheets of MDF
  • 4 Casters Rated for 150 lbs each

Bill Tandy Tim Allison Rob Ross John Hatlelid
67
Test Bay Design Materials / Frame
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Steel angle iron
  • Steel L-Clamps
  • Steel truss members

Bill Tandy Tim Allison Rob Ross John Hatlelid
68
Test Bay Design Materials / Frame
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Steel angle iron
  • Steel L-Clamps
  • Steel truss members

Bill Tandy Tim Allison Rob Ross John Hatlelid
69
Test Bay Design Materials / Frame
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Steel angle iron
  • Steel L-Clamps
  • Steel truss members

Bill Tandy Tim Allison Rob Ross John Hatlelid
70
Test Bay Design Materials / Frame
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Steel angle iron
  • Steel L-Clamps
  • Steel truss members

Bill Tandy Tim Allison Rob Ross John Hatlelid
71
Test Bay Design Materials / Walls Shelves
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
72
Test Bay Design Materials / Walls Shelves
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • 7 ply

Bill Tandy Tim Allison Rob Ross John Hatlelid
73
Hardware Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • A data acquisition system is needed to determine
    the response in the beam
  • The system will use two accelerometers
  • The data acquisition system must be lightweight
    and capable of interfacing with a laptop

Bill Tandy Tim Allison Rob Ross John Hatlelid
74
Hardware Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • A data acquisition system is needed to determine
    the response in the beam
  • The system will use two accelerometers
  • The data acquisition system must be lightweight
    and capable of interfacing with a laptop

Bill Tandy Tim Allison Rob Ross John Hatlelid
75
Hardware Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • A data acquisition system is needed to determine
    the response in the beam
  • The system will use two accelerometers
  • The data acquisition system must be lightweight
    and capable of interfacing with a laptop

Bill Tandy Tim Allison Rob Ross John Hatlelid
76
Hardware Design
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • A data acquisition system is needed to determine
    the response in the beam
  • The system will use two accelerometers
  • The data acquisition system must be lightweight
    and capable of interfacing with a laptop

Bill Tandy Tim Allison Rob Ross John Hatlelid
77
Hardware Selection
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • DAQ System
  • We consulted Travis Fergusson at National
    Instruments
  • Currently we are looking at using National
    Instruments hardware for data acquisition

Bill Tandy Tim Allison Rob Ross John Hatlelid
78
Hardware Selection
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • DAQ System
  • We consulted Travis Fergusson at National
    Instruments
  • Currently we are looking at using National
    Instruments hardware for data acquisition

Bill Tandy Tim Allison Rob Ross John Hatlelid
79
Hardware Selection
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • DAQ System
  • We consulted Travis Fergusson at National
    Instruments
  • Currently we are looking at using National
    Instruments hardware for data acquisition

Bill Tandy Tim Allison Rob Ross John Hatlelid
80
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI - 6036 DAQ Card
  • Lightweight
  • Can be interfaced with a laptop
  • Supports SCC line conditioner
  • Has many inputs with high sampling rates

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
81
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI - 6036 DAQ Card
  • Lightweight
  • Can be interfaced with a laptop
  • Supports SCC line conditioner
  • Has many inputs with high sampling rates

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
82
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI - 6036 DAQ Card
  • Lightweight
  • Can be interfaced with a laptop
  • Supports SCC line conditioner
  • Has many inputs with high sampling rates

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
83
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI - 6036 DAQ Card
  • Lightweight
  • Can be interfaced with a laptop
  • Supports SCC line conditioner
  • Has many inputs with high sampling rates

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
84
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI - 6036 DAQ Card
  • Lightweight
  • Can be interfaced with a laptop
  • Supports SCC line conditioner
  • Has many inputs with high sampling rates

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
85
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SC-2345
  • Modular unit for SCC line conditioning
  • SCC line conditioning is low cost and portable
  • With low number of inputs, this is an ideal
    system

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
86
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SC-2345
  • Modular unit for SCC line conditioning
  • SCC line conditioning is low cost and portable
  • With low number of inputs, this is an ideal
    system

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
87
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SC-2345
  • Modular unit for SCC line conditioning
  • SCC line conditioning is low cost and portable
  • With low number of inputs, this is an ideal
    system

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
88
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SC-2345
  • Modular unit for SCC line conditioning
  • SCC line conditioning is low cost and portable
  • With low number of inputs, this is an ideal
    system

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
89
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SCC-ACC01
  • Accelerometer module
  • Designed to take inputs from accelerometers and
    send the signal to the DAQ card
  • Provides power for accelerometer

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
90
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SCC-ACC01
  • Accelerometer module
  • Designed to take inputs from accelerometers and
    send the signal to the DAQ card
  • Provides power for accelerometer

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
91
DAQ System
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • NI SCC-ACC01
  • Accelerometer module
  • Designed to take inputs from accelerometers and
    send the signal to the DAQ card
  • Provides power for accelerometer

Image courtesy of National Instruments
Bill Tandy Tim Allison Rob Ross John Hatlelid
92
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Interface with SCC DAQ system
  • Compact size and weight
  • High natural frequency
  • Able to measure low frequencies

Bill Tandy Tim Allison Rob Ross John Hatlelid
93
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Interface with SCC DAQ system
  • Compact size and weight
  • High natural frequency
  • Able to measure low frequencies

Bill Tandy Tim Allison Rob Ross John Hatlelid
94
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Interface with SCC DAQ system
  • Compact size and weight
  • High natural frequency
  • Able to measure low frequencies

Bill Tandy Tim Allison Rob Ross John Hatlelid
95
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Interface with SCC DAQ system
  • Compact size and weight
  • High natural frequency
  • Able to measure low frequencies

Bill Tandy Tim Allison Rob Ross John Hatlelid
96
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Honeywell PA Accelerometer
  • 3-5000 Hz frequency range
  • 50 g range
  • Rugged
  • Natural frequency of 30 kHz

Image courtesy of Honeywell
Bill Tandy Tim Allison Rob Ross John Hatlelid
97
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Honeywell PA Accelerometer
  • 3-5000 Hz frequency range
  • 50 g range
  • Rugged
  • Natural frequency of 30 kHz

Image courtesy of Honeywell
Bill Tandy Tim Allison Rob Ross John Hatlelid
98
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Honeywell PA Accelerometer
  • 3-5000 Hz frequency range
  • 50 g range
  • Rugged
  • Natural frequency of 30 kHz

Image courtesy of Honeywell
Bill Tandy Tim Allison Rob Ross John Hatlelid
99
Accelerometers
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Honeywell PA Accelerometer
  • 3-5000 Hz frequency range
  • 50 g range
  • Rugged
  • Natural frequency of 30 kHz

Image courtesy of Honeywell
Bill Tandy Tim Allison Rob Ross John Hatlelid
100
Shaker
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Exact shaker is still to be determined
  • Needs to be lightweight
  • Shaker must provide an input of around 100 Hz

Image courtesy of Labworks
Bill Tandy Tim Allison Rob Ross John Hatlelid
101
Shaker
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Exact shaker is still to be determined
  • Needs to be lightweight
  • Shaker must provide an input of around 100 Hz

Image courtesy of Labworks
Bill Tandy Tim Allison Rob Ross John Hatlelid
102
Shaker
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Exact shaker is still to be determined
  • Needs to be lightweight
  • Shaker must provide an input of around 100 Hz

Image courtesy of Labworks
Bill Tandy Tim Allison Rob Ross John Hatlelid
103
Shaker Input Device
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Shaker input must come from a power supply and
    function generator
  • Exact function generator and power supply cannot
    be determined until a shaker has been determined
  • Possible shaker source is from Dr. Stearman

Bill Tandy Tim Allison Rob Ross John Hatlelid
104
Shaker Input Device
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Shaker input must come from a power supply and
    function generator
  • Exact function generator and power supply cannot
    be determined until a shaker has been determined
  • Possible shaker source is from Dr. Stearman

Bill Tandy Tim Allison Rob Ross John Hatlelid
105
Shaker Input Device
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
  • Shaker input must come from a power supply and
    function generator
  • Exact function generator and power supply cannot
    be determined until a shaker has been determined
  • Possible shaker source is from Dr. Stearman

Bill Tandy Tim Allison Rob Ross John Hatlelid
106
Project Expenses
Item Quantity Cost per Item Total Cost
Supplies and Materials - - -
Rods 24 15 360
Cabinet Materials 1 410 410
Damping Particles 1 100 100
Rod Mount 1 60 60
Misc. Construction 1 50 50
Cabinet Anchors 4 10 40
Wiring 1 25 25
End Mass 1 5 5
Travel, Lodging, and Medical - - -
Meals 150 7 1050
Hotel Fees 9 100 900
Travel 2 850 1700
Student Physicals 4 75 300
TOTAL COST 5000
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
107
Project Expenses
Item Quantity Cost per Item Total Cost
Supplies and Materials - - -
Rods 24 15 360
Cabinet Materials 1 410 410
Damping Particles 1 100 100
Rod Mount 1 60 60
Misc. Construction 1 50 50
Cabinet Anchors 4 10 40
Wiring 1 25 25
End Mass 1 5 5
Travel, Lodging, and Medical - - -
Meals 150 7 1050
Hotel Fees 9 100 900
Travel 2 850 1700
Student Physicals 4 75 300
TOTAL COST 5000
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
108
Project Expenses
Item Quantity Cost per Item Total Cost
Supplies and Materials - - -
Rods 24 15 360
Cabinet Materials 1 410 410
Damping Particles 1 100 100
Rod Mount 1 60 60
Misc. Construction 1 50 50
Cabinet Anchors 4 10 40
Wiring 1 25 25
End Mass 1 5 5
Travel, Lodging, and Medical - - -
Meals 150 7 1050
Hotel Fees 9 100 900
Travel 2 850 1700
Student Physicals 4 75 300
TOTAL COST 5000
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
109
Funding and Other Aid
  • NASA gave time space on the KC-135
  • UT ASE Department gave 3000 and use of Laptop
    and Digital Video Camera
  • Texas Space Grant Consortium gave 2000 for
    specific costs
  • Honeywell donated accelerometers
  • National Instruments donated LabView license,
    possibly other hardware

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
110
Current Financial Status
  • Equipment so far has been less expensive than
    anticipated
  • The surplus funds leave us extra options in case
    of unexpected changes
  • The project will be completed within budget

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
111
Schedule
Task Start Finish
Obtain Equipment Jan. 20 March 18
Build Test Bay Feb. 20 March 18
Testing March 19 March 20
Ground Experiments March 21 March 22
Evacuation Plans March 10 March 17
Flight Dates April 1 April 10
Data Reduction April 10 April 12
Final Presentation April 11 May 3
Final Paper April 11 End of Class
The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
112
Summary
  • Team Overview
  • Project Description
  • Theory
  • Design
  • Budget
  • Schedule

The Team
Project Description
Theory
Design
Budget
Schedule
Summary
Bill Tandy Tim Allison Rob Ross John Hatlelid
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