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#1228, v1.0 Published:
#1788, v1.0 Published:

Title

Old VersionNew Version
1Movement: Nature's Flying Machines 1Movement: Nature's Flying Machines (Online)

Authors

Old VersionNew Version
1Blake Cahill () 1Anna Monfils ()
2Anna Monfils (Central Michigan University)   
3Debra Linton () 2Debra Linton () 
4Anna Monfils (Central Michigan University) 3Anna Monfils (Central Michigan University) 

Description

Old VersionNew Version
1<p>Movement is a key function required for the survival and reproduction of organisms. Microorganisms, such as bacteria and unicellular protists, achieve movement via cellular structures such as cilia and flagellae. Plants and fungi are incapable of individual locomotion but can disperse their offspring via seeds and spores and can grow towards or away from environmental stimuli. Animals have evolved a multitude of methods for movement in terrestrial, aquatic, and aerial environments. One of the most successful types of animal locomotion is&nbsp;<strong>flight</strong>. Flight has evolved at least four separate times, in the insects, pterosaurs, birds, and bats. Flying animals have a diversity of body forms and aerial abilities. They can teach us a lot about form and function. In fact, scientists study animal flight to develop flying robots, airplanes, and rocket ships.&nbsp;In today&rsquo;s lab, you will investigate the forces involved in the form and function of flight in birds and insects.</p>  1<p>Adapted for online learning:&nbsp;</p>
2  2  
3<p>Students completing this module will be able to:</p>  3<p>Movement is a key function required for the survival and reproduction of organisms. Microorganisms, such as bacteria and unicellular protists, achieve movement via cellular structures such as cilia and flagellae. Plants and fungi are incapable of individual locomotion but can disperse their offspring via seeds and spores and can grow towards or away from environmental stimuli. Animals have evolved a multitude of methods for movement in terrestrial, aquatic, and aerial environments. One of the most successful types of animal locomotion is&nbsp;flight. Flight has evolved at least four separate times, in the insects, pterosaurs, birds, and bats. Flying animals have a diversity of body forms and aerial abilities. They can teach us a lot about form and function. In fact, scientists study animal flight to develop flying robots, airplanes, and rocket ships.&nbsp;In today&rsquo;s lab, you will investigate the forces involved in the form and function of flight in birds and insects.</p>
   4
   5<p>Upon completion of this module, each student should be able to:</p>
4  6  
5<ul>  7<ul>  
6   <li>Explain the forces acting on flight.&nbsp;</li>  6   <li>Explain the four forces of flight.&nbsp;</li>
7   <li>Describe how lift is created by wings.</li>  9   <li>Describe how lift is created by wings.</li>  
8   <li>Compare how antagonistic muscles (flexors, extensors) power flight in animals with endoskeletons and exoskeletons.&nbsp;</li>  10   <li>Compare how antagonistic muscles (flexors, extensors) power flight in animals with endoskeletons and exoskeletons.&nbsp;</li>  
9   <li>Discuss how wing morphology (form) relates to flight ability (function).</li>  11   <li>Discuss how wing morphology (form) relates to flight ability (function).</li>  

Attachments

1 file — Movement:NaturesFlyingMachines/BLUE Natures Flying Machines Module.docx 1 file — Movement:NaturesFlyingMachines/BLUE Natures Flying Machines online version.docx
2 file — Movement:NaturesFlyingMachines/BLUE Natures Flying Machines Pre-Lab.docx 2 file — Movement:NaturesFlyingMachines/Watanabe Data.xlsx
3 file — Movement:NaturesFlyingMachines/Watanabe Data.xlsx 3 file — Movement:NaturesFlyingMachines/2018-398 Drag and Flight as-14.jpg
4 file — Screen Shot 2019-05-19 at 9.29.24 PM.png