Problem 55550. Find the mass of a rod

Created by Tanya Kuruvilla

Solve Later

{"parts":[{"partUri":"/matlab/document.xml","contentType":"application/vnd.mathworks.matlab.code.document+xml","content":"<?xml version=\"1.0\" encoding=\"UTF-8\"?><w:document xmlns:w=\"http://schemas.openxmlformats.org/wordprocessingml/2006/main\"><w:body><w:p><w:pPr><w:pStyle w:val=\"text\"/><w:jc w:val=\"left\"/></w:pPr><w:r><w:t>Determine the mass (in grams) of a rod of length L cm if it is in equilibrium per the diagram.</w:t></w:r><w:r><w:t>  </w:t></w:r><w:r><w:t>In the diagram L1, L2, L3 are distance from the left end of the rod, in the order specified (i.e, L3&gt;L2&gt;L1). Assume the center of gravity is at the midpoint of the rod. Find the mass to the nearest gram.</w:t></w:r></w:p><w:p><w:pPr><w:pStyle w:val=\"text\"/><w:jc w:val=\"left\"/></w:pPr><w:customXml w:element=\"image\"><w:customXmlPr><w:attr w:name=\"height\" w:val=\"77\"/><w:attr w:name=\"width\" w:val=\"252\"/><w:attr w:name=\"verticalAlign\" w:val=\"baseline\"/><w:attr w:name=\"altText\" w:val=\"\"/><w:attr w:name=\"relationshipId\" w:val=\"rId1\"/></w:customXmlPr></w:customXml></w:p></w:body></w:document>","relationship":[{"relationshipType":"http://schemas.mathworks.com/matlab/code/2013/relationships/image","target":"/media/image1.jpeg","relationshipId":"rId1"}]},{"partUri":"/media/image1.jpeg","contentType":"image/jpeg","content":"data:image/jpeg;base64,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","relationship":null}],"relationships":[{"relationshipType":"http://schemas.mathworks.com/matlab/code/2013/relationships/document","target":"/matlab/document.xml","relationshipId":"rId1"}]}

<div style = "text-align: start; line-height: 20.44px; min-height: 0px; white-space: normal; color: rgb(0, 0, 0); font-family: Menlo, Monaco, Consolas, monospace; font-style: normal; font-size: 14px; font-weight: 400; text-decoration: none solid rgb(0, 0, 0); white-space: normal; "><div style="block-size: 154.8px; display: block; min-width: 0px; padding-block-start: 0px; padding-top: 0px; perspective-origin: 407px 77.4px; transform-origin: 407px 77.4px; vertical-align: baseline; "><div style="block-size: 63px; font-family: Helvetica, Arial, sans-serif; line-height: 21px; margin-block-end: 9px; margin-block-start: 2px; margin-bottom: 9px; margin-inline-end: 10px; margin-inline-start: 4px; margin-left: 4px; margin-right: 10px; margin-top: 2px; perspective-origin: 384px 31.5px; text-align: left; transform-origin: 384px 31.5px; white-space: pre-wrap; margin-left: 4px; margin-top: 2px; margin-bottom: 9px; margin-right: 10px; "><span style="block-size: auto; display: inline; margin-block-end: 0px; margin-block-start: 0px; margin-bottom: 0px; margin-inline-end: 0px; margin-inline-start: 0px; margin-left: 0px; margin-right: 0px; margin-top: 0px; perspective-origin: 0px 0px; transform-origin: 0px 0px; "><span style="">Determine the mass (in grams) of a rod of length L cm if it is in equilibrium per the diagram.</span></span><span style="block-size: auto; display: inline; margin-block-end: 0px; margin-block-start: 0px; margin-bottom: 0px; margin-inline-end: 0px; margin-inline-start: 0px; margin-left: 0px; margin-right: 0px; margin-top: 0px; perspective-origin: 0px 0px; transform-origin: 0px 0px; "><span style="">  </span></span><span style="block-size: auto; display: inline; margin-block-end: 0px; margin-block-start: 0px; margin-bottom: 0px; margin-inline-end: 0px; margin-inline-start: 0px; margin-left: 0px; margin-right: 0px; margin-top: 0px; perspective-origin: 0px 0px; transform-origin: 0px 0px; "><span style="">In the diagram L1, L2, L3 are distance from the left end of the rod, in the order specified (i.e, L3&gt;L2&gt;L1). Assume the center of gravity is at the midpoint of the rod. Find the mass to the nearest gram.</span></span></div><div style="block-size: 82.8px; font-family: Helvetica, Arial, sans-serif; line-height: 21px; margin-block-end: 9px; margin-block-start: 2px; margin-bottom: 9px; margin-inline-end: 10px; margin-inline-start: 4px; margin-left: 4px; margin-right: 10px; margin-top: 2px; perspective-origin: 384px 41.4px; text-align: left; transform-origin: 384px 41.4px; white-space: pre-wrap; margin-left: 4px; margin-top: 2px; margin-bottom: 9px; margin-right: 10px; "><img class="imageNode" style="vertical-align: baseline" src="data:image/jpeg;base64,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" data-image-state="image-loaded"></div></div></div>

Solve

Solution Stats

166 Solutions
87 Solvers

Last Solution submitted on Sep 21, 2023

Last 200 Solutions

Problem Comments

1 Comment

1 Comment

Farrell on 28 Sep 2022

Why is there only 1 test?

Solution Comments

Show comments

Problem Recent Solvers87

Problem Tags

Community Treasure Hunt

Find the treasures in MATLAB Central and discover how the community can help you!

Start Hunting!

Problem 55550. Find the mass of a rod

Solution Stats

Last 200 Solutions

Problem Comments

Solution Comments

Problem Recent Solvers87

Suggested Problems

More from this Author31

Problem Tags

Community Treasure Hunt

Problem 55550. Find the mass of a rod

Solution Stats

Last 200 Solutions

Problem Comments

Solution Comments

Problem Recent Solvers87

Suggested Problems

More from this Author31

Problem Tags

Community Treasure Hunt

Players