{"id":2097,"date":"2012-04-25T03:04:17","date_gmt":"2012-04-25T07:04:17","guid":{"rendered":"http:\/\/blogs.vassar.edu\/magnes\/?p=2097"},"modified":"2013-07-11T10:30:53","modified_gmt":"2013-07-11T14:30:53","slug":"conclusionoverview","status":"publish","type":"post","link":"https:\/\/pages.vassar.edu\/magnes\/2012\/04\/25\/conclusionoverview\/","title":{"rendered":"Conclusion\/Overview"},"content":{"rendered":"<p>Mistakes were made throughout this process. Some were as simple as a dropped variable and others were intensely more complicated. In the end I was still able to produce what I set out to do: An interactive animation that allows you to see how a single coil in a stator of magnetic induction based wind turbine creates current.<\/p>\n<p>Much of the work I did was simply writing the code to get the interactive animation to function properly. Below is a screenshot, but the important code is linked to at the end of this post.<\/p>\n<p><a href=\"http:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM.png\"><img loading=\"lazy\" decoding=\"async\" class=\"alignnone size-medium wp-image-2098\" src=\"http:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM-300x160.png\" alt=\"\" width=\"300\" height=\"160\" srcset=\"https:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM-300x160.png 300w, https:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM-1024x548.png 1024w, https:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM-500x267.png 500w, https:\/\/pages.vassar.edu\/magnes\/files\/2012\/04\/Screen-shot-2012-04-25-at-2.28.16-AM.png 1436w\" sizes=\"auto, (max-width: 300px) 100vw, 300px\" \/><\/a><\/p>\n<p>Just to recap some of the derivation I did in earlier posts, I will present a short breakdown here. I started with the basic equation for B, but in order to have the magnetic field change over time based on my magnet array, I had to use a triangle wave. In my previous post I inserted values for the period, but in my Mathematica code, I made it dependent on the velocity so that all the graphs would match up.<\/p>\n<p>Triangle Wave Function:<\/p>\n<p class=\"ql-center-displayed-equation\" style=\"line-height: 43px;\"><span class=\"ql-right-eqno\"> (1) <\/span><span class=\"ql-left-eqno\"> &nbsp; <\/span><img loading=\"lazy\" decoding=\"async\" src=\"https:\/\/pages.vassar.edu\/magnes\/wp-content\/ql-cache\/quicklatex.com-3f591c8956631fb5d60f2cacaa4bdcc8_l3.png\" height=\"43\" width=\"331\" class=\"ql-img-displayed-equation \" alt=\"&#92;&#98;&#101;&#103;&#105;&#110;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125; &#92;&#102;&#114;&#97;&#99;&#123;&#52;&#125;&#123;&#100;&#47;&#118;&#125;&#92;&#108;&#101;&#102;&#116;&#32;&#91;&#32;&#40;&#116;&#45;&#50;&#100;&#47;&#118;&#41;&#92;&#99;&#100;&#111;&#116;&#32;&#92;&#108;&#101;&#102;&#116;&#32;&#92;&#108;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#116;&#100;&#125;&#123;&#118;&#125;&#43;&#46;&#53;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#92;&#114;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#93;&#92;&#99;&#100;&#111;&#116;&#32;&#40;&#45;&#49;&#41;&#94;&#123;&#92;&#108;&#101;&#102;&#116;&#32;&#92;&#108;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#116;&#100;&#125;&#123;&#118;&#125;&#43;&#46;&#53;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#92;&#114;&#102;&#108;&#111;&#111;&#114;&#125; &#92;&#101;&#110;&#100;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125;\" title=\"Rendered by QuickLaTeX.com\"\/><\/p>\n<p>Magnetic Field Equation<\/p>\n<p class=\"ql-center-displayed-equation\" style=\"line-height: 43px;\"><span class=\"ql-right-eqno\"> (2) <\/span><span class=\"ql-left-eqno\"> &nbsp; <\/span><img loading=\"lazy\" decoding=\"async\" src=\"https:\/\/pages.vassar.edu\/magnes\/wp-content\/ql-cache\/quicklatex.com-8a60c7a149de957131a98715e2cf96d9_l3.png\" height=\"43\" width=\"431\" class=\"ql-img-displayed-equation \" alt=\"&#92;&#98;&#101;&#103;&#105;&#110;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125; &#66;&#61;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#92;&#109;&#117;&#32;&#125;&#123;&#100;&#94;&#123;&#51;&#125;&#125;&#49;&#48;&#94;&#123;&#45;&#52;&#125;&#92;&#102;&#114;&#97;&#99;&#123;&#52;&#125;&#123;&#100;&#47;&#118;&#125;&#92;&#108;&#101;&#102;&#116;&#32;&#91;&#32;&#40;&#116;&#45;&#50;&#100;&#47;&#118;&#41;&#92;&#99;&#100;&#111;&#116;&#32;&#92;&#108;&#101;&#102;&#116;&#32;&#92;&#108;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#116;&#100;&#125;&#123;&#118;&#125;&#43;&#46;&#53;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#92;&#114;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#93;&#92;&#99;&#100;&#111;&#116;&#32;&#40;&#45;&#49;&#41;&#94;&#123;&#92;&#108;&#101;&#102;&#116;&#32;&#92;&#108;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#116;&#100;&#125;&#123;&#118;&#125;&#43;&#46;&#53;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#92;&#114;&#102;&#108;&#111;&#111;&#114;&#125; &#92;&#101;&#110;&#100;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125;\" title=\"Rendered by QuickLaTeX.com\"\/><\/p>\n<p>Once I had my B(t) I quickly found the flux, but to get to the voltage I had to find the derivative of my triangle wave based B(t) function. I made a square wave approximation to solve for the derivative. In my last post I again plugged in constants in order to show the look of the graph, but in my code I made it dependent on all of the variables.<\/p>\n<p class=\"ql-center-displayed-equation\" style=\"line-height: 42px;\"><span class=\"ql-right-eqno\"> (3) <\/span><span class=\"ql-left-eqno\"> &nbsp; <\/span><img loading=\"lazy\" decoding=\"async\" src=\"https:\/\/pages.vassar.edu\/magnes\/wp-content\/ql-cache\/quicklatex.com-d23367b127d5656a4c89641aa9cc1567_l3.png\" height=\"42\" width=\"262\" class=\"ql-img-displayed-equation \" alt=\"&#92;&#98;&#101;&#103;&#105;&#110;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125; &#92;&#102;&#114;&#97;&#99;&#123;&#52;&#92;&#112;&#105;&#32;&#92;&#109;&#117;&#32;&#100;&#95;&#123;&#119;&#125;&#114;&#78;&#125;&#123;&#100;&#94;&#123;&#51;&#125;&#125;&#92;&#99;&#100;&#111;&#116;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#52;&#125;&#123;&#100;&#47;&#118;&#125;&#49;&#48;&#94;&#123;&#45;&#52;&#125;&#92;&#99;&#100;&#111;&#116;&#32;&#40;&#45;&#49;&#41;&#94;&#123;&#92;&#108;&#101;&#102;&#116;&#32;&#92;&#108;&#102;&#108;&#111;&#111;&#114;&#32;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#116;&#100;&#125;&#123;&#118;&#125;&#43;&#46;&#53;&#32;&#92;&#114;&#105;&#103;&#104;&#116;&#32;&#92;&#114;&#102;&#108;&#111;&#111;&#114;&#125; &#92;&#101;&#110;&#100;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125;\" title=\"Rendered by QuickLaTeX.com\"\/><\/p>\n<p>Using this square wave approximation I was able to find the voltage in the coil.\u00a0Once I had a formula for the voltage, the induced current was simple to find.<\/p>\n<p>At this point I noticed a grave mistake with my approach to this problem. By approximating the magnetic field with a triangle wave, I made it so the voltage simply flipped back and forth from negative to positive with no gradation. In hindsight it would have been better to use a version of a sin wave as an approximation. That would present its own issues, as the magnetic field would have a fairly linear change. With more time I would have attempted to find a better approximation for the magnetic field that was easier to use.<\/p>\n<p>It should also be noted that my last post had a few typos in it that could be very confusing. I wrote the equation:<\/p>\n<p class=\"ql-center-displayed-equation\" style=\"line-height: 40px;\"><span class=\"ql-right-eqno\"> (4) <\/span><span class=\"ql-left-eqno\"> &nbsp; <\/span><img loading=\"lazy\" decoding=\"async\" src=\"https:\/\/pages.vassar.edu\/magnes\/wp-content\/ql-cache\/quicklatex.com-85cfd54845ac51455567fdb4bd287439_l3.png\" height=\"40\" width=\"94\" class=\"ql-img-displayed-equation \" alt=\"&#92;&#98;&#101;&#103;&#105;&#110;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125; &#66;&#61;&#92;&#102;&#114;&#97;&#99;&#123;&#92;&#109;&#117;&#32;&#95;&#123;&#48;&#125;&#125;&#123;&#52;&#92;&#80;&#105;&#32;&#125;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#92;&#109;&#117;&#94;&#123;&#51;&#125;&#125;&#123;&#100;&#94;&#123;&#51;&#125;&#125; &#92;&#101;&#110;&#100;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125;\" title=\"Rendered by QuickLaTeX.com\"\/><\/p>\n<p>but it should read:<\/p>\n<p class=\"ql-center-displayed-equation\" style=\"line-height: 37px;\"><span class=\"ql-right-eqno\"> (5) <\/span><span class=\"ql-left-eqno\"> &nbsp; <\/span><img loading=\"lazy\" decoding=\"async\" src=\"https:\/\/pages.vassar.edu\/magnes\/wp-content\/ql-cache\/quicklatex.com-88945ad14d6d3fbba4f9ec853670ab7e_l3.png\" height=\"37\" width=\"84\" class=\"ql-img-displayed-equation \" alt=\"&#92;&#98;&#101;&#103;&#105;&#110;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125; &#66;&#61;&#92;&#102;&#114;&#97;&#99;&#123;&#92;&#109;&#117;&#32;&#95;&#123;&#48;&#125;&#125;&#123;&#52;&#92;&#112;&#105;&#32;&#125;&#92;&#102;&#114;&#97;&#99;&#123;&#50;&#92;&#109;&#117;&#125;&#123;&#100;&#94;&#123;&#51;&#125;&#125; &#92;&#101;&#110;&#100;&#123;&#101;&#113;&#117;&#97;&#116;&#105;&#111;&#110;&#42;&#125;\" title=\"Rendered by QuickLaTeX.com\"\/><\/p>\n<p>The mu was confused for most of the post, but I was able to correct the issues I had with it for all of the formulas in this post and the code.<\/p>\n<p>Code: <a href=\"https:\/\/vspace.vassar.edu\/thvandermeer\/Trying%20to%20get%20graphs%20in%20it.nb\">https:\/\/vspace.vassar.edu\/thvandermeer\/Trying%20to%20get%20graphs%20in%20it.nb<\/a><\/p>\n","protected":false},"excerpt":{"rendered":"<p>Mistakes were made throughout this process. Some were as simple as a dropped variable and others were intensely more complicated. In the end I was still able to produce what I set out to do: An interactive animation that allows you to see how a single coil in a stator of magnetic induction based wind [&hellip;]<\/p>\n","protected":false},"author":1760,"featured_media":0,"comment_status":"open","ping_status":"closed","sticky":false,"template":"","format":"standard","meta":{"footnotes":""},"categories":[4101,29905,29903],"tags":[],"class_list":["post-2097","post","type-post","status-publish","format-standard","hentry","category-advanced-em","category-spring-2012","category-theo"],"_links":{"self":[{"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/posts\/2097","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/users\/1760"}],"replies":[{"embeddable":true,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/comments?post=2097"}],"version-history":[{"count":7,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/posts\/2097\/revisions"}],"predecessor-version":[{"id":2116,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/posts\/2097\/revisions\/2116"}],"wp:attachment":[{"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/media?parent=2097"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/categories?post=2097"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/pages.vassar.edu\/magnes\/wp-json\/wp\/v2\/tags?post=2097"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}