Microstructural Modeling of Ni-<svg style="vertical-align:-4.49648pt;width:56.912498px;" id="M1" height="21.2125" version="1.1" viewBox="0 0 56.912498 21.2125" width="56.912498" xmlns:xlink="http://www.w3.org/1999/xlink" xmlns="http://www.w3.org/2000/svg"><g transform="matrix(.022,0,0,-.022,.062,15.55)"><path id="x1D400" d="M689 25v-25h-322v25l32 3q46 4 46 33q0 31 -46 136h-225l-13 -34q-31 -78 -31 -97q0 -36 81 -41v-25h-202v25q36 6 53 28q18 22 46 92l221 545h28l222 -522q36 -87 58 -117q21 -26 52 -26zM189 236h195l-101 243z" /></g><g transform="matrix(.022,0,0,-.022,16.247,15.55)"><path id="x1D425" d="M256 24v-24h-240v24q51 4 51 63v500q0 61 -52 65v24h191v-589q0 -62 50 -63z" /></g><g transform="matrix(.016,0,0,-.016,22.475,20.938)"><path id="x1D7D0" d="M453 211h25l-46 -211h-415v23q97 102 151 166q42 49 81 110q51 78 51 148q0 56 -31.5 91.5t-87.5 35.5q-77 0 -122 -90h-28q67 204 223 204q82 0 132 -49.5t50 -133.5q0 -110 -114 -218l-162 -154h140q82 0 107 13q27 13 46 65z" /></g><g transform="matrix(.022,0,0,-.022,30.95,15.55)"><path id="x1D40E" d="M743 335q0 -156 -100 -255q-99 -99 -255 -99q-155 0 -254 99t-99 254q0 159 101 258q100 99 258 99q151 0 250 -101q99 -100 99 -255zM566 328q0 160 -46.5 245t-134.5 85q-83 0 -128 -86t-45 -242q0 -158 46 -237t132 -79t131 80t45 234z" /></g><g transform="matrix(.016,0,0,-.016,48.388,20.938)"><path id="x1D7D1" d="M58 524l-21 12q80 152 229 152q73 0 119 -41q45 -41 45 -96q0 -40 -21.5 -74.5t-62.5 -52.5q57 -20 89.5 -68.5t32.5 -109.5q0 -110 -86 -185t-214 -75q-69 0 -110.5 24.5t-41.5 65.5q0 26 18.5 43t46.5 17q45 0 96 -57q39 -43 79 -43q45 0 71.5 34t26.5 88q0 75 -49 121
q-25 23 -56 39q-34 17 -97 38v17q69 21 100 53t31 78q0 103 -99 103q-40 0 -69.5 -19t-56.5 -64z" /></g></svg> Composites Using Object-Oriented Finite-Element Method

<table>Heat flux (<i>x</i> component) distribution in the 35% nickel reinforced composites.</table>

International Scholarly Research Notices

fig9

Figure 9

Figure 9: Microstructural Modeling of Ni-<svg style="vertical-align:-4.49648pt;width:56.912498px;" id="M1" height="21.2125" version="1.1" viewBox="0 0 56.912498 21.2125" width="56.912498" xmlns:xlink="http://www.w3.org/1999/xlink" xmlns="http://www.w3.org/2000/svg"><g transform="matrix(.022,0,0,-.022,.062,15.55)"><path id="x1D400" d="M689 25v-25h-322v25l32 3q46 4 46 33q0 31 -46 136h-225l-13 -34q-31 -78 -31 -97q0 -36 81 -41v-25h-202v25q36 6 53 28q18 22 46 92l221 545h28l222 -522q36 -87 58 -117q21 -26 52 -26zM189 236h195l-101 243z" /></g><g transform="matrix(.022,0,0,-.022,16.247,15.55)"><path id="x1D425" d="M256 24v-24h-240v24q51 4 51 63v500q0 61 -52 65v24h191v-589q0 -62 50 -63z" /></g><g transform="matrix(.016,0,0,-.016,22.475,20.938)"><path id="x1D7D0" d="M453 211h25l-46 -211h-415v23q97 102 151 166q42 49 81 110q51 78 51 148q0 56 -31.5 91.5t-87.5 35.5q-77 0 -122 -90h-28q67 204 223 204q82 0 132 -49.5t50 -133.5q0 -110 -114 -218l-162 -154h140q82 0 107 13q27 13 46 65z" /></g><g transform="matrix(.022,0,0,-.022,30.95,15.55)"><path id="x1D40E" d="M743 335q0 -156 -100 -255q-99 -99 -255 -99q-155 0 -254 99t-99 254q0 159 101 258q100 99 258 99q151 0 250 -101q99 -100 99 -255zM566 328q0 160 -46.5 245t-134.5 85q-83 0 -128 -86t-45 -242q0 -158 46 -237t132 -79t131 80t45 234z" /></g><g transform="matrix(.016,0,0,-.016,48.388,20.938)"><path id="x1D7D1" d="M58 524l-21 12q80 152 229 152q73 0 119 -41q45 -41 45 -96q0 -40 -21.5 -74.5t-62.5 -52.5q57 -20 89.5 -68.5t32.5 -109.5q0 -110 -86 -185t-214 -75q-69 0 -110.5 24.5t-41.5 65.5q0 26 18.5 43t46.5 17q45 0 96 -57q39 -43 79 -43q45 0 71.5 34t26.5 88q0 75 -49 121
q-25 23 -56 39q-34 17 -97 38v17q69 21 100 53t31 78q0 103 -99 103q-40 0 -69.5 -19t-56.5 -64z" /></g></svg> Composites Using Object-Oriented Finite-Element Method 

International Scholarly Research Notices

Microstructural Modeling of Ni- Composites Using Object-Oriented Finite-Element Method

Figure 9