Chapter 12: Problem 19
(a) Draw a picture that represents a crystalline solid at the atomic level. (b) Now draw a picture that represents an amorphous solid at the atomic level.
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Chapter 12: Problem 19
(a) Draw a picture that represents a crystalline solid at the atomic level. (b) Now draw a picture that represents an amorphous solid at the atomic level.
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For each of the following alloy compositions, indicate whether you would expect it to be a substitutional alloy, an interstitial alloy, or an intermetallic compound: $$ (a)\mathrm{Cu}_{0.66} \mathrm{Zn}_{0.34}, \quad(\mathbf{b}) \mathrm{Ag}_{3} \mathrm{Sn}, \quad(\mathbf{c}) \mathrm{Ti}_{0.99} \mathrm{O}_{0.01} $$
State whether each of these numbers is a reasonable value for a polymer's molecular weight: 100 amu, \(10,000\) amu, \(100,000\) amu, \(1,000,000\) amu?
Which of the following statements does not follow from the fact that the alkali metals have relatively weak metal-metal bonding? $$ \begin{array}{l}{\text { (a) The alkali metals are less dense than other metals. }} \\ {\text { (b) The alkali metals are soft enough to be cut with a knife. }} \\ {\text { (c) The alkali metals are more reactive than other metals. }} \\ {\text { (d) The alkali metals have higher melting points than }} \\ {\text { other metals. }} \\ {\text { (e) The alkali metals have lowization energies. }}\end{array} $$
Which of the three-dimensional primitive lattices has a unit cell where none of the internal angles is \(90^{\circ}\) ? (a) Orthorhombic, (b) hexagonal, (c) rhombohedral, (d) triclinic, (e) both rhombohedral and triclinic.
Imagine the primitive cubic lattice. Now imagine grabbing the top of it and stretching it straight up. All angles remain \(90^{\circ} .\) What kind of primitive lattice have you made?
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