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<pubDate>Sat, 19 Jul 2008 04:39:31 BST</pubDate>


	<title>CiteULike: norris's Baldwin</title>
	<description>CiteULike: norris's Baldwin</description>


	<link>http://www.citeulike.org/user/norris/author/Baldwin</link>
	<dc:publisher>CiteULike.org</dc:publisher>
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	<dc:rights>Copyright &#169; 2004-2008 citeulike.org</dc:rights>
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        <rdf:li rdf:resource="http://www.citeulike.org/user/norris/article/1074603"/>
        <rdf:li rdf:resource="http://www.citeulike.org/user/norris/article/1074601"/>
        <rdf:li rdf:resource="http://www.citeulike.org/user/norris/article/699273"/>

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<item rdf:about="http://www.citeulike.org/user/norris/article/1074603">
    <title>Effect of viscous loss on mechanical resonators designed for mass detection</title>
    <link>http://www.citeulike.org/user/norris/article/1074603</link>
    <description>&lt;i&gt;Applied Physics Letters, Vol. 88, No. 4. (2006)&lt;/i&gt;&lt;br /&gt;&lt;br /&gt;Simple models are presented for estimating viscous damping of fluid (gas or liquid) loaded mechanical resonators. The models apply to beams in flexural modes of vibration, and to thin beams and plates in longitudinal modes of vibration. Predictions of the associated quality factor are compared with measured values for several macroscale and microscale resonators. The scaling of viscous loss with oscillator size is discussed. The minimum detectable mass is estimated for several oscillator designs and it is shown that, for comparably sized devices, longitudinal resonators have the lowest threshold of detection. This minimum detectable mass is proportional to scale to the power 1.75 for all resonator architectures limited by viscous damping, and it is shown that the viscous loss is 220 times larger in water than in air. &#169;2006 American Institute of Physics</description>
    <dc:title>Effect of viscous loss on mechanical resonators designed for mass detection</dc:title>

    <dc:creator>Joseph Vignola</dc:creator>
    <dc:creator>John Judge</dc:creator>
    <dc:creator>Jacek Jarzynski</dc:creator>
    <dc:creator>Maxim Zalalutdinov</dc:creator>
    <dc:creator>Brian Houston</dc:creator>
    <dc:creator>Jeffrey Baldwin</dc:creator>
    <dc:identifier>doi:10.1063/1.2165186</dc:identifier>
    <dc:source>Applied Physics Letters, Vol. 88, No. 4. (2006)</dc:source>
    <dc:date>2007-01-29T15:56:41-00:00</dc:date>
    <prism:publicationYear>2006</prism:publicationYear>
    <prism:publicationName>Applied Physics Letters</prism:publicationName>
    <prism:volume>88</prism:volume>
    <prism:number>4</prism:number>
    <prism:publisher>AIP</prism:publisher>
    <prism:category>damping</prism:category>
</item>



<item rdf:about="http://www.citeulike.org/user/norris/article/1074601">
    <title>Two-dimensional array of coupled nanomechanical resonators</title>
    <link>http://www.citeulike.org/user/norris/article/1074601</link>
    <description>&lt;i&gt;Applied Physics Letters, Vol. 88, No. 14. (2006)&lt;/i&gt;&lt;br /&gt;&lt;br /&gt;Two-dimensional arrays of coupled nanomechanical plate-type resonators were fabricated in single crystal silicon using e-beam lithography. Collective modes were studied using a double laser setup with independent positioning of the point laser drive and interferometric motion detector. The formation of a wide acoustic band has been demonstrated. Localization due to disorder (mistune) was identified as a parameter that limits the propagation of the elastic waves. We show that all 400 resonators in our 20&#215;20 array participate in the extended modes and estimate group velocity and density of states. Applications utilizing the resonator arrays for radio frequency signal processing are discussed. &#169;2006 American Institute of Physics</description>
    <dc:title>Two-dimensional array of coupled nanomechanical resonators</dc:title>

    <dc:creator>Maxim Zalalutdinov</dc:creator>
    <dc:creator>Jeffrey Baldwin</dc:creator>
    <dc:creator>Martin Marcus</dc:creator>
    <dc:creator>Robert Reichenbach</dc:creator>
    <dc:creator>Jeevak Parpia</dc:creator>
    <dc:creator>Brian Houston</dc:creator>
    <dc:identifier>doi:10.1063/1.2190448</dc:identifier>
    <dc:source>Applied Physics Letters, Vol. 88, No. 14. (2006)</dc:source>
    <dc:date>2007-01-29T15:54:40-00:00</dc:date>
    <prism:publicationYear>2006</prism:publicationYear>
    <prism:publicationName>Applied Physics Letters</prism:publicationName>
    <prism:volume>88</prism:volume>
    <prism:number>14</prism:number>
    <prism:publisher>AIP</prism:publisher>
    <prism:category>damping</prism:category>
    <prism:category>phonons</prism:category>
    <prism:category>quantum</prism:category>
</item>



<item rdf:about="http://www.citeulike.org/user/norris/article/699273">
    <title>Effects of annealing and temperature on acoustic dissipation in a micromechanical silicon oscillator</title>
    <link>http://www.citeulike.org/user/norris/article/699273</link>
    <description>&lt;i&gt;Applied Physics Letters, Vol. 86, No. 18. (2005)&lt;/i&gt;&lt;br /&gt;&lt;br /&gt;The temperature dependence (15&#150;320&#160;&#160;K) of the acoustic dissipation was studied for some lower vibrational modes of a suspended silicon plate 1.5&#160;&#160;&#181;m thick. Our oscillator was exposed to the laboratory environment prior to measurement, laser annealed while in a cryogenic vacuum, and remeasured. We find a dissipation peak at 160&#160;&#160;K, similar to results by others, and a second dissipation peak near 30&#160;&#160;K. Annealing reduced the dissipation at 160&#160;&#160;K by as much as a factor of 10, and gave quality factors as high as 1.4&#215;106 at 470&#160;&#160;kHz and our lowest temperature. Our data support the idea that the 160&#160;&#160;K peak is related to adsorbates, and show this mechanism is important at room temperature. Post-anneal room-temperature dissipation appears to be limited by thermoelastic loss for certain modes.</description>
    <dc:title>Effects of annealing and temperature on acoustic dissipation in a micromechanical silicon oscillator</dc:title>

    <dc:creator>Hans Haucke</dc:creator>
    <dc:creator>Xiao Liu</dc:creator>
    <dc:creator>JF Vignola</dc:creator>
    <dc:creator>BH Houston</dc:creator>
    <dc:creator>MH Marcus</dc:creator>
    <dc:creator>JW Baldwin</dc:creator>
    <dc:identifier>doi:10.1063/1.1921354</dc:identifier>
    <dc:source>Applied Physics Letters, Vol. 86, No. 18. (2005)</dc:source>
    <dc:date>2006-06-17T15:00:50-00:00</dc:date>
    <prism:publicationYear>2005</prism:publicationYear>
    <prism:publicationName>Applied Physics Letters</prism:publicationName>
    <prism:volume>86</prism:volume>
    <prism:number>18</prism:number>
    <prism:publisher>AIP</prism:publisher>
    <prism:category>damping</prism:category>
    <prism:category>plates</prism:category>
    <prism:category>thermoelasticity</prism:category>
</item>



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