BibDesk Publication html Export
Technical Note — 1 Aug 2015
Contents
This is material for a html export template for BibDesk.
<! -- Paper Title : < $ fields .Title.stringByRemovingCurlyBraces /> -- >
<! -- Authors : < $ authors .abbreviatedName . @componentsJoinedByCommaAndAnd / > -- >
< div class = "Bibentry" > [ <$# / > ]
<$ pubAuthorsForDisplay ?>
< span class = "Author" ><$ authors . abbreviatedName . @ componentsJoinedByCommaAndAnd / > , < / span >
< / $ pubAuthorsForDisplay ?>
<$ fields . Title ?>
< span class = "Title" > "<$fields.Title.stringByRemovingCurlyBraces/>" , < / span >
< / $ fields . Title ?>
<$ fields . Journal ?>
< span class = "Journal" ><$ fields . Journal . stringByRemovingCurlyBraces / > , < / span >
< / $ fields . Journal ?>
<$ fields . Booktitle ?>
< span class = "Booktitle" ><$ fields . Booktitle / > , < / span >
< / $ fields . Booktitle ?>
<$ fields . Publisher ?>
< span class = "Publisher" ><$ fields . Publisher / > , < / span >
< / $ fields . Publisher ?>
<$ fields . Volume ?>
< span class = "Volume" > vol . & nbsp ; < $ fields .Volume />, </ span >
</ $ fields .Volume ?>
< $ fields .Number ?>
< span class = "Volume" > no .& nbsp ;< $ fields .Number />, </ span >
</ $ fields .Number ?>
< $ fields .Address ?>
< span class = "Address" >< $ fields .Address />, </ span >
</ $ fields .Address ?>
< $ fields .Pages ?>
< span class = "Pages" > pp .& nbsp ;< $ fields .Pages />, </ span >
</ $ fields .Pages ?>
< $ fields .Month ?>
< span class = "Month" >< $ fields .Month /> </ span >
</ $ fields .Month ?>
< $ fields .Year ?>
< span class = "Date" >< $ fields .Year />.</ span >
</ $ fields .Year ?>
<! -- Buttons : Abstract and BibTeX -- >
< div class = "CheckBoxes" >
< form >
< input type = "button" value = "Abstract" onclick = "toggle('<$citeKey/>_abstract');" >& nbsp ;< input type = "button" value = "BibTeX" onclick = "toggle('<$citeKey/>_bibtex');" >
</ form >
<! -- Links : DOI , PDF , Google Scholar and Arxiv -- >
</ div >
< $ fields .Doi ?>
< span class = "Url" > DOI :& nbsp ;< a href = "http://dx.doi.org/<$fields.Doi/>" target = "_blank" >< $ fields .Doi /></ a ></ span >
</ $ fields .Doi ?>
< $ fields .Pdf-Url ?>
< span class = "Url" > PDF :& nbsp ;< a href = "<$fields.Pdf-Url/>" target = "_blank" >< $ fields .Pdf-Url.lastPathComponent /></ a ></ span >
</ $ fields .Pdf-Url ?>
< $ fields .Google-Scholar-Url ?>
< $ fields .Google-Scholar = 0 ?>
< span class = "Url" > Google-Scholar :& nbsp ;< a href = "<$fields.Google-Scholar-Url/>" target = "_blank" >[ link ]</ a ></ span >
<? $ fields .Google-Scholar ?>
< span class = "Url" > Google-Scholar :& nbsp ;< a href = "<$fields.Google-Scholar-Url/>" target = "_blank" >[< $ fields .Google-Scholar />]</ a ></ span >
</ $ fields .Google-Scholar ?>
<? $ fields .Google-Scholar-Url ?>
</ $ fields .Google-Scholar-Url ?>
< $ fields .Arxiv ?>
< span class = "Url" > arXiv :< a href = "<$fields.Arxiv/>" target = "_blank" >< $ fields .Arxiv /></ a ></ span >
</ $ fields .Arxiv ?>
<! -- Abstract -- >
< $ fields .Abstract ?>
< div id = "<$citeKey/>_abstract" class = "Abstract-toggle" style = "display:none" >
< div class = "Abstract" >
< strong > Abstract :</ strong > < $ fields .Abstract.stringByRemovingTeX />
</ div >
</ div >
</ $ fields .Abstract ?>
<! -- Bibtex -- >
< div id = "<$citeKey/>_bibtex" class = "Bibtex-toggle" style = "display:none" >
< div class = "Bibtex" >
< span >@< $ pubType /> { <$citeKey/>,<br><$fields.Title?>title = {<$fields.Title/> } ,< br ></ $ fields .Title ?>
< $ fields .Author ?> author = { <$fields.Author/> } ,< br ></ $ fields .Author ?>
< $ fields .Journal ?> journal = { <$fields.Journal/> } ,< br ></ $ fields .Journal ?>
< $ fields .Booktitle ?> booktitle = { <$fields.Booktitle/> } ,< br ></ $ fields .Booktitle ?>
< $ fields .Publisher ?> publisher = { <$fields.Publisher/> } ,< br ></ $ fields .Publisher ?>
< $ fields .Address ?> address = { <$fields.Address/> } ,< br ></ $ fields .Address ?>
< $ fields .Volume ?> volume = { <$fields.Volume/> } ,< br ></ $ fields .Volume ?>
< $ fields .Pages ?> pages = { <$fields.Pages/> } ,< br ></ $ fields .Pages ?>
< $ fields .Month ?> month = { <$fields.Month/> } ,< br ></ $ fields .Month ?>
< $ fields .Year ?> year = { <$fields.Year/> } } </ $ fields .Year ?></ span >
</ div >
</ div >
</ div >
< div id = "content" >
<! ---- >
< $ publicationsUsingTemplate />
<! ---- >
</ div >
/* css file for laying out publications exported by bibdesk */
.Bibentry {
font-size : 85% ;
line-height : 120% ;
padding : 5px 0px 5px 22px ;
text-indent : -22px ;
}
.Title , .Pages , .Month , .Date , .Volume , .Author , .Year , .Publisher , .Address {
font-style : normal ;
color : #000000 ;
}
.Journal , .Conference , .Booktitle {
font-style : italic ;
}
.Abstract {
font-size : 90% ;
text-align : justify ;
line-height : 110% ;
color : #000000 ;
padding : 0px ;
margin-top : 5px ;
margin-right : 15px ;
margin-bottom : 8px ;
padding-left : 0px ;
text-indent : 0px ;
}
.Bibtex {
font-family : monaco , Consolas , "Courier New" , Courier , monospace ;
font-size : 70% ;
line-height : 120% ;
color : #000000 ;
padding : 8px ;
padding-bottom : 8px ;
margin-top : 5px ;
margin-right : 15px ;
margin-bottom : 10px ;
border-style : solid ;
border-width : 1px ;
border-color : #CFCFCF ;
background : #B5CFDA ;
padding-left : 30px ;
text-indent : -17px ;
}
form {
margin : 0 ;
padding : 0 ;
}
.CheckBoxes {
font-size : 85% ;
margin-top : 4px ;
margin-bottom : 2px ;
padding-left : 22px ;
}
.Url {
font-size : 85% ;
font-style : italic ;
color : #000000 ;
padding-right : 8px ;
padding-top : 2px ;
padding-bottom : 2px ;
}
function toggle ( id )
{
e = document . getElementById ( id );
if ( e . style . display == "none" )
e . style . display = "inline" ;
else
e . style . display = "none" ;
}
Export Example
BibDesk Exported html Source
<div id= "content" >
<!---->
<!-- Paper Title: Relaying Protocols for Wireless Energy Harvesting and Information Processing -->
<!-- Authors: A. A. Nasir, X. Zhou, S. Durrani, and R. A. Kennedy -->
<div class= "Bibentry" > [1]
<span class= "Author" > A. A. Nasir, X. Zhou, S. Durrani, and R. A. Kennedy, </span>
<span class= "Title" > "Relaying Protocols for Wireless Energy Harvesting and Information Processing", </span>
<span class= "Journal" > IEEE Trans. Wireless Commun., </span>
<span class= "Volume" > vol. 12, </span>
<span class= "Volume" > no. 7, </span>
<span class= "Pages" > pp. 3622-3636, </span>
<span class= "Month" > July </span>
<span class= "Date" > 2013.</span>
<!-- Buttons: Abstract and BibTeX -->
<div class= "CheckBoxes" >
<form>
<input type= "button" value= "Abstract" onclick= "toggle('KennedyJ2013f_abstract');" > <input type= "button" value= "BibTeX" onclick= "toggle('KennedyJ2013f_bibtex');" >
</form>
<!-- Links: DOI, PDF, Google Scholar and Arxiv -->
</div>
<span class= "Url" > DOI: <a href= "http://dx.doi.org/10.1109/TWC.2013.062413.122042" target= "_blank" > 10.1109/TWC.2013.062413.122042</a></span>
<span class= "Url" > PDF: <a href= "http://users.rsise.anu.edu.au/~rod/papers/2013/06552840.pdf" target= "_blank" > 06552840.pdf</a></span>
<span class= "Url" > Google-Scholar: <a href= "http://scholar.google.com.au/scholar?q=10.1109/TWC.2013.062413.122042" target= "_blank" > [266]</a></span>
<span class= "Url" > arXiv:<a href= "http://arxiv.org/abs/1212.5406" target= "_blank" > http://arxiv.org/abs/1212.5406</a></span>
<!-- Abstract -->
<div id= "KennedyJ2013f_abstract" class= "Abstract-toggle" style= "display:none" >
<div class= "Abstract" >
<strong> Abstract:</strong> An emerging solution for prolonging the lifetime of energy constrained relay nodes in wireless networks is to avail the ambient radio-frequency (RF) signal and to simultaneously harvest energy and process information. In this paper, an amplify-and-forward relaying network is considered, where an energy constrained relay node harvests energy from the received RF signal and uses that harvested energy to forward the source information to the destination. Based on the time switching and power splitting receiver architectures, two relaying protocols, namely, i) time switching-based relaying (TSR) protocol and ii) power splitting-based relaying (PSR) protocol are proposed to enable energy harvesting and information processing at the relay. In order to determine the throughput, analytical expressions for outage probability and ergodic capacity are derived for delay-limited and delay-tolerant transmission modes, respectively. The numerical analysis provides practical insights into the effect of various system parameters, such as energy harvesting time, power splitting ratio, source transmission rate, source to relay distance, noise power, and energy harvesting efficiency, on the performance of wireless energy harvesting and information processing using AF relay nodes. In particular, the TSR protocol outperforms the PSR protocol in terms of throughput at relatively low signal-to-noise-ratios and high transmission rate.
</div>
</div>
<!-- Bibtex -->
<div id= "KennedyJ2013f_bibtex" class= "Bibtex-toggle" style= "display:none" >
<div class= "Bibtex" >
<span> @article{KennedyJ2013f,<br> title = {Relaying Protocols for Wireless Energy Harvesting and Information Processing},<br> author = {Nasir, A. A. and Zhou, X. and Durrani, S. and Kennedy, R. A.},<br> journal = {{IEEE} Trans. Wireless Commun.},<br> volume = {12},<br> pages = {3622-3636},<br> month = {July},<br> year = {2013}}</span>
</div>
</div>
</div>
<!-- Paper Title: Hilbert Space Methods in Signal Processing -->
<!-- Authors: R. A. Kennedy and P. Sadeghi -->
<div class= "Bibentry" > [2]
<span class= "Author" > R. A. Kennedy and P. Sadeghi, </span>
<span class= "Title" > "Hilbert Space Methods in Signal Processing", </span>
<span class= "Publisher" > Cambridge University Press, </span>
<span class= "Address" > Cambridge, UK, </span>
<span class= "Month" > March </span>
<span class= "Date" > 2013.</span>
<!-- Buttons: Abstract and BibTeX -->
<div class= "CheckBoxes" >
<form>
<input type= "button" value= "Abstract" onclick= "toggle('Kennedy-book:2013_abstract');" > <input type= "button" value= "BibTeX" onclick= "toggle('Kennedy-book:2013_bibtex');" >
</form>
<!-- Links: DOI, PDF, Google Scholar and Arxiv -->
</div>
<span class= "Url" > PDF: <a href= "http://users.rsise.anu.edu.au/~rod/papers/2013/book-front.pdf" target= "_blank" > book-front.pdf</a></span>
<span class= "Url" > Google-Scholar: <a href= "http://scholar.google.com.au/scholar?q=allintitle%3A+Hilbert+Space+Methods+in+Signal+Processing" target= "_blank" > [41]</a></span>
<!-- Abstract -->
<div id= "Kennedy-book:2013_abstract" class= "Abstract-toggle" style= "display:none" >
<div class= "Abstract" >
<strong> Abstract:</strong> This lively and accessible book describes the theory and applications of Hilbert spaces and also presents the history of the subject to reveal the ideas behind theorems and the human struggle that led to them. The authors begin by establishing the concept of 'countably infinite', which is central to the proper understanding of separable Hilbert spaces. Fundamental ideas such as convergence, completeness and dense sets are first demonstrated through simple familiar examples and then formalised. Having addressed fundamental topics in Hilbert spaces, the authors then go on to cover the theory of bounded, compact and integral operators at an advanced but accessible level. Finally, the theory is put into action, considering signal processing on the unit sphere, as well as reproducing kernel Hilbert spaces. The text is interspersed with historical comments about central figures in the development of the theory, which helps bring the subject to life.
</div>
</div>
<!-- Bibtex -->
<div id= "Kennedy-book:2013_bibtex" class= "Bibtex-toggle" style= "display:none" >
<div class= "Bibtex" >
<span> @book{Kennedy-book:2013,<br> title = {Hilbert Space Methods in Signal Processing},<br> author = {Kennedy, R. A. and Sadeghi, P.},<br> publisher = {Cambridge University Press},<br> address = {Cambridge, UK},<br> month = {March},<br> year = {2013}}</span>
</div>
</div>
</div>
<!---->
</div>
BibDesk Exported html in Browser (with css bibdesk-export.css
)
[1]
A. A. Nasir, X. Zhou, S. Durrani, and R. A. Kennedy,
"Relaying Protocols for Wireless Energy Harvesting and Information Processing",
IEEE Trans. Wireless Commun.,
vol. 12,
no. 7,
pp. 3622-3636,
July
2013.
DOI: 10.1109/TWC.2013.062413.122042
PDF: 06552840.pdf
Google-Scholar: [266]
arXiv:http://arxiv.org/abs/1212.5406
Abstract: An emerging solution for prolonging the lifetime of energy constrained relay nodes in wireless networks is to avail the ambient radio-frequency (RF) signal and to simultaneously harvest energy and process information. In this paper, an amplify-and-forward relaying network is considered, where an energy constrained relay node harvests energy from the received RF signal and uses that harvested energy to forward the source information to the destination. Based on the time switching and power splitting receiver architectures, two relaying protocols, namely, i) time switching-based relaying (TSR) protocol and ii) power splitting-based relaying (PSR) protocol are proposed to enable energy harvesting and information processing at the relay. In order to determine the throughput, analytical expressions for outage probability and ergodic capacity are derived for delay-limited and delay-tolerant transmission modes, respectively. The numerical analysis provides practical insights into the effect of various system parameters, such as energy harvesting time, power splitting ratio, source transmission rate, source to relay distance, noise power, and energy harvesting efficiency, on the performance of wireless energy harvesting and information processing using AF relay nodes. In particular, the TSR protocol outperforms the PSR protocol in terms of throughput at relatively low signal-to-noise-ratios and high transmission rate.
@article{KennedyJ2013f, title = {Relaying Protocols for Wireless Energy Harvesting and Information Processing}, author = {Nasir, A. A. and Zhou, X. and Durrani, S. and Kennedy, R. A.}, journal = {{IEEE} Trans. Wireless Commun.}, volume = {12}, pages = {3622-3636}, month = {July}, year = {2013}}
[2]
R. A. Kennedy and P. Sadeghi,
"Hilbert Space Methods in Signal Processing",
Cambridge University Press,
Cambridge, UK,
March
2013.
PDF: book-front.pdf
Google-Scholar: [41]
Abstract: This lively and accessible book describes the theory and applications of Hilbert spaces and also presents the history of the subject to reveal the ideas behind theorems and the human struggle that led to them. The authors begin by establishing the concept of 'countably infinite', which is central to the proper understanding of separable Hilbert spaces. Fundamental ideas such as convergence, completeness and dense sets are first demonstrated through simple familiar examples and then formalised. Having addressed fundamental topics in Hilbert spaces, the authors then go on to cover the theory of bounded, compact and integral operators at an advanced but accessible level. Finally, the theory is put into action, considering signal processing on the unit sphere, as well as reproducing kernel Hilbert spaces. The text is interspersed with historical comments about central figures in the development of the theory, which helps bring the subject to life.
@book{Kennedy-book:2013, title = {Hilbert Space Methods in Signal Processing}, author = {Kennedy, R. A. and Sadeghi, P.}, publisher = {Cambridge University Press}, address = {Cambridge, UK}, month = {March}, year = {2013}}
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