Research - Revision history

Noppadon Sathitsuksanoh at 21:11, 30 March 2011

Noppadon Sathitsuksanoh — Wed, 30 Mar 2011 21:11:25 GMT

←Older revision	Revision as of 21:11, 30 March 2011
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	+	{{Tik}}

	+	{\| cellspacing="3"
	+	\|- valign="top"
	+	\|width=680px class="MainPageBG" style="background-color: #ffffff"\|
	+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 680px">
	+	<font face="trebuchet ms" size=3 style="color:#000">'''Research Overview: </font> <br> </div>
	+
	+	<div style="clear: right; text-align: left; float: left; width: 680px;">
	+
	+	My research focuses on investigating physiochemical characteristics of biomass that affect their chemical and biological functions. In particular, I am exploring separation of biomass components (i.e., cellulose, hemicellulose and lignin). My diverse background in biology, chemistry, engineering, and economics allows me to formulate green yet efficient and economical processes using a hybrid system of enzymes and heterogeneous catalysts to achieve three goals: (1) energy goal, to produce low value, high volume fuels from renewables, (2) economic goal, to generate additional revenues from high value, low volume building blocks for specialty chemicals, and (3) environmental goal, to foster green yet efficient processes. Here is a bit of my current research in a nutshell.
	+	<br>
	+	</div>
	+	\|}
	+
	+
	+
	+	{\| cellspacing="3"
	+	\|- valign="top"
	+	\|width=390px class="MainPageBG" style="background-color: #ffffff"\|
	+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 390px">
	+	<font face="trebuchet ms" size=3 style="color:#000">'''Technological:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Development of an efficient biomass saccharification process </font> <br> </div>
	+
	+	<div style="clear: right; text-align: left; float: left; width: 390px;">
	+
	+	Overcoming lignocellulosic biomass recalcitrance followed by enzymatic hydrolysis of reactive polymeric carbohydrates (i.e., cost-efficient liberation of fermentable sugars from biomass) is perhaps the most challenging technical and economic barrier to biorefinery success. Pretreatment is among the most costly steps in biochemical conversion of biomass, accounting for up to 40% of the total processing cost. Also, it affects the costs of other operations including size reduction prior to pretreatment and enzymatic hydrolysis and fermentation after pretreatment. Pretreatment can also strongly influence downstream costs involving detoxification if inhibitors are generated, enzymatic hydrolysis rate and enzyme loading, mixing power, product concentration, product purification, power generation, waste treatment demands, and other process variables.
	+	<br>
	+	</div>
	+
	+	\|width=250px class="MainPageBG" style="background-color: #ffffff"\|
	+
	+	[[Image:fig1.jpg\|thumb\|250x250px\|
	+	Biomass sacchrification strategies (unpublished)]]
	+
	+	\|}
	+
	+	{\| cellspacing="3"
	+	\|- valign="top"
	+	\|width=130px class="MainPageBG" style="background-color: #ffffff"\|
	+	<div style="clear: right; text-align: left; float: left; width: 130px;">
	+
	+	[[Image:NMR.jpg\|thumb\|250x250px\|13C NMR spectra of switchgrass and Avicel pre-/post-pretreatment (''Biotechnol Bioeng'' '''108''', 521-529 [2011])]]
	+
	+	\|width=450px class="MainPageBG" style="background-color: #ffffff"\|
	+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 450px">
	+	<font face="trebuchet ms" size=3 style="color:#000">'''Fundamental:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Physiochemical properties of biomass pre-/post-pretreatment that lend them susceptibility to enzymatic hydrolysis </font> <br> </div>
	+
	+	<div style="clear: right; text-align: left; float: left; width: 450px;">
	+
	+	Biomass are characterized pre-/post-pretreatment by enzymatic hydrolysis,substrate accessibility assay, scanning electron microscopy,X-ray diffraction (XRD), cross polarization/magic angle spinning (CP/MAS) 13C nuclear magnetic resonance(NMR), and Fourier transform infrared spectroscopy (FTIR).
	+	<br>
	+	</div>
	+
	+	\|}
	+
	+	{\| cellspacing="3"
	+	\|- valign="top"
	+	\|width=450px class="MainPageBG" style="background-color: #ffffff"\|
	+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 450px">
	+	<font face="trebuchet ms" size=3 style="color:#000">'''Translational:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Aplying fundamental concepts and lab-scale process to a more pragmatic example</font> <br> </div>
	+
	+	<div style="clear: right; text-align: left; float: left; width: 450px;">
	+
	+	djskajlskdjalskdaldjaksljdkldaaaaaaaaaaaaaaaaaaaaaaaaaaaaaa.
	+	<br>
	+	</div>
	+
	+	\|width=100px class="MainPageBG" style="background-color: #ffffff"\|
	+	[[Image:Translational.tif\|thumb\|180x180px\|Nanoscale cues regulate the structure and function of macroscopic cardiac tissue constructs (''PNAS'' '''107''', 565-570 [2010])]]
	+
	+	\|}

Noppadon Sathitsuksanoh: Removing all content from page

Noppadon Sathitsuksanoh — Wed, 09 Feb 2011 18:21:55 GMT

Removing all content from page

←Older revision		Revision as of 18:21, 9 February 2011
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-	~~{{Tik}}~~

-
-	~~{\| cellspacing="3"~~
-	~~\|- valign="top"~~
-	~~\|width=710px class="MainPageBG" style="background-color: #ffffff"\|~~
-	~~<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 710px">~~
-	~~<font face="trebuchet ms" size=3 style="color:#000">'''Research Overview: </font> <br> </div>~~
-
-	~~<div style="clear: right; text-align: left; float: left; width: 700px;">~~
-
-	My research focuses on investigating physiochemical characteristics of biomass that affect their chemical and biological functions. In particular, I am exploring separation of biomass components (i.e., cellulose, hemicellulose and lignin). My diverse background in biology, chemistry, engineering, and economics allows me to formulate green yet efficient and economical processes using a hybrid system of enzymes and heterogeneous catalysts to achieve two goals: (1) energy goal, to produce low value, high volume fuels from renewables, and (2) economic goal, to generate additional revenues from high value, low volume building blocks for specialty chemicals. Here is a bit of my current research in a nutshell.
-	~~<br>~~
-	~~</div>~~
-	\|}
-
-	~~{\| cellspacing="3"~~
-	~~\|- valign="top"~~
-	~~\|width=680px class="MainPageBG" style="background-color: #ffffff"\|~~
-	~~<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 700px">~~
-	<font face="trebuchet ms" size=3 style="color:#000">'''Technological:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Development of an efficient biomass saccharification process </font> <br> </div>
-
-	~~<div style="clear: right; text-align: left; float: left; width: 680px;">~~
-
-	Overcoming lignocellulosic biomass recalcitrance followed by enzymatic hydrolysis of reactive polymeric carbohydrates (i.e., cost-efficient liberation of fermentable sugars from biomass) is perhaps the most challenging technical and economic barrier to biorefinery success. Pretreatment is among the most costly steps in biochemical conversion of biomass, accounting for up to 40% of the total processing cost. Also, it affects the costs of other operations including size reduction prior to pretreatment and enzymatic hydrolysis and fermentation after pretreatment. Pretreatment can also strongly influence downstream costs involving detoxification if inhibitors are generated, enzymatic hydrolysis rate and enzyme loading, mixing power, product concentration, product purification, power generation, waste treatment demands, and other process variables.
-	~~<br>~~
-	~~</div>~~
-
-	~~\|width=300px class="MainPageBG" style="background-color: #ffffff"\|~~
-
-	~~[[Image:strat.jpg\|thumb\|300x300px\|~~
-	~~Biomass sacchrification strategies (unpublished)]]~~
-
-	\|}
-
-	~~{\| cellspacing="3"~~
-	~~\|- valign="top"~~
-	~~\|width=250px class="MainPageBG" style="background-color: #ffffff"\|~~
-	~~<div style="clear: right; text-align: left; float: left; width: 250px;">~~
-
-	~~[[Image:NMR.jpg\|thumb\|300x300px\|13C NMR spectra of switchgrass and Avicel pre-/post-pretreatment (''Biotechnol Bioeng'' '''108''', 521-529 [2011])]]~~
-
-	~~\|width=730px class="MainPageBG" style="background-color: #ffffff"\|~~
-	~~<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 730px">~~
-	<font face="trebuchet ms" size=3 style="color:#000">'''Fundamental:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Physiochemical properties of biomass pre-/post-pretreatment that lend them susceptibility to enzymatic hydrolysis </font> <br> </div>
-
-	~~<div style="clear: right; text-align: left; float: left; width: 730px;">~~
-
-	Biomass are characterized pre-/post-pretreatment by enzymatic hydrolysis,substrate accessibility assay, scanning electron microscopy,X-ray diffraction (XRD), cross polarization/magic angle spinning (CP/MAS) 13C nuclear magnetic resonance(NMR), and Fourier transform infrared spectroscopy (FTIR).
-	~~<br>~~
-	~~</div>~~
-
-	\|}

Noppadon Sathitsuksanoh at 18:10, 9 February 2011

Noppadon Sathitsuksanoh — Wed, 09 Feb 2011 18:10:24 GMT

←Older revision		Revision as of 18:10, 9 February 2011
Line 29:		Line 29:
	\|width=300px class="MainPageBG" style="background-color: #ffffff"\|		\|width=300px class="MainPageBG" style="background-color: #ffffff"\|

-	[[Image:~~fig1~~.jpg\|thumb\|300x300px\|	+	[[Image:strat.jpg\|thumb\|300x300px\|
	Biomass sacchrification strategies (unpublished)]]		Biomass sacchrification strategies (unpublished)]]

Noppadon Sathitsuksanoh at 18:05, 9 February 2011

Noppadon Sathitsuksanoh — Wed, 09 Feb 2011 18:05:59 GMT

←Older revision		Revision as of 18:05, 9 February 2011
Line 1:		Line 1:
-	#~~[[Doing~~ Research]]	+	{{Tik}}
-	#~~[[Searching~~ the ~~literature]]~~	+
-	#[[~~Communicating Your Results~~]]	+
-	#[[~~Writing a letter~~ of ~~recommendation~~]]	+	{\| cellspacing="3"
-	#~~[[Lab meetings]]~~	+	\|- valign="top"
-	#[[/~~Guides~~ and ~~literature~~\|~~Guides and literature]]~~	+	\|width=710px class="MainPageBG" style="background-color: #ffffff"\|
		+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 710px">
		+	<font face="trebuchet ms" size=3 style="color:#000">'''Research Overview: </font> <br> </div>
		+
		+	<div style="clear: right; text-align: left; float: left; width: 700px;">
		+
		+	My research focuses on investigating physiochemical characteristics of biomass that affect their chemical and biological functions. In particular, I am exploring separation of biomass components (i.e., cellulose, hemicellulose and lignin). My diverse background in biology, chemistry, engineering, and economics allows me to formulate green yet efficient and economical processes using a hybrid system of enzymes and heterogeneous catalysts to achieve two goals: (1) energy goal, to produce low value, high volume fuels from renewables, and (2) economic goal, to generate additional revenues from high value, low volume building blocks for specialty chemicals. Here is a bit of my current research in a nutshell.
		+	<br>
		+	</div>
		+	\|}
		+
		+	{\| cellspacing="3"
		+	\|- valign="top"
		+	\|width=680px class="MainPageBG" style="background-color: #ffffff"\|
		+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 700px">
		+	<font face="trebuchet ms" size=3 style="color:#000">'''Technological:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Development of an efficient biomass saccharification process </font> <br> </div>
		+
		+	<div style="clear: right; text-align: left; float: left; width: 680px;">
		+
		+	Overcoming lignocellulosic biomass recalcitrance followed by enzymatic hydrolysis of reactive polymeric carbohydrates (i.e., cost-efficient liberation of fermentable sugars from biomass) is perhaps the most challenging technical and economic barrier to biorefinery success. Pretreatment is among the most costly steps in biochemical conversion of biomass, accounting for up to 40% of the total processing cost. Also, it affects the costs of other operations including size reduction prior to pretreatment and enzymatic hydrolysis and fermentation after pretreatment. Pretreatment can also strongly influence downstream costs involving detoxification if inhibitors are generated, enzymatic hydrolysis rate and enzyme loading, mixing power, product concentration, product purification, power generation, waste treatment demands, and other process variables.
		+	<br>
		+	</div>
		+
		+	\|width=300px class="MainPageBG" style="background-color: #ffffff"\|
		+
		+	[[Image:fig1.jpg\|thumb\|300x300px\|
		+	Biomass sacchrification strategies (unpublished)]]
		+
		+	\|}
		+
		+	{\| cellspacing="3"
		+	\|- valign="top"
		+	\|width=250px class="MainPageBG" style="background-color: #ffffff"\|
		+	<div style="clear: right; text-align: left; float: left; width: 250px;">
		+
		+	[[Image:NMR.jpg\|thumb\|300x300px\|13C NMR spectra of switchgrass and Avicel pre-/post-pretreatment (''Biotechnol Bioeng'' '''108''', 521-529 [2011])]]
		+
		+	\|width=730px class="MainPageBG" style="background-color: #ffffff"\|
		+	<div style="padding: 1px; color: #ffffff; background-color: #ffffff; width: 730px">
		+	<font face="trebuchet ms" size=3 style="color:#000">'''Fundamental:</font> <font face="trebuchet ms" size=3 style="color:#00688B">Physiochemical properties of biomass pre-/post-pretreatment that lend them susceptibility to enzymatic hydrolysis </font> <br> </div>
		+
		+	<div style="clear: right; text-align: left; float: left; width: 730px;">
		+
		+	Biomass are characterized pre-/post-pretreatment by enzymatic hydrolysis,substrate accessibility assay, scanning electron microscopy,X-ray diffraction (XRD), cross polarization/magic angle spinning (CP/MAS) 13C nuclear magnetic resonance(NMR), and Fourier transform infrared spectroscopy (FTIR).
		+	<br>
		+	</div>
		+
		+	\|}

Ramalldf at 06:13, 16 April 2010

Ramalldf — Fri, 16 Apr 2010 06:13:19 GMT

←Older revision		Revision as of 06:13, 16 April 2010
Line 4:		Line 4:
	#[[Writing a letter of recommendation]]		#[[Writing a letter of recommendation]]
	#[[Lab meetings]]		#[[Lab meetings]]
		+	#[[/Guides and literature\|Guides and literature]]

Skosuri at 06:38, 16 November 2005

Skosuri — Wed, 16 Nov 2005 06:38:11 GMT

←Older revision		Revision as of 06:38, 16 November 2005
Line 1:		Line 1:
	#[[Doing Research]]		#[[Doing Research]]
-	#[[Searching the ~~Literature~~]]	+	#[[Searching the literature]]
	#[[Communicating Your Results]]		#[[Communicating Your Results]]
	#[[Writing a letter of recommendation]]		#[[Writing a letter of recommendation]]
	#[[Lab meetings]]		#[[Lab meetings]]

Skosuri at 06:37, 16 November 2005

Skosuri — Wed, 16 Nov 2005 06:37:57 GMT

←Older revision		Revision as of 06:37, 16 November 2005
Line 1:		Line 1:
	#[[Doing Research]]		#[[Doing Research]]
		+	#[[Searching the Literature]]
	#[[Communicating Your Results]]		#[[Communicating Your Results]]
	#[[Writing a letter of recommendation]]		#[[Writing a letter of recommendation]]
	#[[Lab meetings]]		#[[Lab meetings]]

Jason R. Kelly at 19:36, 17 September 2005

Jason R. Kelly — Sat, 17 Sep 2005 19:36:53 GMT

←Older revision		Revision as of 19:36, 17 September 2005
Line 2:		Line 2:
	#[[Communicating Your Results]]		#[[Communicating Your Results]]
	#[[Writing a letter of recommendation]]		#[[Writing a letter of recommendation]]
		+	#[[Lab meetings]]

Reshma P. Shetty at 11:49, 29 August 2005

Reshma P. Shetty — Mon, 29 Aug 2005 11:49:24 GMT

←Older revision		Revision as of 11:49, 29 August 2005
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	#[[Doing Research]]		#[[Doing Research]]
	#[[Communicating Your Results]]		#[[Communicating Your Results]]
		+	#[[Writing a letter of recommendation]]

Skosuri at 21:27, 12 July 2005

Skosuri — Tue, 12 Jul 2005 21:27:57 GMT

←Older revision		Revision as of 21:27, 12 July 2005
Line 1:		Line 1:
-	~~{{EndyLab}}~~
	#[[Doing Research]]		#[[Doing Research]]
	#[[Communicating Your Results]]		#[[Communicating Your Results]]