logging in or signing up overview mankesh Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINT lite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 135 Category: Entertainment License: All Rights Reserved Like it (0) Dislike it (0) Added: April 04, 2007 This Presentation is Public Favorites: 0 Presentation Description No description available Comments Posting comment... Premium member Presentation Transcript Slide1: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Center: (Personnel and Facilities) ---> The Concept: Systematic Synthesis & Processing of Nanostructured Materials Theory of Assembly Forces Molecular Synthesis Supramolecular Synthesis & Processing --Self Ordering--Phase separating materials --Directed Ordering--External force induced ordering ---> The Materials: Focus on Organic Materials Dendrimers and Hyperbranched Polymers (DHP) Block Copolymers (BCP) Molecular and Polymer Nanoobjects (Spheres and Tubes) (MPNO) Nanocomposites (NC) Compositionally Complex Thin Films (TF) ---> The Tools: Characterization and Processing STM/AFM/NSOM Nanolithography and Imaging Electric Field Poling & Frequency-Dependent Sheer Optical Ordering & Patterning State-of the Art Analytical Facilities --->]]>Slide2: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Applications •Light emitting diodes (TF,DHP,MPNO,BCP) •Photovoltaics (TF,MPNS,BCP,DHP) •High density electronic memories (DHP,TF) •High density optical memories (NC,MPNO) •Organic solid-state microcavity lasers (NC, MPNS,TF) •Sensor protection elements (NC,TF,MPNO) •Opto-electronic devices (TF,NC,DHP) •MEMS/actuators/artificial muscles (MPNO, DHP,TF,BCP) •Photonic band gap devices (BCP,MPNO,DHP) •Electro-rheological devices (BCP,DHP) •Catalysis (DHP,TF,BCP,MPNO) •Waveguides & waveguide devices (BCP,DHP, TF) •Reconfigurable radar (TF,BCP) •Phased array radar (BCP,TF) •Improved Semiconductor MQW Devices thru Templating (BCP,MPNO)]]>Slide3: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Applications •Light emitting diodes (TF,DHP,MPNO,BCP) •Photovoltaics (TF,MPNS,BCP,DHP) •High density electronic memories (DHP,TF) •High density optical memories (NC,MPNO) •Organic solid-state microcavity lasers (NC, MPNS,TF) •Sensor protection elements (NC,TF,MPNO) •Opto-electronic devices (TF,NC,DHP) •MEMS/actuators/artificial muscles (MPNO, DHP,TF,BCP) •Photonic band gap devices (BCP,MPNO,DHP) •Electro-rheological devices (BCP,DHP) •Catalysis (DHP,TF,BCP,MPNO) •Waveguides & waveguide devices (BCP,DHP, TF) •Reconfigurable radar (TF,BCP) •Phased array radar (BCP,TF) •Improved Semiconductor MQW Devices thru Templating (BCP,MPNO)]]>Slide4: <![CDATA[ NANO MURI Research Productivity of the Principal Investigators The principal investigators have been exceptionally productive researchers producing (according to the 1997 ACS Directory of Graduate Research) 451 publications over a time period approximating that of this grant. A breakdown of publications and students graduated (in parentheses) by investigator is given below: Dalton 38 (5) Olah 67 (2) Frechet 78 (3) Grubbs 47 (3) Prakash 67 (1) Prasad 66 (3) Hogen-Esch 32 (6) Gorman 12 (0) Weber 24 (6) Thompson 20 (2) This record of productivity would compare favorably with the research productivities of the largest and best science (chemistry, physics, engineering) departments in the nations. The fact that the Center personnel are truly extraordinary is also evidenced by the number of prestigious awards and appointments. A similar argument could be made for the junior personnel as reflected both by publications and by number of ACS & MRS awards. Each investigator has produced between 4 and 11 publications per year acknowledging Center support. Given the difficulty of the projects involved, this is truly exceptional productivity. With subsequent years of this Center grant, number of publications per investigator should increase dramatically. ]]>Slide5: <![CDATA[ NANO MURI Research Productivity of the Principal Investigators Representative Examples from the Past Year Professor JeanM. J. Frechet Number of Publications in Refereed Journals: 30 Number of Publications which acknowledge AFOSR support: 12 Awards and Honors for 1998-9: ACS Award in Polymer Chemistry, Society of Imaging Science and Technology, Kosar Memorial Award, 1999; Melville Lectureship, Cambridge University; Smets Lecture Series, Leuven University, Universite de Louvain, Belgium; 3M Lecture series, University ofWestern Ontario (Canada); Landsdowne Lecture Series, University of Victoria B.C. Lecture Series Universites de Suisse Romande; Editorial Advisory Boards: Acta Polymerica; Chemistry of Materials; Journal of Macromolecular Science; Journal of Polymer Science A, Polymer Chemistry; Macromolecules; Macromolecular Syntheses; Reactive and Functional Polymers Professor Christopher B. Gorman Number of Publications in Refereed Journals: 7 Number of Publications which acknowledge AFOSR support: 6 Awards and Honors for 1998-9: Sigma Xi Research Award, NCSU, 1998 Professor Younan Xie Number of Publications in Refereed Journals: 14 Number of Publications which acknowledge AFOSR Support: 12 Awards and Honors for 1998-9: Victor K. LaMer Award of the Colloid and Surface Chemistry Division, American Chemical Society, 1999 ]]>Slide6: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale THEORY: Statistical Mechanics of Intermomcular Interactions Theory: Full Intermolecular Electrostatic Interactions for Prolate Ellipsoids (Solid Blue Line) Theory: FIEI for Spheres (Dashed Red Line) Experimental Data: Dashed Green Line <--- Acentric Phase Centric + Acentric Phases ---> Competing 1 1]]>Slide7: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale THEORY: Prediction of Chromophore Shape for Maximum Electro-Optic Activity Result: Electro-optic coefficients of 100 pm/V and device drive voltages of less than 1 volt]]>Slide8: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale]]>Slide9: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Frequency & Applied Potential Dependence]]>Slide10: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Original Frequency Response]]>Slide11: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Frequency Response of Strain]]> You do not have the permission to view this presentation. In order to view it, please contact the author of the presentation.
overview mankesh Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINT lite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 135 Category: Entertainment License: All Rights Reserved Like it (0) Dislike it (0) Added: April 04, 2007 This Presentation is Public Favorites: 0 Presentation Description No description available Comments Posting comment... Premium member Presentation Transcript Slide1: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Center: (Personnel and Facilities) ---> The Concept: Systematic Synthesis & Processing of Nanostructured Materials Theory of Assembly Forces Molecular Synthesis Supramolecular Synthesis & Processing --Self Ordering--Phase separating materials --Directed Ordering--External force induced ordering ---> The Materials: Focus on Organic Materials Dendrimers and Hyperbranched Polymers (DHP) Block Copolymers (BCP) Molecular and Polymer Nanoobjects (Spheres and Tubes) (MPNO) Nanocomposites (NC) Compositionally Complex Thin Films (TF) ---> The Tools: Characterization and Processing STM/AFM/NSOM Nanolithography and Imaging Electric Field Poling & Frequency-Dependent Sheer Optical Ordering & Patterning State-of the Art Analytical Facilities --->]]>Slide2: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Applications •Light emitting diodes (TF,DHP,MPNO,BCP) •Photovoltaics (TF,MPNS,BCP,DHP) •High density electronic memories (DHP,TF) •High density optical memories (NC,MPNO) •Organic solid-state microcavity lasers (NC, MPNS,TF) •Sensor protection elements (NC,TF,MPNO) •Opto-electronic devices (TF,NC,DHP) •MEMS/actuators/artificial muscles (MPNO, DHP,TF,BCP) •Photonic band gap devices (BCP,MPNO,DHP) •Electro-rheological devices (BCP,DHP) •Catalysis (DHP,TF,BCP,MPNO) •Waveguides & waveguide devices (BCP,DHP, TF) •Reconfigurable radar (TF,BCP) •Phased array radar (BCP,TF) •Improved Semiconductor MQW Devices thru Templating (BCP,MPNO)]]>Slide3: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale The Applications •Light emitting diodes (TF,DHP,MPNO,BCP) •Photovoltaics (TF,MPNS,BCP,DHP) •High density electronic memories (DHP,TF) •High density optical memories (NC,MPNO) •Organic solid-state microcavity lasers (NC, MPNS,TF) •Sensor protection elements (NC,TF,MPNO) •Opto-electronic devices (TF,NC,DHP) •MEMS/actuators/artificial muscles (MPNO, DHP,TF,BCP) •Photonic band gap devices (BCP,MPNO,DHP) •Electro-rheological devices (BCP,DHP) •Catalysis (DHP,TF,BCP,MPNO) •Waveguides & waveguide devices (BCP,DHP, TF) •Reconfigurable radar (TF,BCP) •Phased array radar (BCP,TF) •Improved Semiconductor MQW Devices thru Templating (BCP,MPNO)]]>Slide4: <![CDATA[ NANO MURI Research Productivity of the Principal Investigators The principal investigators have been exceptionally productive researchers producing (according to the 1997 ACS Directory of Graduate Research) 451 publications over a time period approximating that of this grant. A breakdown of publications and students graduated (in parentheses) by investigator is given below: Dalton 38 (5) Olah 67 (2) Frechet 78 (3) Grubbs 47 (3) Prakash 67 (1) Prasad 66 (3) Hogen-Esch 32 (6) Gorman 12 (0) Weber 24 (6) Thompson 20 (2) This record of productivity would compare favorably with the research productivities of the largest and best science (chemistry, physics, engineering) departments in the nations. The fact that the Center personnel are truly extraordinary is also evidenced by the number of prestigious awards and appointments. A similar argument could be made for the junior personnel as reflected both by publications and by number of ACS & MRS awards. Each investigator has produced between 4 and 11 publications per year acknowledging Center support. Given the difficulty of the projects involved, this is truly exceptional productivity. With subsequent years of this Center grant, number of publications per investigator should increase dramatically. ]]>Slide5: <![CDATA[ NANO MURI Research Productivity of the Principal Investigators Representative Examples from the Past Year Professor JeanM. J. Frechet Number of Publications in Refereed Journals: 30 Number of Publications which acknowledge AFOSR support: 12 Awards and Honors for 1998-9: ACS Award in Polymer Chemistry, Society of Imaging Science and Technology, Kosar Memorial Award, 1999; Melville Lectureship, Cambridge University; Smets Lecture Series, Leuven University, Universite de Louvain, Belgium; 3M Lecture series, University ofWestern Ontario (Canada); Landsdowne Lecture Series, University of Victoria B.C. Lecture Series Universites de Suisse Romande; Editorial Advisory Boards: Acta Polymerica; Chemistry of Materials; Journal of Macromolecular Science; Journal of Polymer Science A, Polymer Chemistry; Macromolecules; Macromolecular Syntheses; Reactive and Functional Polymers Professor Christopher B. Gorman Number of Publications in Refereed Journals: 7 Number of Publications which acknowledge AFOSR support: 6 Awards and Honors for 1998-9: Sigma Xi Research Award, NCSU, 1998 Professor Younan Xie Number of Publications in Refereed Journals: 14 Number of Publications which acknowledge AFOSR Support: 12 Awards and Honors for 1998-9: Victor K. LaMer Award of the Colloid and Surface Chemistry Division, American Chemical Society, 1999 ]]>Slide6: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale THEORY: Statistical Mechanics of Intermomcular Interactions Theory: Full Intermolecular Electrostatic Interactions for Prolate Ellipsoids (Solid Blue Line) Theory: FIEI for Spheres (Dashed Red Line) Experimental Data: Dashed Green Line <--- Acentric Phase Centric + Acentric Phases ---> Competing 1 1]]>Slide7: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale THEORY: Prediction of Chromophore Shape for Maximum Electro-Optic Activity Result: Electro-optic coefficients of 100 pm/V and device drive voltages of less than 1 volt]]>Slide8: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale]]>Slide9: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Frequency & Applied Potential Dependence]]>Slide10: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Original Frequency Response]]>Slide11: <![CDATA[ MURI Center for Materials & Processing at the Nanometer Scale Single Wall Carbon Nanotube Actuators: Frequency Response of Strain]]>