Towards the Development of Carbon Dioxide Emission Landscape in Singapore by Yong, Brandon Yung Sin, Pang, Jiming, Kastner, Catharine A., Kraft, Markus, Lau, Raymond

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HST.583 Functional Magnetic Resonance Imaging: Data Acquisition and Analysis, Fall 2002 by Gollub, Randy L., Bird, Stephanie J., Brown, E. N. (Emery N.), Fischl, Bruce, Kanwisher, Nancy, Kennedy, David N. (David Nelson), 1962-, Manoach, Dara, Melcher, Jennifer R., Moore, Christopher, Wald, Lawrence, Dale, Anders, Schmitt, F. (Franz), 1953-, Greve, Doug, Hoge, Rick, Jovicich, Jorge, Mandeville, Joe, Rosen, Bruce Robert, Savage, Cary, Savoy, Robert, Sorensen, A. Gregory, Tuch, David Solomon, 1973-, Vanduffel, Wim, Vangel, Mark Geoffrey, Bush, George

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16.660 / 16.853 / ESD.62J Introduction to Lean Six Sigma Methods, January IAP 2008 by Murman, Earll, McManus, Hugh, Weigel, Annalisa, Haggerty, Allen

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HST.723 Neural Coding and Perception of Sound, Spring 2003 by Delgutte, Bertrand, Brown, Merritt Christian, Guinan, John Joseph, Melcher, Jennifer R., Oxenham, Andrew J., Brown, M. Christian, Melcher, Jennifer R.

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HST.583 Functional Magnetic Resonance Imaging: Data Acquisition and Analysis, Fall 2004 by Gollub, Randy L., Savoy, Robert, Wald, Lawrence, Banzett, Robert B., Dickerson, Bradford C, Melcher, Jennifer R., Kennedy, David N. (David Nelson), 1962-, Tuch, David Solomon, 1973-, Jovicich, Jorge, Greve, Doug, Mandeville, Joe, Vangel, Mark Geoffrey, Hoge, Rick, Blood, Anne, Hadjikhani, Nouchine, Moore, Christopher, Salat, David, Sigalovsky, Irina S., 1972-, Stufflebeam, Steven M, Zalesky, Martin

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HST.583 Functional Magnetic Resonance Imaging: Data Acquisition and Analysis, Fall 2006 by Gollub, Randy L., Banzett, Robert B., Bolar, Divya S., Buckner, Randy, Dickerson, Bradford, Gabrieli, John D. E., Whitfield-Gabrieli, Susan, Greve, Doug, Hadjikhani, Nouchine, Helmer, Karl, Kanwisher, Nancy, Kennedy, David N. (David Nelson), 1962-, Mandeville, Joe, Manoach, Dara, Melcher, Jennifer R., Moore, Christopher, Napadow, Vitaly, Pujol, Sonia, Rosen, Bruce Robert, Salat, David, Savoy, Robert, Sodickson, Dan, Sorensen, A. Gregory, Triantafyllou, Christina, Vangel, Mark Geoffrey, Wald, Lawrence, Yendiki, Anastasia

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16.412J / 6.834J Cognitive Robotics, Spring 2005 by Williams, Brian Charles

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16.412J / 6.834J Cognitive Robotics, Spring 2004 by Williams, Brian C., Roy, Nicholas

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Dragonfly (Sympetrum flaveolum) flight : kinematic measurement and modelling by Chen, Y. H., Martin, Skote., Zhao, Y., Huang, W. M.

“…The kinematics of the flapping hindwing of the dragonfly Sympetrum flaveolum is investigated. …”
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Aerodynamics of unconventional airfoils by Ng, Bing Feng.

“…Static LEVs are stationary vortices trapped over the top surface of an airfoil. As such, it will be shown here that static LEVs can be created and trapped through the use of cavities. …”
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Soft actuators and their fabrication for bio-inspired mobile robots by Lau, Gih-Keong, Low, Sze-Shien, Chin, Yao-Wei, Heng, Kim-Rui

“…Dielectric elastomer actuators (DEA), which are capable of muscle-like actuation, have potential to drive insect-inspired flapping-wing robotfly. They have not been successfully used to drive flapping wings due to various limitations. …”
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Design and fabrication of piezoelectrically driven wing flapper by Xu, WeiQuan.

“…This study focused on reproducing the flapping mechanism observed in insect flight using piezoelectric material as its driving mechanism. …”
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Butterfly-like micro air vehicle by Yang, Xiaobin

“…Butterfly cannot hover, but it has unique aerodynamic characteristics such as undulating body motion and low wing loading. Development of flapping wing micro air vehicle is mainly focus on the hovering birds and inserts. …”
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Investigation of the effects of wing membrane slackness on thrust generation by Chua, Jasper Dong Qiu

“…In this experiment, the author aims to recreate this phenomenon, creating wings of varying slackness in an attempt to study if this phenomenon is a viable form a wing control for flapping wing micro-aerial vehicles (MAV).…”
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Natural avian inspired ornithopter UAV by Kaung, Ko Ko

“…Therefore, in this final year project, the product development will encompass studying and analyzing several bird species, mainly their flight dynamics and followed by engineering flexible flapping wing platforms which produce both thrust and lift by nature inspired movement of the birds’ wings in different flight phases, namely flapping, gliding and maneuvering. …”
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Design and development of composite structure for a micro-UAV by Loke, Jun Jie.

“…This report describes the design process and fabrication of a composite fuselage for a 2kg class micro-UAV which is propelled by flapping wings. It begins with the comparison and selection of fabrication process. …”
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Lightweight mechanical amplifiers for rolled dielectric elastomer actuators and their integration with bio-inspired wing flappers by Lau, Gih-Keong, Lim, Hoong-Ta, Teo, Jing-Ying, Chin, Yao-Wei

“…Dielectric elastomer actuators (DEAs) are attractive for use in bio-inspired flapping-wing robots because they have high work density (specific energy) and can produce a large actuation strain. …”
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Design and develop an ornithopter by Wahyu Benardo Fanthony

“…The model will used electrical power from battery and perform flapping mechanism from dc motor. The main objective is to be able to perform basic movements such as wing flaps, tail flaps and tail twist. …”
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Broadband absorption enhancement for InAsSb-based mid-infrared photodetectors by Wang, Weilin

“…By simulating the reflection and absorption of devices w/o photon-trapping structure, significant reflection reduction is observed, and a relative absorption improvement of about 40% is reached for photon-trapping devices in the mid-wavelength region between 2 and 5 μm. …”
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Three dimensional acoustic tweezers with vortex streaming by Li, Junfei, Crivoi, Alexandru, Peng, Xiuyuan, Shen, Lu, Pu, Yunjiao, Fan, Zheng, Cummer, Steven A.

“…Acoustic tweezers based on single-beam focused acoustic vortices have attracted considerable attention due to their selective trapping capability, but have proven difficult to use for three-dimensional (3D) trapping without a complex transducer array and significant constraints on the trapped particle properties. …”
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