| Session
1: MEMS & BioMEMS |
| No. |
Title |
Author |
| 1.01 |
Microfluidic Deformability Cytometry Measurement of Malaria-infected Red Blood Cells at Body and Fever Temperatures |
Sha Huang |
| 1.02 |
Massively-Parallel Concentration Device for Multiplexed, High-Throughput Applications |
Sung Jae Kim |
| 1.03 |
Self Sorting of Deformable Particles in a Microfluidic Circuit |
Marco Cartas |
| 1.04 |
Examining Trajectories of Rolling Cells on Asymmetric P-selectin Patterns |
Chia-Hua Lee |
| 1.05 |
A Thermal Ink Jet Printed PZT Cantilever |
Stephen Bathurst |
| 1.06 |
Conductive Polymer Strain Gauge MEMS for Underwater Pressure Sensing |
Frank Yaul |
| 1.07 |
Thermally actuated MEMS seal for vacuum applications |
Aalap Dighe |
| 1.08 |
Optical Windows for Buried Microfluidic Channels |
Kristofor Payer |
| 1.09 |
Sintered Nanoparticle Silver Films for Digitally-patterned MEMS Applications |
Eric Lam |
| 1.10 |
Second Generation Micromachined Vacuum Pump |
Hui Zhou |
| 1.11 |
MEMS SiC Langmuir Probe for Diagnostics of Plasma surrounding Spacecraft during Reentry into Earth’s Atmosphere |
Ellie Field |
| 1.12 |
Making a MEMS RPA for sensing reentry ion energies. |
Eric Heubel |
| 1.13 |
CNT Field Ionization Pump for Portable Vacuum Applications |
Daniel Jang |
| 1.14 |
Electron-impact-ionization Pump using Double-gated Isolated Vertically Aligned Carbon Nanotube Arrays |
Vivi Jayanty |
| 1.15 |
Massively parallel microfluidic cell pairing platform for the statistical study of immunological cell-cell interactions |
Melanie Hoehl |
| 1.16 |
RF MEMS resonators for Body Area Networks |
Radhika Marathe |
| Session
2: Circuits & Systems |
| No. |
Title |
Author |
| 2.01 |
Measurement and Modeling of Variability in Advanced Technology |
Albert Chang |
| 2.02 |
Energy-scalabler Network Coding Accelerator for Body Area Networks |
Georgios Angelopoulos |
| 2.03 |
Malaria diagnostic system based on electric impedance spectroscopy |
Sungjae Ha |
| 2.04 |
A low-voltage microprocessor for medical systems |
Nathan Ickes |
| 2.05 |
Ultra-Low-Power Radios Employing Multiple Parallel FBARs for Channel Selection |
Arun Paidimarri |
| 2.06 |
Low Power Transform Engine for Multi-Standard Video Coding |
Rahul Rithe |
| 2.07 |
High Resolution Hybrid Pipeline ADC |
Mariana Markova |
| 2.08 |
UHF RFID-based µImplant Sensing Platform |
Haobo (Jack) Dong |
| 2.09 |
A Sub-ns Phase Modulator for mm-Wave AMO Transmitters |
Zhen Li |
| 2.10 |
Acoustic Wave Transmission, Data Acquisition, And Signal Processing Platform For Portable/Wearable Ultrasound Applications |
Sunghyuk Lee |
| 2.11 |
Reconfigurable Network Interface for Multicore Processors |
Bhavya Daya |
| 2.12 |
Acoustic Wave Transmission, Data Acquisition, And Signal Processing Platform For Portable/Wearable Ultrasound Applications |
Kailiang Chen |
| 2.13 |
A Wearable Vital Signs Monitor at the Ear |
David He |
| 2.14 |
VLSI Design of Improved LCC RS Decoders |
Wei An |
| 2.15 |
Re-Architecting DRAM Memory Systems with Monolithically Integrated Silicon Photonics |
Chen Sun |
| 2.16 |
A 200+-Channel Neurostimulator Chip for the Boston Retinal Implant Project |
Shawn Kelly |
| Session
3: Nanotechnology & Energy Applications |
| No. |
Title |
Author |
| 3.01 |
Near-Ultraviolet Sensor Based on Horizontal Low Temperature Solution Grown Zinc Oxide Nanowires |
Michael Swanwick |
| 3.02 |
Charge Generation in Organic Solar Cells — A Hot Process or Not? |
Jiye Lee |
| 3.03 |
Sub-10-nm fabrication based on templated self-assembly of block copolymer |
Jae-Byum Chang |
| 3.04 |
Lithographic templates for depositing single quantum dots |
Vitor Manfrinato |
| 3.05 |
Vapor-trapping membrane for desalination of water by reverse osmosis |
Jongho Lee |
| 3.06 |
Enabling ‘Nano’ with ‘Micro’: Microfluidic System for High-Throughput Synthesis and Screening of Nanovehicles for Cancer Therapy” |
Pedro Valencia |
| 3.07 |
Study on the thermal stability of nano-structured selective emitters |
Heon Lee |
| 3.08 |
Synthesis of hexagonal boron nitride with chemical vapor deposition |
Ki Kang Kim |
| 3.09 |
Graphene Photovoltaics |
Hyesung Park |
| 3.10 |
Passive self-tuning energy harvester |
Lei Gu |
| 3.11 |
Energy Storage in Carbon Nanotube Springs |
Frances Hill |
| 3.12 |
Drop Impact on Polymeric Textured Surfaces |
Kyoo-Chul (Kenneth) Park |
| 3.13 |
GaN Power Electronics |
Bin Lu |
| 3.14 |
The design and fabrication of a 400 nm thick, 200 nm pitch thermal silicon dioxide mask for deep reactive Ion etching |
Alexander Bruccoleri |
| 3.15 |
Growth of Carbon Nanostructure Arrays for Electrochemical Systems |
Robert Mitchell |
| Session 4:
Electronic & Photonic Devices |
| No. |
Title |
Author |
| 4.01 |
Feature Scaling of Large, Ballasted Field Emission Arrays |
Stephen Guerrera |
| 4.02 |
Low Power Pentacene Based Thin Film Transistors |
Melissa Smith |
| 4.03 |
InGaAs Quantum-Well MOSFETs for Future High-Performance CMOS |
Jianqiang Lin |
| 4.04 |
Nanoscale CMP Modeling |
Joy Johnson |
| 4.05 |
High-voltage degradation of GaN HEMTs |
Donghyun Jin |
| 4.06 |
Self-Aligned Gate InGaAs HEMT with Record High-Frequency Characteristics |
Tae-Woo Kim |
| 4.07 |
Etching Capabilities in MTL |
Donal Jamieson |
| 4.08 |
Platform for monolithic integration of III-V and Si CMOS devices |
Nan Pacella |
| 4.09 |
Mobility characterization and transport enhancement techniques for top-down fabricated gate-all-around silicon nanowire MOSFETs |
Pouya Hashemi |
| 4.10 |
Band-to-band Tunneling in Silicon Diodes |
James Teherani |
| 4.11 |
Germanium Laser |
Rodolfo Camacho-Aguilera |
| 4.12 |
Carbon Nanotube Enhanced Ultracapacitor |
David Jenicek |
| 4.13 |
Graphene Technology and Device Applications |
Allen Hsu |
| 4.14 |
High frequency GaN HEMTs |
Dong Seup Lee |
| 4.15 |
Wafer-size GaN-Si integration |
HyungSeok Lee |
| 4.16 |
Graphene Glucose Sensor: First valuations |
Benjamin Mailly |
| 4.17 |
Theoretical Predictions for Nitride Solar Cells |
Mariko Medlock |
| 4.18 |
Thermodynamics of Recombination in LEDs |
Dodd Gray |
| 4.19 |
Compact Optical Polarizers using Critically Coupled Plasmons |
Joseph Summers |
| 4.20 |
45nm, highly linear, low voltage reveiver front-ends for a very high speed, high resolution optical ADC |
Oguzhan Uyar |
