Drive Belt with Surface Texture to Minimize Vibrations |
|
8307 |
|
Droplet Impingement Planar-Array-Micro-Reactor |
|
4099 |
|
Dual Electrode Ultrasonic Transducers |
|
3103 |
|
Dual-Energy Computed Tomography Through Primary Beam Modulation |
|
7038 |
|
Dual-Polarized Antenna for OFDM |
|
6492 |
|
Durable, Water Repellent Coatings |
|
7656 |
|
Dynamic Neck Support for Extended Surgeries and Other Applications |
|
9159 |
|
Dynamic Stochastic Optimal Electrical Power Flow Control |
|
5996 |
|
Eco-Method Mordant that Improves Natural Dye Adhesion to Synthetic Fabrics |
|
9048 |
|
Edge Viewing Photodetector |
|
3321 |
|
Efficient, Reliable, Robust Power Amplifiers for Wireless Communications |
|
6210 |
|
Efficiently Generating Complex Hydrogel Structures for Tissue/Organ-on-a-Chip Models |
|
8838, 8839 |
|
Electric Field Treatment Creates Safe, Effective Antimicrobial Surfaces |
|
9130 |
|
Electrical Contact Geometry for Switchgear Applications |
|
7703 |
|
Electrically Short Antenna with High Bandwidth |
|
6746 |
|
Electroactive Polymers with Rapid Switching Rates |
|
7035 |
|
Electrohydrodynamic Jet Printing Driven By a Triboelectric Nanogenerator | Safety: intrinsically limited charge transfer and current provide better safety for both personnel and instruments. Cost-effectiveness: the TENG was simply operated using a rotary motor and the cost of the TENG device and boost circuit is less than 100 USD, while a commercial DC HV power source usually costs more than 1000 USD. Controllability: owing to the charge dominating output characteristic of TENG, the droplet jetting frequency could be controlled by the TENG operation frequency. |
8292 |
|
Electromagnetic (EM) Metastructures |
|
8469 |
|
Electromagnetic Breach Detection Sensor |
|
3646 |
|
Electromagnetic Detecting and Energy Converting Coated Nanotubes |
|
6214 |