• Enables multi-objective optimal control capability to complex electrical power systems
• Uses nonlinear optimal control techniques, such as adaptive critic designs and the model predictive control method
• Allows seamless integration of intermittent renewable generation resources

• Eco-friendly: An improved industrial dyeing process because it reduces excessive heat and water contamination during manufacturing.
• Wide applicability: Demonstrated to be successful with other materials beyond polyester, including Kevlar and polyacrylonitrile (PAN).
• Improved quality: Improving commercial dye methods without losing the desired properties of polyester such as flexibility is beneficial to industries like medical supply.

• Efficient
• Cheaper

• Increased efficiency — Satisfies zero voltage switching condition at 50% duty cycle and shapes the drain voltage at other duty cycles to minimize power loss
• Improved reliability — Reduces peak drain swing
• Mitigated variation — Determines optimal adaptation settings for each process shifted device using on-chip sensors and digital logic

• Faster: Reduces preparation time from several hours to minutes
• Simplified: Generates complex patterns, including perfusable channels, using light-triggered polymerization of synthetic hydrogels and photomasks rather than current equipment-intensive methods that use laser-based patterning or ablation techniques
• Lowers regulatory burdens: Using synthetic rather than biological matrices simplifies regulatory hurdles, increases reproducibility from batch to batch, and increases tunability of the mechanical and biochemical properties of the matrix

• Creates safe, effective antimicrobial surfaces via bacteria inactivation without the use of chemicals
• Targets cell membranes or capsid, is less likely to induce antimicrobial resistance, and should be effective for antibiotic-resistant bacteria
• Requires very short electrical pulses to achieve effective bacteria inactivation, potentially leading to better antifouling performance

• Faster operation
• Enabling of fault current limitation
• Reduction in risk of damaging electrical equipment

• Powerful – Antenna can be operated at high power levels
• Stealthy – Plasma version can be any length and can be hidden easily; can also be rapidly shut off to prevent radar detection
• Variable – Most of the design parameters can be rapidly varied, enabling a single antenna to potentially serve multiple purposes

• Environmentally friendly: Aqueous/Organic processing is safer than the aromatic hydrocarbon and chlorinated solvents typically used.
• Higher levels of electric power: Films made with this technology have significantly faster redox switching rates of up to 10V/s.
• Versatile: Various electrolyte systems have been successfully tested, including organic, aqueous, the spinal fluid analog Ringer’s solution, and even commercially available sports drinks.

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.

• Multi-use: Provides structural support in conjunction with static and in situ EM performance
• Efficient: Reduces size, weight, power, and cost (SWaP-C) parameters 
• Flexible: Integrates non-standard material systems

• Difficult to defeat — due to unique voltage patterns
• Works independently — not reliant on perfect connections to maintain functionality
• Ability to sustain a moderate amount of damage — to avoid incorrectly detecting a breach

• Unlimited — No limit to energy collection
• Efficient Energy Collection — Useful in Solar Spectrum

• Unique nano-fabrication process that allows direct-write of complex 3D nano-structures (e.g. cavities and overhangs)
• Fabrication process compatible with variety of materials on any substrates (planar and non-planar)
• Provides growth rate of amorphous carbon nano-structures 3 times greater than that of standard gas-phase FEBID

• Higher electron mobilities

• Improve overall performance of the transportation system while reducing enforcement costs and need for law enforcement resources
• Reduces the need for a physical barrier between the HOV/HOT and general purpose lanes
• Addresses traffic management problems through the implementation of automated electronic enforcement of barrier to integrity 

• Lower cost: Replacing fluorescent markers and readout methods with impedance detection has the potential to significantly decrease the cost of the assay. 
• Transportable: Impedance measurements in microfluidics can be made transportable, which can potentially enable point-of-care applications, as electronic elements are more durable than optical elements.
• Practical: Identification of COVID-19 antibodies in COVID-positive serum samples has already been demonstrated.

• Phase separation is eliminated
• Growth process is faster
• Processing temperatures are lower and over a wider range

• Utilizes temperature as indication of deep tissue infection
• Deep tissue measurement vs. only reaching skin surface
• Non-invasive monitoring

• State-of-the-art: Is the first Rx-array design of its kind, autonomously achieving modulated blocker suppression and desired signal beamforming simultaneously without the need for a digital beamforming aid  
• Robust: Enables multi-beam high-capacity massive MIMO to address the demands of both commercial and defense applications
• Scalable: Employs ASFs that achieve 4-element spatial filters with sharpened selectivity that can be extended to larger array sizes of thousands of elements and cancellation of any number of interference signals