Since humans rely specifically on vegetative parts (like stems, leaves and tubers) or reproductive parts (berries and seeds) of plants for nutrition, it is critical to develop systems which impart control of the progression of plant development to affect plant output toward the particular needs of humans.
It is critical to develop robust control algorithms for these internal states to improve system performance.
Therefore, it is critical to develop efficient methods for visualization of thiophenol species in biological samples.
However, it is critical to develop durable and cost-effective electrocatalysts using earth-abundant materials for overall water splitting.
It is critical to develop durable cathode and understand the mechanism of degradation in hydrogen fuel cells for commercialization.
It is critical to develop a historic preservation framework for these sites, including international agreements on how to protect the significant cultural resources.
For this technology to be economically competitive, it is critical to develop water splitting systems with high solar-to-hydrogen (STH) efficiencies.
It is critical to develop methods for optimal allocation of limited defensive resources to safeguard the power grid, especially those considering the probabilistic behaviors of the attackers.
To circumvent these challenges, it is critical to develop engineering strategies that can improve tissue engraftment as well as enhance the therapeutic potential of these cells.
With an expanding population and finite natural resources, it is critical to develop and implement energy-saving solutions that meet the needs of society without impacting future sustainability.
To advance our understanding of the role of RSSH in biology, it is critical to develop new precursors that can cleanly and reliably produce RSSH under biological conditions.
