The Process Project App, addresses the impact and value of architecture in all aspects and provides users with necessary information and guidance needed in one cohesive interface. The app uses psychographic and GIS mapping to analyze existing sites. community demographics, and provide visualizations and information about the potential impact of the building ideas. By doing so, the app can help architects design buildings that cater to the specific needs and desires of the people who will use and inhabit them, while also promoting sustainable behaviors and reducing the environmental impact of the building. Ultimately, the app aims to create a community-driven platform for architecture ideas that can lead to more efficient and sustainable buildings, happier occupants, and a better overall user experience that can shape the path of this new wave of architecture.

Interstellar travel has been one of planet Earth’s grandest achievements in modern history. To send people and entire laboratories beyond Earth’s atmosphere is an unfathomably complex and challenging accomplishment; the logistics and engineering alone took decades to execute, and even now, it remains problematic. The risks involved with space travel are immense: rocket failures such as that in Columbia, hull breaches, or simple miscalculations that may result in numerous deaths and severe casualties. For much of its history, space travel has emphasized practicality, economics, and engineering, leaving little room to design an environment supporting those in orbit. While engineering, finances, and feasibility reign as the highest priorities in space habitation, there is an often overlooked necessity to design environments that better address station inhabitants' mental and behavioral needs.

Cell-sediment separation methods can potentially enable determination of the elemental composition of microbial communities by removing the sediment elemental contribution from bulk samples. We demonstrate that a separation method can be applied to determine the composition of prokaryotic cells. The method uses chemical and physical means to extract cells from benthic sediments and mats. Recovery yields were between 5% and 40%, as determined from cell counts. The method conserves cellular element contents to within 30% or better, as assessed by comparing C, N, P, Mg, Al, Ca, Ti, Mn, Fe, Ni, Cu, Zn, and Mo contents in Escherichia coli. Contamination by C, N, and P from chemicals used during the procedure was negligible. Na and K were not conserved, being likely exchanged through the cell membrane as cations during separation. V, Cr, and Co abundances could not be determined due to large (>100%) measurement uncertainties. We applied this method to measure elemental contents in extremophilic communities of Yellowstone National Park hot springs. The method was generally successful at separating cells from sediment, but does not discriminate between cells and detrital biological or noncellular material of similar density. This resulted in Al, Ti, Mn, and Fe contamination, which can be tracked using proxies such as metal:Al ratios. With these caveats, we present the first measurements, to our knowledge, of the elemental abundances of a chemosynthetic community. The communities have C:N ratios typical of aquatic microorganisms, are low in P, and their metal abundances vary between hot springs by orders of magnitude.