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OXMAN is a hybrid Design and R&D company that fuses design, technology, and biology to invent multi-scale products and environments. The fusion of disciplines within our work opens previously impossible opportunities within each domain—allowing design to inspire science and science to inspire design. At OXMAN, we question dominant modes of design that have divorced us from Nature by prioritizing humanity above all else (human-centric design). Although it is design that has caused this rift, we believe that design also offers the greatest opportunity to heal it. We propose a Nature-centric approach that delivers design solutions by, for, and with the natural world, while advancing humanity. In this pursuit, we reject all forms of segregation and instead call for a radical synergy between human-made and Nature-grown environments. This approach demands that we design across scales for systems-level impact. We consider every designed construct a whole system of heterogeneous and complex interrelations—not isolated objects—that are intrinsically connected to their environments. In doing so, we open ourselves up to moving beyond mere maintenance toward the advancement of Nature.
OXMAN is seeking a Computational Research Engineer or Computer Scientist with specialization in Computational Ecology to join an all-star interdisciplinary team of deep thinkers and brilliant makers, leveraging computation as a language for mediation between human-made and Nature-grown environments. This person embodies both technical rigor and creative ingenuity in applying methods from computational ecology toward the development of novel design methods. In this role, they will conduct research related to ecosystem modeling and analysis on how ecosystems are impacted by spatial and temporal variability and effects of external interventions. They will conceptualize and develop methods to model how man-made interventions propagate through ecological networks, affect biodiversity, ecological resilience, and ecosystem services. This includes but is not limited to predictive modelling of ecosystem progression or inference of ecosystem stability from remote sensing data, statistical modelling of ecosystem activity, or agent-based modelling of ecosystem dynamics. Besides modelling of ecosystem activity one of the primary focus of this engagement is to develop a generalized ecosystem model. This generalized model will be integrated in EDEN’s generation, simulation, and optimization workflows to enable evaluation of ecosystem metrics such as the qualitative analysis of provision of ecosystem services.
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