Forrest Meggers

Dr. Forrest Meggers


Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications

1 April 2011 in Energy and Buildings
Verified
Journal Article
Closed access
FMForrest Meggers
Forrest Meggers
HLHansjurg Leibundgut
Hansjurg Leibundgut

1 May 2012 in Energy
Verified
Journal Article
Closed access
FMForrest Meggers
Forrest Meggers
VRVolker Ritter
Volker Ritter
PGPhilippe Goffin
Philippe Goffin
MBMarc Baetschmann
Marc Baetschmann
HLHansjürg Leibundgut
Hansjürg Leibundgut

1 December 2014 in Building and Environment
Verified
Journal Article
Closed access
ESEsmail M. Saber
Esmail M. Saber
RIRupesh Iyengar
Rupesh Iyengar
MMMatthias Mast
Matthias Mast
FMForrest Meggers
Forrest Meggers
Kwok Wai ThamKwok Wai Tham
Kwok Wai Tham
HLHansjürg Leibundgut
Hansjürg Leibundgut

25 April 2024 in Proceedings of the National Academy of Sciences
Verified
Journal Article
Open access
TBThomas Bosch
Thomas Bosch
MWMark Wigley
Mark Wigley
BCBeatriz Colomina
Beatriz Colomina
BBBrendan Bohannan
Brendan Bohannan
FMForrest Meggers
Forrest Meggers
MMMelissa K. Melby
Melissa K. Melby
There is increasing evidence that interactions between microbes and their hosts not only play a role in determining health and disease but also in emotions, thought, and behavior. Built environments greatly influence microbiome exposures because of their built-in highly specific microbiomes coproduced with myriad metaorganisms including humans, pets, plants, rodents, and insects. Seemingly static built structures host complex ecologies of microorganisms that are only starting to be mapped. These microbial ecologies of built environments are directly and interdependently affected by social, spatial, and technological norms. Advances in technology have made these organisms visible and forced the scientific community and architects to rethink gene–environment and microbe interactions respectively. Thus, built environment design must consider the microbiome, and research involving host–microbiome interaction must consider the built-environment. This paradigm shift becomes increasingly important as evidence grows that contemporary built environments are steadily reducing the microbial diversity essential for human health, well-being, and resilience while accelerating the symptoms of human chronic diseases including environmental allergies, and other more life-altering diseases. New models of design are required to balance maximizing exposure to microbial diversity while minimizing exposure to human-associated diseases. Sustained trans-disciplinary research across time (evolutionary, historical, and generational) and space (cultural and geographical) is needed to develop experimental design protocols that address multigenerational multispecies health and health equity in built environments.