Matthew M Mills
Biographic Data
| ID | 9034897 |
|---|---|
| NAME | Matthew M Mills |
| GIVEN NAMES | Matthew M |
| FAMILY NAME | Mills |
| SIGNATURE | MILLS M M |
| AFFILIATIONS | Stanford University |
| ORCID | 0000-0002-9738-5589 |
| VERIFIED | Yes |
| TOTAL WORKS | 4 |
| TOTAL CITATIONS | 0 |
| AUTHOR COUNT | 4 |
| EDITOR COUNT | 0 |
| FIRST PUBLICATION YEAR | 2014 |
| LATEST PUBLICATION YEAR | 2022 |
| H-INDEX | 0 |
Linking multiple stressor science to policy opportunities through network modeling
Global climate change and a suite of other human-generated stressors are causing significant changes in the world’s oceans. Ocean stressors combine and interact, and when there are multiple stressors, the interactions are often synergistic – the combined impact is greater than the sum of their individual effects. Synergistic interactions yield non-linear impacts, which means that failure to account for synergies may vastly underestimate risk. How…
Response of Lower Sacramento River phytoplankton to high-ammonium wastewater effluent
Since the 1980s, the San Francisco Bay Delta ecosystem has experienced large declines in primary production. Hypothesized reasons for this decline include (1) suppression of nitrate (NO3−) uptake, and thus phytoplankton growth, due to high concentrations of ammonium (NH4+), and (2) wastewater NH4+-induced changes in phytoplankton community composition away from large-celled diatoms. These twin hypotheses implicate NH4+ loading from the Sacramento…
Environmental drivers of under-ice phytoplankton bloom dynamics in the Arctic Ocean
The decline of sea-ice thickness, area, and volume due to the transition from multi-year to first-year sea ice has improved the under-ice light environment for pelagic Arctic ecosystems. One unexpected and direct consequence of this transition, the proliferation of under-ice phytoplankton blooms (UIBs), challenges the paradigm that waters beneath the ice pack harbor little planktonic life. Little is known about the diversity and spatial distribut…
Sea ice algal biomass and physiology in the Amundsen Sea, Antarctica
Sea ice covers approximately 5% of the ocean surface and is one of the most extensive ecosystems on the planet. The microbial communities that live in sea ice represent an important food source for numerous organisms at a time of year when phytoplankton in the water column are scarce. Here we describe the distributions and physiology of sea ice microalgae in the poorly studied Amundsen Sea sector of the Southern Ocean. Microalgal biomass was rela…
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Sea ice algal biomass and physiology in the Amundsen Sea, Antarctica
Sea ice covers approximately 5% of the ocean surface and is one of the most extensive ecosystems on the planet. The microbial communities that live in sea ice represent an important food source for numerous organisms at a time of year when phytoplankton in the water column are scarce. Here we describe the distributions and physiology of sea ice microalgae in the poorly studied Amundsen Sea sector of the Southern Ocean. Microalgal biomass was rela…
Environmental drivers of under-ice phytoplankton bloom dynamics in the Arctic Ocean
The decline of sea-ice thickness, area, and volume due to the transition from multi-year to first-year sea ice has improved the under-ice light environment for pelagic Arctic ecosystems. One unexpected and direct consequence of this transition, the proliferation of under-ice phytoplankton blooms (UIBs), challenges the paradigm that waters beneath the ice pack harbor little planktonic life. Little is known about the diversity and spatial distribut…
Response of Lower Sacramento River phytoplankton to high-ammonium wastewater effluent
Since the 1980s, the San Francisco Bay Delta ecosystem has experienced large declines in primary production. Hypothesized reasons for this decline include (1) suppression of nitrate (NO3−) uptake, and thus phytoplankton growth, due to high concentrations of ammonium (NH4+), and (2) wastewater NH4+-induced changes in phytoplankton community composition away from large-celled diatoms. These twin hypotheses implicate NH4+ loading from the Sacramento…
Linking multiple stressor science to policy opportunities through network modeling
Global climate change and a suite of other human-generated stressors are causing significant changes in the world’s oceans. Ocean stressors combine and interact, and when there are multiple stressors, the interactions are often synergistic – the combined impact is greater than the sum of their individual effects. Synergistic interactions yield non-linear impacts, which means that failure to account for synergies may vastly underestimate risk. How…
Biology (4 works) · Ecology (4 works) · Environmental Science (4 works) · Marine and coastal ecosystems (4 works) · Geology (3 works) · Nutrient (3 works) · Oceanography (3 works) · Phytoplankton (3 works) · Arctic ice pack (2 works) · Sea ice (2 works)