Bioprecipitation is the concept of rain-making bacteria and was proposed by David Sands from Montana State University in the 1970s. [1] This is precipitation that is beneficial for microbial and plant growth, it is a feedback cycle beginning with land plants generating small air-borne particles called aerosols that contain microorganisms that ...

Bioprecipitation is a theory about rain-making bacteria. It was proposed by David Sands from Montana State University in 1982. They believe that biological ice nuclei have the ability to catalyze freezing at warmer temperatures. [1] New research shows that bacteria may be found in clouds as a way spread their spores. [2]

Bioprecipitation: a feedback cycle linking Earth history, ecosystem dynamics and land use through biological ice nucleators in the atmosphere

Mounting evidence from observations and numerical simulations support the plausibility of a bioprecipitation feedback cycle involving vegetated landscapes and the microorganisms they host.

2017年7月25日 · Bioprecipitation can be defined as the conversion of soluble metals and metalloids into insoluble precipitates by the activity of microorganisms. Microorganisms can facilitate precipitation by catalyzing oxidative and reductive processes that lead to the precipitation of contaminants such as iron, uranium and chromium.

Bioprecipitation is about the influence of biology, such as the bacteria Pseudomonas syringae, on rainfall. An introductory video from Cindy Morris. Contains links and references at the end.

Bioprecipitation is a soil and groundwater remediation technique. It uses microorganisms as a catalyst to enhance the chemical precipitation process. The method aims to immobilize soluble contaminants as less soluble hydroxide, carbonate, phosphate and/or sulfide precipitates.

2014年2月1日 · Mounting evidence from observations and numerical simulations support the plausibility of a bioprecipitation feedback cycle involving vegetated landscapes and the microorganisms they host.

Bioprecipitation is the hypothesis that microbial ice nucleators, including Pseudomonas syringae, may be highly adapted causal agents of rain and snow.

Mounting evidence from observations and numerical simulations support the plausibility of a bio-precipitation feedback cycle involving vegetated landscapes and the microorganisms they host.