The scale of Tamara Riewe and Samuel von Wentz's microscopic bodies positioned against the Hudson River was austere and astounding.
The motion of two- and three-dimensional self-propelled microscopic bodies immersed in a fluid medium is studied using molecular dynamics simulation.
According to the view of her opponents, the microscopic bodies that affect our senses do not have qualities like color or taste or smell, but they somehow are able to make us have sensations of these.
But the microscopic bodies looked nothing like those from living penguins, whose tightly clustered melanosomes are different from those of all other birds, according to co-author Matthew Shawkey of the University of Akron in Ohio.
On this view, the color- and taste- and odor-less microscopic bodies might serve as a kind of trigger, but the production of the relevant sensations is due in large part to dispositions and capacities that are found on the side of the perceiver.
The photos in the show feature specimens, 25 in total, from the museum's collection, magnified so that their microscopic bodies are able to be viewed in incredible detail.
My life has turned into a mangled CDT lab of confusion and frustration and microscopic foreign bodies that I'm pretty sure have lodged into my eyeball.
Phytoliths are microscopic silica bodies produced by many plants; as a plant grows, an individual phytolith forms in a cell to aid in the physical support of the plant structure.
An essential feature of the Hartree equations is that the convolution kernel (vert xvert ^{-gamma}) still retains the fine structure of microscopic two-body interactions of the quantum system.
Phytoliths are microscopic silica bodies that precipitate in or between cells of living plant tissues, and are widespread in all types of plants and all their different organs and structures, from roots to culms to inflorescences [1] [4].
