From: The University of Kent
August
27, 2021 – Researchers from the University of Kent, the Research Institute for
Environment Treatment and Vita-Market Ltd have discovered the universal
mathematical formula that can describe any bird’s egg existing in nature, a
feat which has been unsuccessful until now.
Egg-shape
has long attracted the attention of mathematicians, engineers, and biologists
from an analytical point of view. The shape has
been highly regarded for its evolution as large enough to incubate an embryo,
small enough to exit the body in the most efficient way, not roll away once
laid, is structurally sound enough to bear weight and be the beginning of life
for 10,500 species that have survived since the dinosaurs. The egg has been
called the “perfect shape”.
Analysis of all egg shapes used four
geometric figures: sphere, ellipsoid, ovoid, and pyriform (conical), with a
mathematical formula for the pyriform yet to be derived.
To rectify this, researchers introduced
an additional function into the ovoid formula, developing a mathematical model
to fit a completely novel geometric shape characterized as the last stage in
the evolution of the sphere-ellipsoid, which it is applicable to any egg
geometry.
This new universal mathematical formula
for egg shape is based on four parameters: egg length, maximum breadth, shift
of the vertical axis, and the diameter at one quarter of the egg length.
This long sought-for universal formula
is a significant step in understanding not only the egg shape itself, but also
how and why it evolved, thus making widespread biological and technological
applications possible.
Mathematical descriptions of all basic
egg shapes have already found applications in food research, mechanical
engineering, agriculture, biosciences, architecture and aeronautics. As an
example, this formula can be applied to engineering construction of thin walled
vessels of an egg shape, which should be stronger than typical spherical ones.
This new formula is an important
breakthrough with multiple applications including:
- Competent
scientific description of a biological object.
Now that an egg can be described via mathematical formula, work in fields of biological systematics, optimization of technological parameters, egg incubation and selection of poultry will be greatly simplified. - Accurate
and simple determination of the physical characteristics of a biological
object.
The external properties of an egg are vital for researchers and engineers who develop technologies for incubating, processing, storing and sorting eggs. There is a need for a simple identification process using egg volume, surface area, radius of curvature and other indicators for describing the contours of the egg, which this formula provides. - Future
biology-inspired engineering.
The egg is a natural biological system studied to design engineering systems and state-of-the-art technologies. The egg-shaped geometric figure is adopted in architecture, such as London City Hall’s roof and the Gherkin, and construction as it can withstand maximum loads with a minimum consumption of materials, to which this formula can now be easily applied.
Darren Griffin, Professor of Genetics in
the University of Kent and PI on the research, said: ‘Biological evolutionary
processes such as egg formation must be investigated for mathematical
description as a basis for research in evolutionary biology, as demonstrated
with this formula. This universal formula can be applied across fundamental
disciplines, especially the food and poultry industry, and will serve as an
impetus for further investigations inspired by the egg as a research object.’
Dr Michael Romanov, Visiting Researcher
at the University of Kent, said: ‘This mathematical equation underlines our understanding
and appreciation of a certain philosophical harmony between mathematics and
biology, and from those two a way towards further comprehension of our
universe, understood neatly in the shape of an egg.’
Dr Valeriy Narushin, former visiting
researcher at the University of Kent, said: ‘We look forward to seeing the
application of this formula across industries, from art to technology,
architecture to agriculture. This breakthrough reveals why such collaborative
research from separate disciplines is essential.’
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