Forces

Discussion of Nature’s Design Solutions in Tintinnids: Masters of Microzooplankton Survival

In this essay, we explore tintinnids’ survival designs within the context of fundamental physics principles. Tintinnids employ diverse mechanisms to outmaneuver predators, locate prey, and safeguard themselves. To avoid predators, tintinnids utilize specific swimming patterns, attach to groups of particles, develop symbiotic relationships with diatoms, and have undergone morphological adaptations…

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Frustules: Design solutions in Diatoms

There are many microorganisms in the universe, and they can generally be sorted into three types: prokaryotic, eukaryotic, and acellular. The subject of this paper is a member of the eukaryotic family, and they are commonly present in nature: the diatom. The diatomite which is formed by the death of…

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Physical Analysis of Amoeba

Out of all the types of cell migration, amoeboid movement is studied very extensively due to its use by important biological components such as white blood cells. Despite the attention it has received, this type of cell movement has yet to be fully understood. Examining it from different perspectives helps…

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Spines: The Multitudes and Multi-functionalities of their Mechanisms

Abstract Many organisms possess internal defense mechanisms, intrinsic properties, and behaviors adapted for their survival. Spines and quills differ immensely across families, and this disparity exacerbates further amongst taxa. Environmental pressures such as predation and habitat unique to each species results in various physical design mechanisms for spines and quills.…

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Biomechanics of Marine Suction Cups and Applications to Artificial Suction Technology

Suction cups are important adhesive adaptations for many marine animals, allowing for locomotion, predation, stability, and grasping of objects. Interesting morphological adaptations have allowed the suction cups of distinct species to best accommodate the purpose of the suctioning mechanism as well as the unique environment that the organism inhabits. The…

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Fancy Footwork: A Morphological Study of the Role of the Hoof in Ungulate Locomotion in Habitats Around the World

In many mammals around the world, nature has designed a variable and complex structure placed at the tips of limbs called a hoof. Hoofed mammals, also called ungulates, are divided into two orders: even- and odd-toed ungulates. The divergence of these mammals from a common ancestor has led to the…

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The Hydrodynamic Advantages of Shark Scales

This essay examines the drag-reductive properties of sharks’ scales and analyzes the macroscale and microscale structures and mechanisms that diminished turbulence for the fish in motion over the course of evolution. Fluid dynamics theory and Reynold’s number are used to explain the high reduction of turbulence and friction drag in…

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Mathematical modeling of aerodynamic functions of aquatic and avian tails

The world of mathematics holds much value when it comes to computing, establishing, and resolving the many different complex relationships found in natural sciences. This, naturally, holds true for biological systems and their vast array of unique biomechanical tools and even for the complex diversity in social behaviors. In this…

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Mathematical Models of Molluscan Shell Patterns and Morphology

Mollusk shells’ mesmerizing diversity of forms stems from their variations in shape, features and patterns. While these forms are highly complex and diverse, research has aimed to establish an overarching model that explains the formation of these shell characteristics. This essay explores the mathematical models that capture these natural forms…

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