Chelicerates, a group that includes arachnids and horseshoe crabs, exhibit bilateral symmetry. This means their body can be divided into two mirror-image halves along a single plane that runs from head to tail. They typically show a clear distinction between the cephalothorax (the fused head and thorax) and the abdomen. Additionally, their body plan features paired appendages, which are characteristic of bilateral symmetry.
Fungi typically exhibit a form of asymmetry, though some structures may display radial symmetry, particularly in fruiting bodies like mushrooms. Unlike plants and animals, fungi do not have a defined body plan, and their growth can be irregular as they expand through their environment. Their cellular organization, primarily consisting of hyphae forming a mycelium, contributes to this asymmetrical nature.
All vertebrates exhibit bilateral symmetry because it is an evolutionary adaptation that enhances movement and coordination. This symmetrical body plan allows for streamlined motion, facilitating efficient locomotion and navigation in their environments. Additionally, bilateral symmetry supports the development of a centralized nervous system, which helps in processing sensory information and coordinating responses. Overall, this symmetry contributes to the survival and reproductive success of vertebrate species.
Platypuses, like all vertebrates, have bilateral symmetry. This means they have symmetry across one plane (known as the sagittal plane, and directly down the centre of their body), which means one side of their body approximately mirrors the other side.
Humans, like all mammals and other vertebrates, have bilateral symmetry. This means they have symmetry across one plane (known as the sagittal plane, and directly down the centre of their body), which means one side of their body approximately mirrors the other side.
Most animal phyla exhibit bilateral symmetry, where the body can be divided into two mirror-image halves along a single plane. This body plan is thought to have evolved for efficient movement and coordination in organisms.
an asymmetrical body plan
Radial symmetry
Porifera (sponges) is considered one of the most primitive phyla because they lack true tissues and organs, and exhibit a simple body plan without symmetry.
hookworms have bilateral symmetry
small black animals but not tadpoles
bilateral symmetry
Humans exhibit bilateral symmetry, meaning that the left and right sides of the body are mirror images of each other. This type of symmetry is evident in the arrangement of limbs, facial features, and various internal organs. While humans are not perfectly symmetrical due to natural variations and asymmetries, the overall body plan is organized around this bilateral symmetry, which is common in many other animals as well.
A body plan in which an organism can be divided along only one plan of their body to produce 2 mirror images.
Yes, anole lizards, like most vertebrates, exhibit bilateral symmetry. This means their body plan is symmetrical along a central axis, with similar structures on both sides, such as limbs, eyes, and other body parts. This type of symmetry is common in many animal species and plays a role in their movement and behavior.
balls
Trees have roughly radial symmetry.