Chrysopelea paradisi

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Paradise flying snake
Chrysopelea paradisi (6032067972).jpg
Scientific classification OOjs UI icon edit-ltr.svg
Domain: Eukaryota
Kingdom: Animalia
Phylum: Chordata
Class: Reptilia
Order: Squamata
Suborder: Serpentes
Family: Colubridae
Genus: Chrysopelea
Species:
C. paradisi
Binomial name
Chrysopelea paradisi
Boie, 1827

Paradise tree snake or paradise flying snake (Chrysopelea paradisi) is a species of snake found in southeastern Asia. It can, like all species of its genus Chrysopelea , glide by stretching the body into a flattened strip using its ribs. It is mostly found in moist forests and can cover a horizontal distance of 10 meters or more [2] in a glide from the top of a tree. Slow motion photography shows an undulation of the snake's body in flight while the head remains relatively stable, suggesting controlled flight. They are mildly venomous with rear fangs and also can constrict their prey, which consists of mostly lizards and bats.

Contents

Researchers in 2014 conducted a study by manipulating airflow and conducting detailed morphological analyses on the species. As they did so, they unveiled the relationship between the snake's unique body shape and its gliding performance. Their bodies being much flatter and elongated as well as them being much more flexible in their structure. This research helped a lot not just in the biological field but by drawing inspiration from Chrysopelea paradisi’s body shapes and the way they function, researchers aim to develop flying machines that are efficient and energy saving. Thus, the study of this species not only enriches our understanding of vertebrate flight but also catalyzes advancements in engineering disciplines, propelling us towards new frontiers in biomimicry and aerospace technology.

Kinematics

The flying snake has a unique kinematic that is different compared to other animals with gliding or flight because they are cylindrical and do not have limbs such as legs or wings. [3] Although the flying snake does not display visible characteristics that contribute to its ability to glide, there are three aspects that have been studied and found to have great positive effects on this. Their form of takeoff which is most commonly the anchored J-loop take-off, [4] once airborne their cross sectional body is shaped into a triangle [5] and their bodies use an aerial undulation to maximize the distance traveled. [6]

Paradise flying snake from Bukit Lawang, Indonesia Paradise flying snake (Chrysopelea paradisi).jpg
Paradise flying snake from Bukit Lawang, Indonesia

Distribution

Thailand (incl. Phuket), Cambodia, Indonesia (Bangka, Belitung, Java, Mentawai Archipelago, Natuna Archipelago, Nias, Riau Archipelago, Sumatra, We, Borneo, Sulawesi), Brunei Darussalam; India (Andaman Islands), Malaysia (Malaya and East Malaysia); Myanmar (Burma); Philippine Islands (including Sulu Archipelago, Negros Oriental, Siquijor, Panay, Luzon); Singapore; Race celebensis: Indonesia (Sulawesi) ; Bangladesh (Sylhet, Chittagong, Khulna, Race: Golden Flying Snake).

Race variabilis: Philippine Islands (including Sulu Archipelago)

Paradise Flying Snake at the Children's Aquarium at Fair Park Paradise Flying Snake.jpg
Paradise Flying Snake at the Children's Aquarium at Fair Park

Related Research Articles

<i>Draco</i> (lizard) Genus of lizards

Draco is a genus of agamid lizards that are also known as flying lizards, flying dragons or gliding lizards. These lizards are capable of gliding flight via membranes that may be extended to create wings (patagia), formed by an enlarged set of ribs. They are arboreal insectivores.

<span class="mw-page-title-main">Flying squirrel</span> Tribe of mammals

Flying squirrels are a tribe of 50 species of squirrels in the family Sciuridae. Despite their name, they are not in fact capable of full flight in the same way as birds or bats, but they are able to glide from one tree to another with the aid of a patagium, a furred skin membrane that stretches from wrist to ankle. Their long tails also provide stability as they glide. Anatomically they are very similar to other squirrels with a number of adaptations to suit their lifestyle; their limb bones are longer and their hand bones, foot bones, and distal vertebrae are shorter. Flying squirrels are able to steer and exert control over their glide path with their limbs and tail.

<span class="mw-page-title-main">Rectilinear locomotion</span> Mode of locomotion associated with snakes

Rectilinear locomotion or rectilinear progression is a mode of locomotion most often associated with snakes. In particular, it is associated with heavy-bodied species such as terrestrial African adders, pythons and boas; however, most snakes are capable of it. It is one of at least five forms of locomotion used by snakes, the others being lateral undulation, sidewinding, concertina movement, and slide-pushing. Unlike all other modes of snake locomotion, which include the snake bending its body, the snake flexes its body only when turning in rectilinear locomotion.

Concertina movement is the movement occurring in snakes and other legless organisms that consists of gripping or anchoring with portions of the body while pulling or pushing other sections in the direction of movement.

<span class="mw-page-title-main">Animal locomotion</span> Self-propulsion by an animal

Animal locomotion, in ethology, is any of a variety of methods that animals use to move from one place to another. Some modes of locomotion are (initially) self-propelled, e.g., running, swimming, jumping, flying, hopping, soaring and gliding. There are also many animal species that depend on their environment for transportation, a type of mobility called passive locomotion, e.g., sailing, kiting (spiders), rolling or riding other animals (phoresis).

Robot locomotion is the collective name for the various methods that robots use to transport themselves from place to place.

<span class="mw-page-title-main">Fish locomotion</span> Ways that fish move around

Fish locomotion is the various types of animal locomotion used by fish, principally by swimming. This is achieved in different groups of fish by a variety of mechanisms of propulsion, most often by wave-like lateral flexions of the fish's body and tail in the water, and in various specialised fish by motions of the fins. The major forms of locomotion in fish are:

<span class="mw-page-title-main">Bird flight</span> Aerial locomotion in avian dinosaurs

Bird flight is the primary mode of locomotion used by most bird species in which birds take off and fly. Flight assists birds with feeding, breeding, avoiding predators, and migrating.

<i>Chrysopelea</i> Genus of snakes

Chrysopelea, more commonly known as the flying snake or gliding snake is a genus that belongs to the family Colubridae. Flying snakes are mildly venomous, though the venom is dangerous only to their small prey. Their range is in Southeast Asia, southernmost China, India, and Sri Lanka.

<i>Chrysopelea ornata</i> Species of snake

Chrysopelea ornata is a mildly venomous opisthoglyphous (rear-fanged) colubrid snake found in both South and Southeast Asia. Along with the other species in the Chrysopelea genus, the golden tree snake is very unusual, as it is capable of a type of gliding “flight” —mainly utilised during the pursuit of prey animals—from tree-to-tree. This action is also used to great effect for the snake to flee its own potential predators. Currently, three subspecies are recognised. The snake's striking looks, and potential for gliding, have made it a coveted choice for captivity.

<span class="mw-page-title-main">Flying and gliding animals</span> Animals that have evolved aerial locomotion

A number of animals are capable of aerial locomotion, either by powered flight or by gliding. This trait has appeared by evolution many times, without any single common ancestor. Flight has evolved at least four times in separate animals: insects, pterosaurs, birds, and bats. Gliding has evolved on many more occasions. Usually the development is to aid canopy animals in getting from tree to tree, although there are other possibilities. Gliding, in particular, has evolved among rainforest animals, especially in the rainforests in Asia where the trees are tall and widely spaced. Several species of aquatic animals, and a few amphibians and reptiles have also evolved this gliding flight ability, typically as a means of evading predators.

<span class="mw-page-title-main">Sunda flying lemur</span> Species of mammal

The Sunda flying lemur, also called Malayan flying lemur and Malayan colugo is the sole colugo species of the genus Galeopterus. It is native to Southeast Asia from southern Myanmar, Thailand, southern Vietnam, Malaysia to Singapore and Indonesia and listed as Least Concern on the IUCN Red List. Although it is called "flying lemur", it cannot fly but glides among trees and is strictly arboreal. It is active at night, and feeds on soft plant parts such as young leaves, shoots, flowers, and fruits. It is a forest-dependent species.

<span class="mw-page-title-main">Origin of avian flight</span> Evolution of birds from non-flying ancestors

Around 350 BCE, Aristotle and other philosophers of the time attempted to explain the aerodynamics of avian flight. Even after the discovery of the ancestral bird Archaeopteryx which lived over 150 million years ago, debates still persist regarding the evolution of flight. There are three leading hypotheses pertaining to avian flight: Pouncing Proavis model, Cursorial model, and Arboreal model.

Gliding flight is heavier-than-air flight without the use of thrust; the term volplaning also refers to this mode of flight in animals. It is employed by gliding animals and by aircraft such as gliders. This mode of flight involves flying a significant distance horizontally compared to its descent and therefore can be distinguished from a mostly straight downward descent like a round parachute.

<span class="mw-page-title-main">Arboreal locomotion</span> Movement of animals through trees

Arboreal locomotion is the locomotion of animals in trees. In habitats in which trees are present, animals have evolved to move in them. Some animals may scale trees only occasionally, but others are exclusively arboreal. The habitats pose numerous mechanical challenges to animals moving through them and lead to a variety of anatomical, behavioral and ecological consequences as well as variations throughout different species. Furthermore, many of these same principles may be applied to climbing without trees, such as on rock piles or mountains.

<span class="mw-page-title-main">Undulatory locomotion</span>

Undulatory locomotion is the type of motion characterized by wave-like movement patterns that act to propel an animal forward. Examples of this type of gait include crawling in snakes, or swimming in the lamprey. Although this is typically the type of gait utilized by limbless animals, some creatures with limbs, such as the salamander, forgo use of their legs in certain environments and exhibit undulatory locomotion. In robotics this movement strategy is studied in order to create novel robotic devices capable of traversing a variety of environments.

<span class="mw-page-title-main">Banded flying snake</span> Species of snake

The twin-barred tree snake is a species of snake found in Southeast Asia. It is also called the banded flying snake. It can glide, as with all species of its genus Chrysopelea, by stretching the body into a flattened strip using its ribs. It is mostly found in moist forests and can cover a horizontal distance of about 100 metres in a glide from the top of a tree. It is an oviparous snake.

<span class="mw-page-title-main">Tradeoffs for locomotion in air and water</span> Comparison of swimming and flying, evolution and biophysics

Certain species of fish and birds are able to locomote in both air and water, two fluid media with very different properties. A fluid is a particular phase of matter that deforms under shear stresses and includes any type of liquid or gas. Because fluids are easily deformable and move in response to applied forces, efficiently locomoting in a fluid medium presents unique challenges. Specific morphological characteristics are therefore required in animal species that primarily depend on fluidic locomotion. Because the properties of air and water are so different, swimming and flying have very disparate morphological requirements. As a result, despite the large diversity of animals that are capable of flight or swimming, only a limited number of these species have mastered the ability to both fly and swim. These species demonstrate distinct morphological and behavioral tradeoffs associated with transitioning from air to water and water to air.

<i>Chrysopelea taprobanica</i> Species of snake

Chrysopelea taprobanica, the Sri Lankan flying snake or Indian flying snake, is a species of gliding snake distributed in India and Sri Lanka. It can glide, as with all species of its genus Chrysopelea, by stretching the body into a flattened strip using its ribs. The snake is known as "dangara dandaa - දඟරදන්ඩා" in Sinhala, due to its folding postures.

Batoids are a superorder of cartilaginous fish consisting of skates, rays and other fish all characterized by dorsoventrally flattened bodies and large pectoral fins fused to the head. This distinctive morphology has resulted in several unique forms of locomotion. Most Batoids exhibit median paired fin swimming, utilizing their enlarged pectoral fins. Batoids that exhibit median paired fin swimming fall somewhere along a spectrum of swimming modes from mobuliform to rajiform based on the number of waves present on their fin at once. Of the four orders of Batoidae this holds truest for the Myliobatiformes (rays) and the Rajiformes (skates). The two other orders: Rhinopristiformes and Torpediniformes exhibit a greater degree of body caudal fin swimming.

References

  1. Vogel, G.; Wogan, G.; Diesmos, A.C.; Gonzalez, J.C.; Inger, R.F. (2014). "Chrysopelea paradisi". IUCN Red List of Threatened Species . 2014: e.T183189A1732041. doi: 10.2305/IUCN.UK.2014-1.RLTS.T183189A1732041.en . Retrieved 20 November 2021.
  2. "Here's how flying snakes stay aloft". Science News. 2020-06-29. Retrieved 2021-01-14.
  3. Socha, J. J. (2011, August 3). Gliding flight in Chrysopelea: Turning a snake into a wing. OUP Academic. Retrieved October 28, 2022, from https://academic.oup.com/icb/article/51/6/969/616152?login=true
  4. Socha, J. J. (1 September 2006). "Becoming airborne without legs: the kinematics of take-off in a flying snake, Chrysopelea paradisi". Journal of Experimental Biology. 209 (17): 3358–3369. doi: 10.1242/jeb.02381 . PMID   16916972.
  5. Holden, D.; Socha, J. J.; Cardwell, N. D.; Vlachos, P. P. (29 January 2014). "Aerodynamics of the flying snake Chrysopelea paradisi: how a bluff body cross-sectional shape contributes to gliding performance". Journal of Experimental Biology. 217 (3): 382–394. doi: 10.1242/jeb.090902 . PMID   24477611.
  6. Socha, J. J. (15 May 2005). "A 3-D kinematic analysis of gliding in a flying snake, Chrysopelea paradisi". Journal of Experimental Biology. 208 (10): 1817–1833. doi: 10.1242/jeb.01579 . PMID   15879063.