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Blood Plasma Collection

"Unconventional Oxygen Transport: The Fascinating World of Antarctic Icefish" In the icy depths of the Antarctic

Background imageBlood Plasma Collection: Mackerel icefish, Champsocephalus gunnari, swimming under ice. Unlike other vertebrates

Mackerel icefish, Champsocephalus gunnari, swimming under ice. Unlike other vertebrates
Antarctic butterfish or Bluenose warehou, Hyperoglyphe antarctica. They can grow to 1.4 m in length Date: 22-Nov-19

Background imageBlood Plasma Collection: Ocellated icefish, Chionodraco rastrospinosus, resting on seabed under ice

Ocellated icefish, Chionodraco rastrospinosus, resting on seabed under ice
Mackerel icefish, Champsocephalus gunnari, with mouth open. Unlike other vertebrates, fish of the An Date: 16-Nov-19

Background imageBlood Plasma Collection: Jonah's icefish, Neopagetopsis ionah, swimming under ice. Unlike other vertebrates

Jonah's icefish, Neopagetopsis ionah, swimming under ice. Unlike other vertebrates
European eel, Anguilla anguilla. Inhabits all types of habitats from streams to shores of large rive Date: 21-Nov-19

Background imageBlood Plasma Collection: Blood plasma research

Blood plasma research
MODEL RELEASED. Blood plasma research. Scientist working with a blood plasma bag in a sterile sealed fume cupboard

Background imageBlood Plasma Collection: Fibrinogen molecule C014 / 0473

Fibrinogen molecule C014 / 0473
Fibrinogen. Molecular model showing the structure of the blood clotting glycoprotein fibrinogen (factor I). The molecule consists of two sets of alpha (grey)

Background imageBlood Plasma Collection: Serum transferrin molecule F006 / 9353

Serum transferrin molecule F006 / 9353
Serum transferrin, molecular model. Transferrins are iron-binding glycoproteins found in blood plasma

Background imageBlood Plasma Collection: Fibrinogen molecule C014 / 0472

Fibrinogen molecule C014 / 0472
Fibrinogen. Molecular model showing the secondary structure of the blood clotting glycoprotein fibrinogen (factor I). The molecule consists of two sets of alpha (grey)

Background imageBlood Plasma Collection: Military blood transfusion, 1943 C017 / 7868

Military blood transfusion, 1943 C017 / 7868
Military blood transfusion. US Army soldier receiving a transfusion of blood plasma while recovering from being wounded by a snipers bullet at Safi, Morocco, during World War II

Background imageBlood Plasma Collection: Blood plasma transfusion, World War II C016 / 4573

Blood plasma transfusion, World War II C016 / 4573
Blood plasma transfusion, World War II. US soldiers and medics attending a wounded soldier who is being given a blood plasma transfusion


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"Unconventional Oxygen Transport: The Fascinating World of Antarctic Icefish" In the icy depths of the Antarctic, a unique family of fish known as Channichthyidae defies conventional wisdom. Mackerel icefish, Champsocephalus gunnari, glide gracefully under the frozen surface, their bodies devoid of haemoglobin. Unlike other vertebrates, these remarkable creatures have evolved an alternative method to transport oxygen throughout their bodies. Blackfin icefish, Chaenocephalus aceratus, join in this mesmerizing underwater ballet. They too navigate effortlessly beneath the ice without relying on haemoglobin. Instead, they possess a secret weapon - blood plasma research has revealed that these fish utilize a specialized mechanism to carry life-sustaining oxygen. Ocellated icefish, Chionodraco rastrospinosus, find solace resting on the seabed under the frozen expanse above them. Their reliance on blood plasma for oxygenation sets them apart from their counterparts across different ecosystems and continents. Jonah's icefish Neopagetopsis ionah elegantly swims alongside its fellow Channichthyidae members beneath the icy canopy. These extraordinary creatures showcase nature's ingenuity by bypassing traditional means of oxygen transportation found in most vertebrates. With mouths agape like mackerel icefish Champsocephalus gunnari swimming below them; blackfin icefish Chaenocephalus aceratus explore every inch close to the seabed or venture further into uncharted territories under thick layers of freezing water. Their ability to thrive without haemoglobin highlights their exceptional adaptation skills and resilience in extreme environments. As scientists delve deeper into understanding this phenomenon through blood plasma research and unraveling intricate molecular structures like fibrinogen molecule C014/0473; they uncover nature's hidden secrets and gain insights into potential applications for human health. The world of Antarctic icefish is a testament to the wonders of evolution and adaptation.