Capsomere Collection (#3)

Infectious bursal disease virus capsid, molecular model. This avian virus infects the bursa of Fabricius (specialised bird immune organ) in young chickens, and can cause high mortality rates

Aedes mosquito and Chikungunya virus. Asian tiger mosquito (Aedes albopictus) mosquito next to a Chikungunya virus particle (virion). The Chikungunya virus is transmitted by Aedes sp

Penicillium partitivirus capsid, molecular model. This is the capsid of the partivirus called Penicillium stoloniferum virus F (PsV-F). This virus infects the fungi that make the drug penicillin

Echovirus 7 capsid, molecular model. Echoviruses are related to the polioviruses. They are usually harmless but can cause serious illness such as encephalitis, meningitis, heart and liver disease

Foot-and-mouth disease virus capsid, molecular model. This virus, which can be fatal, causes foot-and-mouth disease in cloven-hooved animals

Poliovirus type 1 capsid, molecular model. This enterovirus causes poliomyelitis (polio) in humans, which affects the nervous system, sometimes leading to paralysis

IBDV subviral particle, molecular model. IBDV (infectious bursal disease virus) is an avian virus that infects the bursa of Fabricius (specialised bird immune organ) in young chickens

Bluetongue virus capsid
Bluetongue virus (BTV) capsid, molecular model. BTV is an orbivirus, and is of major economic importance as an insect-borne pathogen of cattle and other ruminants

Alpha 3 bacteriophage capsid, molecular model. Bacteriophages are viruses that infect bacteria, with the capsid forming the bacteriophage head. A capsid has subunits called capsomeres

Adenovirus penton base protein, molecular model. This protein molecule is a subunit called a penton, forming the vertices of the capsid of this adenovirus

Viral recognition by antibodies, artwork C013 / 4722
Viral recognition by antibodies. Computer artwork of rabies (family Rhabdoviridae) virus particles (virions, pink) being identified by monoclonal antibodies (Y-shaped, blue)

Rabies virus, artwork C013 / 4704
Rabies virus. Computer artwork of rabies (family Rhabdoviridae) virus particles (virions). The virus has a protein coat or capsid, which is made up of helically arranged subunits called capsomeres

Rabies virus, artwork C013 / 4703
Rabies virus. Computer artwork of a rabies (family Rhabdoviridae) virus particle (virion). The virus has a protein coat or capsid, which is made up of helically arranged subunits called capsomeres

Adenovirus structure, artwork
Adenovirus structure. Computer artwork showing the external protein structure of a human adenovirus (HadV) particle. Adenoviruses are the largest viruses not to have a protein coat covering their

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"Exploring the Intricate World of Capsomeres: A Glimpse into Viral Architecture" Capsomeres, the building blocks of viral capsids, are fascinating structures that play a crucial role in protecting and delivering viral genetic material. These tiny protein subunits come together to form the outer shell of viruses, giving them their unique shapes and enabling them to infect host cells. From the Adenovirus penton base protein F006/9542 to the Rhinovirus 16 capsid molecular model F006/9431, scientists have been studying these intricate arrangements to better understand virus-host interactions. Captivating artwork showcases antibodies attacking viruses like never before - F007/6623, F007/6624, and F007/6622 depict this battle between our immune system and invading pathogens. The HK97 bacteriophage capsid reveals yet another captivating example of how nature constructs protective shells. Its complex structure serves as a blueprint for potential therapeutic interventions against bacterial infections. But it's not just bacteria; plant viruses also possess remarkable capsids. The Chikungunya virus capsid and Turnip yellow mosaic virus capsid demonstrate nature's diversity in designing these protective layers across different species. Moving on to human pathogens, we encounter Hepatitis B virus with its distinctive molecular model showcasing its unique capsid architecture. Understanding this structure is vital for developing effective antiviral treatments against this persistent infection. Infectious bursal disease virus presents another intriguing case study where researchers investigate how specific changes in the capsid can enhance vaccine development strategies against avian diseases. Lastly, Sindbis virus captivates scientists with its molecular model revealing key insights into its replication cycle and potential targets for antiviral therapies. As we delve deeper into understanding these diverse viral architectures such as Murine polyomavirus capsid or any other yet-to-be-discovered variants, we unlock new opportunities for combating infectious diseases through targeted interventions and vaccine development.