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Full-Text Articles in Biochemistry
Characterizing The Roles Of The Variable Linker And Hub Domains In Camkii Activation, Noelle Dziedzic
Characterizing The Roles Of The Variable Linker And Hub Domains In Camkii Activation, Noelle Dziedzic
Doctoral Dissertations
Learning and memory formation at the cellular level involves decoding complex electrochemical signals between nerve cells, or neurons. Understanding these processes at the molecular level requires a comprehensive study of calcium-sensitive proteins that serve as signal mediators within cells. More specifically, the protein calcium/calmodulin-dependent protein kinase II (CaMKII) is a key regulator of downstream cellular signaling events in the brain, playing an important role in long term memory formation. CaMKII is encoded in humans on four different genes: alpha, beta, gamma and delta. For added complexity, each of these gene products can be alternatively spliced and translated into multiple protein …
Understanding How Camkii Holoenzyme Dynamics Facilities Activation-Triggered Subunit Exchange, Ana P. Torres-Ocampo
Understanding How Camkii Holoenzyme Dynamics Facilities Activation-Triggered Subunit Exchange, Ana P. Torres-Ocampo
Doctoral Dissertations
Long-term memory and learning are still poorly understood from a molecular and cellular standpoint. Ca2+/calmodulin-dependent protein kinase II (CaMKII) is an oligomeric kinase that is involved in this remarkable process. However, the molecular details of its specific roles in these processes remains elusive. CaMKII activation-triggered subunit exchange presents a novel possible mechanism involved in long-term memory and learning by exchanging active subunits with other CaMKIIs. CaMKII subunit exchange also shows that exchanged CaMKIIs spread their phosphorylation state to newly synthesized CaMKIIs. This provides a long-lasting signal that might possibly be involved in long-term memory by escaping a cell’s …