RNA Metabolism: ALS Genetics

Related lectures (31)

Explains protein synthesis, translation, and the central dogma of molecular biology.

Covers the molecular structure of polymers, the transcription process, and the implications of protein misfolding in diseases.

Explores protein synthesis, genetic code, transcription, translation, and recombinant protein expression using vectors and plasmids.

Covers chemical biology tools for RNA study and explores the applications of GFP in biosciences.

Explores tools for studying the translatome, including mRNA translation and genetic code expansion.

Explores ALS genetics, RNA metabolism, protein roles, mutations, stress granules, and potential therapies.

Provides an overview of translation and protein synthesis, covering the genetic code, tRNA, and the steps involved in protein formation.

Explores the composition and functions of essential molecular building blocks in biological systems.

Explores RNA splicing mechanisms, alternative splicing, ribosome function, and translation process in eukaryotic cells.

Explores the structure and function of ATP synthase in mitochondrial ATP production and delves into glucose metabolism and nucleotide structure.

Explores the composition and structure of DNA and RNA, including DNA replication and the genetic code.

Explores SOD1 mutations in ALS, focusing on toxic gain of function, protein misfolding, and non-cell autonomous disease.

Covers the structure of nucleotides, DNA, RNA, base pairing, and protein synthesis.

Explores RNA-based probes, focusing on Spinach aptamers as GFP-mimics of RNAs and their applications in model systems.

Explores the design and applications of RNA switches, focusing on regulatory RNA principles and engineered biomolecular components.

Explores RNA-based disease treatment, synthetic biology impact on therapeutics, and programmable RNA-targeting tools.

Covers the engineering of bacteria for efficient protein production and purification techniques using affinity tags.

Explores RNA switches design and applications, focusing on exploiting nature's design principles to build new biomolecular components and networks.

Introduces synthetic biology for disease treatment, covering RNA therapeutics, drug discovery, and gene circuits.

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