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- Cellular Mechanisms of Mitochondrial Biogenesis in Health
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1. Nuclear control of electron transport chain gene expression
- Dr. Glenn C. Rowe
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3. Protein import into mitochondria
- Dr. Trevor Lithgow
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4. Mitochondrial phospholipid synthesis and incorporation
- Prof. Grant Hatch
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5. Mitochondrial DNA replication and transcription
- Prof. Julio Montoya
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6. Mitochondrial production of reactive oxygen species 1
- Prof. Martin Brand
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7. Mitochondrial production of reactive oxygen species 2
- Prof. Martin Brand
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8. Mitophagy - the degradation of dysfunctional organelles
- Dr. Anna Vainshtein
- Mitochondrial Biogenesis in Physiological Conditions
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9. Thyroid hormone and mitochondrial biogenesis
- Dr. Joachim Weitzel
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10. Exercise-induced mitochondrial biogenesis in muscle 1
- Prof. David Hood
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11. Exercise-induced mitochondrial biogenesis in muscle 2
- Prof. David Hood
- Mitochondrial Biogenesis in Aging and Disease
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12. Mitochondrial diseases: an update
- Dr. Ayesha Saleem
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13. Exercise and nutrition in mitochondrial disorders
- Prof. Mark Tarnopolsky
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14. Mitochondrial disorders and neurodegeneration
- Dr. Jan-Willem Taanman
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15. Reprogramming oxidative phosphorylation in cancer
- Prof. José Cuezva
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16. Possible roles of mitochondrial biogenesis in aging
- Dr. Aubrey de Grey
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17. Mitochondria in reproduction and fertility: mitochondria and gametes 1
- Prof. Pascale May Panloup
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18. Mitochondria in reproduction and fertility: mitochondria and embryo 2
- Prof. Pascale May Panloup
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19. Mitochondrial morphology and ultrastructure in skeletal muscle
- Prof. Martin Picard
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20. Improving mitochondrial phenotypes with pharmaceuticals
- Prof. Christopher Perry
- Mitochondria, Cell Signaling and Apoptosis
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21. Mitochondrial permeability transition
- Prof. John Lemasters
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22. Pathways of apoptosis in muscle 1
- Prof. Stephen E. Alway
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23. Pathways of apoptosis in muscle 2
- Prof. Stephen E. Alway
- Archived Lectures *These may not cover the latest advances in the field
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26. Reactive oxygen species and myocardial apoptosis
- Dr. Zhi-Qing Zhao
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27. Mitochondrial biogenesis as a result of exercise
- Dr. Darrell Neufer
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28. Mechanisms of mitochondrial fusion and fission
- Dr. Luca Scorrano
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29. Mitochondrial heterogeneity in cells
- Dr. Tony Collins
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30. Mitochondrial diseases: an update
- Prof. Salvatore DiMauro
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31. Calcium signaling and mitochondrial function
- Prof. David Nicholls
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32. Mitochondrial biogenesis during gametogenesis and embryonic development
- Prof. Pascal Reynier
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33. Mitochondrial complex assembly
- Dr. Leo Nijtmans
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34. Evolutionary and developmental variation in muscle mitochondrial content
- Prof. Christopher Moyes
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35. Muscle mitochondrial function and biogenesis with aging
- Dr. Russell Hepple
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36. The mitochondrial pathway in apoptosis
- Prof. Douglas Green
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38. Mitochondrial disorders and neurodegeneration
- Prof. Anthony Schapira
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39. Respiration, reactive oxygen species and uncoupling proteins
- Prof. Martin Brand
Printable Handouts
Navigable Slide Index
- Introduction
- Talk outline
- Mitochondria are the powerhouse of the cell
- Subunits of the ETC
- Nuclear and mitochondrial encoded genes
- Nuclear-encoded transcriptional regulators
- Discovery of PGC1α
- Discovery of PGC1ß and PRC
- PGC1 family of co-activators
- PGC-1s as a transcriptional regulator
- Overexpression of PGC1α and ETC genes
- Overexpression of PGC1ß and ETC genes
- Overexpression of PRC increases ETC levels
- Loss of PGC1α and ß decreases ETC levels
- PGC1 DKO decreases ETC activity
- PGC1 DKO myotubes and OXPHOS levels
- PGC1 DKO cells have impaired respiration
- NRF-1
- Overexpression of NRF-1 increases ETC levels
- NRF2/GABP
- Deletion of NRF-2 decreases ETC levels
- Deletion of NRF-2 decreases respiration
- Estrogen-related receptors (ESRRs)
- ESRRs domains
- Overexpression of ESRRα and ETC genes
- Identification of ESRRα binding sites
- Overexpression of ESRRγ and ETC genes
- Overexpression of ESRRγ increases respiration
- ESRRs and NRFs regulate OXPHOS genes
- YY1 identified downstream of PGC-1α
- YY1
- YY1 binding motifs
- YY1 binds to promoter of genes involved in ETC
- Effects of YY-1 loss on ETC level and respiration
- The mitochondria encoded ETC subunits
- Mitochondrial encoded ETC subunits
- Nuclear-encoded transcriptional factors
- Mitochondrial transcirption factors
- Mitochondrial transcription factors and NRFs
- Loss of PGC1α & ß and mitochondrial ETC
- Coordinated transcriptional regulation of ETC
- Summary
- Thank you
Topics Covered
- Introduction to the roles of mitochondria
- Subunits of the electron transport chain (ETC) in nuclear & mitochondrial genomes
- Transcription of the electron transport chain subunits
- Peroxisome proliferator-activated receptor gamma coactivators (PGC-1s)
- Nuclear respiratory factors (NRFs)
- Estrogen-related receptor (ESRRs)
- Mitochondrial transcription factors (Tfam and mtTFB)
- Yin-Yang (YY-1)
- Coordinated transcriptional regulation of ETC genes
- Summary/Closing Statements
Talk Citation
Rowe, G.C. (2019, June 30). Nuclear control of electron transport chain gene expression [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved May 11, 2025, from https://doi.org/10.69645/OEPU2415.Export Citation (RIS)
Publication History
- Published on June 30, 2019
Financial Disclosures
- Dr. Glenn C. Rowe has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
A selection of talks on Biochemistry
Transcript
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0:00
Today we will talk about a nuclear control of the electron transport chain gene expression.
0:09
The talk outline will be a summary of an introduction,
followed by a summary of the subunits involved in the electron transport chain, and
the transcription of the electron transport chain subunits.
We will also talk about the
peroxisomes proliferator-activated receptor gamma co-activators,
which we will refer to as PGC-1s,
nuclear respiratory factors, NRFs,
and estrogen-related receptors or ESRRs.
We'll also talk about the mitochondrial transcription factors,
which are also nuclear-encoded,
and we'll talk briefly about the Yin-Yang 1 transcription factor.
0:52
Just a reminder, the mitochondria are the powerhouse of the cell;
they convert dietary inputs into ATP.
They are the location where the Krebs/Citric Acid Cycle occur.
They're also the place where the process of oxidative phosphorylation occurs to produce ATP,
using the complexes on the electron transport chain.
1:14
There are five complexes that make up the electron transport chain,
and these complexes are encoded by both nuclear and mitochondrial genomes.
The mitochondrial genome encodes for seven components of Complex I,
one of Complex III,
three of Complex IV,
and two of Complex V;
whilst the nuclear genome encodes for 39 subunits of Complex I,
10 of Complex III,
4 of Complex II,
10 of Complex IV,
and 14 of Complex V. This requires coordinated expression of