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Energy metabolism in mammalian brain during development
Maria Erecinska1, Shobha Cherian, Ian A Silver
1Department of Anatomy, School of Veterinary Science, Southwell Street, Bristol BS2 8EJ, UK. m.erecinska@bris.ac.uk
Progress in Neurobiology
|August 18, 2004
Summary
Brain energy metabolism, specifically adenosine triphosphate (ATP) production, is crucial for nerve function during development. This review links central nervous system maturation with ATP metabolism changes across species and brain regions.
Area of Science:
- Neuroscience
- Biochemistry
- Developmental Biology
Background:
- The brain requires continuous energy production to maintain ionic gradients essential for nerve impulse generation and transmission.
- Understanding the developmental trajectory of energy metabolism is key to comprehending normal brain function and disease pathogenesis.
Purpose of the Study:
- To review and integrate information on central nervous system maturation and adenosine triphosphate (ATP) metabolism during development.
- To emphasize regional and species-specific variations in ATP metabolism during mammalian brain development.
- To correlate morphological and biochemical changes with energy production and utilization pathways.
Main Methods:
- Literature review integrating data on central nervous system maturation and ATP metabolism.
- Correlation of morphological events with biochemical changes in ATP-producing enzymes and pathways.
- Evaluation of age-related alterations in energy levels and utilization processes.
Main Results:
- Developmental changes in ATP metabolism are observed across different brain regions and mammalian species.
- Morphological maturation is linked to biochemical shifts in key enzymes and pathways involved in ATP synthesis.
- Energy utilization pathways exhibit distinct maturational profiles, highlighting the interplay between ATP synthesis and consumption.
Conclusions:
- The ontogeny of ATP metabolism is intrinsically linked to central nervous system maturation.
- Understanding developmental energy metabolism is vital for deciphering the etiopathology of infant neurological disorders.
- Animal models are crucial for advancing knowledge and developing therapeutic strategies for human infant neurological deficits.