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  1. Decreasing sleep requirement with increasing numbers of neurons as a driver for bigger brains and bodies in mammalian evolution
  2. Cortical folding scales universally with surface area and thickness, not number of neurons
  3. When larger brains do not have more neurons: increased numbers of cells are compensated by decreased average cell size across mouse individuals
  4. Corticalization of motor control in humans is a consequence of brain scaling in primate evolution
  5. Corrigendum: Cellular scaling rules for the brain of Artiodactyla include a highly folded cortex with few neurons
  6. Corrigendum: Brain scaling in mammalian evolution as a consequence of concerted and mosaic changes in numbers of neurons and average neuronal cell size
  7. Structural Analysis of Alterations in Zebrafish Muscle Differentiation Induced by Simvastatin and Their Recovery with Cholesterol
  8. How to count cells: the advantages and disadvantages of the isotropic fractionator compared with stereology
  9. Mammalian Brains Are Made of These: A Dataset of the Numbers and Densities of Neuronal and Nonneuronal Cells in the Brain of Glires, Primates, Scandentia, Eulipotyphlans, Afrotherians and Artiodactyls, and Their Relationship with Body Mass
  10. Cellular scaling rules for the brain of Artiodactyla include a highly folded cortex with few neurons
  11. All brains are made of this: a fundamental building block of brain matter with matching neuronal and glial masses
  12. Brain scaling in mammalian evolution as a consequence of concerted and mosaic changes in numbers of neurons and average neuronal cell size
  13. The elephant brain in numbers
  14. The glia/neuron ratio: How it varies uniformly across brain structures and species and what that means for brain physiology and evolution
  15. Greater addition of neurons to the olfactory bulb than to the cerebral cortex of eulipotyphlans but not rodents, afrotherians or primates
  16. Cellular scaling rules for the brain of afrotherians
  17. Sleep It Out
  18. The Continuously Growing Central Nervous System of the Nile Crocodile (Crocodylus niloticus)
  19. The Continuously Growing Central Nervous System of the Nile Crocodile (Crocodylus niloticus)
  20. Distribution of neurons in functional areas of the mouse cerebral cortex reveals quantitatively different cortical zones
  21. Faster Scaling of Auditory Neurons in Cortical Areas Relative to Subcortical Structures in Primate Brains
  22. Different scaling of white matter volume, cortical connectivity, and gyrification across rodent and primate brains
  23. The human cerebral cortex is neither one nor many: neuronal distribution reveals two quantitatively different zones in the gray matter, three in the white matter, and explains local variations in cortical folding
  24. Cellular composition characterizing postnatal development and maturation of the mouse brain and spinal cord
  25. Metabolic constraint imposes tradeoff between body size and number of brain neurons in human evolution
  26. What Determines Motor Neuron Number? Slow Scaling of Facial Motor Neuron Numbers With Body Mass in Marsupials and Primates
  27. The remarkable, yet not extraordinary, human brain as a scaled-up primate brain and its associated cost
  28. Faster scaling of visual neurons in cortical areas relative to subcortical structures in non-human primate brains
  29. Brain Evolution
  30. Age-related neuronal loss in the rat brain starts at the end of adolescence
  31. Neuronal scaling rules for primate brains
  32. How the Cortex Gets Its Folds: An Inside-Out, Connectivity-Driven Model for the Scaling of Mammalian Cortical Folding
  33. Contributors
  34. Brains matter, bodies maybe not: the case for examining neuron numbers irrespective of body size
  35. Scaling of Brain Metabolism with a Fixed Energy Budget per Neuron: Implications for Neuronal Activity, Plasticity and Evolution
  36. Gorilla and Orangutan Brains Conform to the Primate Cellular Scaling Rules: Implications for Human Evolution
  37. Not All Brains Are Made the Same: New Views on Brain Scaling in Evolution
  38. Updated Neuronal Scaling Rules for the Brains of Glires (Rodents/Lagomorphs)
  39. The Isotropic Fractionator: A Fast, Reliable Method to Determine Numbers of Cells in the Brain or Other Tissues
  40. Connectivity-driven white matter scaling and folding in primate cerebral cortex
  41. Cellular Scaling Rules for Primate Spinal Cords
  42. Cellular Scaling Rules for the Brains of an Extended Number of Primate Species
  43. Coordinated scaling of cortical and cerebellar numbers of neurons
  44. Changing numbers of neuronal and non-neuronal cells underlie postnatal brain growth in the rat
  45. Equal numbers of neuronal and nonneuronal cells make the human brain an isometrically scaled-up primate brain
  46. The human brain in numbers: a linearly scaled-up primate brain
  47. Brain Development: The Generation of Large Brains
  48. The basic nonuniformity of the cerebral cortex
  49. Cellular scaling rules for primate brains
  50. Encephalization, Neuronal Excess, and Neuronal Index in Rodents
  51. How to Build a Bigger Brain: Cellular Scaling Rules for Rodent Brains
  52. Cellular scaling rules for rodent brains
  53. Isotropic Fractionator: A Simple, Rapid Method for the Quantification of Total Cell and Neuron Numbers in the Brain
  54. What does the public want to know about the brain?
  55. Psychiatric disorders: The chicken or the egg?
  56. Do You Know Your Brain? A Survey on Public Neuroscience Literacy at the Closing of the Decade of the Brain
  57. Yves Delage: Neuronal Assemblies, Synchronous Oscillations, and Hebbian Learning in 1919
  58. Distribution of Mayaro virus RNA in polysomes during heat shock