• Some Key Concepts from MCB 61 “Brain, Mind, and Behavior” – Winter/Spring 2008

• Useful as a guide for study

• Not intended to be an exhaustive list

• Lecture 1 (1/22)

• Stanley Kubrick and 2001

• hominid evolution

• genus Australopithecus

• Homo neanderthalensis

• Homo sapiens

• hominid brain evolution

• Lecture 2 (1/24)

• mind and mental states

• general features of vertebrate brains

• anatomical terms used to describe locations

• meninges: dura mater, arachnoid layer, pia mater

• cerebral spinal fluid

• anatomical sections / views of the brain: coronal, sagital

• cerebral cortical lobes

• other major brain regions: cerebellum, limbic system, brain stem, etc

• grey matter, white matter, ventricles

• corpus callosum

• Lecture 3 (1/29)

• brain vasculature: cerebral arteries

• forebrain structures: cerebral cortex, basal ganglia, limbic system

• brainstem: diencephalon, midbrain, hindbrain, cerebellum

• cranial nerves

• CNS

• PNS: neuromuscular, sensory, enteric, autonomic

• autonomic: sympathetic and parasympathetic

• human CNS: 100 billion neurons, 5-10x as many glial cells

• structure of neuron

• Dmitri Mendeleev, periodic table of the elements

• elemental abundances in the human body

• atoms, molecules

• Lecture 4 (1/31)

• structure and properties of water

• hydrocarbons, organic molecules, molecular structure

• hydrophobic, hydrophilic, lipophobic, lipophilic

• polarity of molecules

• hydrogen bond

• amino acids, peptide bonds, polypeptides, proteins

• primary, secondary, tertiarystructure of proteins

• inferring 3-dimensional structure from sequence

• distributed computation of protein folding

• Lecture 5 (2/5)

• biological macromolecules: protein, carbohydrate, fat/lipid, nucleic acids

• phospholipid bilayer membrane

• dimensions: small molecules, proteins, lipid bilayer, nerve cells, synapse

• deoxyribonucleic acid, DNA, RNA

• gene and genetic code

• transcription and translation

• historical timeline of discovery in genetics

• Avery and DNA

• Hershey-Chase blender experiment (1952)

• The Double Helix story

• Lecture 6 (2/7)

• Rosalind Franklin

• Linus Pauling

• government, military, politics: impact on scientific enterprise

• neuronal axon

• Na/K pump

• ATP

• energy consumption by brain

• neuronal ion gradients

• Lecture 7 (2/12)

• membrane potential, resting potential

• voltage-gated ion channels

• action potential

• refractory period

• myelin

• nodes of Ranvier

• saltatory conduction

• Lecture 8 (2/14)

• Paracelsus: “Everything is a poison”

• water poisoning

• hyponaetremia

• blood-brain barrier

• tetrodotoxin (TTX)

• TTX resistance

• saxitoxin

• paralytic shellfish poisoning

• local anesthetics: cocaine and others

• batrachotoxins (BTXs)

•ciguatoxins (CTXs) and ciguatera

• multiple ways to interfere with Na-channel function

• Lecture 9 (2/19)

• neural anatomy / connectivity: Ramon y Cajal and Golgi

• structure and function of synapses

• dedritic spines

• synaptic vesicles

• voltage-gated calcium channels

• neurotransmitter receptors

• reuptake transporters

• rapidity of neural signaling

• hyperpolarization, IPSP

•depolarization, EPSP

•integration of multiple inputs by neurons

• ionotropic receptor, ligand-gated ion channel

•metabotropic receptor, G-protein couple receptor (GPCR)

• Otto Loewi and the discovery of the neurotransmitter concept

• Lecture 10 (2/21)

• GPCRs and amplification

• glutamate and CNS excitation

• GABA and CNS inhibition

• glycine

• acetylcholine

• dopamine

• synthesis of dopamine and other monoamine neurotransmitters

• Lecture 11 (2/26)

• ACh receptors: nicotinic (ionotropic), muscarinic (metabotropic)

• agonist

• antagonist

• acetylcholinesterase

• brainstem nuclei and cortical projections

• astrocytes and synapses

• EEG

• seizures

• Lecture 12 (2/28)

• antiseizure drugs: mechanism of action

• epilepsy

• surgical treatments

• drug, psychoactive drug, pharmacology

• caffeine

• adenosine

• sedative-hypnotics: alcohol, barbiturates, benzodiazepines, non-benzodiazepines, general anesthetics, inhalants

• therapeutic index

• nicotine

• arecoline

• cannabinoids

Lecture 13 (3/4)

• Midterm Exam One

Lecture 14 (3/6)

• lethal-injection pharmacology and execution

• 8th Amendment of the US Constitution

• death-penalty history and usage

• opium poppy

• Friedrich Wilhelm Sertürner

• morphine, codeine

• semi-synthetic opioids

• synthetic opioids

• Lecture 15 (3/11)

• varieties of psychoactive drugs

• stimulants/caffeine, sedative-hypnotics, tobacco/nicotine

• opioid receptor

• endogenous opioid neurotransmitters

• neuropeptides

• coca plant, cocaine

• amphetamine-type stimulants

• psychedelics/hallucinogens

• hallucination

• LSD

• Albert Hofmann

• psilocybin

• DMT

• mescaline, peyote

• Cannabis, cannabinoids

• endogenous cannabinoid neurotransmitters

• presynaptic neurotransmitter receptors

• retrograde signaling

• Lecture 16 (3/13)

• nervous system development

• genome

• embryonic development, embryonic stem cells

• neuorgenesis, gliogenesis, synaptogenesis

• migration, differentiation, maturation

• Roger Sperry

• Sperry’s classic experiment

• chemo-affinity hypothesis

• nerve growth factors / neurotrophins

• myelination

• synaptic plasticity / neuroplasticity

• Lecture 17 (3/18)

• brain lesions

• stroke, aneurism, tumor, trauma

• static brain imaging

• exploratory brain surgery, x-rays

• CAT scan

• MRI, magnetic field, nuclear spin

• invasive versus noninvasive techniques

• dynamic brain imaging

• Penfield’s neurosurgical techniques

• EEG, MEG, PET

• positron decay, radioactive isotopes

• Lecture 18 (3/20)

• PET scan, radioactive isotopes

• difference images

• SPECT

• fMRI, tesla, guass, hemoglobin, BOLD

• spatial and temporal resolution

• Ernest Lawrence, Glenn Seaborg, Robert Oppenheimer, Edward Teller

• cyclotron

• U-235 and U-238

• fission and fusion bombs

• Lecture 19 (4/1)

• sensory perception – sensation and perception

• chemotaxis

• chemoreceptor protein

• phototaxis, phototropism

• five canonical senses

• electromagnetic spectrum

• Karl von Frisch

• honeyguide

• polarized light

• echolocation / biosonar

• Lecture 20 (4/3)

• electric field detection

• passive vs. active electroreception

• magnetic field detection

• geomagnetic field, navigation

• electromagnetic spectrum

• anatomy of the eye and retina

• photoreceptor cells, photoreceptor proteins

• light absorption spectra

• Lecture 21 (4/8)

• rods, cones

• rhodopsin, cone-opsins

• retinal distribution of the rods and cones

• blind spot

• color vision: trichromatic, dichromatic, tetrachromatic

• photoreceptor cells: inner segments, outer segment, synapse

• retinal, retinol, beta-carotene

• Lecture 22 (4/10)

• light-induced isomerization of retinal

• GPCR amplification of signal

• anatomy of retina: cell types and cell layers

• retina to LGN to visual cortex pathway

• contralateral connectivity

• topography of visual space, receptive fields

• visual maps in the cortex

• functions of different visual areas (V1, V4, V5, posterior temporal lobe)

• lesions and consequences: scotoma, hemianopia, cortical achromatopsia, cortical motion blindness, prosopagnosia

• Lecture 23 (4/15)

• sound waves

• properties of sound

• speed of sound

• hearing ranges

• Fourier analysis

• ear anatomy

• middle ear (ossicles, oval window)

• inner ear (cochlea, basilar membrane, hair cells)

• connectivity from ear to brain

• hearing loss

• Lecture 24 (4/17)

• noise-induced hearing loss

• hearing aids, cochlear implants

• vestibular system

• semicircular canals, utricle, saccule

• otoliths, calcium carbonate

• taste / gustation

• taste buds, taste receptor cells

• regeneration of taste cells, taste stem cells

• different taste receptors: salt, sour, bitter, sweet, umami

• ionotropic channels as taste-receptor proteins

• GPCRs as taste-receptor proteins

• synthetic sweeteners: saccharin, aspartame

• principle of limited sloppiness

• Lecture 25 (4/22)

• synthetic / non-nutritive / “artificial” sweeteners

• stevioside

• taste receptors: salt, sour, bitter, sweet, umami

• flavor = taste + smell + texture

• jasmine aroma, complexity

• olfactory epithelium.

• olfactory neural pathway

• human olfactory receptor cells

• cilia contain olfactory receptor GPCRs

• olfactory stem cells

• Lecture 26 (4/24)

• Midterm Exam Two

• Lecture 27 (4/29)

• essential oils, cardamom, jasmine, spices

• geranial, geraniol

• thiols

• stereoisomers, shape, molecular variety and aromatic differences

• “asparagus smell”

• anosmia: specific vs general

• olfactory epithelium, olfactory receptor cells, olfactory receptor proteins, olfactory nerve

• olfactory neural pathways: limbic and orbitofrontal pathways

• pheromones

• vomeronasal pathway

• chili, capsaicin

• thermal receptors, TRP channels

• menthol

• isothiocynates: mustard, wasabi, horseradish, etc

• Lecture 28 (5/1)

• somatosensory receptors: touch/pressure mechanoreceptors, pain, temperature

• somatosensory pathway

• receptive field

• somatosensory homunculus / body map, Wilder Penfield

• secondary / accessory somatosensory areas

• lesions to primary and secondary somatosensory cortical regions

• sensory neglect syndromes

• motor pathway and components: M1, supplementary motor areas, cerebellum

• lesion to primary motor cortex versus secondary motor cortices

• apraxias

• mirror neurons

• anosognosia

• Lecture 29 (5/6)

• palindromes

• anosognosia and lateralization of cortical function

• Sigmund Freud, psychological defenses

• language

• aphasia

• Broca’s aphasia, production aphasia

• Wernicke’s aphasia, comprehension aphasia

• Wada test

• corpus callosum, commisurotomy

• split-brain patients

• Lecture 30 (5/8)

• Albert Einstein’s brain differences

• Hubble Ultra Deep Field

• mind-body problem

• mind, consciousness

• self-awareness in animals

• William James’ approach to neuroscience

• scientific revolutions

MCB 61 Key Concepts 2008 - Page 1