Biology 425 (Undergraduate Credit) or 5425 (Graduate Credit)

Instructor: Dr. Stan A. Baldwin

Texts:
Fundamental Neuroscience, 3rd Edition, by Duane Haines
Neuroanatomy: An Atlas of Structure, Sections and Systems, 7th Edition, by Duane Haines
Cranial Nerves, 2nd Edition, by Linda Wilson-Pauwels et al.
Gray's Anatomy for Students, by Drake, Vogl and Mitchell

Grant's Atlas of Anatomy, 11th Edition, by Agur and Dalley
OR
Atlas of Human Anatomy, 4th Edition, by Netter

Color Atlas of Anatomy, 6th Edition, by Rohen and Yokochi

How (and Where) Does Moral Judgement Work?
Neural Basis of Economic Decistion
Hearing Colors, Tasting Shapes, Ramachandran
Emotional Dog Rational Tail

5 semester hours credit.  4 hours lecture/3 hours lab per week.
Offered every fall.



The goal of the Human Neuroanatomy (Biology 425/5425) is to master the basic neuronal
circuitry of the human central nervous system, be able to read magnetic resonance
images (MRI), angiograms and X-rays of the human head, neck and spine. Special
attention is also given to head gross anatomy, including all crainial nerves and their
branches as well as vascular supply to the face, cranium and brain. Heavy
emphasis is place on clinical problem solving.  In other words, once mastering
human neuroanatomy, the student will be able to make a preliminary assessment
of patients with various neurological deficents using case studies.

The laboratory component of the course involves learning detailed gross features
of the human brain.  We have numerous human cadaver brains cut at various orientations
permitting the student to see all salient structures.  We also have numerous human
brains slices mounted on glass slides and stained in order to visualize microscopic
structures of the brain stem and spinal cord.


Below is an outline of topics covered in the Human Neuroanatomy course.

Gross Brain and Spinal Cord
Students will learn all of the gyri and sulci of the human brain, understand
the function the major Brodmann's area, and understand the behavioral
manifestations when any of these areas are damaged by trauma, stroke
or tumors.

Spinal Cord Tracts
Students will learn the location of the major ascending white matter spinal
cord tracts and the sensory modalities that they carry.  All major descending
motor tracts will be discussed including tracts from the cortex, cerebellum,
reticular formation, vestibular system and parasympathetic and sympathetic
tracts.  Major spinal nuclei of the gray matter will be covered, e.g., substantia
gelatinosa, nucleus proprius, dorsal nucleus of Clark, alpha and gamma motor
neurons.  The student will be able to locate the likely site and extent of spinal
cord damage based upon clinical presentation of case studies.

Brain Stem
This section of the course covers the gross features of each of the 12 crainial
nerves and follows their path throughout the head and face.  Many of the
cranial nerves have miultiple nuclei controling sensory, motor and autonomic
crainial nerve function.  The student will be able to identify all the nuclei on
Weil stained human brain stem section on glass slides. Crainial nerves connect
to various ganglia throughout the head and face.  All of these ganglia will be
discussed.  Blood supply to the brain stem will be mastered to the point that
the student will be able to predict neurological deficits given the location of
a brain stem stroke.

Vestibular/Cochlear Function
The structure of the vestibule of the inner ear and all of its brain stem connections
will be covered.  The function of the semicircular canals, saccule and utricle will be
discussed on a cellular level.  Attention will be given to vestibular control of eye
movement and cerebellar interphase for balance.  Cholear function will also be
covered at a cellular level.  The student will understand basic auditory physiology
and cortical processing of sound.  Students will learn some basic neurological
procedures that tests the integraty of brain stem vestibular circuits.

Visual System
A detailed examination of the microanatomy of the eye will be covered.  Interaction
of the various neural layers of the retina will be discussed as well as the physiological
signals sent via the optic nerve.  The optic pathways in the white matter tracks and
their connections to the different regions of the visual cortex will be covered.
Emphasis is given to clinical cases involving stroke damage to various parts of the
brain and how a given CVA at a specific brain region would affect vision.

Diencephalon
The functions of thalamic nuclei in sensory, motor and limbic systems are covered.
The role of the hypothalamus in regulating the autonomic nervous system
(parasymathetic and sympathetic) as well as its influence on behavior is covered.

Motor System
Motor movement is covered intigrating the role of cerebellum nuclei, thalamic nuclei,
and the basal ganglia.  Particular emphasis is place on clinical cases involving
movement disorders such as Parkinson's disease, Huntington's Chorea, Dystonia,
Ballismus, brain stem and spinal cord trauma.

Limbic System
The limbic system serves as the basis for primitive emotions such as anger, fear
and sexual behavior. It also plays a critica role in memory function.  Limbic
brain structures such as the amygdala, mammillary bodies and hippocampus
are examined.  The nerve tracts of the Papez circuit are discussed as well as
limbic efferent and afferent pathways integrating higher cortical regions.

Neocortex
Various types of neurons found in the six layers of the human neocortex are covered
as well as the associational and commissural cortical circuitry.  Localized function
of Brodmann's areas and hemisphere function are examined.  Emphasis is place
on behavioral outcomes of localized cortical trauma, understanding the relationship
between specific Brodmann's area damage and the concomitant clinical outcome.
 
 



Think you're ready for an exam?  Below are old exams given in previous semesters.
Please note that all exams in this course are comprehensive.

 Human Neuroanatomy Exam I
 Human Neuroanatomy Exam II
 Human Neuroanatomy Exam III



Interesting Links:

 Society for Neuroscience
 Brain.com
 Brain Briefings
 Neuroscience Tutorial (Washington Univ. Medical School)
 Neuroscience for Kids
 More Neuroscience Links