STUDENT LEARNING OBJECTIVES

FOR

HUMAN ANATOMY AND PHYSIOLOGY I

BIOL 1611
 
 

Summer 2007
 

Andrew J. Penniman, Ph.D.
Georgia Perimeter College, Dunwoody Campus
 
 
 

Table of contents

PREFACE INTRODUCTION & ORIENTATION CHEMISTRY COMES ALIVE
CELLS: THE LIVING UNITS TISSUE:  THE LIVING FABRIC INTEGUMENTARY SYSTEM
BONES AND SKELETAL TISSUES. AXIAL SKELETON. APPENDICULAR SKELETON.
JOINTS. MUSCLES AND MUSCLE TISSUE. THE MUSCULAR SYSTEM.
THE NERVOUS SYSTEM 
AND NERVOUS TISSUE.
THE CENTRAL NERVOUS SYSTEM. THE PERIPHERAL NERVOUS SYSTEM 
AND REFLEX ACTIVITY.
THE AUTONOMIC NERVOUS SYSTEM. SENSATION & THE SPECIAL SENSES. .

 
 
 
 

PREFACE

      The following pages contain lists of Learning Objectives for students in Human Anatomy and Physiology I (BIOL 1611).  These are derived from objectives written for separate courses in Human Anatomy and Human Physiology I taught at Defiance College (Ohio) from 1986-1992.  Now, they have been revised to reflect the content of BIOL 1611 at Georgia Perimeter College.

      Every objective is written as a statement of a task you may be asked to perform on an examination, and every test question I ask is related to one or more of these items.  For this reason, students frequently refer to these "Student Learning Objectives" as "the study guide."  Certainly, they are intended as such.  I have worked to write each item in the terms used by the textbook so an attentive student will understand what each objective demands.  However, I have found it very difficult to make every objective completely unambiguous without giving away the expected response.  The student should use the objectives to study well ahead of the next exam so he/she has time to ask for clarification.

      Because each test question is derived from the objectives, you may challenge a question you believe can not be associated with an objective.  (I have [rarely] thrown out test questions so challenged.)  Test items sometimes do restate objectives verbatim; it is more common, however, for an objective to inspire a question in some other format.  For example, an objective such as:

" 2.  List and define four subdivisions each of anatomy and physiology. "

may yield a multiple choice question like:

"One subdivision of human anatomy is
 a. gross anatomy
 b. philosophy
 c. endocrinology
 d. neurophysiology
 e. obstetrics."

You should remember this as you study.

      As imperative statements every objective includes a verb, which declares the nature of the response I expect.  "Name" or "List" means that a stated number of one or two word (rarely more) answers will be sufficient. "State" or "Cite" means that the answer usually requires one or more complete sentences, but less than a paragraph.  "Describe" means that you should create a word picture of whatever the objective asks.  Usually, this requires more than one sentence, i.e., a short paragraph.  "Explain" goes beyond description to show a cause and effect relationship between two or more phenomena.  Again, such an objective requires a short (occasionally not so short) paragraph.  Many students include diagrams with their answers to "Describe" or "Explain" questions, and this is a good idea (A picture is still worth a great many words.) but not required.  "Draw" or "Diagram" means simply to sketch a picture of whatever is asked and to label your picture as specified.  Usually these objectives ask for no writing other than the labels.  I hope that the few other verbs will be clear.  Of course, you should ask about any objective that troubles you, --please.

      Ironically, use of these objectives as a study guide becomes a problem for some students.  These are the people who plead after a test, ". . . but I did my objectives!"  To work through the objectives (once) is not enough.  Having answered the objectives, a student should review and discuss them and the appropriate responses with other students until they are understood, not just memorized.  I urge you to form study groups to work on the objectives together.  The very best way to learn is to teach each other, and if some objective confuses everyone in your group, it must be something we should discuss again in class.

      The organisms (humans) and ideas we will study this quarter are complex and wonderful (far more complex than you've imagined).  I hope you'll enjoy studying them as much as I do.  (After more than 30 years, I still find new and fascinating things to learn in biology.)  And, I hope you find these objectives an important guide in your studies.

Dunwoody, GA
14 May, 2003
 
 

OBJECTIVES - INTRODUCTION & ORIENTATION

ref: Marieb and Hoehn (2007), Chapter 1.

1.     Define and distinguish between anatomy and physiology.

2.     List and define four subdivisions each of anatomy and physiology.

3.     State the principle of complementarity of structure and function.

4.     List in order the eleven levels of biological organization of the human body from simplest to most complex.

5.     State the functions of eleven principal organ systems (pp 6-7); name a major organ of each principal system, and given a major organ, identify the system to which it belongs.

6.     List five characteristics all living organisms share, and apply these to specific examples.

7.     Explain the importance of homeostasis in any living organism.

8.     List the three components of all homeostatic control mechanisms, and describe their interaction.

9.     Name the two kinds of feedback, describe the characteristics of each, and explain why most homeostatic systems use negative feedback.

10.     Describe an example of negative feedback in a biological system, and explain why it exemplifies negative feedback.

11.     State two kinds of physiological responses to cooling below normal temperature and two responses to heating above normal temperature of a human body.

12.     State two reasons the blood glucose concentration must be maintained within narrow limits, and state the normal upper and lower limits of human blood glucose concentration.

13.     State the roles of the liver and pancreas and hormones, insulin and glucagon, in glucose homeostasis.

14.     Describe two examples of homeostatic systems in humans other than body temperature and blood glucose regulation.

15.     Describe an example of positive feedback in a biological system, and explain why it exemplifies positive feedback.

16.     Describe in detail the anatomical position.

17.     List and define the three common anatomical planes/sections.

18.     Name and locate (=describe the location of) the principal body cavities; name the two divisions of the dorsal body cavity; and name the two main divisions of the ventral body cavity, and the subdivisions of each division. 

19.     Name a major organ in each of the principal body cavities, or given a major organ, identify the body cavity in which it lies.

20.     Define and locate the principal regions and surfaces (listed in #23 below and Figure 1.7) of the  human body.

21.     Define and use properly the principal directional terms used in human anatomy (Table 1.1).

22.     List the four quadrants of the abdominopelvic cavity, and name one major organ that lies (mostly) in each.

23.     Define/locate (=describe the location of) the following terms/structures (reg. = region, sys. = system):
 

abdomen 
abdominal cavity 
abdominopelvic cavity 
anatomical position 
anatomy 
anterior 
arm 
atom, atomic 
axillary reg. 
biology
brachial reg. 
cardiovascular sys. 
carpal reg. 
cell, cellular 
cephalic reg. 
cervical reg. 
control center
cranial reg.
cranial cavity 
cross section
cytology
deep 
developmental anatomy
digestion 
digestive sys.
distal
dorsal 
dorsal cavity
ecosystem 
effector
endocrine sys.
external environment
extracellular fluid
femoral reg. 
forearm 
frontal reg. 
frontal section/plane 
glucagon 
glucose 
gluteal reg. 
glycogen 
groin 
gross anatomy 
growth 
histology 
homeostasis 
homeostatic imbalance 
horizontal section/plane 
inferior 
inguinal reg. 
insulin 
integumentary sys. 
intermediate 
internal environment 
lateral
leg
lumbar reg.
lymphatic sys.
macromolecule
medial
median
metabolism
mammary reg.
microscopic anatomy
midsagittal
molecule, molecular
movement
muscular sys.
negative feedback
nervous sys.
nutrient
oral reg.
organ
organelle
organism, organismal 
organization 
organ system 
parasagittal section/plane 
pathological anatomy
pathophysiology
pedal reg.
pelvic cavity
pelvis, pelvic region
pericardial cavity
physiology
pleural cavity
population
positive feedback
posterior
proximal
quadrant
receptor
regional anatomy 
reproduction
reproductive sys.
respiratory sys.
responsiveness
sagittal section/plane
skeletal sys.
superficial
superior
surface anatomy
systemic anatomy
tarsal reg.
tissue
thoracic cavity
thoracic reg.
transverse section/plane
urinary sys.
ventral
ventral cavity
vertebral cavity/canal
viscera, visceral

 

OBJECTIVES - CHEMISTRY COMES ALIVE

ref: Marieb and Hoehn (2007), Chapter 2.

1. Explain the differences between matter and energy, and between kinetic, potential, and chemical energy.

2. Diagram the electron configurations of carbon, hydrogen, nitrogen, oxygen, phosphorus, and sulfur.

3. Explain the differences among ionic, covalent, and hydrogen bonds.

4. Explain why carbon is the most important element in biological chemistry.

5. Diagram and identify the molecular configurations of methane, water, ethane, propane, ethyl alcohol, acetic acid, a generalized amino acid, glycerol, a fatty acid, and a 6-carbon simple sugar.

6. Diagram and identify the methyl, hydroxyl, carboxyl, and amino functional groups.

 7. Name an organic molecule or set of organic molecules (e.g., alcohols, monosaccharides) in which each of the above functional groups can be found.

 8. Name the monomers that combine to make polysaccharides, fats, and proteins.

 9. Name the macromolecules composed of simple sugars, glycerol and fatty acids, and amino acids.

10. Given a diagram of a molecule, identify it as a carbohydrate, fat, or polypeptide (protein).

11. Diagram a disaccharide, a fat, and a dipeptide.

12. Given a diagram of two molecules, diagram the product(s) of a dehydration synthesis to unite them.

13. Given a diagram of a small polymer, diagram product(s) of the hydrolysis of the molecule.

14. Name two kinds of polysaccharides involved in human physiology.

15. Describe the relationship of protein structure to function.

16. Explain why enzymes must catalyze the chemical reactions in living cells.

17. List two functional properties of enzymes.

18. Describe the process by which an enzyme catalyzes a reaction according to the lock-and-key model; use the terms "active site" and "substrate."

19. Name the two kinds of nucleic acids.

20. List the three parts of a nucleotide.

21. Describe the importance of ATP (adenosine triphosphate) in living systems.

22. Define or explain the meaning of the following terms:
 
 

acetic acid 
acid 
activation energy
active site
adenosine diphosphate (ADP) 
adenosine triphosphate (ATP)
alanine
amino (amine) group
amino acid
anabolism, anabolic 
base 
biochemistry 
carbohydrate
carbon 
carboxyl group
catabolism, catabolic 
catalyst 
chemical energy
chemical reaction 
chlorine
CHNOPS 
compound 
covalent bond
dipeptide
disaccharide
dehydration synthesis
deoxyribonucleic acid (DNA)
electron
energy
energy shell
enzyme
enzyme-substrate complex
ethane
ethyl alcohol
fat (neutral) 
fatty acid 
functional group
glucose
glycerol 
glycine
glycogen
hydrogen 
hydrogen bond
hydrolysis
hydroxyl group
ion 
ionic bond
kinetic energy
lipid 
macromolecule 
methane 
methyl group 
molecule 
monomer 
monosaccharide 
nitrogen 
nonpolar molecule 
nucleic acid 
nucleotide
organic compound/molecule
oxygen
peptide bond
pH
phospholipid
phosphorus
polar molecule
polymer
polypeptide
polysaccharide 
potential energy 
propane
protein
ribonucleic acid (RNA)
saturated fat
simple sugar
sodium
solute 
solution 
solvent 
starch 
steroid
substrate
sulfur
synthesis
triglyceride
unsaturated fat
water 

 

OBJECTIVES - CELLS: THE LIVING UNITS

 

ref: Marieb and Hoehn (2007), Chapter 3.

 

1. Explain why a cell is considered the basic living unit of organisms.

 

2. List the three principal parts of a cell.

 

3. Describe or diagram the structure of the cell membrane according to the fluid mosaic model.

 

4. Name two classes of membrane proteins, and list three functions of membrane proteins.

 

5. Name two factors related to the selective permeability of cell membranes.

 

6. List three passive processes of molecular movement across cell membranes.

 

7. Explain how random movement of molecules can result in net movement from regions of higher concentration to regions of lower concentration.

 

8. List three defining characteristics of osmosis.

 

9. Given two solutions separated by a selectively permeable membrane, explain what will happen as a result of osmosis.

 

10. Explain the differences among diffusion, osmosis, facilitated diffusion, and filtration.

 

11. List three active processes of movement across cell membranes.

 

12. List two defining characteristics of active transport.

 

13. List three kinds of vesicular transport.

 

14. List and describe the functions of seven kinds of organelles.

 

15. Diagram the cell cycle, label its phases, and describe the events associated with each phase.

 

16. Name the type of cellular reproduction associated with somatic cell division.

 

17. List the phases of mitosis in order, and describe what occurs during each phase.

 

18. Explain why cells produced by mitosis must be exact copies of the mother cell.

 

19. Draw a chromosome as it would appear during any phase of mitosis and label the centromere and strands.

 

20. Define or explain the meaning of the following terms:
 

active transport
anaphase
cell 
cell cycle
cell identity marker
centriole
centromere
chromosome
cilium (-a) 
concentration gradient
cytokinesis
cytology
cytoplasm
cytoskeleton
cytoskeleton anchor
cytosol
diffusion
endocytosis 
endoplasmic reticulum (ER)
equilibrium
exocytosis 

facilitated diffusion

filtration
flagellum 
fluid mosaic model
G1 phase
G2 phase
Golgi apparatus
hydrostatic pressure
hypertonic
hypotonic
integral protein
interphase 
interstitial fluid
isotonic
lysosome 
metaphase
mitochondrion (-a) 
mitosis 
mitotic spindle
nuclear envelope
nucleolus
nucleus  

organelle 

osmosis
osmotic pressure
peripheral protein
permeable 
peroxisome
plasma membrane
phagocytosis 
phospholipid bilayer
"power plant of the cell"
prophase
receptor
receptor-mediated endocytosis
ribosome
rough ER 
S phase
selective permeability
smooth ER
sodium-potassium pump 
telophase
transporter
tonicity
vesicular transport 


 

OBJECTIVES - TISSUE:  THE LIVING FABRIC

 

ref:  Marieb and Hoehn (2007), Chapter 4.

 

1. List and state the characteristics and differences among the four principal types of animal tissues.

 

2. State four general characteristics of epithelial tissues.

 

3. List four functions of epithelial tissue.

 

4. List and describe the three main shapes of epithelial cells.

 

5. Describe the ways epithelial cells may be arranged in a tissue.

 

6. List and describe five major types of covering epithelium.

 

7. For each of the major types of covering epithelium, name a location where that type is found.

 

8. Describe the structure of a generalized exocrine gland.

 

9. List two functional types of exocrine glands.

 

10. State two characteristics common to all connective tissues.

 

11. List three kinds of fibers found in connective tissues.

 

12. List and describe seven types of connective tissue and describe their structures and functions.

 

13. List five kinds of connective tissue cells.

 

14. Describe the structural and functional differences between loose and dense connective tissue.

 

15. Describe the function and appearance of adipose tissue under the microscope.

 

16. Describe the structural and functional differences between the two kinds of dense connective tissue.

 

17. Describe the structures of cartilage and bone (osseous) tissues, and state the differences between them.

 

18. State two characteristics of blood tissue.

 

19. For each major connective tissue type, specify a location where that tissue is found.

 

20. List three kinds of covering and lining membranes (pp. 141-143).

 

21. State the function of nervous tissue.

 

22. State three functions of muscle tissue, list the three types of muscle tissue, and state where each type is found.

 

23. List the three steps of tissue repair (p. 143-144) and describe the importance of regeneration and fibrosis in tissue repair.

 

24. Define/locate the following terms/structures (CT = connective tissue):
 

absorption
adipocyte
adipose tissue
apical surface
areolar CT
avascular 
basal surface
basement membrane
blood 
bone 
cardiac muscle
cartilage
chondrocyte
collagen
collagen fiber
columnar
connective tissue (CT) 
covering epithelium
cuboidal 
cutaneous membrane
dense irregular CT
dense regular CT
duct
elastic CT 

elastic cartilage 
elastic fiber
elastin
epithelial membrane 
epithelium (-a), epithelial
exocrine gland
extracellular matrix
fibroblast
fibrocartilage 
fibrosis 
gland
glandular epithelium
goblet cell 
granulation tissue 
ground substance
histology
holocrine gland
hyaline cartilage 
inflammation 
lacuna (-e)
loose CT
macrophage 
mast cell
merocrine gland 

mesenchyme 
mucous membrane, mucosa
mucus 
muscle tissue
nervous tissue
neuron 
osseous tissue
osteocyte
peritoneum
protection 
pseudostratified 
regeneration 
reticular fiber 
scar tissue 
secretion
sensation, sensory reception 
serous membrane, serosa
simple epithelium
skeletal muscle 
smooth muscle
squamous
stratified epithelium
striated
tissue
transitional epithelium


 

OBJECTIVES - INTEGUMENTARY SYSTEM

 

ref: Marieb and Hoehn (2007), Chapter 5.

 

1. List and describe four functions of the skin.

 

2. List, from superficial to deep, the three layers of the skin.

 

3. List from deepest to most superficial four strata of the epidermis, and describe the general structure of the epidermis.

 

4. Describe the life history of a keratinocyte from its origin to its loss from the body.

 

5. Describe the reasons for variation in skin color among individuals and between areas of skin (freckles).

 

6. State the location of melanocytes in the skin and state the function of melanin.

 

7. Describe the composition and functions of the dermis and subcutaneous layer (hypodermis).

 

8. List four kinds of integumentary glands and describe the products, functions, and distributions of each.

 

9. Describe the structure of a hair and hair follicle, and explain how a hair grows.

 

10. Given a diagram or model of the skin, locate and identify its parts.

 

11. List three parts of a finger- or toenail.

 

12. Describe the role of the integumentary system in body temperature regulation.

 

13. List the three kinds of skin cancer in order of increasing risk/danger.

 

14. Define/locate the following terms/structures:
 

apocrine sweat gland 
arrector pili 
basal cell carcinoma 
body (of nail) 
ceruminous gland 
cutaneous 
dermal papilla 
dermatology 
dermis 
eccrine sweat gland 
epidermis 
external root sheath 
freckle 
free edge 
hair 
hair follicle 

hypodermis
integument
internal root sheath
keratin
keratinocyte
lunula 
mammary gland
matrix (of hair)
melanin
melanocyte 
melanoma
nail 
nail matrix 
papilla (of hair)
papillary layer
reticular layer

root (of hair)
root (of nail)
sebaceous (oil) gland
sebum
shaft (of hair)
skin
squamous cell carcinoma
stratum basale
stratum corneum
stratum granulosum
stratum lucidum
stratum spinosum
subcutaneous layer
superficial fascia
vitamin D 


 

OBJECTIVES – BONES AND SKELETAL TISSUES

 

ref: Marieb and Hoehn (2007), Chapter 6.

 

1. List five functions of the skeletal system, and describe how the skeleton accomplishes each of its functions.

 

2. List three types of skeletal cartilages, and name two places each type is found.

 

3. List three classes of bones based on shape.

 

4. List four parts of a long bone.

 

5. Describe the structure of an osteon, and draw an osteon in cross section and label the osteocytes, central (Haversian) canal, concentric lamellae, and canaliculi.

 

 6. List and distinguish between the functions of three kinds of bone cells.

 

 7. Describe the structure of spongy bone, and contrast this structure to that of compact bone.

 

 8. Describe how living osteocytes receive oxygen and nutrients and dispose of metabolic waste products.

 

9. List four bone markings that are muscle or ligament attachments, three that are parts of joints, and four that are depressions or openings (see Table 6.1).

 

10. Name, distinguish between, and describe the two modes of ossification, and state the difference in histology between bones formed by the two modes of ossification.

 

11. List four examples of membranous (or dermal) bones, and four examples of endochondral bones.

 

12. Describe the processes of growth and remodeling in a long bone.

 

13. Explain the importance of bone tissue in calcium ion homeostasis, and how bone tissue functions in this process. 

 

14.  Name two hormones that regulate blood Ca2+ ion concentration and bone tissue density, and state the role of each hormone. 

 

15. Describe the effects of exercise and/or inactivity on bone tissue.

 

16. Describe the process and list the four stages of healing of a fracture.

 

17. Define or explain the meaning of the following terms:
 

articular cartilage 
bone tissue
bony callus
calcification 
canaliculus (-i)
cartilage model
center of ossification 
central (Haversian) canal 
compact bone 
condyle 
crest 
diaphysis
endochondral ossification
endosteum 
epicondyle
epiphyseal line
epiphyseal plate
epiphysis (-es) 

facet 
foramen 
fossa
fibrocartilaginous callus 
flat bone 
fracture
hematoma (fracture)
hydroxyapatite
interstitial lamella (-e) 
intramembranous ossification 
irregular bone 
lacuna (-e) 
lamella (-e)
long bone 
marrow cavity
meatus
nutrient foramen 
ossification
osteoblast

osteoclast 
osteocyte
osteoid 
osteon
perforating (Volkmann’s) canal
periosteum
primary ossification center 
process 
red marrow 
remodeling 
sesamoid bone 
short bone 
spine 
spongy bone
secondary ossification center
trabecula (-e) 
tubercle 
tuberosity 

yellow marrow


 

OBJECTIVES - THE AXIAL SKELETON

 

ref: Marieb and Hoehn (2007), Chapter 7, Part 1.

 

1.     Given the name of a human bone, identify it as a member of the axial or appendicular skeleton (see p. 176).

 

2.     List and identify five different cranial bones and their parts listed in #24.  (Paired bones, such as left and right parietal bones, are NOT considered “different.”)

 

3.     List and identify six different facial bones and their parts listed in #24.

 

4.     Name the bones that form, support, or underlie specific parts of the face.

 

5.     Name the bones that hold the upper and lower teeth.

 

6.     Name the bones that form the hard palate.

 

7.     Name four bones that form parts of each orbit.

 

8.     Name two bones that form parts of the lateral wall of the nasal cavity, and two bones that form parts of the nasal septum.

 

9.     Name and identify the anterior and posterior fontanels of a fetal/infant skull.

 

10.    Describe the structure and function of the hyoid bone.

 

11.    List the five regions of the vertebral column, state the number of vertebrae in each region, and state how the vertebrae of each region may be distinguished.

 

12.    Given an isolated vertebra, identify the region from which it comes.

 

13.    List in order and identify the four normal curves of the vertebral column.

 

14.    Identify and list four of the following parts of a vertebra: body, demifacet, facet for tubercle of rib, inferior articular process, spinous process, superior articular process, transverse process, vertebral foramen.

 

15.    Name in order and identify the first two cervical vertebrae.

 

16.    Identify and list four of the following parts of the atlas and/or axis: anterior arch, body, inferior articular process, dens (odontoid process), posterior arch, superior articular process, transverse foramen, transverse process, vertebral foramen.

 

17.    Name two kinds of intervertebral joints.

 

18.    List in order and identify the three parts of the sternum.

 

19.    Name the structures that connect the ribs to the sternum.

 

20.    List and identify four parts of a rib.

 

21.    List, identify, and distinguish the three groups of ribs.

 

22.    State the difference in the ribs between the sexes.

 

23.    For any bone listed below, name the bones or groups of bones with which it articulates.

 

24.    Define/locate the following terms/structures:
 

anterior fontanel 
appendicular skeleton
atlas 
axial skeleton
axis 
body (of mandible, sternum, or vertebra)
carotid canal 
cervical curve 
cervical vertebra
coccyx
coronal suture
coronoid process
costal cartilage
cranial bone
demifacet 
dens (odontoid process)
ethmoid bone
external auditory meatus 
facial bone
false rib
floating rib
foramen magnum
frontal bone
greater wing
hard palate 
head (of rib) 
hyoid bone
inferior articular process 
inferior nasal concha

internal auditory meatus

intervertebral disc
intervertebral foramen
jugular foramen
lacrimal bone

lambdoid suture  
lesser wing
lumbar curve
lumbar vertebra
mandible 
mandibular condyle 
mandibular fossa
manubrium
mastoid process 
maxillary bone (maxilla) 
middle nasal concha
nasal bone 
nasal cavity 
nasal septum 
neck (of rib) 
occipital bone
occipital condyle
olfactory foramina 
optic canal
orbit
palatine bone
palatine process
paranasal sinus
parietal bone
posterior arch 
posterior fontanel 
rib 
sacral curve 

sacral vertebra 
sacrum
sagittal suture
sella turcica 
shaft (of rib)
skull
sphenoid bone 
spinous process
sternum
styloid process
superior articular process
superior nasal concha
suture
temporal bone
temporomandibular joint
thoracic curve
thoracic vertebra 
thorax 
transverse foramen
transverse process 
true rib
tubercle (of rib) 
vertebra (-e)
vertebral arch
vertebral canal
vertebral column
vertebral foramen
vomer 
xiphoid process
zygomatic arch
zygomatic bone


 

OBJECTIVES - THE APPENDICULAR SKELETON

 

ref: Marieb and Hoehn (2007), Chapter 7, Part 2.

 

1. Name and identify the bones of the pectoral girdle.

 

2. List and identify the following parts of the scapula: acromion (process), axillary border, coracoid process, glenoid cavity, infraspinous fossa, spine, subscapular fossa, superior border, supraspinous fossa, vertebral border.

 

3. List and identify the long bones of an upper limb.

 

4. List and identify the following parts of the humerus, radius, and ulna:  capitulum, coronoid fossa, coronoid process, deltoid tuberosity, greater and lesser tubercles, head, lateral and medial epicondyles, olecranon fossa, olecranon process, radial tuberosity, trochlea, trochlear notch.

 

5. Identify (as a group) and state the number of carpal bones.

 

6. Identify and number (I-V) in situ the metacarpal bones and phalanges.

 

7. Name and identify the bones of the pelvic girdle.

 

8. List and identify the three bones that fuse to form each coxal bone.

 

9. List and identify the following parts of a coxal bone:  acetabulum, anterior inferior and superior iliac spines, iliac crest, iliac fossa, inferior and superior rami of pubis, ischial spine, ischial tuberosity, obturator foramen, pelvic brim, pubic arch, pubic symphysis.

 

10. List and identify the long bones of a lower limb.

 

11. List and identify the following parts of the femur, tibia, and fibula:  greater trochanter, head, intercondylar notch, lateral and medial condyles, lateral and medial epicondyles, lateral malleolus, lesser trochanter, linea aspera, medial malleolus, neck, tibial tuberosity.

 

12. Name and identify the talus and calcaneus individually, and identify the other tarsals as a group.

 

13. Identify and number (I-V) in situ the metatarsal bones and phalanges.

 

14. Given a complete pelvic girdle, identify its sex.

 

15. For any bone listed below, name the bones or groups of bones with which it articulates.

 

16. Define/Locate the following terms/structures:
 

acetabulum
acromion (process)
anterior inferior iliac spine
anterior superior iliac spine
appendicular skeleton
axillary (lateral) border
bony pelvis 
calcaneus
capitulum
carpal 
clavicle
coracoid process
coronoid fossa
coronoid process
coxal bone
deltoid tuberosity 
digit 
femur
fibula 
glenoid cavity 
greater trochanter
greater tubercle
head (of femur, fibula, 
         humerus, radius, ulna) 
humerus 

iliac crest 
iliac fossa
ilium
inferior ramus (pubis)
infraspinous fossa
intercondylar notch 
ischial spine
ischial tuberosity
ischium
lateral condyle 
lateral epicondyle
lateral malleolus
lesser trochanter 
lesser tubercle 
linea aspera
medial condyle 
medial epicondyle
medial malleolus
metacarpal (I-V)
metatarsal (I-V)
neck (of femur)
obturator foramen
olecranon fossa
olecranon process
patella
pectoral girdle 

pelvic brim 
pelvic girdle
pelvic inlet 
pelvic outlet 
phalanx (-ges)
pubis 
pubic arch 
pubic symphysis
radial tuberosity
radius 
sacroiliac joint
scapula
spine (of scapula)
subscapular fossa
superior border
superior ramus (pubis)
supraspinous fossa
talus
tarsal
tibia 
tibial tuberosity
trochlea
trochlear notch
ulna
vertebral border 


 

OBJECTIVES - JOINTS

 

ref: Marieb and Hoehn (2007), Chapter 8.

 

1.    List the three structural classes of joints.

 

2.    List the three functional classes of joints.

 

3.    Cite one specific example each of a synarthrosis, symphysis, and a diarthrosis.

 

4.    Given an example of an articulation, name its structural and/or functional class.

 

5.    Describe the general structure of a diarthrosis/synovial joint.

 

6.    List and describe two factors controlling the stability and the type and extent of motion at any joint.

 

7.    Describe the following types of movement at any of the major joints:  abduction, adduction, circumduction, extension, flexion, pronation, rotation, supination.

 

8.    Given an example of a movement, identify it as one of the types above.

 

9.    List and identify four types of diarthroses/synovial joints.

 

10.   List and identify the following parts of the tibiofemoral (knee) joint:  anterior cruciate ligament, fibular collateral ligament, lateral meniscus, medial meniscus, patella, patellar ligament, posterior cruciate ligament, tibial collateral ligament.

 

11.    List and distinguish among four kinds of inflammation of joints (pp. 273-274). 

 

12.    Define/Locate the following terms/structures:
 

abduction
adduction
amphiarthrosis 
anterior cruciate ligament
articular capsule
articular cartilage
articulation
arthritis 
ball-and-socket joint
bursa (-e)
bursitis 
cartilaginous joint 
circumduction 
coxal joint 
diarthrosis 
ellipsoidal joint 

extension 

fibrous capsule 
fibrous joint 
fibular collateral ligament
flexion
glenohumeral joint 

gout (gouty arthritis)
hinge joint
hyperextension
joint
lateral meniscus
ligament
medial meniscus 

osteoarthritis
patellar ligament
pivot joint 
plane joint 
posterior cruciate ligament 

pronation 

rheumatoid arthritis
rotation
saddle joint
sprain
supination
suture
symphysis
synarthrosis
synovial cavity
synovial fluid
synovial joint
synovial membrane 
tendonitis
tendon sheath 
tibial collateral ligament 
tibiofemoral joint 


 

OBJECTIVES – MUSCLES AND MUSCLE TISSUE

 

ref: Marieb and Hoehn (2007), Chapter 9.

 

1.    List the three types of muscle tissue, describe their differences and distinguish among the three types, and describe their distributions in a human body.

 

2.    State three functions of muscle tissue.

 

3.    List three general characteristics or properties of muscle tissue.

 

4.    Describe the gross structure of a muscle including the belly, tendons, arrangement of muscle fibers, and the associated connective tissue (pp. 281-284). 

 

5.    List the three layers of connective tissue associated with a skeletal muscle.

 

6.    Describe and distinguish between the structures and functions of tendons, aponeuroses, and ligaments.

 

7.    Diagram and describe the structure of a sarcomere, and use your diagram to explain contraction of a muscle fiber according to the sliding filament mechanism (model). 

 

8.    List the protein components of thin and thick filaments. 

 

9.    Diagram and describe the structure and function of a neuromuscular junction.

 

10.    Describe the spread of depolarization from a neuromuscular junction and the release of calcium ions from the sarcoplasmic reticulum.

 

11.    Describe the roles of calcium ions and ATP in muscle fiber contraction.

 

12.    List in order the three parts of a twitch.

 

13.    List three events that occur during the latent period of a twitch.

 

14.    List three reasons the force of muscular contraction varies depending on the task being done (pp. 297-299), and state two reasons normal

muscular movements are smooth rather than jerky.

 

15.    List the four sources of ATP for muscular activity in the order they are used (or used up).

 

16.    Describe the effect of length of a muscle fiber on the tension (force) it produces (p. 305).

 

17.    State the roles of smooth and skeletal muscle in body temperature homeostasis.

 

18.    Define or explain the meaning of the following terms:
 

acetylcholine (ACh)
acetylcholinesterase (AChE)
acetylcholine receptor 
actin
action potential 
aerobic respiration 
axon terminal
cardiac muscle
contractility 
contraction 
contraction period
creatine phosphate
cross bridge
depolarization 
elastic filament 
elasticity
endomysium
epimysium
excitability

excitation-contraction coupling
extensibility 
glycolysis 
graded response 
involuntary 
lactic acid formation 

latent period
length-tension relationship
motor end plate 
motor neuron 
motor unit
multiple motor unit summation
muscle
muscle fiber
muscle tissue
muscle tone
myofibril 
myofilament 
myoglobin 
myosin
myosin head
neuromuscular junction
neurotransmitter 
perimysium
recruitment
refractory period
relaxation
relaxation period
rigor mortis 
repolarization 

sarcomere 
sarcoplasmic reticulum 
skeletal muscle
smooth muscle
staircase effect
striation, striated
synapse
synaptic cleft
synaptic vesicle
tendon 
tetanus
thermogenesis
thick filament 
thin filament
transverse (T) tubule
treppe
tropomyosin
troponin
twitch
voluntary
wave (temporal) summation 
working (power) stroke
Z disc 


 

OBJECTIVES - THE MUSCULAR SYSTEM

ref: Marieb and Hoehn (2007), Chapter 10.

1. Describe the gross structure of a typical skeletal muscle (duplicates Muscle Tissue #4).

2. Explain why muscles are normally arranged in antagonistic pairs.

3. Describe the roles of fixators and synergists in the control of body movements.

4. Diagram and identify the common arrangements of fascicles in muscles (Figure 10.1).

5. Diagram and give examples in a human of the three classes of levers by naming the fulcrum, resistance, and muscle producing force (effort); Given an example of a lever, identify the class.

6. Explain why most of a human body’s levers are third class levers.

7. List six muscles of the face and jaw and state their functions/actions.

8. List two muscles that move the lips.

9. Name a muscle that closes an eye.

10. List three pairs of muscles that move the mandible.

11. Name the pair of muscles that flex the head.

12. Name a pair of muscles that extend the head.

13. Name two pairs of muscles that rotate the head.

14. List two groups or series of muscles that erect (extend) the vertebral column.

15. Name one muscle that flexes the torso.

16. List three muscles or sets of muscles used in breathing (see also pp. 847-849 and Figure 22.13) and state the action of each.

17. List four muscles of the abdominal wall and state their functions.

18. List four muscles that stabilize the scapula.

19. List the four muscles of the rotator cuff.

20. Name a muscle that flexes the arm.

21. Name two muscles that extend or hyperextend the arm.

22. List three muscles that adduct the arm.

23. List two muscles that abduct the arm.

24. List three muscles that flex and one that extends the forearm.

25. Name two muscles that pronate and one that supinates the hand.

26. List the four muscles of the quadriceps femoris group.

27. List the three muscles of the hamstring group.

28. List two muscles that flex the thigh.

29. Name two muscles that extend the thigh.

30. Name two muscles that abduct the thigh.

31. Name two muscles that adduct the thigh.

32. List three muscles that flex the leg.

33. List four muscles that extend the leg.

34. Name a muscle that flexes (dorsiflexes) the foot.

35. List three muscles that extend (plantar flex) the foot.

36. Define/locate or explain the meaning of the following terms:
 

agonist 
antagonist
belly 
calcaneal tendon 
convergent
effort 
fixator 
force 
fulcrum 
fusiform 
iliotibial tract
insertion 
lever 
linea alba
origin
prime mover
resistance (load)
rotator cuff
sphincter
synergist 

37. Identify and specify the origin, insertion, and principal actions of the following muscles; given any muscle below, name an antagonist and/or synergist to it.
 

adductor brevis 
adductor longus
adductor magnus
biceps brachii
biceps femoris
brachialis
brachioradialis
deltoid
diaphragm
digastric
erector spinae group
external intercostal
external oblique
gastrocnemius
gluteus maximus
gluteus medius
gluteus minimus
gracilis
hamstring group
iliacus 
iliocostalis group 
iliopsoas 
infraspinatus 
internal intercostal
internal oblique 
lateral pterygoid
latissimus dorsi
levator scapulae
longissimus capitis
longissimus group
masseter
medial pterygoid
orbicularis oculi
orbicularis oris
pectoralis major
platysma
pronator quadratus
pronator teres
psoas major
quadriceps femoris group
rectus abdominus
rectus femoris
rhomboid major
rhomboid minor 
sartorius 
semimembranosus 
semispinalis capitis 
semitendinosus 
serratus anterior
soleus 
spinalis group 
splenius capitis 
sternocleidomastoid 
subscapularis 
supinator 
supraspinatus 
temporalis 
tensor fasciae latae 
teres major 
teres minor 
tibialis anterior 
transversus abdominis 
trapezius 
triceps brachii 
vastus intermedius 
vastus lateralis 
vastus medialis 
zygomaticus major 

 

OBJECTIVES – THE NERVOUS SYSTEM AND NERVOUS TISSUE

ref: Marieb and Hoehn (2007), Chapter 11.

1. List three basic functions of the nervous system.

2. Name the two principal divisions of the nervous system and the two principal organs of the central nervous system (CNS).

3. Name the two principal portions of the peripheral nervous system (PNS) and state the functions of each.

4. Name the two divisions of the autonomic nervous system.

5. List three kinds of supporting or glial cells, and state their locations and functions in the nervous system.

6. List and state the functions of the three parts of a neuron.

7. State the difference between gray and white matter.

8. List three structural and three functional types of neurons, and specify their locations.

9. Draw a bipolar, multipolar, or unipolar neuron and label the axon, cell body, and dendrite; indicate with an arrow the direction of impulse transmission in the neuron.

10. Describe how a resting potential is developed and maintained, and state the range and typical value of a resting membrane potential.

11. Name two kinds of gated ion channels.

12. Graph and list the three main parts of an action potential (see Fig. 11.12).

13. Describe the mechanism(s) involved in production of an action potential and in repolarization.

14. Given that all action potentials are alike, describe how we perceive stimulus intensity.

15. Name and distinguish between two kinds of refractory periods.

16. State two factors that affect the rate of impulse conduction at normal body temperature.

17. Describe the propagation of impulses along a neuron by continuous and saltatory conduction.

18. Diagram and describe the structure, function, and importance of a chemical synapse (including the fate of used neurotransmitter molecules).

19. Describe the importance of excitatory and inhibitory postsynaptic potentials in spatial and temporal summation and generation of action potentials in postsynaptic neurons.

20. List four classes of neurotransmitters, and cite one example in each class.

21. List three kinds of neuronal circuits.

22. Define or explain the meaning of the following terms:
 

absolute refractory period 
acetylcholine (ACh)
acetylcholinesterase (AChE)
action potential 
afferent neuron 
amino acid neurotransmitter 
association neuron
astrocyte
autonomic nervous system (ANS)
axon 
axon hillock 
axonal terminal 
biogenic amine 
bipolar neuron
brain 
cell body
central nervous system (CNS)
chemically gated ion channel 
chemical synapse 
continuous conduction
converging circuit
dendrite 
depolarization 
depolarizing phase 
diverging circuit
efferent neuron 
electrochemical gradient 
ependymal cell
excitatory postsynaptic potential 
inhibitory postsynaptic potential 
gamma aminobutyric acid (GABA)
ganglion 
glial cell 
gray matter
hyperpolarization 
integration 
interneuron
microglia
motor neuron 
motor output 
multipolar neuron
myelin, myelinated 
myelin sheath 
nerve 
nerve fiber 
nerve impulse 
nervous system 
neural integration 
neuron
neuronal pool 
neuropeptide 
neurotransmitter
node of Ranvier
oligodendrocyte
parasympathetic division
peripheral nervous system 
postsynaptic neuron 
postsynaptic potential
potential 
presynaptic neuron 
propagation
relative refractory period
repolarization 
repolarizing phase 
resting membrane potential
reverberating circuit
saltatory conduction
Schwann cell 
sensory input 
sensory neuron 
sodium-potassium pump
somatic nervous system
spatial summation
spinal cord 
supporting cell 
sympathetic division
synapse
synaptic cleft
synaptic knob 
synaptic vesicle
temporal summation
threshold 
tract 
trigger zone 
undershoot 
unipolar neuron
voltage-gated ion channel
white matter 

 

OBJECTIVES - THE CENTRAL NERVOUS SYSTEM

ref: Marieb and Hoehn (2007), Chapter 12.

1. Describe the development of the telencephalon, diencephalon, midbrain, and brain stem from the neural tube.

2. List and identify the four principal parts of the adult brain (see Figures 12.2d, 12.3d).

3. Name two parts of the diencephalon.

4. List the four ventricles of the brain.

5. State a function for each of the basal nuclei, cerebrum, midbrain, pons, reticular formation, superior and inferior colliculi, limbic system, and thalamus.

6. Given a brain function, identify the part of the brain with that function.

7. List and identify four lobes of the cerebrum.

8. List the three kinds of functional areas of the cerebral cortex.

9. List and identify the locations of two primary motor areas, three primary sensory areas, and three association areas of the cerebral cortex.

10. List and identify three kinds of fibers (based on destinations of impulses) in the cerebral white matter; state the function and location of the corpus callosum.

11. List and identify four functions of the hypothalamus.

12. List the three parts of the brain stem.

13. Name two homeostatic centers in the medulla oblongata and pons, and name two other functions of the medulla.

14. State the function of the cerebellum.

15. List two anatomical parts and state the function of the limbic system.

16. List two anatomical parts and state the function of the reticular formation, and describe the role of the reticular activating system in wakefulness and sleep.

17. Name the two major types of sleep, and name the type during which dreaming occurs (p. 458).

18. Name two types of memory based on time, and describe how they and memory consolidation apply to learning of Human Anatomy and Physiology.

19. List three factors that affect transfer of information from short-term memory to long-term memory.

20. Name the two categories of memory based on different kinds of mental tasks.

21. Name two parts of the brain involved in fact memory and two parts involved in skills memory.

22. List three kinds of protection for the central nervous system (p. 463-467) (not 3 meninges, see #23 below).

23. List the three meninges from superficial to deep.

24. State three functions of cerebrospinal fluid.

25. Describe the structure and function of the choroid plexuses.

26. State the importance of the blood-brain barrier.

27. Describe the gross structure of the spinal cord including its length and thickness.

28. Draw a cross section of the spinal cord and a pair of spinal nerves; label the white matter, anterior gray horn, posterior gray horn, dorsal root, dorsal root ganglion, and ventral root.

29. Specify the cellular contents and functions of the anterior gray horn, posterior gray horn, anterior (ventral) root, posterior (dorsal) root, and white matter of the spinal cord.

30. Describe the functional impairment that could be expected following damage to a specified part of the brain or spinal cord.

31. Define/locate the following terms/structures:
 

amygdala 
anterior (ventral) horn
arachnoid mater
arachnoid villus 
arousal 
association area
association fiber
auditory association area 
automatic memory 
basal nuclei 
blood-brain barrier
brain 
brain stem 
Broca’s area 
cardiovascular center 
cauda equina 
cerebellar hemisphere
cerebellum
cerebral cortex
cerebral hemisphere
cerebrospinal fluid (CSF)
cerebrum 
choroid plexus 
circadian rhythm 
commissural fiber
consciousness 
corpus callosum
diencephalon 
dorsal root 
dorsal root ganglion 
dura mater 
emotional state 
fact memory 

fissure 
forebrain 
fourth ventricle
frontal eye field 
frontal lobe
general interpretation area 
gnostic area 
gray commissure 
gustatory cortex 
gyrus (-i) 
hindbrain 
hippocampus 
hypothalamus
inferior colliculi
language area
lateral ventricle
lateralization
limbic system 
long-term memory 
medulla oblongata 
memory 
memory consolidation 
meninx (-ges)
midbrain 
motor area 

motor speech area
neural tube 
non-rapid eye movement sleep 
occipital lobe 
olfactory bulb
olfactory cortex 
paradoxical sleep 
parietal lobe 
Parkinson’s disease 
pia mater 

pineal body 
pons 
posterior (dorsal) horn 
prefrontal cortex 
premotor cortex 
primary auditory cortex
primary motor cortex 
primary somatosensory cortex 
primary visual cortex 
projection fiber 
rapid eye movement sleep 
rehersal 
respiratory center
reticular activating system (RAS) 
reticular formation
sensory area 
short-term memory 
skill memory 
sleep 
somatosensory system 
somatosensory association cortex 
spinal cord 
spinal nerve
substantia nigra
sulcus (-i) 
superior colliculi
temporal lobe
thalamus 
third ventricle 
ventral root 
vermis
vestibular cortex 
visceral association area
visual association area 


 

OBJECTIVES - THE PERIPHERAL NERVOUS SYSTEM AND REFLEX ACTIVITY

ref: Marieb and Hoehn (2007), Chapter 13.

1.    List three parts of the peripheral nervous system.

2.    List in order three wrappings of connective tissue associated with a nerve.

3. Describe the process of regeneration of nerve fibers in an injured nerve, and state the conditions under which regeneration will or will not occur.

4. List in order (by name and number) the twelve pairs of cranial nerves, and specify the function(s) of each pair.

5. List in order the five regional groups of spinal nerves; specify the number of pairs of spinal nerves in each regional group and the total number of pairs.

6. Name the two roots of a spinal nerve and specify the functional type of neurons in each root.

7. List the four rami of a spinal nerve, and state the sensory/motor and somatic/autonomic function of each ramus.  

8. List from superior to inferior the four major plexuses.

9. Name one major nerve that arises from the cervical plexus and specify the region(s) it innervates.

10. List five major nerves that arise from the brachial plexus and specify the regions they innervate.

11. Name two major nerves that arise from the lumbar plexus and specify the regions they innervate.

12. Name two major nerves that arise from the sacral plexus and specify the regions they innervate.

13. Given a major nerve, identify the plexus from which it arises and the region it innervates.

14. Name a major nerve innervating the diaphragm, muscles of the arm, muscles of the forearm, muscles of the thigh, muscles of the leg, and the external genitalia.

15. List the five components of a reflex arc.

16. Draw a polysynaptic spinal reflex arc, and label the sensory, motor, and association (inter-) neurons; indicate clearly where these neurons lie in and adjacent to the spinal cord.

17. Define/locate the following terms/structures  (n. = specific nerve or pair):
 

abducens n. (VI) 
accessory n. (XI) 
association neuron 
autonomic reflex 
axillary n. 
brachial plexus 
cauda equina 
cervical plexus 
chemoreceptor
complex receptor 
cranial nerve
crossed extensor reflex
cutaneous nerve 
dermatome
dorsal ramus
dorsal root 
dorsal root ganglion 
endoneurium
epineurium 
facial n. (VII)
femoral n.
free dendritic nerve ending
ganglion (-ia)
genitofemoral n. 
glossopharyngeal n. (IX) 

gray ramus communicans

hypoglossal n. (XII) 
ilioinguinal n. 
inferior gluteal n. 
integrating center
intercostal nerve
lumbar plexus 
median n.
mixed nerve 
monosynaptic reflex (arc) 
motor neuron 
motor nerve 
musculocutaneous n. 
nerve
nerve plexus
oculomotor n. (III)
olfactory n. (I) 
optic n. (II)
patellar reflex
perineurium 
phrenic n.
polysynaptic reflex (arc) 
proprioceptor
pudendal n. 
radial n. 
rami communicantes 

receptor 
reciprocal inhibition 
reflex 
reflex arc
regeneration tube 
sacral plexus
sciatic n. 
sensory neuron 
sensory nerve 
stimulus 
stretch reflex 
spinal reflex 
spinal nerve 
somatic reflex
superior gluteal n. 
trigeminal n. (V)
trochlear n. (IV)
ulnar n. 
vagus n. (X)
ventral ramus 
ventral root 
vestibulocochlear n. (VIII)
visceral reflex

white ramus communicans
withdrawal reflex 


 

OBJECTIVES - THE AUTONOMIC NERVOUS SYSTEM

ref: Marieb and Hoehn (2007), Chapter 14.

1. Name the two functional and two anatomical divisions of the autonomic nervous system (ANS).

2. State why the sympathetic division is also called the thoracolumbar division, and the parasympathetic division is also called the craniosacral division.

3. State three differences between the somatic and autonomic nervous systems.

4. Name two kinds of efferent (motor) neurons in both the sympathetic and parasympathetic divisions, and describe their arrangement in an autonomic pathway.

5. Name the parasympathetic ganglia and describe their locations.

6. Describe the route of a parasympathetic impulse from the CNS through a parasympathetic ganglion to an effector.

7. Name two kinds of sympathetic ganglia and describe their locations.

8. Describe the route of a sympathetic impulse from the spinal cord through a sympathetic ganglion to an effector.

9. Describe the anatomical and functional relationship of the adrenal medulla to the sympathetic division (see p. 522, col. 1).

10. Explain why visceral pain is usually experienced as referred pain.

11. Name the three neurotransmitters in the ANS, and associate them with their four receptor types.

12. Describe the distribution of cholinergic and adrenergic neurons in the somatic and autonomic nervous systems; given an efferent neuron, classify it according to the type of neurotransmitter it produces.

13. Name one organ (or part) each that receives only sympathetic innervation, only parasympathetic innervation, and dual innervation.

14. Explain why sympathetic effects are usually longer lasting than parasympathetic effects.

15. Describe the nature of parasympathetic and sympathetic responses of specific organs.

16. Describe the homeostatic relationship of the hypothalamus to the ANS, and apply this relationship to specific examples.

17. Define/Locate the following terms/structures:
 

acetylcholine (ACh)
adrenergic neuron/fiber
adrenal medulla
alpha receptor
autonomic ganglion
autonomic nervous system (ANS)
beta receptor
celiac ganglion
cholinergic neuron/fiber 
cranial outflow 
craniosacral div.
dual innervation 

epinephrine

"fight-or-flight" response 
ganglionic neuron 

gray ramus communcans 
intramural ganglion
muscarinic receptor 
nicotinic receptor
norepinephrine (NE)
parasympathetic div.   20
paravertebral ganglion 
postganglionic axon/fiber
preganglionic neuron/axon 
prevertebral ganglion 

rami communicantes
referred pain 
sacral outflow 
SLUD
sympathetic div. 
sympathetic chain ganglion
sympathetic trunk 
terminal ganglion
thoracolumbar div. 
vagus nerves 
visceral reflex arc 
visceral sensory neuron 

white ramus communcans 


 

OBJECTIVES - SENSATION & THE SPECIAL SENSES

ref: Marieb and Hoehn (2007), Chapters 13  & 15.

1. State the difference between sensation and perception (p. 493).

2. List the three levels of neural integration in the somatosensory system (p. 493).

3. List in order the four components of sensation.

4. Name four types of sensory receptors classified according to stimulus type, three types classified according to location, and two types classified according to complexity.

5. List three kinds of cutaneous sensations, and name one specialized receptor associated with each.

6. Describe the function of proprioceptors, and list the three types of proprioceptive organs in muscles, tendons, and joints.

7. Name the two special chemical senses.

8. List three locations of taste buds, and describe the structure and function of a taste bud.

9. List the four primary taste sensations.

10. List three cranial nerves involved in gustatory pathways.

11. Describe the location, structure, and function of olfactory receptors.

12. List three sets of accessory structures that protect each eye.

13. List three parts of the lacrimal apparatus, and describe the route of a teardrop from the lacrimal gland to the nasal cavity.

14. List three components of tears.

15. List the six extrinsic eye muscles and specify the function of each (see Figure 16.6).

16. List the three tunics (layers) of the eye.

17. Name the two parts of the fibrous tunic and specify their functions.

18. Name three parts of the vascular tunic and specify their functions.

19. Describe the arrangement of smooth muscle fibers in the iris, their autonomic innervation, and the function of these fibers in control of pupil size.

20. List four kinds of retinal cells, including the two kinds of light receptive cells and specify their functions.

21. Name the part of the retina where images are focused, and describe why visual acuity is greatest in this part of the retina.

22. Describe the contributions of rod and cone cells to vision and the relative advantages of each.

23. Name the two parts of the eye that refract light, and state their functions in focusing light rays on the retina.

24. Describe the structure of the ciliary muscle and suspensory ligaments and their function in focusing an image (far or near vision) in the eye.

25. Name the photopigment in rod cells, the two parts of all photopigments, and the dietary source of one part.

26. List and specify the functions of the three regions of the ear.

27. List the auditory ossicles in the order they receive a vibration and specify the collective function of the auditory ossicles.

28. List the three divisions of the bony labyrinth, and describe the structure of these parts.

29. Name the two parts of the vestibule.

30. Explain the function of the organ of Corti in the sensation of sound.

31. Distinguish between static equilibrium and dynamic equilibrium, and name the organs that sense each of these.

32. Explain the responses of the saccule, utricle, and semicircular canals to movements of the head.

33. Define/locate the following terms/structures:
 

accomodation 
ampulla
anterior segment
aqueous humor
auditory ossicles
auditory tube
basal cell
basilar membrane
bipolar cell (retina)
blind spot
bony labyrinth
choroid
ciliary body
ciliary muscle 
circuit level 
cochlea 
conduction 
cone cell
conjunctiva 
conjunctivitis
cornea
crista (ampularis) 
cupula
dark adaptation
dynamic equilibrium
Eustachian tube
external auditory canal 
exteroceptor 
eye/eyeball
eyebrow
eyelash
eyelid 
far point of vision 
fibrous tunic 
fovea centralis
ganglion cell 
general senses 
general sensory receptor 
Golgi tendon organ 
gustatory cell
hair cell 
incus  

inferior oblique

inferior rectus
inner ear 
interoceptor 
iris 
joint kinesthetic receptor 
lacrimal apparatus
lacrimal canal
lacrimal gland
lacrimal puncta
lateral rectus
lens 
light adaptation
lysozyme
macula (vest. app.)
macula lutea 
malleus 
mechanoreceptor
medial rectus 
Meissner’s corpuscle
membranous labyrinth 
Merkel disc 
middle ear 
muscle spindle,
nasolacrimal duct 
near point of vision 
nociceptor 
olfactory bulb
olfactory epithelium 
olfactory "hairs" ("cilia")
olfactory nerve 
olfactory receptor (cell)
opsin
optic disc
organ of Corti
otolith
otolithic membrane
oval window 
Pacinian corpuscle 
photoreceptor 
perception 
perceptual level 
photopigment 

photoreceptor 
pinna 

posterior segment 

presbyopia
proprioceptor 
pupil 
receptor level 
refraction
retina 
retinal 
rhodopsin 
rod 
root hair plexus 
round window 
Ruffini’s corpuscle 
saccule
sclera 
semicircular canal 
sensation 
sense organ 
sensory receptor 
sensory tunic 
simple receptor 
sound 
special senses 
spiral ganglion 
stapes 
static equilibrium
superior oblique 
superior rectus
suspensory ligaments 
taste bud
taste pore
tectorial membrane 
thermoreceptor
transduction 
translation 
trochlea (of orbit)
tympanic membrane
utricle
vascular tunic
vestibular apparatus
vestibule 
visceroceptor 
vitreous humor