THINGS TO STUDY FOR THE FINAL EXAM

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B

IOLOGY

1030

W

INTER

2009

T

HINGS TO

S

TUDY FOR THE

L

ECTURE

M

IDTERM

The following is a list of topics or concepts that you should know for the lecture portion of the midterm exam. These statements/questions are not meant to be answered in a few words, but rather they are meant to get you thinking about all of the aspects of the topic in question.

You should know and be able to define and use all important terms in the attached list.

This list may seem like a lot, but that is only because it IS a lot. Try to link common terms or themes; there is often considerable overlap between the groups. This is where the table should help or you can make your own.

This guide is not intended to scare you. Many of the terms are easily defined and some concepts are simpler than others. If you can clearly and concisely discuss these points, you are sure to do well. Feel free to come by and see me for help if you need it!

A NIMAL D IVERSITY

1.

What are the animal-like protists?

2.

What is the basic definition of an animal?

3.

Which animals (taxa) have the following: a.

True tissues? b.

Diploblastic versus triploblastic? c.

Protostome vs. deuterostome? i.

Cleavage pattern? ii.

Coelom formation? d.

Continuous vs. step-wise growth? i.

Special structures? e.

Asymmetrical vs. radial vs. bilateral symmetry? f.

Acoelomate vs. pseudocoelomate vs, eucoelomate? g.

Segmentation?

4.

What is the basic body plan for each of the major taxa discussed in class? a.

Are there any specialized cells/structures for each taxa?

5.

Using the molluscan body plan as an example, describe adaptive radiation. a.

Try to apply the idea of adaptive radiation to modifications of a common body plan in other classes we’ve discussed.

6.

What are the basic characters for: a.

The radiate vs. Bilateria? b.

The protostomes vs. Deuterostomes? c.

The Lophotrochozoa and the Edysozoa?

7.

How do we organize the phylogeny of animals?

8.

What are the proposed evolutionary patterns regarding the above traits?

R EPRODUCTION , D EVELOPMENT , F ORM & F UNCTION

1.

Compare and contrast sexual and asexual reproduction. a.

If an animal could choose between them, when would it choose each type?

2.

What are the varieties of parthenogenesis?

3.

What is a hermaphrodite? What types of hermaphrodites are there?

4.

What are the stages of animal development?

5.

Describe the process of gametogenesis. Where does this occur? a.

What are the differences between spermatogenesis and oogenesis?

6.

What events occur during fertilization? a.

Where can fertilization occur?

7.

Compare and contrast oviparity, ovoviviparity and viviparity. a.

What are the advantages and disadvantages of each?

8.

What are the stages seen in embryo development? a.

What major events occur at each stage?

9.

How does yolk affect cleavage?

10.

What are the three types of gastrulation? a.

Why is there a difference?

11.

What are the embryonic tissues and what organs develop from each?

12.

Describe the relationship between form and function.

13.

What are the types of adult tissues? a.

What are the defining characteristics of each?

14.

Discuss the organization of tissues, organs and organ systems.

15.

Discuss the relationship between form and function of epithelia. a.

Try to think about form versus function in the other tissues as well.

M EETING T ISSUE N EEDS

1.

What do cells/tissues need?

2.

What systems do animals use to meet the needs of their tissues?

3.

Compare and contrast the three types of circulatory systems. a.

What are the advantages of each? b.

What are the circulatory fluids in each? Why the difference?

4.

Describe the evolution of the vertebrate circulatory system from fishes to mammals.

5.

What are the basic dietary requirements of all animals? a.

What is an essential nutrient?

6.

What feeding strategies do animals use to obtain food ()? a.

Can you provide examples of each? b.

What is a potential complication with blood feeding?

7.

What is the advantage of ingesting food in pieces rather than whole? a.

How is dentition (teeth) changed to reflect an animal’s diet? b.

How is the intestinal tract modified to reflect an animal’s diet?

8.

What is the difference between a gastrovascular cavity and an alimentary canal?

9.

What enzymes do animals use to digest the food it ingests?

10.

What are some methods animals use to help breakdown cellulose?

11.

How is respiration different from cellular respiration?

12.

How do gases move from place to place? How efficient is this movement? a.

What are the requirements for gases to move across a surface?

13.

What types of respiratory surfaces do animal’s use? a.

When are these strategies employed?

14.

What are the complications of internal respiratory systems and how are they dealt with?

15.

What is meant by a countercurrent exchange mechanism?

16.

Compare the strategies employed by insects and other air breathing animals.

17.

What types of blood vessels are used to move the circulatory fluid? a.

How does their structure reflect their function?

18.

Discuss how the gradients of O

2

and CO

2

promote exchange at the tissues.

19.

In what forms do animals eliminate their nitrogenous wastes? Impact of habitat?

C OORDINATED M OTION

1.

What tissues are required for coordinated motion?

2.

What is the anatomy of a neuron? a.

What are the types of neurons in the body?

3.

Discuss the organization of the nervous system in radially symmetrical organisms versus those with bilateral symmetry.

4.

What is cephalization? What advantages does it have? a.

Why are ganglia and brain advantageous?

5.

Compare and contrast the three muscle types.

6.

What produces a cell’s resting membrane potential?

7.

How do neurons generate action potentials? What is meant by threshold voltage? a.

What channels/pumps are involved? b.

What happens at each stage of the action potential? c.

How do action potentials propagate along the axon? i.

How is conduction velocity increased? ii.

What is saltatory conduction?

8.

What happens at the chemical synapse? a.

How does the target cell membrane potential respond to EPSPs or IPSPs?

9.

How are muscle cells excited?

10.

Describe the sliding filament model of muscle contraction. a.

What is the role of calcium?

11.

What are the requirements for locomotion?

12.

What types of skeletons are found among animals? a.

What types of joints are there? b.

How do muscles move these joints?

13.

Describe the withdrawal and crossed-extensor reflexes.

14.

What are the basic mechanisms of different modes of locomotion seen in the Animal Kingdom?

L ABORATORY C OMPONENT

L

IST OF

I

MPORTANT

T

ERMS

A NIMAL D IVERSITY

Heterotrophic

Autotrophic

Protists

Medusa

Autozooid

Gastrozooid

Dactylozooid Diplontic life cycle

Invertebrates

Vertebrates

True tissues

Gonozooid

Nematocyst/Cnidocyte

Protostome

Deuterostome Parazoa

Eumetazoa

Pinacoderm

Mesohyl

Cleavage pattern

Determinant development

Indeterminant development

Water vascular system Choanoderm

Totipotent

Pincaocytes

Choanocytes

Secondary body symmetry

Lophotrochozoa

Continuous growth

Trochophore Spongocytes

Diploblastic

Triploblastic

Endoderm

Ecdysozoa

Ecdysis

Step-wise growth

Cuticle Mesoderm

Ectoderm

Gastrovascular cavity

1-way gut vs. 2-way gut

Mesoglea

Polyp

Segmentation

Homonomous

Heteronomous

Chelicera

Tagmatization

R EPRODUCTION , D EVELOPMENT , F ORM & F UNCTION

Sexual vs. Asexual

Budding

Gemmules

Fission

Parthenogenesis

Dioecious

Monoecious

Hermaphrodite

Protandry

Protogyny

Gametogenesis

Spermatogenesis

Oogenesis

Isolecithal

Mesolecithal

Telolecithal

Fertilization

Spermatophore

Intromittent Organ

Acrosome

Polyspermy

Fertilization envelop

Oviparity

Ovoviviparity

Viviparity

Cleavage

Spiral cleavage

Radial cleavage

Gastrulation

Invagination

Involution

Immigration

Neurulation

Organogenesis

Head

Trunk

Cephalothorax

Abdomen

Pedicle

Lophophore

Palps

Setae/Chaetae

Parapodia

Adaptive radiation

Muscular foot

Visceral mass

Mantle

Radula

Cephalization

Oral vs. Aboral

Anterior vs. Posterior

Dorsal vs. Ventral

Coelom

Acoelomate

Pseudocoelomate

Eucoelomate

Molecular Phylogenies

Anatomy

Physiology

Epithelium

Squamous

Cuboidal

Columnar

Simple

Stratified

Muscle tissue

Skeletal muscle

Cardiac muscle

Smooth muscle

Nervous tissue

Connective tissue

Extracellular matrix

M EETING T ISSUE N EEDS

Cellular respiration

Diffusion

Gastrovascular Cavities

Open Circulatory System

Sinuses

Ostia

Hemolymph

Closed Circulatory System

Blood

Lymph/Interstitial fluid

Arteries

Capillaries

Veins

Portal Viens

Double Circulation

Pulmocutaneous Circuit

C OORDINATED M OTION

Neuron vs. Nerve

Sensory Neuron

Interneuron

Motor Neuron

Soma

Dendrites

Axon

Ganglion/Brain

Nerve net

Cephalization

Muscle Types

Pumps vs. Channels

Gated-Channels

Resting membrane potential

Threshold

Action potential

Rapid depolarization

Repolarization

Pulmonary Circuit

Systemic Circuit

Essential Nutrient

Vitamins

Minerals

Electrolytes

Osteophagia

Filter feeding

Substrate feeding

Fluid feeding

Bulk feeding

Ingestion

Mechanical digestion

Chemical digestion

Absorption

Elimination

Hyperpolarization

Refractory

AP Propagation

Schwann cells

Myelin

Saltatory conduction

Chemical synapse

Neurotransmitter

EPSP

IPSP

T-Tubule

Sarcoplasmic Reticulum

Troponin

Tropomyosin

Actin

Myosin

Sliding filament

Sarcomere

Teeth

Amylase

Maltase

Sucrase

Lactase

Endopeptidase

Exopeptidase

Lipase

Cellulase

Coprophagy

Respirtatory surface

Cutaneous respiration

Ventilation

Countercurrent exchange

Tracheal system

Endoskeleton

Exoskeleton

Hydrostatic skeleton

Antagonistic Muscle Pair

Flexor

Extensor

Monaxial Joint

Biaxial Joint

Triaxial Joint

Pivot Joint

Jet propulsion

Undulatory motion

Crawling

Longitudinal muscle

Circular muscle

Direct flight

Indirect flight

T

AXA AND

C

OMMON

N

AMES

Y

OU

A

RE

R

ESPONSIBLE

F

OR

*

P

HYLUM

C

LASS OR

S

UBPHYLUM

C

OMMON

N

AMES

Porifera

Cnidaria

Lophotrochozoa

Platyhelminthes

Brachiopoda

Mollusca

Annelida

Ecdysozoa

Nematoda

Arthropoda

Echinodermata

Turbellaria

Cestoda

Trematoda

Articulata

Inarticulata

Polyplacophora

Gastropoda

Bivalvia

Cephalopoda

Polychaeta

Hirudinea

Oligocaeta

Myriapoda

Cheliceriformes

Hexapoda **

Crustacea

Sponges

Corals, anemones, jellyfish

Free-living flatworms

Parasitic tapeworms

Parasitic flukes

Lamp shells

Chitons

Slugs and snails

Clams, scallops, mussels

Squid & octopi

Tube worms

Leeches

Earthworms

Round worms

Centipedes & millipedes

Spiders, scorpions, …

Flies, bees, beetles, …

Shrimp, crabs, lobsters

Asteroidea

Echinoidea

Holothuroidea

Sea stars

Sea urchins

Sea cucumbers

Chordata Cephalochordata

Urochordata

Vertebrata

Lancelets

Tunicates

Fish, amphibians, reptiles, …

* The level of details you will be expected to know will reflect those discussed in class.

This list includes only those names covered in the lectures and may not include all names required from the laboratory component of the course.

** You do not need to know the orders of the insects.

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