FORENSIC SCIENCE I - COURSE SYLLABUS
Chesnee High School
Instructor: Deborah Ezell
Contacts: voice: 864 909 2724 webpage: http://www.amoalf.com
school email: home email:
Success in Class is Based on the Following: / Grading Scale:Ø Science Journals/bell work / o A = 90 – 100%
Ø Lab Work / o B = 80 – 89%
Ø Daily & Homework Assignments / o C = 70 – 79%
Ø Unit Tests & Block Exams / o D = 60 – 69% (Failing – No Credit)
Ø Role Play / o F = 59% and below (Failing – No Credit)
Ø
Course Goals and Objectives: By the end of the course each student will be familiar with:
• the history of the forensic sciences and its place in popular culture
• the roles of different types of professionals involved in evaluating a crime scene and the collected evidence
• the methodology of collecting & interpreting data, avoiding contamination, and preservation of chain of custody
• how to present evidence in a professional (courtroom) setting
Participation: Participation is everything! If I see that you are paying attention, trying your best, and getting involved in what we are doing, I will do everything I can to see that you succeed. Get involved every day and I can guarantee you will do well in my class.
Procedures, Rules, and How to Stay a Shiny, Happy Student with a Shiny, Happy Teacher!
Professional Attitude:
To start off, you must approach this class like a professional, adult, college-track student. That means taking personal responsibility for your coursework, and being proactive in earning your grade. For example, you must seek me out and make arrangements for missed work; do not expect me to come running after you and ask you for your assignments.
Use Your Resources:
Your syllabus is a detailed guide to your coursework. Keep it and refer to it regularly. The web page will have copies of all our PowerPoints, and most of our assignments, readings, and references. In addition, extra credit, links to additional materials (like those you will have to use in your Final Research Project), and various images and video will be presented on the web. Use this resource. If you don’t have an internet connection at home, make some arrangements to use our computer lab.
Forensic Science Course Review and Outline
Course Topics and Perspective
Forensic science is the application of scientific knowledge to questions of civil and criminal law. This course is a lab-based, hands-on course that will explore what forensic scientists do. You will learn modern forensic methods and use scientific methods to solve legal problems.
This course will focus on collection and analysis of crime scene evidence (such as serology, toxicology, entomology, odontology and trace evidence), and explore lab analysis techniques, (such as chromatography, DNA analysis, fingerprinting, and hair and footprint analysis).
Forensic scientists are also required to testify in court about their methods and analysis of evidence. To make a convincing case, you need to be able to clearly and concisely explain the results of the labs and techniques you use, and explain the significance of your results in lab reports.
Finally, mock crime scenes will be investigated and real case studies analyzed.
Interdisciplinary Relationships
Forensics is a diverse field, and rarely are forensic scientists “generalists” – people who specialize in all aspects of forensic science. Forget what you see on CSI (insert city here). Forensic scientists don’t wear pumps to a crime scene, they rarely interview suspects or make arrests, and they are not experts in all areas of forensic investigations. Rather, forensic experts usually specialize in one or two branches of forensic investigation.
A botanist may be an expert in forensic botany. An entomologist may be an expert in forensic entomology. Chemists may specialize in forensic toxicology or arson and bomb analysis. People with expertise in physics may focus on firearms and ballistics or blood spatter analysis.
It would be impossible to survey all areas of forensic science in a semester long high school course. Rather, we will explore a range of fields, topics and methodologies to give you a sense of the diverse fields of study in forensics.
Nevertheless, forensic science is an applied scientific discipline, and your success in this course will require you to apply your basic understanding of physics, chemistry, biology and even math to explore the range of topics surveyed.
Forensic Science Course Outline
(Sections are Subject Area Divisions, Not in Sequence)
Section I. Introduction
1. Introduction to the Forensic Sciences
History and Development of Forensic Science
Deductive Reasoning
Organization of a Crime Laboratory
Services of the Crime Laboratory
Functions of the Forensic Scientist
Other Forensic Science Services
Case Study: Detection of Curare in the Jascalevich Murder Trial
2. The Crime Scene
Legal Considerations at the Crime Scene
Securing and Recording the Crime Scene
Evidence Collection Techniques
Chain of Custody
Crime Scene Photography: Proper Documentation of a Crime Scene
Photographic Evidence and Log Recording – Mock Crime Scene Photography
Forensic Archaeology and Buried Remains Recovery
Case Study: The Enrique Camarena Case: A Forensic Nightmare
Mock Crime Scene: Combine Techniques to Process and Document a Crime Scene
3. Forensic Use of the Microscope
The Compound Microscope
The Comparison Microscope
The Stereoscopic Microscope
The Polarizing Microscope
The Microspectrophotometer
The Scanning Electron Microscope (SEM)
Case Study: Microscopic Trace Evidence
The Overlooked Clue: Arthur Koehler, Wood Detective
4. Criminal Justice
Aspects of the Justice System
Aspects of Trials
Section II. Biological Evidence
1. Identifying Human Remains
Identifying the Body: Human or Nonhuman?
Skin Coloration
Defensive Wounds and Other Visible Marks
Postmortem Lividity
Rigor Mortis
Processes of Decay
Bodies Underwater
2. The Medical Examiner and the Autopsy
The Autopsy in History
Defining the Parameters of the Autopsy
Reviewing Autopsy Reports
3. Forensic Anthropology
Introduction to Forensic Anthropology
Human Bone vs. Animal Bone
Skeletal Comparison of Human Males & Females
Ancestry from Skeletal Remains
Determining Types of Trauma from Skeletal Remains
Forensic Odontology
4. Forensic Entomology
Introduction to Forensic Entomology
5. Hair, Fiber and Botanical Remains
Identification and Comparison of Hair
Collection and Preservation of Hair Evidence
Types of Fibers
Identification and Comparison of Manufactured Fibers
Collection and Preservation of Fiber Evidence
Botanical Remains: Pollen, Seeds, and Other Remains
6. Organic Materials Analysis
Selecting an Analytical Technique
Chromatography
Spectrophotometry
Mass Spectrometry
7. Forensic Toxicology
Toxicology of Alcohol
The Role of the Toxicologist
Techniques Used in Toxicology
The Significance of Toxicological Findings
The Drug Recognition Expert
8. Forensic Serology
The Nature of Blood
Immunoassay Techniques
Forensic Characterization of Bloodstains
Stain Patterns of Blood
Principles of Heredity
Forensic Characterization of Semen
Collection of Rape Evidence
9. DNA: The Indispensable Forensic Science Tool
Recombinant DNA: Cutting and Splicing DNA
DNA Typing
Mitochondrial DNA
The Combined DNA Index System (CODIS)
Case Study: The Forensic Community's Response to September 11
10. Fingerprints
Fundamental Principles of Fingerprints
Classification of Fingerprints
Automated Fingerprint Identification Systems
Preservation of Developed Prints
Digital Imaging for Fingerprint Enhancement
11. Forensic Psychology
Mental Deviance
Criminal Profiling
Polygraph Analysis
Section III. Physical Evidence
1. Physical Evidence
The Significance of Physical Evidence
Forensic Databases
Crime Scene Reconstruction
Case Study: Fiber Evidence and the Wayne Williams Trial
2. Physical Properties: Glass and Soil
Physical Properties
Comparing Glass Fragments
Glass Fractures
Collection and Preservation of Glass Evidence
Forensic Characteristics of Soil
Collection and Preservation of Soil Evidence
3. Firearm and Ballistic Evidence
Determining Caliber & Gun Type from Bullets & Shell Casings
Determining Weapons Firing from Gunshot Residue
4. Inorganic Materials Analysis
Evidence in the Assassination of President Kennedy
The Emission Spectrum of Elements
Atomic Absorption Spectrophotometer
The Origin of Emission and Absorption Spectra
Neutron Activation Analysis
X-Ray Diffraction
5. Paint
Forensic Examination of Paint
Collection and Preservation of Paint Evidence
6. Drug Analysis
Narcotic Drugs
Hallucinogens
Depressants
Stimulants
Club Drugs
Anabolic Steroids
Drug-Control Laws
Drug Identification
Collection and Preservation of Drug Evidence
7. Forensic Aspects of Arson and Explosion Investigations
Searching the Fire Scene
Collection and Preservation of Arson Evidence
Analysis of Flammable Residues
Types of Explosives
Collection and Analysis of Explosives
8. Firearms, Tool Marks, and Other Impressions
Cartridge Cases
Automated Firearms Search Systems
Gunpowder Residues
Primer Residues on the Hands
Serial Number Restoration
Collection and Preservation of Firearms Evidence
Tool Marks
Other Impressions
9. Document and Voice Examination
Collection of Handwriting Exemplars
Typescript Comparisons
Inks and Papers
Photocopier, Printer, and Fax Examination
Alterations, Erasures, and Obliterations
Other Document Problems
Voice Examination
10. Computer Forensics
From Input to Output: How Does the Computer Work?
Putting It All Together
How Data Is Stored
Processing the Electronic Crime Scene
Evidentiary Data
Case Study 1. Computer Forensic Analysis Answers the Question "Arson or Accident?"
Case Study 2. Counterfeiting and Fraud: A Forensic Computer Investigation
1