May 11, 2024  
2022-2023 Catalog 
    
2022-2023 Catalog [ARCHIVED CATALOG]

Course Descriptions


 Key to Course Descriptions

 Course Description

Abbreviations
 

(C) City Campus F/S Fall and Spring
(N) North Campus SS Summer Session
(S) South Campus F+ Offered every other Fall
F Fall S+ Offered every other Spring
S Spring N Non-Credit

 

Course Outlines

Course outlines for all courses described in this catalog are available for viewing. To explore the general framework of a course design and view the expectations of student performance within a select course click on the link below. These descriptions provide the base upon which instructors build their own course syllabi for the individual sections offered by the academic departments. Individual sections may therefore vary somewhat from the descriptions given in the outlines.

Course Outlines

 

Automotive Technology

  
  • AU 264 - Automotive Engine Performance


    Credit Hours: 2

    The usage of modern testing equipment and techniques for diagnosing, servicing ignition systems and engine control systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • describe the operation of the 4 stroke Otto cycle engine;
    • describe the engine design factors that effect engine performance;
    • describe the effect of atmospheric conditions on the operation of the engine;
    • explain how cylinder conditions require adjustments of air/fuel ratio and ignition timing;
    • describe the effects of compression on engine performance;
    • describe the operation of various common ignition systems; and
    • demonstrate a proven diagnostic procedure.


    Concurrent Registration: AU 265
    F (S)

  
  • AU 265 - Lab for Automotive Engine Performance


    Credit Hours: 2

    Practical application of lecture topics related to the usage of modern testing equipment and techniques for diagnosing, servicing ignition systems and engine control systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • Identify automotive components and systems covered in the lecture curriculum.
    • diagnose and repair automotive engine systems including base-engine, ignition and exhaust;
    • perform various diagnostic tests including compression, cylinder leakage, vacuum, cylinder balance and ignition analysis;
    • retrieve and interpret diagnostic trouble codes from various On-Board Diagnostic systems using both manufacturer and aftermarket interface tools
    • Interpret vehicle data streams using both manufacturer and aftermarket interface tools.
    • perform both manual and automated tests per the appropriate diagnostic flow chart;
    • find and interpret shop manual information for both the diagnosis and repair of computer systems. This includes both printed and online repair information; and
    • verify customer concerns and verify repairs.


    Concurrent Registration: AU 264
    F (S)

  
  • AU 266 - Service and Parts Management


    Credit Hours: 3

    Dealership operations such as personnel management, advertising, financial inventory and scheduling of work. Parts flow and managerial responsibility in the parts business.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • describe the operation of a modern dealership;
    • describe the operation of an independent repair shop; and
    • describe the operation of a parts retailer.


    F (S)

  
  • AU 267 - Automotive Technology Internship


    Credit Hours: 3

    The internship is designed to provide an experience within the automotive industry.  Training will encompass the operations of retail repair businesses, wholesale and retail automotive parts suppliers, or fleet repair facilities.  This work experience will prepare the student for employment in a modern technical workplace.                        

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate appropriate methods of estimating and developing repair order/invoices;
    • function efficiently in the daily tasks of the automotive industry;
    • appreciate the necessity of punctual attendance of employees at a place of business; and
    • promote effective communication within corporate entities.


    Prerequisites: 2.5 GPA minimum, faculty recommendation.
    F/S (S)

  
  • AU 268 - New York State Inspection


    Credit Hours: 1

    The current New York State inspection regulations and procedures. Safety and procedures for testing components related to state inspections. Use of NYVIP System for computerized emission control testing.

    Course Outcomes
     Upon Completion of this course, the student will be able to:

    • utilize the NYS Motor Vehicle Inspection manual to interpret NYS vehicle laws;
    • identify and describe emission control systems pertaining to NYS inspection regulations;
    • identify and describe all mechanical/electrical systems pertaining to NYS safety laws; and
    • utilize NYVIP computer System.


    Concurrent Registration: AU 269
    S (S)

  
  • AU 269 - Lab for Automotive New York State Inspection


    Credit Hours: 1

    Performing the required repairs and test procedures on a vehicle so it will pass a  New York State Vehicle Safety and Emission Inspection. 

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • identify the requirements necessary to operate an approved NYS Inspection station including space requirements, special tools, postings and all required paper work.
    • individual requirements including work application process, work experience requirements, testing, and licensee duties as an inspector.
    • types of vehicles required to be inspected and the different requirements for these vehicles.;
    • perform the safety inspection on a vehicle to include service brake system, parking brake, tires, steering, suspension, front end, chassis, lighting and reflectors, windshield and other glass, mirrors, windshield wipers, horn, seat belts and fuel leaks.
    • perform an emissions inspection on 1996 and newer vehicles including emissions inspection procedures, pre-emissions inspection safety check, effect of failure of OBD II low enhanced emission test, and emission control devices.
    • issuance of certificates of inspection and inspection rejection notices and replacement of inspection stickers.
    • perform the required paperwork for ordering new inspection certificates, returning old certificates for credit, rejection certificates, replacement certificates, refunds and credit.
    • set up and adjustment of headlamps as required using both headlamp aimers and the aiming screen. Including the replacement of aiming components as needed to properly perform the aiming tasks.


    Concurrent Registration: AU 268
    S (S)

  
  • AU 270 - Air Conditioning and Heating


    Credit Hours: 2

    Modern cooling, heating and air conditioning. The diagnosing and repair of temperature control and air flow control of the heating and cooling systems.

    Course Outcomes
    Upon completion of the course, the student should be able to:

    • understand the theory of operation, the basic components and system controls of automotive air conditioning and heating system.
    • the student will understand proper test procedures in establishing corrective diagnosis, relate basic system problems to the appropriate gauge readings and understand proper component service.
    • the student will understand how reciprocating air conditioner compressors operate, know clutch components, various methods of oil checking and servicing. The student will also understand the environmental effects of escaped refrigerant and proper reclaiming and recycling according to state and federal laws.


    Concurrent Registration: AU 271
    S (S)

  
  • AU 271 - Lab for Automotive Air Conditioning and Heating


    Credit Hours: 2

    Practical application of lecture topics related to cooling, heating and air conditioning. The diagnosing and repair of temperature control and air flow control of the heating and cooling systems.

    Course Outcomes
    Upon completion of the course, the student should be able to:

    • Identify components of an automotive air conditioning system.
    • diagnose, inspect, remove and replace, rebuild, clean, adjust, test, and repair air conditioning and heating systems and components.
    • interpret manufacture’s manuals and specifications.
    • select and use proper tools, equipment and materials needed to perform required job tasks.
    • demonstrate the use of special equipment, such as the Recovery/Recycling/Recharging Station in the diagnosis and repairing of air conditioning systems and components.


    Concurrent Registration: AU 270
    S (S)

    See course descriptions of Automotive Technology courses including AU 130, AU 131, AU 160, AU 161, AU 270 and AU 271, all of which are required for the Automotive Trades/ Autobody Repair degree.
  
  • AU 272 - Computer Assisted Mechanisms


    Credit Hours: 2

    The operation and diagnosis of computers controlling automobile operations. This includes Chrysler, Ford Motor Company, General Motors and other domestic vehicles as well as various import vehicle systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • describe the behavior of electricity including voltage, resistance, current and Ohm’s Law;
    • describe the basic operation of a computer controlled system;
    • identify and describe common computer system inputs;
    • identify and describe common computer system outputs;
    • describe diagnostic procedures including scan tool testing and manual testing; and
    • utilize shop references to identify circuits and their operation.


    Concurrent Registration: AU 273
    S (S)

    I removed the name “Daimler”
  
  • AU 273 - Lab for Computer Assisted Mechanisms


    Credit Hours: 2

    The diagnosis and repair of computer-controlled automobile operations. This includes Chrysler, Ford Motor Company, General Motors and other domestic vehicles as well as various import vehicle systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • Identify, diagnose and repair automotive computer systems including powertrain control, body control, lighting control and various chassis control systems;
    • diagnose and repair various network systems including SAE J1850 Pulse Width Modulated, SAE J1850 Variable Pulse Width, ISO 9141, ISO 14230 KWP2000, ISO 15765 Controller Area Network;
    • retrieve diagnostic trouble codes from various On-Board Diagnostic (OBD) systems using both manufacturer and aftermarket interface tools;
    • read OBD data streams using both manufacturer and aftermarket scan tools including handheld and PC based tools;
    • perform both manual and automated computer system tests per the appropriate diagnostic flow chart. Test include manual scan tool testing and testing with handheld Digital Volt-Ohm Meters (DVOMs);
    • find and interpret shop manual information for both the diagnosis and repair of computer systems. This includes both printed and online repair information; and
    • verify customer concerns and repairs.


    Concurrent Registration: AU 272
    S (S)


Automotive Trades: Autobody Repair

  
  • AB 130 - Introduction to Autobody Repair


    Credit Hours: 2

    A study in the various topics of autobody repair, including safety, tools and equipment, vehicle designs and construction, paint systems and future technology.

    Course Outcomes
    Upon completion of this course, the student should know:
     

    • safety and emergency procedures in regards to the Autobody environment;

    • the basic usage and maintenance of tools and equipment; and

    • a strong background in the environmental issues, vehicle designs, paint systems and future technology.



    F (S)

  
  • AB 140 - Detailing


    Credit Hours: 2

    The total cleaning and upkeep of an automobile and its components. This will include the engine and luggage compartments and interior coverings as well as exterior finishes. Steam cleaning, proper use of an electric buffer, as well as compounding, color sanding and waxing of the exterior finish will be included in the course.

    Course Outcomes
    Upon completion of this course, the student should be able to:

    • demonstrate the proper use of tools and equipment;
    • work safely with chemicals and products used;
    • perform various detailing methods and procedures;
    • properly restore on vehicles exterior and interior components with regards to designing and protection; and
    • write a proper lab report.


    F (S)

  
  • AB 150 - Autobody Skills I


    Credit Hours: 2

    Repair of minor body damage. Included will be the repair of dents and scratches, feather-edge sanding and the application of body fillers and undercoats.

    Course Outcomes
    At the completion of this course, the student should be able to:

    • understand how to safely use tools and equipment;
    • know the importance of anti-corrosion coatings and how they work;
    • understand the procedures of using body filler, polyester putty, etc.;
    • distinguish between the different primer classifications, thin applications and uses;
    • understand the various methods of repairing sheet metal damages; and
    • know the steps in repairing minor body damage.


    Concurrent Registration: AB 151
    F (S)

  
  • AB 151 - Autobody Skills I Lab


    Credit Hours: 2

    Repair of minor body damage. Included will be the repair of dents and scratches, feather-edge sanding and the application of body fillers and undercoats.

    Course Outcomes
    At the completion of this course, the student should be able to:

    • use tools and equipment safely;
    • repair minor body damage;
    • apply and finish body filler;
    • prepare for and apply anti-corrosion coatings; and
    • write a proper lab report.


    Concurrent Registration: AB 150
    F (S)

  
  • AB 180 - Introduction to Welding Processes and Applications


    Credit Hours: 3

    This course will include theory and hands on aspects of modern welding methods. Included will be MIG, TIG, Arc/Stick and Oxyacetylene, as well as oxyacetylene and plasma arc cutting of different materials.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate the safe and proper use of welding equipment;
    • perform welds with all of the equipment covered in this course;
    • properly use the various cutting equipment; and
    • demonstrate the proper use of tools associated with welding.


    F (S)

    This course cannot be used for the AAS degree in Automotive Trades/Autobody Repair.

    This course can be used for the Industrial Technology Program and as an open elective for the Liberal Arts Program.
  
  • AB 210 - Autobody Skills II


    Credit Hours: 2

    Repair of major damage. Included will be the repair of sheet metal damage, replacement of body sheet metal, plastic repair and the application of various undercoats in preparation for refinishing.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • understand how to safely use tools and equipment;
    • know the importance of anti-corrosion coatings and how they work;
    • understand the procedures of using body filler, polyester putty, etc.;
    • distinguish between the different primer classifications, thin applications and uses;
    • understand the various methods of repairing sheet metal damages; and
    • know the steps in repairing minor body damage.


    Concurrent Registration: AB 211
    S (S)

  
  • AB 211 - Autobody Skills II Lab


    Credit Hours: 3

    Repair of minor damage. Included will be the repair of sheetmetal damage, replacement of body sheet metal, plastic repair and the application of various undercoats in preparation for refinishing.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • understand how to safely use tools and equipment;
    • know the importance of anti-corrosion coatings and how they work;
    • understand the procedures of using body filler, polyester putty, etc.;
    • distinguish between the different primer classifications, thin applications and uses;
    • understand the various methods of repairing sheet metal damages; and
    • know the steps in repairing minor body damage.


    Concurrent Registration: AB 210
    S (S)

  
  • AB 230 - Frame & Unibody Construction & Repair


    Credit Hours: 2

    The analysis of damage including measuring, anchoring and pulling, straightening, stress relieving and replacement of structural components on both frame and unibody vehicles.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • use tools and equipment safely;
    • analyze damage to both frame and unibody vehicles;
    • measure and anchor a damaged vehicle;
    • pull, straighten, and stress relieve the damage;
    • replace structural components; and
    • restore corrosion protection.


    Concurrent Registration: AB 231
    S (S)

  
  • AB 231 - Frame & Unibody Construction & Repair Lab


    Credit Hours: 3

    The analysis and repair of structural damage including measuring, anchoring and pulling, straightening, stress relieving, and replacement of structural components on both frame and unibody vehicles.

    Course Outcomes
    At the completion of this course, the student should be able to:

    • use tools and equipment safely;
    • analyze damage to both frame and unibody vehicles;
    • measure and anchor a damaged vehicle;
    • pull, straighten, and stress relieve the damage;
    • replace structural components; and
    • restore corrosion protection.


    Concurrent Registration: AB 230
    S (S)

  
  • AB 232 - Body Welding


    Credit Hours: 2

    This course entails the use of MIG welding and plasma arc cutting as used in collision repair. The methods and procedures of restoring structural integrity when replacing welded components will be included along with the different types of welds and joints.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • proper and safe use of MIG welding equipment;
    • the various weld types and their uses;
    • the different weld joints and their applications;
    • proper procedure of replacing structural components;
    • procedures for working with High Strength Steel; and
    • importance of restoration of structural integrity.


    Concurrent Registration: AB 233
    S (S)

  
  • AB 233 - Body Welding Lab


    Credit Hours: 2

    This course entails the use of MIG welding and plasma arc cutting as used in collision repair. The methods and procedures of restoring structural integrity when replacing welded components will be included along with the different types of welds and joints.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • use tools and equipment safely;
    • properly setup and safely use a MIG welder and plasma arc cutter;
    • perform various weld types;
    • perform the different weld joints;
    • properly replace welded body parts;
    • properly replace structural components along with restoring structural integrity; and
    • correctly work with high-strength steel used on today’s automobiles.


    Concurrent Registration: AB 232
    S (S)

  
  • AB 234 - Accessory Service & Repair


    Credit Hours: 1

    Service of all accessories on vehicles, including power windows, power locks, cruise control, power seats, automatic headlight dimmers, exterior and interior trim. ABS brakes and air bags will also be included.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • use tools and equipment safely;
    • diagnosis, service, repair and install the accessories associated with the automobile;
    • diagnosis and repair of Supplemental Restraint System; and
    • diagnosis and repair of ABS Brakes Systems.


    Concurrent Registration: AB 235
    S (S)

  
  • AB 235 - Accessory Service Lab


    Credit Hours: 2

    Service on all accessories on vehicles, including power windows, power locks, cruise control, power seats, automatic headlight dimmers, exterior and interior trim. ABS brakes and air bags will also be included.

    Course Outcomes
    At the completion of this course, the student will be able to:

    • use tools and equipment safely;
    • diagnosis, service, repair and install the accessories associated with the automobile;
    • diagnosis and repair of Supplemental Restraint System; and
    • diagnosis and repair of ABS Brake Systems.


    Concurrent Registration: AB 234
    S (S)

  
  • AB 240 - Refinishing


    Credit Hours: 2

    Techniques and procedures of paint application, single stage as well as two stage (base coat, clear coat) systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • know safety and emergency procedures in regards to automotive paints;
    • know basic usage and maintenance of refinishing equipment; and
    • have a strong fundamental background in the types of paint, the technique and procedures used and the problems and solutions associated with refinishing.


    Concurrent Registration: AB 241
    F (S)

  
  • AB 241 - Refinishing Lab


    Credit Hours: 3

    Techniques and procedures of paint application, single stage as well as two stage (base coat, clear coat) systems.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate appropriate methods of estimating and developing repair orders;
    • demonstrate effective written and oral communication skills;
    • demonstrate the proper use of tools; and
    • demonstrate the application of multiple painting procedures.


    Concurrent Registration: AB 240
    F (S)

  
  • AB 242 - Estimating & Shop Management


    Credit Hours: 3

    Skills required to properly evaluate collision damage and repair, along with the procedures involved in writing a proper damage report and operation of the facilities will be included in this course.

    Course Outcomes
    At the completion of this course, the student will be able to:

    • correctly assess vehicle damage;
    • write an accurate and detailed damage report; and
    • understand the principles of shop management.


    F (S)

  
  • AB 245 - Autobody Repair Shop Internship


    Credit Hours: 3

    This course will be an 8-hour per week in shop hands-on internship. All aspects and topics of autobody repair will be performed by the students.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate safe working practices;
    • perform pre-paint preparation procedures;
    • refinish body panels using basecoat/clearcoat;
    • repair minor body damage including metal straightening, body filler and application of undercoats in preparation for paint;
    • repair plastic body parts;
    • replace body parts;
    • perform unibody/frame set-up, measurement and correction methods;
    • perform various welds and weld joints;
    • complete detailing of a paint finish including color sanding, buffing and polishing; and
    • perform all other areas of collision repair required of any entry level autobody technician not mentioned above.


    S (S)

  
  • AU 131 - Lab for Suspension, Alignment and Brakes


    Credit Hours: 2

    Practical application of lecture topics.  Students will perform repair and adjustment of the steering, suspension and brake systems on modern automobiles and light trucks.  (AU course required for Autobody Major.)

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • inspect a vehicle’s complete brake, steering and suspension system and determine condition of the components and if repair or replacement is necessary.
    • repair a vehicle’s disc brake system. This will include but not be limited to the replacement of the brake pads, machining or replacement of the brake rotors, maintenance of the brake caliper and bleeding of the brake system.
    • repair a vehicle’s drum brake system. This will include but not be limited to the replacement of drum brake shoes, hardware, machining or replacement of the drums, adjustment of the parking brake and bleeding of the hydraulic system.
    • repair a vehicle’s hydraulic brake system. This could include but not be limited to master cylinder, disc brake caliper, wheel cylinder, ABS hydraulic control unit, lines and hoses.
    • repair a vehicle’s wheel, tire and/or wheel bearing. This will include but not be limited to dismounting and mounting of a tire, repair of the tire, balancing of the assembly and the replacement or service to the wheel bearing.
    • repair the front and rear suspension of a vehicle. This could include the springs, shock absorbers, bushings, control arms ball joints or steering knuckles.
    • repair the steering system of a vehicle. This could include but not be limited to the repair or replacement of the steering gear, steering column, power steering pump, steering linkage and the alignment of all 4 wheels of the vehicle.


    Concurrent Registration: AU 130
    S (S)


Banking, Insurance, and Real Estate

  
  • BA 101 - Principles of Bank Operations


    Credit Hours: 3

    A fundamental course in commercial bank operations to give the banker a broad perspective of banking necessary for career development. Topics include banking in the economy, evolution of American banking, bank services, the deposit function, bank relationships with their depositors, check processing and collection, bank bookkeeping, teller functions, investments, trust departments and collections.

    Course Outcomes
    This course examines the role of commercial banks, savings institutions and credit unions in New York State, focusing on checking and savings accounts, credit and debit cards and loan philosophies and procedures. The role of the trust department is also considered.

    F/S (C, N, S)

  
  • BA 230 - Insurance I


    Credit Hours: 3

    A basic survey of the insurance business- introduction to fire insurance, inland marine, ocean marine, public liability insurance and the law of negligence, automotive insurance (no-fault) liability and physical damage.

    Course Outcomes
    This course covers a portion of the subject matter needed to sit for the NYS insurance broker’s exam.

    F/S (C, N, S)


Biology

  
  • BI 101 - Survey of the Biological Sciences


    Credit Hours: 3

    Survey of the Biological Sciences is a course designed for non-science majors to complete a laboratory science course. This course will introduce students to various topics in cellular structure, genetics, botany, zoology and microbiology.  This course does not satisfy the science requirement for liberal arts/ science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • scientific method: Explain the importance and steps used in the scientific method by applying the process to scientific investigations;
    • cell structure: Describe the structure and function of prokaryotic and eukaryotic cells;
    • genetics: Describe the historical development of genetics. Explain the transmission of genetics. Explain the transmission of genetic traits and the use of pedigree charts;
    • botany: Describe basic plant structure and diversity of plants in everyday life;
    • zoology: Describe the steps involved in taxonomy. Compare and contrast organs found in animals at various taxonomic levels; and
    • microbiology: Recognize the role of microbes in the environment and identify current event issues involving microbes.


    Concurrent Registration: BI 102
    F/S (C, N, S)

    Successful completion of high school biology and chemistry is recommended.

  
  • BI 102 - Laboratory for Survey of the Biological Sciences


    Credit Hours: 1

    This laboratory course is designed to complement the lecture course Survey of the Biological Sciences. This course will introduce students to various laboratory activities in cellular structure, genetics, botany, zoology and microbiology.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    1. SCIENTIFIC METHOD
      • explain the importance and steps used in the scientific method;
      • apply the process of the scientific method to scientific investigations and everyday decisions; and
      • using Library resources and personnel, distinguish the steps and methods established by researchers in various scientific publications.
    2. CELL STRUCTURE
      • identify various cellular structures and explain their functions;
      • recognize the various stages of cellular reproduction using the microscope; and
      • recognize the similarities and differences between prokaryotic, plant and animal cells.
    3. GENETICS
      • apply basic genetic terminology to Mendelian Genetics;
      • complete genetic crosses and track traits through multiple generations using virtual software applications;
      • explain the transmission of various genetic traits through multiple allele and sex-linked inheritance; and
      • interpret the inheritance of family traits using pedigree charts.
    4. BOTANY
      • describe basic plant structure;
      • recognize the role of plants in everyday life, from oxygen production to the foodon our tables; and
      • identify the parts and importance of flowers, fruits and seeds of different types of plants.
    5. ZOOLOGY
      • describe the steps involved in taxonomy;
      • recognize the diversity of animals at various taxonomic levels through the dissection of organisms; and
      • identify organs common to and different between animals at various taxonomic levels.
    • MICROBIOLOGY
      • identify prokaryotic and eukaryotic cells, and viruses;
      • determine the role of these organisms in their immediate environment and in the earth’s ecosystems; and
      • explain and demonstrate various techniques students can use to protect themselves and others from medical contamination by working with various organisms in a controlled environment.


    Concurrent Registration: BI 101
    F/S (C, N, S)

    Successful completion of high school biology and chemistry is recommended.

  
  • BI 105 - Human Heredity


    Credit Hours: 3

    A science elective designed for non-science majors. This is a one-semester introductory course which provides an understanding of the principles of human inheritance and how environmental factors may influence inheritance. Current biomedical and biotechnical issues are reviewed.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    At the completion of the course, the student should be able to:

    • patterns of inheritance: Describe and apply the principles of Mendelian genetics to determine patterns of inheritance;
    • the genetic blueprint and gene expression: Compare and contrast the structure and function of the nucleic acids and explain the translation of the genetic code as protein synthesis;
    • mutations and genetic variation: Describe the types of genetic mutations, including an evaluation of the outcomes of this genetic change;
    • genetic varitaion, the environment and natural selection: Explain the relationship between genetic variation and natural selection; and
    • population growth patterns: Describe and discuss the factors affecting population growth patterns.


    F/S (C, N, S)

    This course does not satisfy the science requirement for liberal arts/science majors.

  
  • BI 107 - Human Biology


    Credit Hours: 3

    A science elective designed for non-science majors. Topics will include digestive system and nutrition, genetics and reproduction, nervous system and drugs and survey of disease.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    1. INTRODUCTION TO HUMAN ORGANIZATION AND THE CELL
      • describe the organization of life; and
      • describe the role of the cell as the basic unit of structure and function.
    2. TISSUES/ORGAN SYSTEMS AND CONCEPT OF HOMEOSTASIS
      • detail the four major types of tissues; and
      • explain homeostasis and describe what happens if the body cannot maintain homeostasis.
    3. NUTRITION AND DIGESTION
      • describe and distinguish each of the six nutrient classes based on structure, function and food sources;
      • locate and detail the structures of the digestive system; and
      • associate each structure with its digestive function, contrasting mechanical from chemical digestion where appropriate.
    4. CARDIOVASCULAR SYSTEM
      • discuss the composition of blood, its formed elements and plasma;
      • identify the major structures of the heart; describe their functions;
      • differentiate between the three types of blood vessels; describe the functions of each; and
      • describe the conduction system and cardiac cycle of the heart.
    5. NERVOUS SYSTEM, SENSE ORGANS, AND PSYCHOACTIVE DRUGS
      • describe the basic structure of neurons and the mechanism of nerve impulse transmission;
      • identify and characterize the subdivisions of the nervous system;
      • locate and describe the functions of the major regions of the brain;
      • compare and contrast the effects of subdivisions of the autonomic nervous system; and
      • describe the structures and functions of selected sense organs.
    6. GENETICS AND REPRODUCTIVE SYSTEM
      • describe the relationship of DNA, chromosomes, and genes; relate this to protein synthesis;
      • define basic terminology of Mendelian genetics; apply these concepts to problem solving situations;
      • explain selected genetic disorders in terms of chromosomal abnormalities; and
      • detail the anatomy and physiology of the male and female reproductive systems and describe selected STDs.
    7. HEALTH RELATED ISSUES
      • additional topics may include cancer, immunity, endocrine system, and respiratory system.

     

    F/S (C, N, S)

    This course does not satisfy the science requirement for liberal arts/science majors.

  
  • BI 108 - Practical Horticulture


    Credit Hours: 3

    This is an introductory course which provides a basic understanding of horticulture and applications for home and landscape. Topics covered include plant growth and propagation, use of plant materials, soil chemistry, water and lighting conditions, floral design, landscape history and design, pest control and specialty garden design and planting.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • gardens and history: Describe the basic history of garden design and be able to identify garden elements (derived from Spanish, Italian, Renaissance, French, English and Modern styles). Identify garden types and uses such as ornamental, herb, vegetable, water, butterfly, hummingbird, wildlife, arboretum, etc;
    • introduction to the green plant: Describe various processes in plants such as germination; photosynthesis; vegetative and reproductive growth. Explain various methods of plant propagation such as sexual and asexual. Identify the environmental effects on plant growth such as water, salinity, fungi, atmosphere, temperature, circadian cycles, air, wind and humidity;
    • soil science: Explain the benefits of different types of growth media (soiless mixes, topsoil, hydroponics). Describe soil structure, analyze a soil profile, name nutrients necessary for plant growth and describe the benefits and applications of fast and slow release fertilizers, manures and other fertilizers;
    • growth regulators used in horiculture: Name and describe the uses of auxins, gibberellins, cytokinens, abscissic acid and ethylene in plant production;
    • plant genetics: Identify genetic techniques used in the horticulture industry (tissue culture, biopesticides agricultural production. Discuss the ethical concerns of the use of biotechnology in plant production;
    • pest management: Identify major plant pests such as fungi, weeds, nematodes, rodents, insects, bacteria and fungi. Discuss use of herbicides, insecticides, fungicides and general pesticides including safety procedures for their use (discussion will include what is meant by Integrated Pest Management and examples of cultural, biological, mechanical, genetic and chemical controls);
    • floral design: Describe the history, and basic elements of floral design including the care and handling of fresh flowers (students will have the opportunity to produce a floral arrangement using these principles);
    • plant materials: Define and give examples of annual, perennial, shrub and tree species focusing on those commonly used in Western New York.
    • landscape design: Explain the purposes of landscape design including examples of hardscaping, elements of site analysis and plant material used in landscaping (students will produce a landscape plan for a given site);
    • landscaping maintenance: Describe the process and methods of pruning, describe watering and irrigation techniques,and discuss types of turf and grass species;
    • greenhouse structure: Identify differing structures, coverings, layouts, orientations and temperature and cooling systems used in greenhouses; and
    • horiculture industry: Describe basic areas of horticulture (ornamental, landscaping, interiorscaping, olericulture and Pomology). Discuss career possibilities in the horticulture field including the educational background necessary for jobs as: florists, tree surgeons, turf managers, irrigation specialists, pesticide applicators, horticultural therapists, plant breeders, nurserymen, designers, plant geneticists, crop developers, suppliers, consultants,workers in botanical gardens and arboretums, and research scientists.


    F/S (C)

  
  • BI 109 - Laboratory for BI 107


    Credit Hours: 1

    A science elective for non-science majors to accompany BI 107, Human Biology. The lab will give students hands-on experience in use of the scientific method and common means of analysis used on the human body. This does not satisfy the lab science requirement for LAS Science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:
     

    Scientific Method

    • explain the process of the scientific method; and
    • critically analyze examples of its use.

    The cell and organelles

    • recognize an animal cell; and
    • identify the parts of a cell visible in the microscope.

    Body organization

    • identify the major body cavities and the organs contained in each; and
    • be able to locate major organs of the integumentary, digestive, nervous, circulatory, muscular, respiratory, urinary, skeletal and reproductive systems.

    Basic Chemistry

    • discuss the role of proteins, carbohydrates and lipids in nutrition and body composition;
    • determine pH using standard chemical tests; and
    • observe changes due to osmosis and diffusion in a lab setting.

    Microscopy and Measurements

    • use metric measurement; and
    • use a microscope and identify the function of each part

    Tissues

    • identify representative examples of the four major tissue groups; and
    • name at least two organs and the tissues that comprise them.

    Musculoskeletal System

    • name some of the major bones of the body using a model; and
    • identify a few of the major muscles from a dissection.

    Nervous System and sense organs

    • locate and describe the functions of the cerebrum, cerebellum, brain stem and diencephalon; and
    • perform some tests that determine functioning of vision, hearing and touch.

    Cardiovascular and Respiratory Systems

    • name and locate major structures of the heart;
    • trace the pathway of blood through the heart;
    • recognize the cells of the blood under a microscope; and
    • record results of spirometry tests before, during and after exercise.

    Digestive System and Nutrition

    • list the organs of the alimentary canal and accessory organs giving their characteristics, location and function;
    • assess personal nutritional patterns; and
    • demonstrate an understanding of the importance of good nutrition in overall body health and disease prevention.

    Reproductive System

    • describe the anatomy and physiology of the male and female reproductive systems;
    • discuss the male and female hormones and menstrual cycle; and
    • examine chromosomes and conduct tests on DNA.

     

    Concurrent Registration: BI 107
    F/S (C, N, S)

  
  • BI 110 - Biology I


    Credit Hours: 3

    Consideration is given to the scientific method, cell biochemistry and physiology, cell structure and function, genetics and biotechnology.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • introduction and scientific method: Describe how logic is applied to observation so that the results can be used to create valid scientific models of reality and examine the limitations of science;
    • basic chemistry: Explain basic concepts from chemistry including atomic structure, chemical bonding, functional chemical groups in sugars, amino acids and fatty acids (be able to draw the structure and explain the properties of these molecules), and define pH;
    • cell structure and function: Describe the similarities and differences between plant and animal cells, and the structure and function of cell organelles;
    • plant cells and tissues: Describe the structure and function of typical plant cells and tissues; include the organization of roots, stems and leaves;
    • animal cells and tissue: Describe the structure and function of typical animal cells and describe the four major tissue types;
    • cell membrane and cell wall functions: Differentiate between cell membrane and cell wall, and explain how diffusion, osmosis and active transport are used to transport materials across the cell membrane;
    • biological molecules: Explain the structure and functions of the complex biological macromolecules; carbohydrates, lipids, proteins and nucleic acids. Explain how globular proteins function as enzymes;
    • cell division: Explain the events taking place in the cell during the processes of mitosis and meiosis; compare and contrast mitosis and meiosis;
    • energy mechanisms: Describe how various parts of the cell and mitochondrion are involved in cell respiration. Detail basic mechanisms of glycolysis, the Kreb’s cycle and the electron transport chain. Compare aerobic and anaerobic respiration and photosynthesis; and
    • genetics: Demonstrate the ability to describe Mendel’s Laws and solve Mendelian genetic problems, understand the relationship of DNA, chromosomes and genes. Explain DNA structure,replication and the function of DNA in protein synthesis. Analyze the molecular basis of mutation and briefly discuss biotechnology.


    Corequisites: EN 100
    F/S (C, N, S)

    BI 115 lab is required for all medical laboratory, medical office and science majors and recommended for all others.

    This course is intended for serious science students and will satisfy the requirement for one of the six Lab Sciences.

  
  • BI 112 - Biology II


    Credit Hours: 3

    A survey will be made of humans and other organisms to include the following systems: digestive, circulatory, respiratory, nervous and muscular systems. Animal behavior, evolution and ecology are also discussed. The ecology section will include the human relationship to the natural world and the effects of technology on the ecosystem.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    ANATOMICAL SYSTEMS

    • describe the anatomy, physiology and primary pathologies of the major organ systems of man: respiratory, circulatory, digestive excretory, muscular and nervous; and
    • describe the actions and side effects of commonly used/abused psychotropic drugs.

    EVOLUTION

    • explain the theory of evolution and state the evidence on which it is based;
    • describe the five geological eras and the evolutionary changes associated with each;
    • describe the theory and history of human evolution; and
    • explain the evolutionary basis of ecology.

    ECOLOGY AND POPULATION

    • describe the interactions between organisms and between organisms and their environment: food chains, predator/prey relationships, mineral and nutrient cycles, ecological niches and soil building;
    • describe the history of human population growth and the reasons for the population explosion;
    • explain in detail the consequences of excessive population growth as it effects both developed and underdeveloped countries pollution control, resource management, energy production and food production; and
    • explain problems associated with attempts to limit population growth in various countries.


    Prerequisites: BI 110
    F/S (C, N, S)

    Lab BI 117 is recommended.

  
  • BI 115 - Laboratory for BI 110


    Credit Hours: 1

    The laboratory will include physical and biochemical characteristics of cells, tissues, structure of plants and animals, genetics and DNA analysis.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • microscope: explain proper use and care of the compound microscope; including naming the parts, noting the functions and determining the diameter of field of a microscope;
    • molecular models: construct molecular models and identify major biological molecules and functional groups of organic compounds;
    • plant and animal cells: use models of cells and organelles to compare the anatomy of plant and animal cells;
    • plant cells and tissues: examine and identify the major anatomical features of a plant root, leaf and stem; describe plant organelles (allow students an opportunity to gain first hand observations of these by making slides of an onion, elodea leaf, geranium leaf epithelium, and other living plant cells);
    • animal cells and tissues: use slides of animal cells to study organelles in animal cells; identify twelve major tissues found in the body (noting the location of each) and make drawings labeling major parts of each tissue;
    • physical aspects of life: perform experiments involving the processes of osmosis, diffusion and dialysis; graph the results of these experiments and draw conclusions;
    • chemical aspects of life: perform and interpret results of chemical tests on biological molecules; explain the mode of action of the tests on chemical compounds;
    • enzymes/cell respiration: study the effect of temperature, pH and concentration on enzyme activity;
    • mitosis: differentiate plant versus animal cells during the various phases of mitosis; 
    • Mendelian genetics and corn: explain Mendelian laws of genetics including Mendelian ratios, outcomes of monohybrid and dihybrid crosses; be able to solve genetic problems and perform a Punnett square test and interpret results from data accumulated; and 
    • genetic fingerprinting: explain and apply DNA analysis via gel electrophoresis.

     

    Concurrent Registration: BI 110
    F/S (C, N, S)

  
  • BI 117 - Laboratory for BI 112


    Credit Hours: 1

    The laboratory will deal with vertebrate anatomy and physiology. This will be followed by a study of fundamental ecological techniques.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • cardiopulmanary fitness: explain the implications of cardiopulmonary fitness and the techniques used to measure heart and lung functions;
    • frog and pig disscection: name and recognize the external features and major muscles of the frog, the bones of the frog (and compare to the bones in a human skeleton) and name the internal organs and blood vessels of the frog; name and identify the external features of the head and neck, internal organs, blood vessels and reproductive systems of the fetal pig;
    • shark and sheep dissection; physiology of the nervous system: identify features of the shark ear, sheep and shark eyes; compare and identify features of the shark, sheep and human brains; and
    • bacteriology: demonstrate how to make a bacterial slide, smear, and Gram’s stain; identify the morphology of bacteria seen in the microscope and demonstrate how to test antibiotics against bacteria.


    Concurrent Registration: BI 112
    F/S (C, N, S)

  
  • BI 121 - Zoology


    Credit Hours: 3

    This course will include a phylogenetic survey of the animal kingdom with emphasis on classification, structure and physiological processes using homeostasis as a coordinating concept. Behavioral aspects of living organisms will be discussed.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • scientific method: outline the process of scientific method and give examples of good and poor experimental design;
    • ecology: describe earth’s major ecosystem types and explain the interrelationship of abiotic and biotic factors to animal populations and survival;
    • body plans and classification: explain the terminology and structure associated with germ layer development, and acoelomate, pseudocoelomate, and coelomate body plans. Describe the foundation of classification systems and the rules which govern their use;
    • protozoa, porifera and cnidaria: explain the characteristics used to classify members of the Protozoa, Porifera and Cnidaria including the major physiological activities carried on by these phylums. Determine the impact of protozoa on the health and economics of man;
    • acoelomate and pseudocoelomate animals: explain the characteristics used to classify members of the Platyhelminthes,Rotifera, and Nematoda including their major physiological activities, anatomical organization and adaptation. Describe in detail the role of symbiotic relationships in animal communities and populations. Determine the impact of selected parasites on the health and economics of man, including their life cycles and possible methods of intervention;
    • invertebrate coelomate animals: explain the characteristics used to classify members of the Mollusca, Annelida, Arthropoda, and Echinodermata, their major physiological activities, anatomical, organization, adaptation and their diversity.  Discuss the impact on man of Arthropods including Arthropod borne diseases; and 
    • chordates: explain the characteristics used to classify members of the Chordata, their major physiological activities, anatomical organization (and diversity seen in the subphyla Cephalochordata and Vertebrata).  Describe the ecological niches and  population dynamics of major groups of vertebrates.


    Concurrent Registration: BI 122
    F/S (C, S)

  
  • BI 122 - Laboratory for BI 121


    Credit Hours: 1

    A survey of major representatives of the animal kingdom emphasizing a comparative study of the systems will be covered.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • microscope, classification: demonstrate competency in using the microscope; design a simple classification system for specimens provided for observation;
    • protozoa, porifera and cnidaria: identify the anatomical features of members of these groups and explain various processes such as feeding, defense and body maintenance;
    • acoelomate and pseudocoelomate animals: identify the anatomical features of members of the Platyhelminthes and Nematoda, and discuss the effects of parasites on the population of host animals;
    • invertebrate coelomate animals: identify the anatomical features of members of the Annelida, Mollusca, Echinodermata, and Arthropoda Phyla; analyze the behaviors of these living organisms in relation to their environment and disturbances caused by captivity; and
    • chordates: identify anatomical features of Chordata using shark, perch, mudpuppy, turtle and pig as examples; analyze behaviors of these living organisms in relation to their environment and disturbances caused by captivity.


    Concurrent Registration: BI 121
    F/S (C, S)

  
  • BI 124 - Western New York Flora


    Credit Hours: 3

    This course deals with plant taxonomy including plant collection, identification and herbarium preparation. Some work will be done in the lab and field trips will be arranged to nearby wilderness areas. This course does not satisfy the science requirement for liberal arts/ science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    INTRODUCTION TO PLANT TAXONOMY

    • define taxonomic terms;
    • become familiar with the terms associated with the classification of plants; and
    • explain interrelationship between allied sciences.

    HISTORY OF PLANT CLASSIFICATION

    • describe the history of plant classification;
    • explain classification of plants based on habitat, numbers and phylogeny; and
    • describe other contemporary systems.

    PRINCIPLES OF TAXONOMY

    • distinguish between major and minor categories of classification; and
    • describe the morphological criteria used to determine taxonomy.

    PHYLOGENETIC CONSIDERATIONS

    • explain the significance of phylogeny to taxonomy;
    • describe the phyletic concepts; and
    • discuss contributions to phyolgenetic knowledge.

    CURRENT SYSTEMS OF CLASSIFICATIONS

    • describe the classification system developed by Bentham and Hooker;
    • describe the classification system developed by Engler and Prantl; and
    • describe the classification system developed by Benale, Weinstein, Pulle, Skottsberg, Besey, Haller and Hutchinson.

    FIELD AND HERBARIUM TECHNIQUES

    • Describe how to prepare a specimen for collection;
    • Describe how to collect specimens;
    • Explain how to store specimens; and
    • Discuss how specimens are typed.

    FIELD AND PLANT COLLECTIONS

    • describe the various locations where field trips will be made to collect specimens including Zoar Valley, Botanical gardens, Bog/ecosystems, Forest/ecosystems, Meadow/ecosystems; Sculpture Park - Ashford;
    • discuss the plant identification procedures; and
    • explain the final stages of herbarium preparation.

    HERBARIUM COLLECTION

    • Collect 100 native plants; and
    • Properly identify and label the collected plants including genus and species.


    Concurrent Registration: BI 125
    SS (C, N, S)

  
  • BI 125 - Laboratory for BI 124


    Credit Hours: 1

    This laboratory (BI 125) is designed to supplement and reinforce the subject matter learned in the lecture classes. Students are required to collect and identify native wild plants in the field and identify them as to their genera, species, and family names. Students are required to collect and prepare herbarium specimens for permanent use. A major part of the course is devoted to identifying and learning the common and scientific names of plants, their relationships to each other and their evolutionary diversification.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • identify plants at sight, (learn genus and species, common names, and family names);
    • collect herbarium specimens that represent at least 100 native plants;
    • classify the 100 plants collected using binomial nomenclatures; and
    • identify the salient features of the families represented by the plant specimens collected during field trips.


    Concurrent Registration: BI 124
    SS (C, N, S)

  
  • BI 140 - Human Reproduction


    Credit Hours: 3

    A science elective designed for non-science majors. This course will deal with the production of a new human individual including structure and function of reproductive systems, fertilization, embryonic and fetal development, contraception, sexually transmitted diseases, heredity, birth defects and their causes. This course does not satisfy the science requirement for liberal arts/science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • general concepts in reproductive biology: Describe the structures and functions of a generalized cell, the processes of mitosis and meiosis, and the importance of hormones;
    • structures and functions of reproductive systems: Describe the structures and functions of the reproductive system of the human male and female;
    • fertilization and intrauterine development: Explain the processes of fertilization, implantation and embryonic and fetal growth and development;
    • pregnancy, childbirth nad neonatal changes: Describe the changes in maternal anatomy and physiology during pregnancy, the stages of labor and delivery including childbirth techniques, and medical interventions. Discuss intrauterine diagnostic procedures, the physiological changes occurring to the neonate, and infertility causes and treatments;
    • teratogens and their effects: Discuss various teratogens and their effects on a developing embryo/fetus;
    • contraception and sexually transmitted diseases: Detail the various contraceptive methods available and the relative effectiveness of each method, as well as characterize the major sexually transmitted diseases including their causative agents, transmission, symptomology, and treatments; and
    • classical genetics, molecular genetics and genetic aberrations: Discuss the fundamental concepts of both classical and molecular genetics and describe the major genetic aberrations, their patterns of transmission, and causes, if known.


    F/S (N, S)

  
  • BI 147 - Survey Anatomy and Physiology


    Credit Hours: 3

    A science elective designed for non-science majors. This one-semester course presents basic introductory information on cells and chemistry. An overview of structures and functions of the systems of the human body will be discussed. This course is recommended as a preparation for BI 150 and BI 152 for students who have not had a recent biology course. This course does not satisfy the science requirement for liberal arts/ science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    ANATOMICAL TERMINOLOGY

    • define anatomy and physiology;
    • explain what is meant by levels of organization;
    • apply anatomical terminology to describe body regions, planes, body cavities and directional terms; and
    • define homeostasis and explain its importance to survive.

    BIOCHEMISTRY

    • describe the basic atomic structure;
    • define pH and describe the pH scale and the significance of this to the body; and
    • describe and give the function of the following organic compounds: carbohydrates, proteins, lipids, and nucleic acids.

    CELL

    • state the major cell organelles and the function of each; and
    • detail transport mechanisms across cell membranes.

    HISTOLOGY AND INTEGUMENTARY

    • describe the structure, location, and function of the major tissue types; and
    • detail the structure and function of the skin.

    OSSEOUS TISSUE AND SKELETAL SYSTEM

    • detail the histology of bone tissue;
    • explain bone formation and growth;
    • identify selected bones of the axial and appendicular skeleton; and
    • describe articulations both structurally and functionally.

    MUSCULAR SYSTEM

    • describe the major characteristics of the three types of muscle;
    • detail the histology of skeletal muscle;
    • explain the physiology of muscle contraction; and
    • identify various muscles and give their actions.

    NERVOUS SYSTEM

    • describe the structure and function of the neuron and the neuroglia cells; and
    • become familiar with the structures in the central nervous system.

    ENDOCRINE SYSTEM

    • identify the endocrine glands and selected hormones.

    BLOOD

    • describe RBCs, WBCs, platelets and plasma;
    • explain blood types and Rh compatibility; and
    • discuss blood disorders; anemia, leukemia, sickle cell anemia.

    CARDIOVASCULAR SYSTEM

    • describe the major structures and function of the heart;
    • describe the structure and function of arteries, veins, and capillaries; and
    • briefly describe some disorders of the cardiovascular system.

    RESPIRATORY SYSTEM

    • discuss the major structures in the respiratory system; and
    • locate the major structures and discuss their function.

    DIGESTIVE SYSTEM

    • locate and describe major digestive organs;
    • discuss the functions of the digestive organs; and
    • briefly describe selected disorders of the digestive system.

    URINARY SYSTEM

    • locate the urinary tract organs; and
    • describe the nephron and discuss its function.

    REPRODUCTIVE SYSTEM

    • locate and describe major organs of the male and female reproductive system; and
    • state the function of each reproductive organ.


    F/S (C, N, S)

  
  • BI 148 - Laboratory for BI 147


    Credit Hours: 1

    This one-semester course includes experiments and demonstrations to correlate with lecture topics presented in BI 147.  Models and dissection of preserved specimens are used to illustrate structural concepts.  This laboratory course is recommended for students in certain programs that require a basic understanding of human anatomy and physiology.  Not applicable for Liberal Arts and Science / Science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    BODY ORGANIZATION

    • relate parts of the body by use of the proper directional term;
    • identify body sections, body planes and body cavities;
    • identify the parts of the body by their regional terms; and
    • locate selected organs of each major system on models and describe the system to which they belong.

    MICROSCOPE AND CELLS

    • demonstrate the proper care in handling the microscope;
    • locate and describe the function of each part of the compound microscope;
    • observe and identify selected cells; and
    • observe and identify the ultrastructure of cells on models.

    HISTOLOGY

    • recognize and identify the various types of tissues from microscopic slides;
    • locate each type of tissue and relate structure to function; and
    • apply knowledge of tissue to construct an organ - the skin.

    SKELETAL SYSTEM

    • locate and identify the 206 bones of the body on both the articulated and disarticulated skeletons;
    • locate and identify selected bone markings; and
    • recognize the various types of joints found in the body and the movements at each joint.

    MUSCULAR SYSTEM

    • locate and identify on models the major muscles of the body; and
    • determine the action of each muscle.

    NERVOUS SYSTEM

    • locate and identify the major parts of the spinal cord on models and diagrams;
    • locate and identify the major parts of the brain on models. Dissect a sheep’s brain and compare it to the anatomy of the human brain;
    • locate and identify the anatomical structure of the eye on models.  Dissect a sheep’s eye and compare sheep and human anatomy; and
    • locate and identify the anatomical structures of the ear on models.

    ENDOCRINE SYSTEM

    • locate and identify the major endocrine glands on models; and
    • describe the source and action of selected hormones.

    CARDIOVASCULAR SYSTEM

    • distinguish between a red blood cell, a platelet and the 5 types of white blood cells;
    • type a blood sample and explain the process of agglutination;
    • identify similarities and differences between an artery and vein seen under a microscope;
    • locate and identify major blood vessels on models; and
    • locate and identify major structures of the human heart on models. Dissect a sheep heart and compare the anatomy to the human heart.

    DIGESTIVE SYSTEM

    • locate and identify the organs of the digestive systems on models;
    • review the organic macro molecules; and
    • perform experiments to simulate the process of digestion.

    RESPIRATORY SYSTEM

    • locate and identify the organs of the respiratory system on models; and
    • perform experiments to demonstrate the process of respiration.

    URINARY SYSTEM

    • locate and identify the organs of the urinary system on models;
    • locate and identify the major components of the nephron on models; and
    • observe the results of a urinalysis in terms of normal and abnormal components.

    REPRODUCTIVE SYSTEM

    • locate and identify the major structures of the male and female reproductive systems on models.

     

    Corequisites: BI 147
    F/S (C, N, S)

  
  • BI 150 - Anatomy and Physiology I


    Credit Hours: 3

    A study of general principles of human anatomy and physiology. Topics include structure and function of cells, tissues, the integument, skeletal system and joints, muscular and nervous systems.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    BODY ORGANIZATION AND HOMEOSTASIS

    • define anatomy and physiology;
    • explain what is meant by levels of organization;
    • apply anatomical terminology to describe body regions, planes, body cavities and directional terms; and
    • define homeostasis and explain its importance to survive.

    CHEMISTRY AND BIOCHEMISTRY

    • explain the relationship between elements and atoms;
    • become familiar with basic chemistry;
    • detail organic and inorganic molecules;
    • explain differences between saturated and unsaturated fats; and
    • discuss enzymes and their heat, pH and substrate specificity.

    CELL

    • state the location, structure and function of each of the major organelles of the cell;
    • describe the composition of plasma membrane and explain the “Fluid Mosaic Model”;
    • identify transport mechanisms across cell membranes;
    • discuss isotonic, hypertonic and hypotonic solutions; and
    • state the function of genes. Explain the term “genetic code”.

    TISSUES

    • discuss the structure and function of epithelial, connective, muscle and nervous tissue;
    • differentiate between endocrine and exocrine glands; and
    • classify multicellular exocrine glands by comparing structure and function.

    INTEGUMENT

    • describe the functions of skin;
    • define epidermis, dermis and hypodermis, listing the major layers of each and describe the function of each layer; and
    • discuss structures associated with epidermis, dermis and hypodermis.

    OSSEOUS TISSUE AND SKELETAL SYSTEM

    • state the functions of bones;
    • label and study gross anatomy of a long bone;
    • describe the histology of Haversian system;
    • discuss the chemical composition of bone. What are the purposes of organic and inorganic bone components; and
    • detail bone remodeling and maintenance of bone.

    ARTICULATIONS

    • structurally and functionally classify joints;
    • label and define the parts of a synovial joint; and
    • define and give the common types of movement allowed by joints.

    MUSCLE TISSUE AND MUSCULAR SYSTEM

    • compare and contrast the three types of muscle;
    • describe connective tissue coverings of skeletal muscle;
    • describe histology of a skeletal muscle fiber;
    • explain sliding filament theory; and
    • discuss how muscle cells are stimulated to contract by the nervous system.

    NERVOUS TISSUE

    • state the functions of the nervous system;
    • explain the structural and functional divisions of the nervous system;
    • classify neurons structurally and functionally;
    • define resting membrane potential and describe its electrochemical basis; and
    • describe the importance of the myelin sheath and describe how it is formed in the CNS and PNS.

    SPINAL CORD, SPINAL NERVES AND SPINAL REFLEXES

    • identify and describe functions of the spinal cord;
    • describe structure and function of ascending and descending tracts; and
    • discuss reflexes and describe the components of a reflex arc.

    BRAIN AND CRANIAL NERVE

    • discuss the major  regions of the brain and give their functions;
    • name 12 pairs of cranial nerves and give their function; and
    • describe how the meninges, CSF, and blood-brain barrier protect the CNS. Describe the functional areas of the cerebral cortex.

    AUTONOMIC NERVOUS SYSTEM

    • compare and contrast the two divisions of ANS;
    • describe the effects of cholinergic and adrenergic drugs; and
    • differentiate the effects of SNS and PNS stimulation on selected organs.

    EYE AND EAR

    • identify major structures of the eye and ear and give locations; and
    • describe normal physiology of vision and hearing.

     

    Corequisites: EN 100; BI 147 is recommended for students lacking a science background.
    Concurrent Registration: BI 151
    S (C, N, S)

  
  • BI 151 - Laboratory for BI 150


    Credit Hours: 1

    Experiments and demonstrations reinforce concepts presented in the lecture course.  Models and dissection of preserved specimens are used to study analytical structures.  This lab course is recommended for all students taking BI 150 and is required for students in the health-related professions.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    THE MICROSCOPE

    • demonstrate the proper care in handling the microscope; and
    • locate and describe the function of each part of the compound microscope.

    BODY ORGANIZATION

    • relate parts of the body by use of the proper directional term;
    • identify body sections, body planes, body cavities, abdominal pelvic regions;
    • identify the parts of the body by their regional terms; and
    • locate selected organs of each major system on the models and indicate the system they belong to.

    CHEMICAL LEVEL

    • demonstrate an understanding of dehydration synthesis and hydrolysis reactions; and
    • construct models of important biological molecules.

    CELL STRUCTURE AND FUNCTION

    • perform experiments that demonstrate transport of materials across membranes;
    • make observations, collect and graph data, and explain the results of experiments on transport across membranes;
    • simulate various methods of transport across membranes; and
    • observe and identify the ultrastructure of cells.

    HISTOLOGY

    • recognize and identify the various types of tissues from microscopic and photographic slides;
    • locate each type of tissue and relate structure to function; and
    • apply knowledge of tissue to construct an organ - the skin.

    SKELETAL SYSTEM

    • locate and identify the 206 bones of the body on both the articulated and disarticulated skeletons;
    • locate and identify major bone markings with a representation of each type; and
    • recognize the various types of joints found in the body and the movements at each joint.

    MUSCULAR SYSTEM

    • locate and identify on models the major muscles of the body including representatives of each body movement; and
    • determine the action of each muscle.

    NERVOUS SYSTEM

    • locate and identify the major parts of the spinal cord and the spinal nerves;
    • locate and identify the major parts of the brain; dissect a sheep’s brain and compare it to the anatomy of the human brain;
    • locate and identify the anatomical structures of the eye on models; dissect a sheep’s eye and compare sheep and human anatomy; and
    • locate and identify the anatomical structures of the ear.


    Corequisites: BI148 is recommended for students lacking a science background
    Concurrent Registration: BI 150
    F/S (C, N, S)

  
  • BI 152 - Anatomy and Physiology II


    Credit Hours: 3

    This course is a continuation of BI 150. A study is made of the structure and function of the endocrine, cardiovascular, lymphatic, respiratory, digestive, urinary and reproductive systems. Fluid and electrolyte balance is also studied.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    ENDOCRINE SYSTEM

    • define an endocrine gland and list the endocrine glands of the body;
    • classify hormones as amino acid based or steroids;
    • define the term hormone and explain the mechanism of hormonal action;
    • locate the major endocrine glands in the body, state their hormones and give the action of each hormone; and
    • identify the disorders associated with hypersecretions and hyposecretions of hormones.

    CARDIOVASCULAR SYSTEM

    Blood

    • state the functions, characteristics and components of blood;
    • describe the process of hematopoiesis;
    • state the steps and major factors involved with the clotting process; and
    • describe blood typing and blood disorders.

    Heart and Blood Vessels

    • locate major structures of the heart and trace pathway of blood through the heart;
    • describe the characteristics of cardiac muscle tissue;
    • explain the phases of the cardiac cycle in terms of pressure changes in the chambers;
    • describe the electrical conduction system of the heart;
    • describe the regulation of heart rate;
    • identify major disorders by description; and
    • state the major structural and functional characteristics of arteries, veins and capillaries.

    Cardiovascular Physiology and Circulatory Routes

    • state the formula for cardiac output and calculate cardiac outputs from data supplied;
    • state the formula for blood pressure and identify the factors affecting and controlling blood pressure;
    • list the methods by which venous blood is returned to the heart;
    • differentiate between pulmonary and systemic circulation;
    • locate and identify major blood vessels of the cardiovascular system; and
    • describe fetal circulation and the changes required after birth.

    LYMPHATIC SYSTEM

    • identify the major vessels and nodes of the lymphatic system;
    • trace the lymph flow from the capillary bed to its entry into the cardiovascular system; and
    • identify the other major organs of the lymphatic system, their structure, location and function.

    RESPIRATORY SYSTEM

    • identify the major structures of the respiratory system;
    • describe the mechanism of breathing and gas exchange;
    • identify lung volumes and their capacities;
    • describe the transport of gases in the blood; and
    • identify major disorders by description.

    DIGESTIVE SYSTEM

    • describe the histology of the alimentary tube;
    • describe the structures of the digestive tract and trace the route taken, by food down this tract;
    • describe the location and function of the accessory organs of digestion; and
    • state the major sites of digestion, and enzyme activity in the hydrolysis of foods.

    URINARY SYSTEM

    • locate and identify the major structures of the urinary system;
    • identify the internal and external structures of the kidney;
    • identify the microscopic anatomy of the nephron;
    • trace a drop of blood from the renal artery to the renal vein;
    • describe the process of filtration, reabsorption and secretion;
    • state the factors controlling urine output and identify normal components of urine; and
    • identify major disorders by description.

    FLUID AND ELECTROLYTE BALANCE

    • describe the fluid compartments of the body;
    • identify adjustments to fluid balance;
    • identify the factors affecting acid-base balance; and
    • describe the effect of buffers, respiratory and renal influences in correcting acid-base balance.

    REPRODUCTIVE SYSTEM

    • identify the major male and female reproductive structures;
    • define and describe gametogenesis., fertilization, and implantation;
    • describe the action of male and female hormones; and
    • identify major disorders by description.


    Prerequisites: BI 150
    Concurrent Registration: BI 153
    F/S (C, N, S)

  
  • BI 153 - Laboratory for BI 152


    Credit Hours: 1

    This course includes experiments and demonstrations designed to correlate with lecture topics presented in BI 152. It will include dissection of mammalian systems to illustrate structural concepts.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    ENDOCRINE SYSTEM

    • locate and identify on various models the major endocrine glands and state the hormones secreted by each gland and their function;
    • locate and identify major endocrine glands on a mammalian dissection;
    • identify endocrine disorders from photographs and descriptions; and
    • identify endocrine glands from microscope slides.

    HEMATOLOGY

    • distinguish between a red blood cell, a platelet and the five types of white blood cells;
    • perform a differential count, a hemoglobin determination and a hematocrit and be able to determine normal from abnormal values; and
    • type a blood sample and explain the process of agglutination.

    THE HEART

    • locate and identify major structures of the human heart on models;
    • dissect a sheep’s heart, locate and identify major structures and compare to the anatomy of the human heart;
    • listen to heart sounds using a stethoscope; and
    • identify the components of an ECG tracing and recognize apparent abnormalities.

    CIRCULATORY SYSTEM

    • locate and identify major blood vessels on the various human models;
    • locate through dissection major arteries and veins;
    • identify similarities and differences between an artery and a vein seen under the microscope; and
    • identify major components of the lymphatic system.

    CARDIOVASCULAR PHYSIOLOGY

    • identify various pulse points on the body;
    • measure blood pressure by palpatory and auscultatory methods;
    • calculate mean blood pressure and examine the various factors that affect blood pressure;
    • perform a cardiovascular experiment, collect data and interpret results; and
    • utilize the Schneider Fitness Test and calculate ones score.

    RESPIRATORY SYSTEM

    • state the major lung volumes and their capacities;
    • estimate vital capacity and determine actual vital capacities using a wet and a dry spirometer;
    • perform various respiratory experiments and explain the results;
    • locate and identify major respiratory structures; and
    • identify various respiratory structures seen under the microscope.

    DIGESTIVE SYSTEM

    • perform digestion experiments, collect data and explain the results;
    • locate and identify major digestive structures; and
    • identify the layers of the GI tract seen under the microscope.

    URINARY SYSTEM AND ACID-BASE BALANCE

    • locate and identify major structures of the urinary system;
    • locate and identify the major external and internal structures of the kidney;
    • locate and identify the major components of the nephron on models;
    • perform a urinalysis and determine normal from abnormal values; and
    • perform and explain the results of acid-base and buffer experiments.

    REPRODUCTIVE SYSTEM

    • locate and identify major structures of the reproductive system; and
    • identify states of development in human gestational models.

     

    Prerequisites: BI 151
    Concurrent Registration: BI 152
    F/S (C, N, S)

  
  • BI 156 - Anatomical Kinesiology


    Credit Hours: 3

    This course covers a study of the anatomy of the human muscle/skeletal system with application of the anatomical and mechanical fundamentals of human motion.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • anatomical terminology: Define anatomical position and be knowledgeable of anatomical terminology to describe external features of the body including directional terms/anatomical planes;
    • skeletal system: Identify the components and functions of the skeletal system, describing types and structure of bones and bone markings including components of the axial and appendicular skeleton;
    • articulations: Define an articulation. Classify joints according to both their structure and their function, and describe common body movements. Discuss bursae, tendon sheaths, and joint disorders;
    • muscular system: List the characteristics and functions of skeletal muscle on both the microscopic and macroscopic levels including the identification of the origin, insertion, innervation, and action of various skeletal muscles as well as their naming criteria; and
    • joint and muscle movements of the body: Explain the location, characteristics (components), and function (movements) of the major joints in the body (i.e. shoulder, elbow, wrist, spine, hip, knee, and ankle) and describe the muscles and potential athletic injuries that are involved in each.


    S (C, N, S)

  
  • BI 169 - Nutrition


    Credit Hours: 3

    A science elective designed for non-science majors. A study of the principles of nutrition; nutrients as they relate to the individuals’ daily living; how to plan and evaluate their own dietary intake; and consideration of social, economic and psychological factors in relationship to dietary practices. Weight control, health foods, additives and nutrition for various age levels and conditions of health will be explored.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • introductory concepts: Define nutrients and explain how to utilize various tables, such as RDA, AI and VL;
    • energy nutrients: Describe lipids, carbohydrates and proteins, and analyze personal records of dietary intake;
    • non-energy nutrients: Describe fat soluble, vitamins, water soluble vitamins, minerals and discuss the issues involving supplementation;
    • energy balance: Recognize variations in body composition including underweight, overweight, and obesity. Discuss the cause of eating disorders;
    • applications: Discuss physical fitness in relation to nutrition and exercise. Interpret the information included on Nutrition Information Panels; and
    • other: Utilize available microcomputer hardware and software to collect data for projects.


    F/S (C, N, S)

    This course does not satisfy the science requirement for liberal arts/science majors.

  
  • BI 170 - Laboratory for BI 169


    Credit Hours: 1

    This course will introduce students to various laboratory activities in nutrition, chemistry, biology, and microbiology. No prerequisites, but successful completion of high school level biology and/or chemistry is recommended. This lab does not satisfy the lab science requirement for LA Science majors.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    Scientific Method

    • explain the importance and steps used in the scientific method;
    • apply the process of the scientific method to scientific investigations and everyday decisions; and
    • using Library resources, examine published scientific documents for the steps and methods applied by established researchers.

    Biology

    • identify various cell structures in both plant and animal cells;
    • know the importance and function of these structures;
    • recognize the importance of plant and animal tissues as they relate to nutrition;
    • identify the major food groups that comprise the Food Pyramid. Cite examples for each group; and
    • identify resources for assessing and monitoring dietary intake.

    Chemistry

    • identify the major dietary nutrients: proteins, lipids, and carbohydrates;
    • define and illustrate the chemical composition of proteins, lipids, and carbohydrates; and
    • using dietary software, the student will document and record their dietary intake and assess nutrient/caloric values.

    Microbiology

    • identify prokaryotic and eukaryotic cells, and viruses;
    • identify common microorganisms that contaminant our food sources and their effect on the human body;
    • understand the role of these organisms in the processing, packaging, distribution, and storage of food sources; and
    • recognize the role of organizations that monitor food-borne illnesses.


    Concurrent Registration: BI 169
    F/S (C, N, S)

  
  • BI 178 - Basic Human Physiology


    Credit Hours: 3

    This course covers all the major systems of the body with a special emphasis on nutrition issues and nutritionally-related diseases.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    GENERAL PLAN OF THE HUMAN BODY

    • define anatomy and physiology and explain their interrelationship;
    • compare the levels of organization of the human body;
    • identify the various tissue types in terms of structure, function and location; and
    • describe homeostasis and explain its significance.

    CHEMICAL LEVEL OF ORGANIZATION

    • state the main elements composing the human body;
    • define metabolism; describe anabolic and catabolic reactions;
    • describe the function of the major inorganic molecules and the significance of pH in the body;
    • define and apply the terms “hydrolysis” and “dehydration synthesis”;
    • identify the four major classes of organic molecules; describe the molecular structure and the function of each; and
    • relate each of the classes of organic molecules to their food sources.

    CELLULAR AND TISSUE LEVELS OF ORGANIZATION

    • define the cell as the basic unit of life;
    • define the structure of the cell membrane; list its functions;
    • describe the process by which substances pass through the cell membrane;
    • compare and contrast isotonic, hypertonic and hypotonic solutions; and
    • identify and describe important organelles.

    THE LYMPHATIC SYSTEM

    • describe lymph and lymphatic vessels;
    • describe the method and direction of lymph flow;
    • describe the structure of a lymph node; explain its physiology;
    • state the body’s general defenses against disease;
    • explain the immune response; differentiate between the types of immunity; and
    • explain blood typing, transplant rejection and allergies.

    CARDIOVASCULAR SYSTEM

    • describe the characteristics of blood;
    • state the functions of blood;
    • identify and give the function of each of the components of plasma.Describe red blood cells, white blood cells, and platelets;
    • describe the steps and the various problems involved in blood clotting;
    • describe the external and internal anatomy of the heart;
    • trace the flow of blood through the heart and through the body circuits;
    • describe the conduction system and the outcome of irregularities in this system;
    • identify and locate the heart valves; describe irregularities in blood flow due to faulty valves;
    • describe the types of blood vessels, including function and blood pressure;
    • state factors affecting blood pressure and cardiac output;
    • explain several vessel disorders, such as aneurysm and hypertension; and
    • discuss the effects of diet on the cardiovascular system.

    THE DIGESTIVE SYSTEM AND METABOLISM

    • describe the organs of the gastrointestinal tract; describe the accessory organs;
    • describe the wall of the gastrointestinal tract; describe variations in the wall in each specific organ;
    • differentiate between mechanical and chemical digestion;
    • describe the action of an enzyme; describe each enzyme involved in digestion;
    • describe bile and describe its role in digestion;
    • identify the end products of digestion and explain how each is absorbed;
    • define nutrient; list the types of nutrients and explain the function of each;
    • explain the processes of glucose catabolism and glucose anabolism;
    • explain the metabolic pathways involved in lipid catabolism; in lipid anabolism;
    • explain the metabolic pathways involved in the utilization of amino acids for energy;
    • differentiate between fat-soluble and water-soluble vitamins; describe the function of each; and
    • explain the significance of several minerals in maintaining homeostasis.

    THE URINARY SYSTEM AND ELECTROLYTE BALANCE

    • identify and locate the organs composing the urinary system;
    • describe the anatomy of a nephron;
    • explain the processes of filtration, tubular reabsorption and secretion;
    • state normal constituents of urine;
    • state abnormal components of urine, and explain the clinical significance of each; and
    • describe the role of the kidney in water, pH, and electrolyte balance.

    THE ENDOCRINE SYSTEM

    • identify and locate each of the organs composing the endocrine system;
    • differentiate between endocrine and exocrine glands;
    • state the hormones produced by each gland; explain the physiological significance of each; and
    • describe hormone regulation.


    S (N)

    Reserved for Dietetic Technology students only.

  
  • BI 180 - Radiation Biology


    Credit Hours: 2

    An introduction to and a survey course in human radiation biology. Biological effects of radiation; cellular radiation biology; repair; syndromes and their modification; effect of irradiation on skin; nervous system; organ system; hazards to human fetus; carcinogenesis; genetic damage; sensitivity of human tumors and maximum permissible dose concepts will be explored.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • review of cell biology: Identify important functions of organic and inorganic cell constituents, and of various cell structures and organelles; including explanation of cell division;
    • types of ionizing radiations: Distinguish between ionizing and non-ionizing radiations, and identify sources of electromagnetic and particulate ionizing radiations;
    • specification of radiation quantities: Identify and distinguish between the physical and biologic units of radiation dose;
    • molecular effects of radiation: Identify radiation induced chemical reactions resulting in the production of free radicals, and describe how free radical production causes biologic damage;
    • deposition of radient energy: Define and describe the interrelationship of LET and RBE including factors that influence RBE, as well as the interrelationship between the Oxygen Enhancement Ration and LET;
    • subcellular radiation effects: Identify and describe the types of biologic effects from ionizing radiation exposure at the subcellular level (damage in humans), and state how subcellular radiation effects are expressed in humans;
    • cellular radiation effects: Identify and describe types of radiation - induced biologic effects at the cellular level and state how cellular radiation effects are expressed in humans;
    • individual radiation effects: Define somatic, stochastic and genetic radiation effects and identify specific diseases or syndromes associated with these effects;
    • factors influencing radiation response: Identify methods to measure radiation response; list physical, chemical and biologic factors influencing radiation response, and distinguish between lethal and sublethal response and identify factors which influence response;
    • differentiation, mitotic rate and radiosensitivity: Define radiosensitivity and list factors influencing it; include how the radiosensitivity of tissues relates to mitotic rate and degree of differentiation;
    • CELL SURVIVAL CURVES: Identify various survival curve parameters, and the clinical implications of factors that can influence survival curves.
    • systemic response to radiation: Associate the expected responses to radiation with the appropriate dose levels for blood, skin, digestive, urinary, respiratory, reproductive and nervous systems, and for each of the systems listed, identify factors influencing degree of response;
    • tolerance dose: Define the clinical significance of the concept of tolerance and identify factors that influence tolerance at various sites;
    • acute whole body radiation: Describe conditions which result in a Radiation Syndrome (RS) and possible medical interventions used to modify RS, include the various stages, dose levels and factors that influence response in RS;
    • late effects of radiation: Identify and define possible radiation induced somatic, genetic and stochastic effects in humans;
    • tumor radiobiology: Identify characteristics of malignant growth in vivo and describe the role of oxygen in malignant tumor systems;
    • basic clinical radiotherapy concepts: Define and discuss various concepts (radiosensitivity, radiocurability, radioresistance therapeutic ratio); compare the use of high LET radiations to low LET radiations and indicate the clinical significance of each;
    • other clinical radiotherapy concepts: Describe the clinical significance of the processes of cell repair, repopulation, recruitment and reoxygenation; list types and provide a rationale for treatment fractionation; define and calculate NSD and discuss the implication of NSD in clinical radiobiology (indicate limitations of NSD); describe the concept of tolerance using time/dose models to produce iso-effect curves, and illustrate the interrelationship between time-dose-volume to tolerance and to clinical complications in radiotherapy;
    • chemotherapeutic considerations: Identify chemotherapeutic agents that effect radiation tolerance and response; and
    • hyperthermia: Describe methods used and rationale for hyperthermia treatment, and describe cellular response to heat including the sensitivity cells to heat therapy and the significance to clinical limitation of radiotherapy.


    F (C)

    Reserved for Radiologic Technology students only.
  
  • BI 201 - Internship in Biology


    Credit Hours: 3

    An unpaid internship will give a student the opportunity to explore his/her subject area beyond the bounds of the college’s course offerings.  The student will select the work environment and will work with a SUNY Erie Biology Department adviser/instructor to outline the scope and responsibilities for the internship.  This outline will be presented to the supervisor at the work place for approval before the Internship begins.  The student will receive degree credits for the internship.  Approval of the internship by the Biology Department is required to register for this course.

    Course Outcomes
    Upon completion of this course, the student should be able to:

    • apply experience gained to a work-related setting;
    • identify job possibilities and needs for continued education;
    • prove competency to perform up to standards set by the internship environment;
    • address work-related concerns in a professional manner;
    • show an ability to manage time to complete tasks;
    • communicate effectively in both written and spoken form; and
    • describe experiences garnered during the internship which will aid in career and employment.


    F/S (C, N, S)

  
  • BI 212 - General Microbiology


    Credit Hours: 2

    This is an advanced course dealing with bacteria and other microorganisms (yeasts and molds), their structure and development. The physiology of bacteria, pathogenic organisms and organisms of economic importance are considered.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • introcductory concepts: Discuss microbiology, including history, microscopy, basic chemistry and cell division;
    • microbial nutrition, growth and metabolism: Describe nutrition, growth and metabolism of prokaryotic cells;
    • microbial diversity: Identify prokaryotes and their relationship to human disease. Compare algae, protozoa,slime molds and water molds;
    • microbial genetics: Detail the chemistry of DNA, the molecular basis of mutation and genetic engineering;
    • control of microorganisms: Define and describe sterilization, disinfection and antibiotics, including antifungals and antivirals;
    • microorganisms in the environment: Describe and compare environmental microorganisms. Explain the carbon cycle, nitrogen cycle, sulfur cycle and their relationship to microorganisms; and
    • microorganisms in industry: Discuss microorganisms and their relationship to food spoilage, production of biochemicals, wastewater treatment and bioremediation.


    Concurrent Registration: BI 213
    F (C, N, S)

  
  • BI 213 - Laboratory for BI 212


    Credit Hours: 2

    Two 2-hour periods of laboratory include microscopic technique, isolation, cultivation and experimental applications of microbiology.

    Course Outcomes
    Upon completion of the course the student will be able to:

    • microscope: Demonstrate the proper care and usage of the microscope including oil immersion;
    • laboratory study of algae: Demonstrate methods of cultivation for algae;
    • protozoa: Recognize free living protozoa and parasitic protozoa from prepared slides and living materials;
    • microscopic study of microbes: Identify specimens from nature (water, soil, etc.), including yeast and molds;
    • cultivation of bacteria and other microorganisms: Perform pure culture isolation using streak plate and pour plate techniques and analyze broth and agar cultures;
    • bacteriological staining methods: Perform a simple stain, gram stain, and spore stain;
    • enzymatic reactions of microorganisms: Demonstrate the enzymatic reactions associated with carbohydrates, proteins lipids, and amino acids. Perform procedures isolating respiratory enzymes; and
    • isolation and identification of bacterial cultures: Perform techniques using differential plating and selective plating.


    Concurrent Registration: BI 212
    F (C, N, S)

  
  • BI 220 - Genetics


    Credit Hours: 3

    A study of the principles of genetics, including Mendel’s Laws, chromosomal theory of heredity, molecular genetics, gene regulation and behavioral genetics with emphasis on human genetics and cytogenetics.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • introductory concepts: Describe the history of genetics beginning with prehistoric times and ending with the advent of molecular genetics;
    • mendelian genetics: Describe Mendel’s early experiments and clarify how genetics is explained by the laws of probability;
    • sex determination and sex chromosomes: Explain the importance of the X and Y chromosomes in relation to sexual determination;
    • quantitative genetics: Analyze the findings that led geneticists to postulate the multiple factor hypothesis that involved the idea of additive alleles to explain inheritance pattern;
    • chromosome mutation: Define nondisjunction, monosomy trisomy, polyploidy, deletions, duplications, inversions, and translocations;
    • chromosome mapping in eucaryotes, bacteria and bacteriphage: Describe mapping using Drosophila and explain the effects of recombination in bacteria;
    • DNA: Analyze the differences and similarities between DNA and RNA;
    • recombinant DNA technology: Define genomics, bioinformatics and proteomics. Discuss the applications and ethics of biotechnology;
    • genetic basis of cancer: Describe tumor suppressor genes, proto-oncogenes and chromosomal translocations as a hallmark of leukemia. Detail colon cancer as a genetic model of cancer; and
    • miscellaneous genetic topics: Analyze the relationship between genetics and populations, including natural selection, mutation, migration, genetic drift, and nonrandom mating. Also detail the relationship between genetics and evolution, and genetics and conservation.


    Prerequisites: Any college-level biology course, including lab.
    Concurrent Registration: BI 221
    SS (S)

  
  • BI 221 - Laboratory for BI 220


    Credit Hours: 1

    Students use fruit fly, bacterial and fungal cultures to gain an understanding of genetic principles. Human cell cultures are extensively used for chromosome studies.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • drosophila and maize experiments in genetics: monohybrid crosses: Describe experiments using Drosophila melanogaster and maize that led to Mendel’s law of segregation;
    • drosophila and maize experiments in genetics: dihybrid crosses: Understand the experimental and theoretical basis for independent assortment;
    • principles of probability: Relate the laws of probability to the study of genetics especially with respect to pedigrees and consanguineous marriages;
    • chi-square test: Understand the meaning and application of the chi-square test;
    • meiosis in angiosperms: microsporogenesis and megasporogenesis: Understand the basic features of meiosis in maize microsporogenesis and (lily or other) megasporogenesis.  Describe alternation of generations as it applies to angiosperms;
    • human chromosomes: Describe normal and aberrant structure of chromosomes with respect to size, location of centromeres and possible presence of satellites.  Prepare a karyotype of human leukocyte chromosomes;
    • linkage and crossing over: Go over various techniques such as three point linage data and in situ hybridization for gene mapping and DNA sequencing.  Note how these techniques are used to reveal chromosome rearrangements;
    • open-ended experiments using drosophila: locating a mutant gene in its chromosome: Analyze F1 and F2 data resulting from Drosophila experiments in which the genetic traits are given to the students as unknowns and write a scientific paper following a suggested format to summarize a Drosophila experiment;
    • genetic material: isolation of DNA: Extract DNA from beef spleen or liver; describe the appearance of, and quantify (in milligrams gram of tissue) the DNA so extracted;
    • amplification of DNA polymorphisms by polymerase chain reaction and DNA fingerprinting: Discuss the principles upon which PCR chain is based, and outline a procedure for conducting the polymerase chain reaction.  Apply this to the analysis of a human fingerprint based on the PIS80 LOCUS;
    • transformayion of escherichia coli: Describe plasmids and bacteriophages, and how they relate to the generation of recombinant DNA and transformation.  Outline a procedure for determining the relative efficiency of linear vs. circular DNA in producing transformation;
    • bacterial mutagenesis: Describe the differences between spontaneous and induced mutations including the induction of mutation by ultraviolet light and the significance of DNA repair mechanisms;
    • population genetics: the Hardy Weinber Principle: Calculate the gene (allele) frequencies for a population sample in which each of the genotypes AA, Aa and aa have a unique phenotype, and calculate the frequencies of the allele A and aa individuals in a population sample; and
    • applied human genetics: List at least ten human single-gene traits and indicate the mechanism of inheritance.  Prepare and analyze a human pedigree to illustrate the pattern of inheritance of a single-gene trait and discuss the electrophoresis of hemoglobin variants and the significance of this procedure for understanding single-gene traits.


    Concurrent Registration: BI 220
    SS (S)

  
  • BI 225 - Botany


    Credit Hours: 3

    An introductory course designed to provide a basic understanding of plant structure and function. Classification, morphology, life cycles and evolution of algae, fungi, mosses, ferns, pines and flowering plants are discussed. Special emphasis is placed on flowering plant functions such as photosynthesis, respiration and plant hormones.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    HISTORY OF BOTANY

    • describe the major areas of botanical research including the development of plant uses in medicine, geography, ecology, and aesthetics. Explain how this research has affected culture.

    CELL STRUCTURE, MITOSIS AND MEIOSIS, TISSUE TYPES

    • compare and contrast plant and animal cells with respect to mitosis and meiosis; and
    • describe life cycles and maintenance of plants.

    ROOTS, STEMS, LEAVES, FLOWERS AND FRUITS

    • describe the major differences between members of the monocotyledonae and the dicotyledonae, with respect to roots, stems, and leaf tissues; and
    • compare and contrast differences in flower, fruit types, and pollination mechanisms.

    SOILS, METABOLISM, AND GROWTH

    • describe origins of major soil types; recognize the effect of soil type on development of ecosystems and cultures;
    • explain the processes of photosynthesis and respiration; and
    • discuss the physiological effects of hormones in plants and how they are utilized in agriculture and horticulture.

    CLASSIFICATION, PROTISTA AND FUNGI

    • describe the five-kingdom system of classification and how to use the foundational rules of binomial nomenclature;
    • identify the structure and life cycle of representative members of the Protista and Fungi kingdoms; and
    • discuss the effects of these organisms on medicine and food production.

    SURVEY OF NON-FLOWERING PLANTS

    • identify structures and describe life cycles of representative members of the Bryophyta, Psilophyta, Lycophyta, Sphenophyta, Pteridophyta and Coniferophyta; and
    • discuss how members of the above groups have affected man historically and technologically.

    SURVEY OF FLOWERING PLANTS

    • explain the process of double fertilization and seed development in monocots and dicots.


    Concurrent Registration: BI 226
    F/S (C, S)

  
  • BI 226 - Laboratory for BI 225


    Credit Hours: 1

    This lab emphasizes plant morphology and anatomy of both lower and higher plants.  Lab experiments include work on plant anatomy and physiology, taxonomy and ecology.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • microscope, cell structure, tissues, mitosis and meiosis: Understand how to use compound and dissecting microscopes and use them to identify plant cell structures and, identify the stages of mitosis and meiosis;
    • roots, stems, leaves, flowers and fruits: Differentiate between monocot and dicot plant parts by structure, identify various plant tissues and, identify fruit types, development, and probable pollination mechanisms and pollinators;
    • soils, metabolism and growth: Determine soil type of a soil sample and discuss effects of soil type, light conditions and plant hormones on plant growth;
    • classification, protista and fungi: Identify members of Protista and Fungi through anatomical study;
    • survey of non-flowering plants: Identify anatomical structures of representative members of Bryophyta, Lycophyta, Sphenophyta, Pteridophyta, and Coniferophyta; and
    • survey of flowering plants: Identify stages of double fertilization and seed development in flowering plants.


    Concurrent Registration: BI 225
    F/S (C, S)

  
  • BI 230 - Microbiology


    Credit Hours: 3

    This course deals with the microorganisms such as yeast, molds, viruses, protozoa and bacteria with emphasis on the study of bacteria. The anatomy, physiology, ecology, economic importance and pathogenicity of these microorganisms will be included. Classifications of these microbes and the diseases produced by these organisms will be studied. Immunity, antigen-antibody reactions, sterilization methods and methods for cultivation of microorganisms will be covered.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    INTRODUCTORY CONCEPTS

    • define Microbiology, Microorganisms, Medical Microbiology Disease and Infectious Disease;
    • list and characterize the different groups of microorganisms in relation to cell structure organization, size and disease association; and
    • list the metric units of measurement used for microorganisms, and knowthe difference.

    HISTORY OF MEDICAL MICROBIOLOGY

    • recognize various early theories of disease causation;
    • recognize the names and contributions of key people in the developmentof medical microbiology;
    • list and describe Koch’s Postulates, identify the importance and explain their limitations; and
    • identify contributions of Koch and coworkers to the field of clinical diagnostic microbiology.

    CLASSIFICATION

    • define taxonomy.
    • identify the taxonomy groups for living things and classify groups of microbes within the hierarchy of living things. Recognize and identify contributions of early taxonomists such as Linnaeus and Whittaker;
    • recognize and be able to correctly write the scientific name of living organisms;
    • compare and contrast the overall cell structure of prokaryotes and eukaryotes;
    • recognize and relate to the cellular components of eukaryotic cells to the chemical composition, location, function, and the function of each structure;
    • recognize and relate the cellular components of prokaryotic cells to the chemical composition, location, function and clinical significance of each structure; and
    • identify and use the correct bacteriologic terminology to describe the basic shapes and arrangements of bacteria.

    OBSERVING THROUGH A MICROSCOPE

    • describe how to prepare a smear of microbes for staining purposes and examining with a microscope;
    • compare simple, differential and special stains;
    • list the steps in performing a Gram stain. Describe the function of each reagent and describe the appearance of Gram-positive and Gram-negative bacteria after each step. Be able to “troubleshoot” to explain procedural errors; and
    • explain why each of the following stains is used and briefly explain the rationale of each stain: acid-fast, negative, spore, and flagella.

    MICROBIAL GROWTH AND METABOLISM

    • list and explain the growth requirements for microorganisms;
    • list and explain the conditions for growth needed by microorganisms such as temperature, osmotic pressure, and gaseous. Use the appropriate terminology to describe organisms preferring those conditions;
    • compare and contrast metabolic energy-yielding pathways such as aerobic respiration, anaerobic respiration, and fermentation in relation to the definition of each pathway, the major sets of chemical reactions involved, the end-products and the relative amount of energy produced;
    • define culture media and describe various types of media such as chemically defined and complex. List the raw materials that are used to prepare complex media. Describe the uses for media such as all-purpose, enriched, selective, differential, biochemical test, and reducing media and give examples of each type of medium;
    • define terms such as binary fission, exponential growth, generation time, and population growth curve;
    • explain the phases of a bacterial population growth curve. Recognize each phase and explain the dynamics occurring in each phase; and
    • explain how to determine the number of viable bacteria in a sample. Calculate the number of bacteria in an original specimen from a standard plate count.

    CONTROL OF MICROBIAL GROWTH

    • define terms relevant to hereditary material;
    • describe various mechanisms whereby microorganisms acquire new genetic information; compare and contrast each mechanism; and
    • give examples of the clinical relevance and applications of each mechanism.

    CONTROL OF MICROBIAL GROWTH

    • define terms associated with methods of controlling microbial growth;
    • identify various physical methods of controlling microbes and explain how each exerts its effect on microbes; relate each method to an application;
    • list the factors affecting the effectiveness of chemicals. Give examples of specific chemicals, their use and action against microbes; and
    • apply the information on physical and chemical control to appropriate situations.

    ANTIMICROBIAL DRUGS

    • name key people and their contributions to the development of antimicrobial drugs;
    • define terms related to antimicrobial drugs; match specific antibiotics to the group of microbes that produce them; define the action and spectrum of antimicrobial drugs. Describe specific modes of action of antimicrobial drugs; relate each to the degree of selective toxicity and give examples of drugs thatexert that mode of action; and
    • describe potential complications of using antimicrobial drugs.

    PRINCIPLES OF DISEASE

    • define terms related to infectious diseases;
    • describe various ways whereby diseases can be spread;
    • list events in the development of a disease; and
    • classify infectious diseases according to duration, severity and incidence.

    MECHANISMS OF PATHOGENICITY

    • define terms related to pathogenicity;
    • describe the portals of entry and exit of microbes; and
    • list and describe the pathogenic properties of microbes and give examples of diseases that are associated with these.

    HOST DEFENSE

    • define terms related to host defense;
    • describe various types of host defense mechanisms including external and internal non-specific mechanisms; give examples of how each protects against disease;
    • recognize names of contributors and their work in the development of immunology. Compare and contrast humoral and cellular immunity in relation to organs, cells, their products, function and mechanism of action. Distinguish between different types of immunity;
    • give examples of different immunodeficiencies and explain the consequence of such defects; propose treatments; and
    • describe immediate and delayed hypersensitivity in relation to allergens, mediators, mechanism, treatment and prevention.

    MEDICAL MICROBIOLOGY

    • for each major group of pathogenic microbes, describe their characteristics, major disease associations, pathogenesis, host response, treatment, prevention and laboratory diagnosis; and
    • differentiate between the various pathogenic microbes in relation to cell type, organization and pathogenesis.


    Prerequisites: Any college-level biology course including lab. BI 150-151 are recommended.
    Concurrent Registration: BI 231
    F/S (C, N, S)

  
  • BI 231 - Lab for BI 230


    Credit Hours: 1

    This lab will give students experience in methods of isolation and aseptic techniques as well as enabling them to identify the microbes in the world around them.

    Fulfills SUNY General Education – Natural Sciences.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    SAFETY PROCEDURES AND PRECAUTIONS / USE OF THE MICROSCOPE

    • discuss and follow the safety regulations in the microbiology laboratory;
    • demonstrate the proper care in handling the microscope;
    • locate and describe the function of each part of the compound microscope;
    • use the microscope to observe prepared slides;
    • review the steps of the scientific method; and
    • complete assigned laboratory reports.

    SURVEY OF MICROBIAL CELLS

    • use the microscope to examine prepared slides of various microorganisms and use the correct terminology to describe shapes and arrangements of bacteria;
    • prepare a wet mount of microorganisms and observe for motility and distinguish true motility from other movements such as Brownian Movement and streaming;
    • compare prokaryotic and eukaryotic cells; and
    • complete assigned laboratory reports.

    ASEPTIC TECHNIQUE

    • describe the procedures and principles of aseptic technique as it pertains to the microbiology laboratory;
    • using aseptic technique, transfer cultures of bacteria (broth, agar slant and agar plate cultures);
    • demonstrate the proper way of performing a streak plate culture for isolation of bacteria and perform a 3-way streak;
    • culture microorganisms from various environmental sources; and
    • complete assigned laboratory reports.

    EXAMINATION OF CULTURES

    • describe the characteristics to look for when looking at cultures of bacteria;
    • examine cultures prepared by students and demonstration cultures;
    • describe the colony characteristics using the correct terminology;
    • compare colony morphology of environmental plate cultures with known cultures; and
    • complete assigned laboratory reports.

    SMEAR PREPARATION AND STAINING

    • describe the procedures for preparing smears from broth and agar media;
    • properly prepare smears of various specimens for subsequent staining;
    • perform a simple stain and examine the smear;
    • perform a Gram stain using the appropriate control cultures to check for accuracy in results and examine the smears;
    • perform an endospore stain and examine the smear;
    • perform a negative stain and examine the smear;
    • perform an acid-fast stain and examine the smear; and
    • complete assigned laboratory sheets.

    CONTROL OF MICROBIAL GROWTH

    • test the effectiveness of various antiseptic and disinfectant chemicals against gram positive and negative bacteria, and interpret the results;
    • prepare Kirby Bauer plates comparing gram positive and negative bacteria;
    • observe and measure antibiotic susceptibility using Kirby Bauer agar plates, and interpret the results;
    • emphasize the purpose of hand washing/scrubbing through experimentation; and
    • complete assigned laboratory sheets.

    APPLIED MICROBIOLOGY

    • describe the role of microorganisms in food spoilage; and
    • perform a standard plate count on a food sample to determine the number of bacteria in a sample.

    PARASITOLOGY

    • describe the basis of classifying protozoa and give examples of representative protozoa in each group;
    • observe prepared slides of representative protozoa;
    • describe the basis of classifying parasitic worms and give examples of representative parasitic worms in each group;
    • observe prepared slides and macroscopic specimens for representative parasitic worms and their microscopic structures as ova; and
    • complete assigned laboratory sheets.

    MYCOLOGY

    • isolate environmental fungal organisms;
    • describe the basis of classifying fungal organisms and give examples of representative organisms;
    • observe the macroscopic and microscopic morphology of representative mold and yeast organisms;
    • prepare simple stain of yeast species; and
    • complete assigned laboratory sheets.

    DIAGNOSTIC MEDICAL MICROBIOLOGY

    Note: The instructor may choose different laboratory exercises to emphasize procedures used in the clinical laboratory.  Examples of exercises on normal and pathogenic bacteria include utilization of biochemical tests such as Triple Sugar Iron tubes, Citrate Utilization test, Urease test, Motility test, selective and differential media such as mannitol salt agar plates, blood agar plates, MacConkey agar plates and Eosin Methylene Blue agar plates.

    BACTERIA OF THE RESPIRATORY TRACT

    • obtain a throat and nasal specimen for culture;
    • examine culture results and describe the colony morphology;
    • differentiate the genera Staphylococcus from Streptococcus on the basis of microscopic morphology and the catalase test; 
    • students speciate these two genera using biochemical and other appropriate tests, such as mannitol salt plate, blood agar hemolysis plates, bacitracin and optochin disk susceptibility tests; and
    • complete assigned laboratory sheets.

    BACTERIAL OF THE GENITOURINARY TRACT

    • obtain a urine specimen for culture;
    • examine and interpret test results based on colony counts;
    • identify selected organisms that are representative organisms (normal and pathogenic) associated with the genitourinary tract using biochemical tests and differential/selective media stated above; and
    • complete assigned laboratory reports.

    IDENTIFICATION OF AN UNKNOWN BACTERIUM

    • determine the Gram reaction, cell-shape and arrangement and colony morphology of an unknown bacterium;
    • determine the physiological characteristics of an unknown bacterium utilizing the biochemical tests and differential media described above; and
    • critically analyze and identify an unknown bacterium through experimentation.

     

    Concurrent Registration: BI 230
    F/S (C, N, S)

  
  • BI 241 - Pathophysiology


    Credit Hours: 3

    An elective for students in the health related professions.  This course provides an understanding of the physiology of disease based on detailed knowledge or normal physiology.  Disorders include selected systems including cardiovascular, digestive, nervous, pulmonary, immune and renal will be discussed.

    Course Outcomes
    Upon completion of the course, the student will be able to:

    • define cellular adaptation and injury;
    • compare and contrast acidosis vs. alkalosis;
    • define the common immune disorders;
    • identify the properties of tumor growth and progression;
    • explain how pathophysiology can impact cardiac disease;
    • describe how pathophysiology can impact respiratory disease;
    • summarize the causes of the signs and symptoms in selected GI and Endocrine disorders;
    • identify the causes of the signs and symptoms of renal dysfunction;
    • list signs and symptoms of major neurovascular disorders; and
    • explain how pathophysiology can impact musculoskeletal disorders.


    Prerequisites: BI 150, BI 152
    F/S (C, N, S)

  
  • BI 254 - Anatomy of the Eye


    Credit Hours: 2

    A detailed study of the composition of the eye and its associated structures such as the orbit, lids, lachrymal apparatus and muscles will be explored. This course also includes study of the visual pathway.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • state the location and function of each of the anatomical parts of the eye;
    • detail the histologic structure of each of the anatomical parts of the eye;
    • state the micro-anatomical structure of the parts of the eye as well as the functions of each;
    • describe the relationships of the structures of the eye to one another; and
    • state the relationship of the eye to the orbit and to the appendages of the eye.


    F (N)

    Reserved for Ophthalmic Dispensing students only.
  
  • BI 255 - Physiology of the Eye


    Credit Hours: 2

    A study of visual function including information processing, photoreceptor function, color vision, binocular vision, ocular motility, ocular nerves, blood supply and ocular pharmacology will be discussed.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • review the location and function of each of the anatomical parts of the eye;
    • understand the components of the eye exam S.O.A.P format;
    • recognize and explain Physiologic Optics and refractive error as it relates to the anatomical structures of the eye as well as the physiology behind it;
    • comprehend the physiology of Binocular Vision and the various problems that can occur to disrupt it;
    • recognize the relationship of common clinical complaints to the physiology of the eye;
    • understand the basics of Ocular Motility and the anatomical components involved, for example the Extra-ocular muscles names, location, type of movement and innervation; and
    • comprehend the eye examination process and the physiology behind the various tests and findings.


    S (N)

    Reserved for Ophthalmic Dispensing students only.

Biotechnological Science

  
  • BT 101 - Introduction to Biotechnological Science


    Credit Hours: 3

    This course is designed to provide a basic overview of the biotechnology and food industry. It will provide a thorough understanding of the organizational structure of a manufacturing facility and the steps involved from discovery to commercialization. This course will provide exposure to the basic principles and will provide a better understanding of career opportunities and possibilities.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate an understanding of the process of manufacturing from bench to commercialization;
    • recognize the differences between food processing and pharmaceutical manufacturing;
    • demonstrate an understanding of the process of commercialization in the industry;
    • obtain a thorough understanding of the quality control systems; and
    • identify career and employment opportunities.


    F,S (N)

  
  • BT 102 - Intro to the Biotechnology of Cannabis Science


    Credit Hours: 3

    This course emphasizes the history and cultural impact of Cannabis sativa and other cannabis species. The semester will focus on political changes within the science and how these changes are affecting our society. This is including legalization of cannabis both recreationally and medicinally. The course will also look at cannabinoids that can be used and other general uses of the plant.

    Course Outcomes
    Upon completion of this course, the student will be able to: 

     

    • Understand the historical significance of cannabis within society;  
    • Identify botanical characteristics of Cannabis sativa and other cannabis species;  
    • Know the legality of cannabis use both at a state and federal level;
    • Understand current medical uses for cannabis, ongoing research basic chemistry of cannabinoids; and 
    • Be able to explain non-medicinal uses for cannabis.  


    F/S (N)

  
  • BT 105 - Quality Control Science


    Credit Hours: 3

    This course emphasizes the fundamental skills needed to work in a biotechnology or food processing facility. Students will learn to perform Quality Control procedures and laboratory skills such as pipetting, preparing solutions, measuring weights and volumes, aseptic technique and sensory evaluation.They will also perform pH testing, water activity, viscosity and specific gravity activities.  Students will gain an understanding of biosafety, following and writing Standard Operating Procedures (SOPs) and regulatory principles necessary for medical devices, pharmaceutical or food processing facilities and operations. 

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • perform basic laboratory skills that include calculating test sample dilution series and following protocols for preparing buffers, reagents, and media;
    • perform various laboratory techniques such as titration, pipetting, measurement of weights and volumes, pH, water activity, viscosity and specific gravity measurement;
    • follow appropriate safety procedures and laboratory guidelines;
    • demonstrate an understanding of Safety Data Sheets (SDS), lab safety while recognizing laboratory hazards;
    • maintain and utilize safety equipment and Personal Protection Equipment (PPE);
    • identify direct causes of technical or instrumental problems and make appropriate corrections using pre-set strategies;
    • operate equipment or instruments;
    • perform, record and evaluate all quality control procedures required;
    • perform the aspects and understand the Quality Management System:
    • understand Statistical Quality Control through the performance of Capibility studies;
    • report results in writing, orally or by computer conforming to established protocols; and
    • maintain the work area in a clean, orderly condition.


    F, S (N)

  
  • BT 108 - Regulatory Compliance


    Credit Hours: 3

    This course provides a basic understanding of the regulatory requirements to implement and maintain quality manufacturing practices to produce pharmaceuticals, medical devices and food.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate an understanding of the bio-manufacturing industry, the impact and requirements of a variety of regulatory agencies especially the responsibilities and goals of the United States Food and Drug Administration (USFDA);
    • compare the similarities and differences of the FDA’s Good Manufacturing Practice (GMP) regulations for drugs, food processing and medical devices;
    • identify the regulatory inspection, complaint, recall processes with emphasis on the typical current regulatory issues facing industry and regulatory bodies;
    • describe the USFDA’s documentation requirements through the industry’s Good Documentation Practices (GDP); and
    • demonstrate understanding of the Food Safety Modernization Act (FSMA) and the regulatory guidances which resulted from this act.


    F,S (N)

  
  • BT 117 - Seminar for Biotechnological Science


    Credit Hours: 1

    Students attend and participate in discussions about the industry.  Students may attend various tours of manufacturing and research facilities.  Opportunity to meet industry professionals in human resources, quality systems, manufacturing etc.  The student is also introduced to job opportunities that are available to graduates.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • identify the skills necessary to practice in the biotechnology or biomanufacturing industry;
    • describe the various kinds of job opportunities available to biotechnological science graduates, career success and advancement;
    • demonstrate an understanding of continuing education opportunities; and
    • describe how a manufacturing facility operates 


    F/S (N)

  
  • BT 128 - Food Safety and Sanitation


    Credit Hours: 3

    This course emphasizes the necessary procedures to produce safe food products by controlling hazards, proper sanitation and by regulatory oversight. It will include industrial procedures which will produce safe food and a safe and responsible work environment.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • explain the history and specifics of foodborne illnesses;

    • identify systems that provide protection from illness;

    • explain critical food sanitation, cleaning, and sanitizing procedures;

    • detail the fundamentals of the Global Food Safety Initiative (GFSI), the Food Safety Modernization Act (FSMA) and Hazard Analysis and Critical Control Points (HACCP);

    • demonstrate proficiency of quality control systems which verify quality of food, food safety, and shelf life; and analytical methods of determination; and

    • demonstrate an understanding of clean-in-place (CIP) and sanitize-in-place (SIP) cleaning and sanitizing and practical applications.



    F/S (N)

  
  • BT 129 - Global Perspective to Food Safety


    Credit Hours: 3

    This course emphasizes the necessary procedures to produce safe quality food products within the global market. To understand this, students will gain a knowledge base on controlling hazards, proper sanitation and regulatory oversight. This course will include a study abroad component, which will focus on food safety within the traveled region.

    Course Outcomes
    Upon completion of this course, the student will be able to: 

    • explain specifics of food borne illnesses and their global impact;
    • identify systems that provide protection from food hazards;
    • detail the fundamentals of the Global Food Safety Initiative (GFSI), Safe Quality Foods (SQF), (FSMA) Food Safety Modernization Act and Hazard Analysis and Critical Control Points (HACCP);
    • demonstrate proficiency of the quality control systems which verify the quality of the food, and food safety; and
    • demonstrate an understanding of CIP and SIP, cleaning and sanitizing and practical applications, along with proper equipment design.  


    S (N)

  
  • BT 210 - Biotechnological Techniques


    Credit Hours: 3

    This course will introduce the student to the concepts and procedures used in immunoassay testing. These concepts will be practiced in a separate weekly laboratory section. Students will be introduced to the basics of proteins, nucleic acids (DNA and RNA) including levels of structure, function and assay principles and concepts to characterize and quantitate. Students will explore electrophoresis, several different methods of immunoassay, chromatography, and spectrophotometry. Quality control concepts will be covered including acceptance criteria and troubleshooting techniques.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • explain basic immunoassay concepts and techniques;
    • describe the structure and preparation of antibodies;
    • define categories of immunoassay methodologies;
    • exhibit comprehension of protein, and nucleic acids, levels of structure, functions, and methods of analysis to characterize and determine concentration;
    • demonstrate proficiency of concepts and principles of protein separation in electrophoresis procedures, quality control methods and troubleshooting separation pattern issues;
    • demonstrate comprehension of spectrophotometric analysis procedures and perform calculations for concentration, absorbance, and percent transmittance;
    • demonstrate proficiency in quality control principles of calibration, criteria for acceptance of a run and creation of a calibration or concentration curve as well as Westgard rules of quality control system; and
    • demonstrate comprehension of chromatographic procedures, principles and analytic methods.


    Prerequisites: CH 180, CH 181
    Corequisites: BT 211
    F (N)

  
  • BT 211 - Biotechnological Techniques Laboratory


    Credit Hours: 1

    Immunoassay methods involve rapid and sensitive detection of pathogens, contaminants, and constituents essential to pharmaceuticals, forensic toxicology, agrochemicals, food technology and environmental monitoring. This laboratory course will be taken as a co-requisite to BT 210. Students will perform immunoassay analytical procedures, including spectrophotometry, chromatography and electrophoresis. Upon completion of this course, students will demonstrate proficiency in quality control procedures, evaluating results, and trouble shooting.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • perform immunoassay procedures;
    • develop a hypothesis, record observations and compile laboratory data;
    • demonstrate proficiency in performing quality control and troubleshooting procedures; and
    • determine when results are valid and accurate. If deviations occur, able to perform appropriate corrective action procedures.


    Prerequisites: CH 180, CH 181
    Corequisites: BT 210
    F (N)

  
  • BT 220 - Industrial Microbiology


    Credit Hours: 3

    This course will introduce the student to the various topics and concepts used in processes of industrial microbiology and will apply these concepts in weekly laboratory sections. Through the use of course discussions, the versatility and diverse metabolic activities of microorganisms which enable large-scale cultivation and isolation will be revealed. Microorganisms are utilized in the manufacture of foods, beverages, and pharmaceuticals. Examples of microorganism produced products include vaccines and drugs as well as in waste water treatment.

    Fulfills the following SUNY General Education category:

    • Natural Sciences


    Course Outcomes
     

    Upon completion of this course, the student will be able to:

    • demonstrate understanding of microbial cell physiology, and exhibit competency in performance of aseptic procedures;
    • describe methods of microbial analysis used in the biotechnological, pharmaceutical and food industries;
    • apply aspects of microbiology applicable to manufacturing and quality control in the biotechnological, pharmaceutical and food industries;
    • demonstrate understanding and relate the principles of Hazard Analysis Critical Control Point program to aseptic food processing and prevention of foodborne illness;
    • describe how microbial fermentations produce food products such as yogurt, sauerkraut, wine and beer, as well as pharmaceutical products such as antibiotics and vaccines; and
    • demonstrate proficiency in performance and interpretation of environmental assessment techniques applicable to industry.


    Prerequisites: BI 110/BI 115 or equivalent
    Corequisites: BT 221
    F (N)

  
  • BT 221 - Industrial Microbiology Laboratory


    Credit Hours: 1

    The laboratory component will apply the theory derived from the lecture course BT 220 Industrial Microbiology. BT 221 Industrial Microbiology Laboratory, students explore the metabolic processes, cultivation and isolation of microorganisms, including procedures unique to biotechnology and food processing industries, such as biological indicators and bioburden testing as a measure of sterilization success. Students will understand the positive and negative impact microorganisms have in these industries. To be taken as a co-requisite to BT 220.

    Fulfills the following SUNY General Education category:

    • Natural Sciences


    Course Outcomes
    Upon completion of this course, the student will be able to:

    • apply the aspects of microbiology applicable to manufacturing and quality control in the biotechnology and food industries;
    • demonstrate and apply aseptic technique in bioburden and sterility testing for pharmaceuticals, food processing and medical devices;
    • demonstrate competency in the performance of pure culture isolation by streak plate methods; 
    • demonstrate aseptic technique in the inoculation and analysis of broth and agar cultures;
    • demonstrate competence in performing a wet mount and a gram stain procedure;
    • demonstrate and apply environmental monitoring technique and trending analysis;
    • accurately document laboratory results via laboratory reports using Excel format;
    • demonstrate accurate and appropriate analysis of laboratory data as part of the scientific method; and
    • apply microbiological processes to quality control, aseptic and sterile processing in the biotechnology and food industries.


    Prerequisites: BI 110/BI 115 or equivalent
    Corequisites: BT 220
    F (N)

  
  • BT 222 - Laboratory Calculations


    Credit Hours: 1

    This course is intended for members of the health, biotechnology and quality and laboratory professions, with potential responsibility for solution preparation, laboratory testing, instrument calibration and quality control calculations. This course will cover the calculations necessary for determination of laboratory concentrations, solutions and variation, calibration, quality control and reference intervals.  The basic units of analytical instrumentation, pH calculations, buffer solutions, spectroscopy, basic statistics and graphing for quality control reference ranges will be discussed. Additional calculations covered in this course, include solution concentration units, density, temperature conversion and osmolality calculations.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • calculate both concentrations and content of solutions in the concentration units used in the biotechnology, biomanufacturing and health professions;
    • perform dilution calculations when given appropriate information;
    • calculate the volumes of various stock solutions required to make working solutions for analysis and to make solutions of acids and bases;
    • calculate the standard deviation, mean, median, mode and coefficient of variation;
    • apply the terms accuracy, precision, reliability, confidence intervals and relate these terms to laboratory measurement and determination of reference ranges;
    • apply setting up, graphing and interpretation of quality control charts and calculation of reference ranges;
    • perform simple pH calculations;
    • apply Beer’s Law to perform calculations of absorbance and transmittance for solution concentration in spectroscopy; and
    • determine concentration by calculation of standard concentration and calibration curves for spectroscopy and colorimetric analysis.


    F/S (N)

  
  • BT 230 - Food Processing Technology


    Credit Hours: 3

    This course will introduce the principles and discuss key industrial food processing procedures such as dehydration, chilling and freezing practices. It combines the basics of food science with the practical applications of day-to-day manufacturing in order to illustrate industry challenges and real-life operations.

    The course will discuss fermentation and enzyme practices and procedures used to process fruits, vegetables, meat, poultry and dairy products. Exposure to these principles will enable a better understanding of food processing in the biotechnology field.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • identify the key concepts of biotechnology processes used in food processing;
    • apply thermal kinetic principles to food processing in aseptic processing and sterilization methods;
    • apply the separation technology methods, filtration, crystallization, distillation, solvent extraction, evaporation and membrane technology to food processing;
    • demonstrate understanding of the chemical reactions affecting food quality, and the role of dehydration method to food processing;
    • demonstrate understanding of the chilling and freezing process, including heat transfer, conduction and convection in processing various food types;
    • demonstrate understanding of the role of enzymes, pH and temperature in fermentation and other food processes; and
    • demonstrate comprehension of quality control system procedures.


    Prerequisites: BT 128
    Corequisites: BT 231
    S N

  
  • BT 231 - Laboratory for Food Processing Technology


    Credit Hours: 1

    The laboratory component, BT 231, is a co-requisite with BT 230 Food Processing Technology. This course will reinforce the principles and discuss key industrial food processing procedures, such as dehydration, chilling and freezing practices. It combines the basics of food science with the practical applications of day-to-day manufacturing in order to illustrate industry challenges and real-life operations and provide the student hands on experience in these food processing methods.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • identify the key concepts of biotechnology processes used in food processing;
    • apply thermal kinetic principles to food processing in aseptic processing and sterilization methods;
    • demonstrate understanding of the chemical reactions affecting food quality, and the role of dehydration method to food processing;
    • demonstrate understanding of the chilling and freezing process, including heat transfer, conduction and convection in processing various food types;
    • demonstrate understanding of the role of enzymes, pH and temperature in fermentation and other food processes; and
    • demonstrate comprehension of quality control system procedures.


    Prerequisites: BT 128
    Corequisites: BT 230
    S (N)

  
  • BT 232 - Entomology and Pest Management


    Credit Hours: 3

    The course introduces students to the fundamental concepts of agricultural entomology and pest management including: economic impact, sampling techniques, plant resistance to insects, biological control, insecticide use and its consequences and the use of genetically modified plants. Pest management techniques covered will include both organic and non-organic methods. Prefer general biology knowledge for successful completion of this course.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • be able to identify insects to their scientific Order, along with identify arachnids;
    • understand insect morphology, physiology, and life cycles;
    • know the importance of pollinators and insects economic impact;
    • be well versed in pest management theory;
    • be able the to identify the need for various pest management techniques and when to use them; and
    • understand the ecological backlash of pest management practices.


    F (N)

  
  • BT 235 - Validation Science


    Credit Hours: 3

    This course emphasizes both regulatory and industry requirements for implementation and maintenance of a validated process, assay or system. The emphasis will be based upon the requirements of the US Food and Drug Administration. The impact of risk and risk mitigation on the validation process assists key elements of the company’s quality system facilitating safe and consistent production of product. This course underscores the significance of generation and maintenance of appropriate documentation supporting the quality system, enabling successful product launch resulting in the overall success of the company.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • demonstrate an understanding of the impact and requirements of regulatory agencies especially the responsibilities and goals of the US FDA;
    • exhibit an understanding of the FDA’s GMP regulations for drugs and medical devices and how industry utilizes the quality system concepts to convert FDA requirements to standard operating procedures, policies and guidelines;
    • identify the regulatory inspection, complaint, and recall processes with emphasis on the typical current regulatory issues facing industry and regulatory bodies;
    • demonstrate an understanding of the FDA’s documentation requirements, Industry’s Good Documentation Practices (GDPs); and
    • exhibit proficiency in developing a standard operating procedure on a product/process, generating a documentation change control which would meet US FDA and industry requirements.


    Prerequisites: BT 108
    F online

  
  • BT 240 - Production of BioPharmaceutical Products


    Credit Hours: 3

    Understanding protein function is essential to biological research and operations. Protein complexity and large numbers of proteins in the cell make it difficult to identify proteins of interest or protein purification. This course will discuss protein structure and functions as well as introduce the student to protein purification methods or protein-protein interaction. These methods include gel electrophoresis, column chromatography and methods preparation of cellular and subcellular extracts, essential to protein purification.

    Also discussed in the course are methods for characterizing protein-protein interactions, essential methods for quantifying protein concentration, stabilizing and storing proteins, concentrating proteins, and immunoblotting. The course culminates with cell culture basics, purpose, cell lines, and culture maintenance.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • accurately characterize the structure and functions of proteins;
    • specify the aseptic processing requirements for cell culture in biotechnology;
    • demonstrate understanding in the performance and methodology of selected standard protein assays utilized in biotechnology;
    • characterize the strategies used in protein purification; and
    • analyze case studies of typical products developed in the biotechnology industry.


    Prerequisites: BT 210 /BT 211
    Corequisites: BT 241
    S online (N)

  
  • BT 241 - Laboratory for Production of BioPharmaceutical Products


    Credit Hours: 1

    This course will apply the theory from the co-requisite lecture course, BT 240, Production of BioPharmaceutical Products. In this course, analytical procedures used in the characterization and separation of proteins will be covered. As a final project, the student will be required to create a laboratory manual using these methods and perform analysis. Methods will include filtration, protein titration, electrophoresis, spectrophotometry, PCR and ELISA testing.

    Course Outcomes
    Upon completion of this course, the student will be able to:

    • perform laboratory analyses to identify and characterize proteins in biotechnology;
    • demonstrate proficiency in aseptic processing for cell culture in biotechnology;
    • demonstrate proficiency in performing analyses used in protein purification; and
    • establish proficiency in the ability to analyze data obtained from laboratory analysis for validity and troubleshoot and perform corrective measures where applicable to a technician level.


    Prerequisites: BT210 and BT211
    Corequisites: BT240
    S (N)

  
  • BT 242 - Production of Cannabis Products


    Credit Hours: 3

    This course will provide an understanding of the types of products that can be produced from Cannabis sativa. It will also look at methods to provide to analyze products and perform quality control. We will also look at the future of cannabis science and how the industry is changing. 

    Course Outcomes
    Upon completion of this course, the student will be able to: 

    • understand the botany of Cannabis;  
    • know the methods for harvesting and cultivating Cannabis;
    • understand extraction techniques and various Cannabis extracts;
    • be able to identify methods for infusing cannabis into medicinal and recreational products;
    • know techniques for analyzing Cannabis products; and
    • visualize research and development opportunities and Cannabis’ future. 


    S (N)

  
  • BT 243 - Production of Cannabis Products Lab


    Credit Hours: 1

    This course introduces students to the general techniques that are used to extract and purify cannabinoids from Cannabis sativa. Students will perform botanical extractions from plants, use methods to analyze extraction products and utilize techniques to purify the respective products. This course will examine the methodology used to create cannabis food and medicinal products. 

    Course Outcomes
    Upon completion of this course, the student will be able to: 

    • cultivate and clone plants; 
    • use molecular techniques for genetic and protein analysis of plants; 
    • perform solvent and solventless botanical extractions;
    • use laboratory techniques to purify botanical extractions from cellular breakdown products and other impurities; 
    • use chromatography to analyze the purity of botanical extracts; and 
    • use Infusion techniques to generate products with botanical extracts. 


    Corequisites: BT 242
    S (N)


Building Management and Maintenance

  
  • BM 101 - Tools, Equipment and Materials


    Credit Hours: 3

    Safety practices used in the HVAC/R industry are demonstrated and practiced. The proper care and use of tools and equipment used in the installation and service of HVAC/R systems are demonstrated and practiced. The various types of piping materials used in the HVAC/R systems are discussed. The different methods of joining piping are studied. Soldering and brazing techniques are also demonstrated and practiced. Equipment and tools used to evacuate, leak test and charge a refrigeration system are demonstrated and practiced.

    Course Outcomes
    Upon the successful completion of this course, the student will be able to:

    • describe proper procedures for working with pressurized systems and vessels, electrical energy, heat, cold, rotating machinery and chemicals; for moving heavy objects; and for utilizing proper ventilation;
    • apply work safety standards and recognize safety hazards;
    • demonstrate the use of hand tools used by the HVAC/R technician to install and service an HVAC/R system;
    • demonstrate the equipment used to install and service HVAC/R systems;
    • recognize fasteners used to install and service HVAC/R piping and equipment;
    • select tubing and piping used to install and service HVAC/R piping and equipment;
    • demonstrate the bending, swaging, gluing, soldering, brazing, and threading methods of joining pipe;
    • analyze systems efficiency by using leak test, evacuate and charge a refrigeration system; and
    • demonstrate the ability to calibrate instruments used to install and service HVAC/R systems.


    F/S (C, N)

  
  • BM 102 - Building Trades Blueprint Reading


    Credit Hours: 3

    A basic course in the reading of building trades blueprints for residential and commercial buildings and their systems, as well as basic sketching techniques for graphic presentation.

    Course Outcomes
    Upon the successful completion of this course the student will:

    • understand, interpret, and visualize basic construction drawings; and
    • understand fundamental methods of residential and commercial building construction through print reading and sketching.


    S (C)

  
  • BM 105 - Refrigeration Principles


    Credit Hours: 3

    An introduction to the fundamental principles of refrigeration and the refrigeration cycle. Students will study the components of the refrigeration system, including compressors, condensers, metering devices and evaporators to fully understand their operation and function within the system. System controls and refrigerant types will also be covered.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • demonstrate an understanding of basic refrigeration theory and how a refrigeration system operates;
    • describe and identify the components of a refrigeration system and explain their function and operation within the system;
    • recognize the effect improper operation of any component has on overall system operation;
    • demonstrate the knowledge of the common refrigerants and understand their use and the need for proper handling;
    • apply understanding of the refrigerant pressure-temperature chart, and be able to use it in analyzing system performance; and
    • illustrate the ability to identify the common controls used in refrigeration systems and explain their function and operation within the system.


    F/S (C, N)

  
  • BM 120 - Electricity for HVAC/R


    Credit Hours: 3

    Students will study basis electrical theory; including voltage, current and resistance and the measurement of each.  Electrical circuits and wiring diagrams will be studied with emphasis on those commonly used in HVAC systems.  Students will study and learn how to read and interpret the electrical schematic of an HVAC unit.  The concepts of the electrical operations of a motor will be introduced.  Various control circuits and control voltages will be discussed.  The electrical control boards commonly found in HVAC units will be introduced.  The principles of electrical safety pertaining to the servicing of HVAC equipment will also be covered.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • demonstrate an understanding of basic electrical theory and circuitry;
    • demonstrate an understanding of the use of different voltages within an HVAC system;
    • demonstrate an understanding of the operation of an electric motor;
    • apply the ability to read and interpret the electrical schematic of an HVAC unit;
    • apply the diagnostic skills required to properly operate and/or repair an HVAC system; and
    • demonstrate an understanding of basic electrical safety and safe working practices. 


    F/S (C, N)

  
  • BM 130 - Building Systems I


    Credit Hours: 3

    A course providing an overview of residential and commercial structural systems found in urban settings.  Major topical areas include common construction techniques, maintenance practices, safety standards, material selection, tool and equipment usage necessary for routine facilities operation.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • apply the basic principles of wooden and light steel building systems, material handling, selection and tool usage commonly found in the building and facilities industries;
    • illustrate the ability to use hand and power tools safely and effectively in order to maximize efficiency in the work environment;
    • demonstrate an understanding of basic construction math in order to estimate linear, square and volume measure, along with estimating labor and materials;
    • demonstrate the ability to measure accurately and transfer dimensions in the production, care and maintenance of various building systems;
    • demonstrate the skill sets required to be a competent maintenance technician;
    • apply the use of building plans, specifications and codes; and
    • demonstrate the ability to manage and lead others safely and effectively in the building and facilities industries.


    F (C)

  
  • BM 140 - Electrical Systems I


    Credit Hours: 3

    A course covering the basic residential and light commercial electrical systems. The course will utilize national electrical code for reference and application.  All hands-on activities will allow students to work with various materials and control devices.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • demonstrate the basic principles of a broad overview of types and applications of electrical methods of tools, materials, devices, wiring controls and equipment utilized in current field applications;
    • illustrate the ability to read, produce and interpret electrical blueprints and drawings, along with codes applicable to design (computer software);
    • analyze the student’s analytical and diagnostic skills in the troubleshooting and repair of the operation of electrical systems;
    • recognize awareness in the current electrical energy conservation opportunities and techniques utilized in industry today through solar, geothermal, wind and photovoltaic;
    • apply the skill sets required to be a competent maintenance technician; and
    • demonstrate oral and written communication skills through writing, sketching and presenting research reports on electrical planning and scheduling a project.


    F (C)

  
  • BM 142 - Refrigerant Handling Certification


    Credit Hours: 1

    This course will cover the materials necessary to pass the EPA Section 608 Universal certificate. Areas of study will include EPA sections 608 and 609, of the Clean Air Act and the Montreal and Kyoto Protocols. The course will also cover CFC’s, HCFC’s and HFC’s refrigerants, their handling and recovering procedures mandated by the EPA.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • demonstrate an understanding of basic refrigerants and classifications;
    • recognize and identify refrigerants and classifications;
    • describe the proper procedures of refrigerant handling;
    • demonstrate an understanding and explain the effect improper procedures of refrigerant handling;
    • recognize the phaseout dates; and
    • demonstrate an understanding of Montreal and Kyoto Protocols and how they apply to the EPA Clean Air Act.


    F/S (C, N)

  
  • BM 180 - Applied Mathematics and Estimating


    Credit Hours: 3

    A course designed to introduce students to formulas, measurement, geometric and algebraic skills necessary to function in the building trades and facilities management field. The process involved in the development of a cost estimate using both manual and computer methods will be covered.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • apply the fundamentals of good estimating practices;
    • demonstrate knowledge of basic construction math in order to estimate linear, square and volume measure, along with estimating labor and materials;
    • demonstrate the ability to measure accurately and transfer dimensions in the production, care and maintenance of various building systems;
    • analyze the skill sets required to be a competent maintenance technician; and
    • illustrate and understand the use of building plans, specifications and codes.


    F (C)

  
  • BM 181 - Budget Control and Estimating


    Credit Hours: 4

    A course covering various phases of the estimate budget control process and project management techniques. The class assignments will utilize the computer for cost of materials, labor and equipment estimating; as well as, scheduling and budget control of new and renovated projects. 

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • apply the fundamentals of good estimating practices;
    • recognize formats used and methods in estimating labor, material and equipment; and
    • develop an understanding of the process of calculating the quantities and costs of various items used in the maintenance and construction of residential multi-family and commercial structures.           


    S (C)

  
  • BM 200 - Techniques of Renovation and Restoration


    Credit Hours: 3

    A course concerned with renovation and restoration of a residential and commercial structure. Students will prepare and present concept designs, estimates and project scheduling. Other course topics will include property evaluation and inspection, budgeting, material selection, equipment and site management. Students will use software for scheduling and estimating for class projects.

    Course Outcomes
    Upon completion of this course, the student should be able to:

    • demonstrate knowledge of the sequence of steps involved in the renovation, restoration and reconstruction of new and old residential and commercial structures;
    • analyze and evaluate the need for renovation, restoration and the energy and green technologies available in the opportunities available and required by codes;
    • analyze and evaluate structural deterioration of structures;
    • solve efficiency issues for workplace layout through methods of analysis to maximize productivity with computer application;
    • apply international, federal, state and municipality codes and standards;
    • demonstrate knowledge and use of contracts and specification formats;
    • evaluate and perform material, labor, equipment and profit cost estimate of projects at hand;
    • develop and present written presentations of design concepts and budget restraints; and
    • demonstrate and utilize the technical knowledge learned from present courses and apply it.  


    S (C)

  
  • BM 210 - Commercial Air Conditioning Systems


    Credit Hours: 3

    This course will cover the principles of air conditioning as applied to larger commercial equipment. The theory, installation and operations of air and water source heat pumps, gas and electric roof top units, and make-up air units will be reviewed. Ventilation, economizers and exhaust theory and practices will also be discussed.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • apply the understanding of basic parts and principals relating to specific commercial equipment;
    • classify and identify the components to specific commercial equipment and find replacement parts;
    • demonstrate the effect improper operation of any component has on overall system operation;
    • recognize the operations and troubleshooting procedures for commercial equipment;
    • demonstrate an awareness of the process for field estimating repairs and replacements of commercial equipment; and
    • analyze and identify the specific controls used in commercial systems and explain their function and operation within the system. 


    F/S (C, N)

  
  • BM 215 - Workplace Practicum


    Credit Hours: 3

    This course deals with basic workplace issues that a new technician may encounter when entering the workforce. Topics covered will include: workplace safety and hazards of the industry, EPA refrigerant handling requirements and guidelines for certification along with employer, employee and customer relations issues.

    Course Outcomes
    Upon successful completion of this course, the student will be able to:

    • apply the knowledge of the safety hazards associated with the HVAC/R service industry;
    • demonstrate awareness of the laws and guidelines that must be followed to ensure a safe work environment;
    • develop an understanding of the need for proper refrigerant handling practices and EPA certification;
    • recognize the demands of customers and the importance of strong customer relations skills; and
    • demonstrate and develop the ability for good communications with management, co-workers and customers.


    F/S (C, N)

 

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