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2020-2021 Catalog [ARCHIVED CATALOG]
Course Descriptions
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Key to Course Descriptions
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
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Dietetic Technology-Nutrition Care |
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NT 138 - Education for Dietetic Majors Credit Hours: 3
Communication, educational principles and techniques in interviewing, counseling and teaching individuals and groups in clinical settings is presented. Student preparation of instructional materials and use of instructional media is included.
Course Outcomes At the completion of the term, the students will be able to:
- interview patients/clients in a health facility;
- identify dietary needs of clients using established guidelines;
- describe the team concept in nutrition care of the client;
- discuss nutrition counseling and its importance;
- explain systems approach to nutrition services;
- understand data collection as it applies to dietetic services;
- prepare teaching and counseling plans;
- write behavioral objectives;
- plan, prepare and present lesson on assigned topic;
- collect and organize resource file;
- discuss documentation in the medical record; and
- identify appropriate notes for the medical record.
Prerequisites: BI 178 Corequisites: BI 178, NT 136, NT 137 S (N)
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NT 275 - Introduction to Food Systems Management Credit Hours: 3
An introduction to the functions and tools of food systems management in health care facilities is provided in this first of a two-part course. Included are management roles of dietetic professionals, levels and tools of management, policies and procedures, human resource management, New York State safety and sanitation for health care, HACCP, food borne illness, menu planning and marketing.
Course Outcomes At the completion of the term, the student will be able to:
- demonstrate an understanding of leadership skills and basic management theory and styles;
- demonstrate an understanding of various food service management tools, including: job descriptions, job specifications, job analysis, organizational charts, policy and procedures, and marketing;
- demonstrate an understanding of human resource management, including: staffing process, orientation and training activities, (performance appraisals, disciplinary action, grievances, etc.), motivation, legislation and management relations;
- demonstrate an understanding of menu planning for quantity food production;
- apply menu planning principles to construct menus for a health care facility; and
- demonstrate an understanding of food safety and sanitation.
Prerequisites: NT 128 F (N)
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NT 276 - Food Systems Management Credit Hours: 3
A continuation of Introduction to Food Systems Management (NT275) including the application of nutrient modification to menu writing, purchasing, recipe standardization production and delivery systems, receiving and storage, inventory, equipment, cost analysis and financial control for health care food service. Waste management and management information systems in health care are also discussed.
Course Outcomes At the completion of the term, the student will be able to:
- identify factors which determine types of menus and meal service in a health care facility;
- apply procedures for standardized recipes;
- compare standard portion sizes for various types of service;
- analyze factors that affect purchasing;
- distinguish between types of inventory methods used for cost control;
- plan quantity and quality food production;
- utilize and evaluate computer applications for food service management; and
- examine factors effecting dietary costs and budget preparation.
Prerequisites: NT 128, NT 275 Corequisites: NT 277, NT 284, NT 285, NT 286 S (N)
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NT 277 - Field Experience for Food Systems Management Credit Hours: 3
This supervised practice provides field experience in health care settings focusing on practical application of knowledge provided in management courses. Projects include human resource functions, meal planning, food production, sanitation and safety, standardized recipes, purchasing, inventory, cost control and quality assurance. A capstone experience is provided with practice assuming the role of a food service manager in a health care facility.
Course Outcomes At the completion of the term, the student will be able to:
- participate in human resource functions, including interviewing, performance appraisals, and discipline issues;
- supervise and evaluate procurement, distribution, and service within food service delivery systems;
- collect and process financial data to develop department budget and operating plans;
- participate in equipment selection and design/redesign of work units;
- participate in facilities planning and evaluate design;
- participate in performance improvement/organizational change, including:
- design outcome studies;
- collect data;
- assess problems;
- implement change; and
- evaluate outcomes.
- plan, develop, and implement a menu that allows for special diet and texture modifications;
- assist with the production of food that meets nutrition guidelines, cost parameters, consumer acceptance, and applicable laws and regulations;
- standardize and test a recipe;
- assist in maintaining and supervising a safe and sanitary food service environment;
- perform ethically in accordance with the values of ACEND;
- participate in performance review and self-evaluation;
- communicate effectively with all staff and supervisors; and
- use computer applications in FSM.
Prerequisites: NT 128, NT 275 Corequisites: NT 276, NT 284, NT 285, NT 286 S (N)
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NT 282 - Nutrition Care III Credit Hours: 3
Application of principles of normal nutrition to disease conditions which occur most frequently in adults and require dietary modifications. Nutrient content of modified diets is included. The nutrition care process in introduced.
Course Outcomes At the completion of the term, the student will be able to:
- demonstrate an understanding of the screening process;
- demonstrate an understanding of the nutritional care process, including assessment, planning, implementation, and evaluation;
- demonstrate a basic knowledge of medical nutrition therapy for common conditions, i.e. hypertension, cardiovascular, obesity, diabetes and diverticular disease;
- demonstrate an understanding of basic enteral and parenteral nutrition; and
- translate medical nutrition therapy needs into menus for individuals and groups.
Prerequisites: BI 178, CH 144, CH 145, NT 128, NT 136, NT 137, NT 138 Corequisites: NT 283 S (N)
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NT 283 - Clinic for Nutrition Care III Credit Hours: 4
This supervised clinical practice in acute care settings focuses on the application of knowledge presented in Nutrition Care III. The nutrition care process and nutrition care of patients is practiced. Focus is placed on screening, interviewing and counseling of patients on specialized diets. Calculation of modified diets and medical record documentation is also emphasized.
Course Outcomes At the completion of the term, the student will be able to:
- screen patients according to hospital protocol;
- interpret anthropometric, laboratory, clinical, and dietary data to complete a comprehensive nutritional assessment;
- design a nutritional care plan to support successful medical nutrition therapy for an individual patient;
- calculate basic enteral nutrition regimens;
- evaluate an individual’s intake according to medical nutrition therapy recommendations and the individual’s needs;
- perform ethically in accordance with the values of the American Dietetic Association;
- participate in performance review and self-evaluation;
- counsel individuals on nutrition for common conditions;
- demonstrate a variety of documentation methods; and
- use the computer to obtain and communicate information.
Prerequisites: BI 178, CH 144, CH 145, NT 128, NT 136, NT 137, NT 138 Corequisites: NT 282 F (N)
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NT 284 - Dietetics Seminar Credit Hours: 2
This senior level course allows students to apply critical thinking skills to ethical and technological issues impacting the field of dietetics. Professional standards and issues are presented. Public policy development as related to dietetics is discussed. Also included is preparation for the registration examination for dietetic technicians, the employment application process and initiation of a professional development portfolio.
Course Outcomes At the completion of the term, the student will be able to:
- analyze the concept of professionalism;
- exhibit a basic knowledge of public policy development related to dietetics;
- demonstrate an understanding of current reimbursement issues, policies, and regulations;
- evaluate the role of ACEND in the career of the dietetic technician;
- prepare for the job application process;
- weigh non-traditional career options;
- apply critical thinking skills to ethical and technological issues impacting the field of nutrition; and
- use current information technologies for information and communication activities.
Prerequisites: NT 282, NT 283 Corequisites: NT 276, NT 277, NT 285, NT 286 S (N)
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NT 285 - Nutrition Care IV Credit Hours: 3
Nutrition care of residents in long term care is introduced along with geriatrics. Medical nutrition therapy for various diseases and health conditions which require dietary modifications including cancer, renal diseases, hepatic diseases, disorders of the GI tract, as well as those conditions less commonly encountered such as PKU and inborn errors of metabolism are also studied.
Course Outcomes At the completion of the term, the student will be able to:
- demonstrate am understanding of the nutritional care of institutionalized elderly residents;
- demonstrate a basic knowledge of medical nutrition therapy for common conditions, eg cancer, renal conditions, bowel disorders; and
- translate medical nutrition therapy needs into menus for individuals and groups.
Prerequisites: NT 282, NT 283 Corequisites: NT 276, NT 277, NT 284, NT 286 S (N)
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NT 286 - Clinic for Nutrition Care IV Credit Hours: 3.5
This advanced course provides the supervised practice rotation in long-term care settings with a focus on the application of the MDS and care planning along with practical application of knowledge presented in Nutrition Care IV. Practice in interviewing, counseling and group nutrition presentations for the geriatric clientele in health facility settings is provided. Calculation and planning practice for more complex dietary modifications is included. This rotation culminates in a capstone activity of assuming the role of a dietetic technician on a full-time basis in a healthcare facility.
Course Outcomes At the completion of the term, the student will be able to:
- apply rules, regulations, and interpretive guidelines related to the nutritional care of residents;
- develop appropriate, individualized assessments and care plans for long-term care residents;
- design a nutritional care plan to support successful medical nutrition therapy for an individual resident;
- evaluate a resident’s intake according to medical nutrition therapy recommendations and the individual’s needs;
- perform ethically in accordance with the values of the American Dietetic Association;
- participate in performance review and self-evaluation;
- counsel residents on nutrition;
- communicate effectively at health care team meetings;
- demonstrate a variety of documentation techniques; and
- use computer programs, as available, to assist with assessment, documentation, and nutritional care of residents.
Prerequisites: NT 282, NT 283 Corequisites: NT 276, NT 277, NT 284, NT 285 S (N)
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NT 287 - Health Care Delivery Systems Credit Hours: 1
This continuation of Health Field Orientation provides a broad understanding of the methods of delivery of healthcare in the United States. Healthcare is explored, including its history, delivery systems, manpower, distribution of resources, cost, finance, health policy, technology and future outlook.
Course Outcomes At the completion of the term, the student will be able to:
- demonstrate a basic knowledge of the health care delivery system in the United States, including knowledge of health organizations and services available in the community;
- demonstrate an understanding of the relationship between legislation, medical care and public health;
- demonstrate an understanding of the relationship between lifestyle decisions and health maintenance;
- apply basic level critical thinking skills to analyze various aspects of health care delivery, such as economic, personal responsibility and the impact of technology; and
- identify members of the health care team.
Prerequisites: NT 134 F (N)
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Drama-Theatre |
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Early Childhood |
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CC 150 - Care of Infants and Young Children Credit Hours: 3
Discusses the developmental stages and needs of the infant and young child and relates them to the daily care of children. Pregnancy, childbirth, nutrition, health, safety and common childhood illnesses will be examined. Special emphasis will be placed on the need to sensitize adults to the individual needs of the young child, the need for appropriate infant - adult relationships, the development of language and the need for quality child care situations. Course explores the influence of diverse family structures and the many behaviors of the growing child’s personality and behavior. This course is open to students in developmental reading and writing.
Course Outcomes Upon completion of this course, the student will be able to:
- understand prenatal development, labor and birth;
- develop an understanding of typical development of infants and toddlers;
- understand the importance of adult - infant interactions and how they differ across cultures;
- understand appropriate safety precautions in infant/toddler environments;
- understand how to evaluate appropriate materials, toys and books for infants and toddlers;
- become familiar with common childhood illnesses and how to deal with them;
- become familiar with appropriate nutrition for infants and toddlers;
- become familiar with appropriate discipline techniques for infants and toddlers; and
- understand basic components of quality child care for infants and toddlers
F/S (C)
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CC 200 - Early Childhood Education I Credit Hours: 3
Introduces the student to Early Childhood Education. Examines the role and career of the Early Childhood professional. Introduces the student to NAEYC Core Values/Code of Ethical Conduct, NYS Core Body of Knowledge, and the NYS Early Learning Guidelines. Discusses the history and theory of Early Childhood Education. Discusses the social, intellectual, emotional and physical development of the young child; the child’s needs and how the Early Childhood professionals and centers meet these needs. Introduces the activities and materials of Early Childhood Education with an emphasis on literacy. Reviews regulations and standards of what constitutes quality Early Childhood programs. Students are required to visit and write a report on one Early Childhood Education Center in the Buffalo metropolitan or suburban area. They will also enter into a relationship with that center which will become a Service Learning opportunity.
Course Outcomes Upon completion of this course, the student will be able to:
- understand the different roles and careers of an early childhood professional and how the NAEYC Code of Ethical Conduct guides our practice;
- understand how the early childhood professional environment helps to meet the social, intellectual, emotional and physical needs of children;
- reflect on how the history and theory of Early Childhood Education guides appropriate practice;
- understand the basics of the daycare regulations;
- evaluate a child care center in the Buffalo area;
- begin to create appropriate materials for young children;
- reflect on readings and discussions related to early childhood issues;
- understand the importance of literacy and play in the early childhood years;
- develop professional communication skills necessary in oral report and writing; and
- understand the basic philosophy of appropriate guidance techniques.
Prerequisites: Completion of Developmental Reading and Writing (if necessary). Concurrent Registration: CC 201 F/S (C)
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CC 202 - Early Childhood Education II Credit Hours: 3
Using NAEYC’s principles of developmentally appropriate practice, students will examine development from conception through age 8 and the importance of the relationship between development and caring for young children, including children with special needs. Special attention will be given to developmentally appropriate guidance techniques at each stage. Students will also have the opportunity to examine and visit a variety of high quality early childhood programs within the community. Concepts introduced in CC 200 will be explored further: environments for children, Jenna Bilmes’ 6 Life Skills, NAEYC Code of Ethics, Developmentally Appropriate Practice, and a variety of current early childhood topics that students research and present.
Course Outcomes Upon completion of this course, the student will be able to:
- understand the underlying concepts of early childhood;
- become familiar with the principles of NAEYC’s developmentally appropriate practice and Code of Ethics and the NYS Core Body of Knowledge competency areas;
- understand prenatal development and child development from conception through age 8;
- become familiar with children who have special needs;
- understand how to match appropriate guidance techniques to a child’s age and stage of development;
- become familiar with appropriate environments for young children;
- become familiar with specific early childhood programs (eg. Waldorf, Montessori, Reggio Emilia) within the community;
- increase understanding of the theorists perspectives on early childhood development and their impact on current early childhood practices;
- begin to form a personal philosophy of early childhood education; and
- understand and demonstrate how to research a current issue in early childhood.
Prerequisites: CC 200 or by permission of the department. Concurrent Registration: CC 203 F/S (C)
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CC 203 - Early Childhood Lab II Credit Hours: 1.5
Course correlated with CC 202 Early Childhood Education II and CC 250 Curriculum Planning for Young Children. Students must be in CC 250 or have already taken it in order to take CC 203. CC 203 is held at an off-site high quality early childhood program location and is designed to continue to provide students with experience working with young children and their teachers. Under the direct supervision of the SUNY Erie instructor, students will continue to interact with and observe children in a professional setting. They will also plan, implement, and assess developmentally appropriate interactions and activities for young children.
Course Outcomes Upon completion of this course, the student will be able to:
- demonstrate familiarity with the developmental needs of children;
- continue to understand and demonstrate how to observe and record children’s needs and behaviors in order to plan appropriately;
- understand appropriate planning of activities for children by demonstrating ability to write lesson plans;
- understand and demonstrate how to execute and assess planned activities for children;
- be more aware of their strengths and needs as teachers/caregivers in training; and
- demonstrate competence in all areas of the classroom.
Corequisites: Must be taking or have taken CC 250. Concurrent Registration: CC 202 F/S (C)
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CC 204 - Early Childhood Education III Credit Hours: 3
Building on NAEYC’s Core Values, Code of Ethical Conduct and Principles of DAP, with an emphasis on an anti-bias approach, students will explore teacher/family partnerships. Emphasis will be placed on the teacher’s role in establishing and maintaining relationships with the families of the children they care for and teach, and effective methods of communicating with families in quality early childhood programs. Exploring current trends and issues, students will continue to examine and visit a variety of high quality early childhood programs within the community.
Course Outcomes Upon completion of this course, the student will be able to:
- understand the importance of teacher/family partnerships;
- understand the diversity of today’s families and their needs;
- demonstrate effective methods of communicating with families;
- understand his/her own role in establishing and maintaining relationships with children’s families;
- become familiar with programs within the Buffalo community who have exceptional school/family partnerships;
- understand his/her own biases and how to effectively address biases with children and families;
- become familiar with current issues in early childhood with a focus on how to present those issues to families; and
- relate NAEYC’s code of ethics, core values, and principles of DAP and NYS Core Body of Knowledge competency areas to working with the families of children.
Prerequisites: CC 200 or CC 202 or by permission of the department. Concurrent Registration: CC 205 F/S (C)
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CC 205 - Early Childhood Lab III Credit Hours: 1.5
Course correlated with CC 204-Early Childhood Education III. CC 205 is held at a variety of off-site locations working with the mentor teacher and under the supervision of the ECC instructor. Students will continue to interact with and observe children. In addition, they will plan, implement, and assess developmentally appropriate interactions and activities for the children. They will expand their role in the classroom and plan complete lessons as they learn to work more closely with the mentor teachers and become part of a team.
Course Outcomes Upon completion of this course, the student will be able to:
- demonstrate an understanding of development of children, especially when planning activities for them;
- demonstrate deeper understanding of how to observe, record, and evaluate children’s behavior in order to plan accordingly;
- understand and demonstrate appropriate planning for and writing of complete lessons;
- understand and demonstrate how to execute and assess planned complete lessons;
- become more autonomous and self reflective of his/her own strengths and needs as a teacher/caregiver;
- demonstrate further competence in all areas of the classroom; and
- demonstrate ability to work as team member with the mentor teachers.
Concurrent Registration: CC 204 F/S (C)
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CC 206 - Student Teaching & Seminar Credit Hours: 6
Supervised student teaching experience in one Early Childhood Education center for a minimum of 135 hours. A capstone course, students will continue to interact with and observe young children. They will also plan, implement, and assess developmentally appropriate interactions and a final capstone project. The seminar and assignments are designed to support students in their field experiences. Students will also create a professional portfolio.
Course Outcomes Upon completion of student teaching and seminar, the student will be able to:
- demonstrate further understanding of development of children within the context of family and culture;
- demonstrate competency in observing children and writing objective observations in the classroom, assess children based on these observations, and plan for them accordingly;
- plan, write, organize, implement, and assess complete appropriate activities for young children aligned with related early learning standards. Students are encouraged to implement emergent curriculum wherever possible;
- demonstrate the interconnectedness of the Early Childhood Theory they have learned and appropriate child-centered learning through the creation, implementation, assessment and seminar presentation of a capstone project that has a family partnership component;
- reflect, evaluate and assess their strengths and weaknesses;
- demonstrate competency in all Early Childhood classroom routines and guidance techniques; and
- demonstrate professionalism.
Prerequisites: CC 200, CC 201, CC 202, CC 203, CC 205, CC 250 or by permission of the department. F/S (C)
Can be taken at the same time as CC 204. |
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CC 250 - Curriculum Planning for Young Children Credit Hours: 3
Explains the curricula for young children in a variety of educational settings. Considers curricula objectives, development levels, theories and learning experiences to equip the student with knowledge and skills necessary in planning and implementing developmentally appropriate curriculum for young children (methods and materials). Reviews NAEYC’s position on Effective Curriculum and Assessment, NYS Early Learning Guidelines, NYS Core Body of Knowledge, and NYS Pre-Kindergarten Common Core. Discusses the implications of brain research, gender/individual differences and Gardner’s Theory of Multiple Intelligence on the young child. A series of lectures, hands on workshops, and field trips to various early childhood settings are provided to enhance understanding of appropriate early childhood curriculum.
Course Outcomes Upon completion of this course, the student will be able to:
- develop the skills necessary to plan, write, implement and assess developmentally appropriate integrated play-based curriculum based on current theory and research;
- reflect, evaluate and assess good Early Childhood Practices according to the NYS Core Body of Knowledge competency areas;
- demonstrate an understanding of NAEYC curriculum standards and familiarity with NYS Early Learning Standards;
- understand the significance of providing a strong social/emotional environment/curriculum;
- demonstrate an ability to create a variety of effective teacher made materials;
- demonstrate effective interpersonal communication skills by working in small groups and presenting teacher made materials;
- reflect upon the importance of implementing an integrated, emergent curriculum and plan accordingly;
- understand the importance of infusing literacy throughout the early childhood curriculum;
- understand how various early childhood programs within the Buffalo community demonstrate developmentally appropriate practice; and
- compile a curriculum portfolio that contains developmentally appropriate materials and activities for young children.
Prerequisites: CC 200 or CC 202 or by permission of the department. F/S (C)
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CC 260 - Creative Art Experience for Young Children Credit Hours: 3
Explores the creative arts as a process of discovery, exploration, decision making and creativity in the life of the young child. Considers ways in which parents and teachers may encourage and enrich the creative experience in the developing young child. Participants will have an opportunity to explore the creative arts and processes for themselves.
Course Outcomes Upon completion of this course, the students will be able to:
- understand the developmental stages of the creative arts as they relate to children birth through age 8;
- have participated in a variety of creative arts experiences;
- plan appropriate creative art experiences for children;
- become familiar with research relevant to the creative arts; and
- broadened his/her familiarity with a wide diversity of worldwide masters in the creative arts.
F/S (C)
Open to students in developmental reading and writing. |
Economics |
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EC 104 - Industrial Relations Credit Hours: 3
A description and analysis of the roles of labor and management in the economy of the United States. Approximately half of the class time is devoted to labor-management relations, including the evolution and growth of the American labor movement and the development and structure of American business management. A study is made of the legal framework within which labor-management relations are conducted and the responsibilities of each in a democratic system of government.
Course Outcomes Upon completion of this course, the student will be able to:
- identify basic elements of labor economics;
- use graphs to demonstrate various aspects of labor economics (such as the minimum wage price floor);
- explain basic elements of labor history and the history of technology;
- identify and explain discriminatory practices in the workplace;
- explain the collective bargaining process;
- explain major topics in employment law, such as ADA compliance and drug testing;
- demonstrate conflict resolution techniques; and
- explain the legal framework of labor bodies like the NLRB, PERB, SLRB, AFL-CIO etc.
F/S (C, N, S)
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Electrical Engineering Technology |
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EL 101 - Residential Wiring Credit Hours: 3
Introduction to residential wiring, electrical safety and the national electrical code (NEC); electrical plans and symbols; switches and receptacles; branch circuit calculations and design; ground fault interrupters; conductors; wiring methods; outlet boxes; grounding and bonding; appliances and motors; low voltage wiring and service-entrance equipment. Laboratory projects provide practical experience in use of tools and wiring techniques.
Course Outcomes At the completion of the course, the student will be able to:
- perform residential wiring in accordance with the NEC code;
- be able to perform calculations on branch circuit and service entrance requirement;
- know how to practice electrical safety on the job;
- know how to select the proper wiring method, cable, outlets and fixtures; and
- interpret and generate electrical wiring plans.
F (N)
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EL 102 - Introduction to Photovoltaic Systems Credit Hours: 3
This course will provide an overview of fundamental concepts of electrical theory and their applications to the Photovoltaic Systems. It will concentrate on the following topics: DC voltage, current, and power concepts; Ohm’s law; DC PV series, parallel and series/parallel circuits and DC electrical measurements; AC current, voltage, power; photovoltaic effect, solar cell design and manufacturing, history of solar power; solar radiation, site analysis; electric load analysis; PV system components (PV modules, batteries, inverters, charge controllers), PV systems safety; grid-tied and stand-alone systems; systems installation and safety issues.
Course Outcomes Upon completion of the course, the students should be able to:
- apply theoretical concepts as they apply to photovoltaic circuits;
- demonstrate mastery of electrical PV terminology, symbols and units;
- identify basic components and determine their function in various PV systems;
- explain the effects of photovoltaic systems on the society;
- reinforce theoretical concepts by applying them to actual circuits;
- construct and troubleshoot photovoltaic circuits including solar modules, charge controllers, inverters, batteries;
- apply safety procedures necessary for PV systems; and
- write a well-organized report of experimental results.
S (N)
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EL 113 - Computer Aided Design Credit Hours: 1.5
Course includes symbols and standards and computer aided design using AutoCAD. The student will learn operation of a CAD station, editing, graphic primitives, linetypes, layers, blocks, libraries, dimensioning, isometric and orthographic views.
Course Outcomes Upon completion of the course, the student will be able to:
- perform basic CAD drawing commands and operations required to produce mechanical drawings and basic electronic circuit diagrams and detailed components;
- use libraries of parts to generate a drawing; and
- draw two dimensional and isometric views using a CAD station.
F/S (N)
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EL 116 - Digital Fundamentals Credit Hours: 2
This course will provide an introduction to digital electronics and cover the following digital fundamentals: Logic Gates such as AND, OR, NOT, NAND, NOR, Exclusive OR, and Exclusive NOR; Logic circuits; Boolean Arithmetic and Boolean algebra; logic circuit design; decoders and multiplexers; number systems and codes; arithmetic functions.
Course Outcomes Upon completion of this course, the student will be able to:
- perform calculations and base conversions in the binary, decimal and hexadecimal number system;
- relate logic diagrams to Boolean expressions, truth tables and state tables;
- analyze combinational logic circuits;
- identify and explain the behavior of combinational circuits including encoders, decoders, arithmetic circuits, multiplexers and demultiplexers; and
- identify and use appropriate technical literature for the research assignment.
Corequisites: MT 125 F/S (N)
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EL 117 - Lab for EL 116 Credit Hours: 1
This course will provide an overview of fundamental concepts necessary to work with digital circuits. Integrated circuits will be used to develop and construct combinational logic and arithmetic circuits. The laboratory experiments and demonstrations will consist of: basic logic gates; verification of Boolean theorems; combinational logic circuit design; universality of NAND and NOR gates; encoders and decoders; and adders.
Course Outcomes Upon completion of this course, the student will be able to:
- test a Boolean algebraic expression by implementing a logic circuit;
- verify circuit operation using truth tables and Karnaugh maps;
- construct, test and troubleshoot the operation of complex logic functions,encoder/decoders, adders;
- write a well-organized and comprehensive report of the experimental results; and
- function effectively on a team.
Corequisites: EL 116 F/S (N)
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EL 118 - Electrical Circuits I Credit Hours: 2
This course will provide an overview of fundamental concepts necessary to work with electrical circuits including: electron theory; conductors; insulators; electromotive force; direct current; conventional current; voltage; resistance; factors affecting resistance; Ohm’s law; resistors in series; parallel and series/parallel; distribution of voltage and current; voltage and current divider rules; electrical power; and Kirchhoff’s laws.
Course Outcomes Upon completion of this course, the student will be able to:
- understand theoretical concepts as they apply to electrical circuits;
- understand and correctly use electrical terminology, symbols and units;
- identify basic components and determine their function in various types of circuits;
- apply electrical theory and concepts to determine the circuital values of voltage, current and power; and
- employ a systematic and methodical approach to mathematically solving circuital problems.
Corequisites: MT 125 F (N)
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EL 123 - Electronic Circuit Simulation Credit Hours: 1
The laboratory course will provide hands-on experience with electronic simulations using Pspice or Multisim. The course will include the following topics: schematic entry; bias point; DC sweep; AC sweep; transient analysis; and applications to DC, AC, and electronics circuits such as delta and wye three phase circuits, bridge rectifiers, transistor and FET amplifiers.
Course Outcomes Upon completion of this course, the student will be able to:
- use circuit simulation software to analyze the behavior of a variety of circuits;
- describe the limitations of device models; and
- apply Monte Carlo analysis to determine circuit behavior with real world component tolerances.
Prerequisites: EL 154, EL 158 F (N)
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EL 128 - EET Fabrication Credit Hours: 2
Topics include: lab safety; using electrical meters in simple series or parallel electrical circuits; resistor color code and Ohm’s law; identifying and properly wiring electric and electronic components; soldering, desoldering and rework of through-hole and SMT printed-circuit boards; cable fabrication and testing; electromechanical construction project including layout, fabrication and assembly; electrical power wiring using the National Electrical Code.
Course Outcomes Upon completion of this course, the student will be able to:
- use tools for electromechanical fabrication;
- demonstrate soldering and desoldering techniques for through-hole and SMT components;
- demonstrate wiring techniques, including power wiring in accordance with NEC;
- identify components and their values, and perform and verify assemblies; and
- properly wire metering equipment and use it for measuring current, voltage, resistance, capacitance, inductance and power.
Corequisites: EL 118 F/S (N)
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EL 131 - Lab for EL 130 Credit Hours: 1
Laboratory course to complement EL 130, with experiments emphasizing: use of voltage, current, power and resistance measuring instruments, factors effecting resistance, distribution of voltage, current and power in series, parallel and series/parallel DC resistor circuits, maximum power transfer theorem, Kirchhoff’s Laws, capacitors, inductors, data taking and writing a well-organized report.
Course Outcomes At the completion of the course, the student should be able to:
- apply theoretical concepts to practical electrical circuits;
- display a working knowledge of electrical symbols by constructing a circuit from a schematic;
- select the proper instruments to measure voltage, current and power;
- demonstrate an understanding of the limitations and loading effects of various meters, determine the proper placement of these meters in a working circuit;
- identify basic components and determine their function in a circuit;
- employ a systematic and methodical approach to analyzing and solving circuital problems;
- format data into tables and graphs using manual and computer techniques; and
- write a neat, concise report, submitted on time with an attitude of quality performance and improvement.
Corequisites: EL 130 F (N)
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EL 153 - Electronic Fabrication Credit Hours: 1.5
Topics include: lab safety; soldering, desoldering and rework of through-hole and SMT printed-circuit boards; cable fabrication and testing electromechanical construction project including layout, fabrication and assembly; use of drill press, shears, hole punch and bend brake and electrical power wiring using the National Electrical Code.
Course Outcomes At the end of the course, the student should be able to:
- use tools for electromechanical fabrication;
- demonstrate soldering and desoldering techniques for through-hole and SMT components;
- demonstrate wiring techniques, including power wiring in accordance with NEC; and
- identify components, and perform and verify assemblies.
F/S (N)
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EL 155 - Lab for EL 154 Credit Hours: 1
This laboratory course will provide students with hands on introduction to oscilloscope measurement of DC/AC amplitude, frequency and time; characteristics of diodes, zener diodes, bipolar and FET transistors; device application to clippers, clampers, power supplies, regulators, switching mode operation, DC biasing and small signal branching and loops; introduction to Multisim, DC bias and transient analysis.
Course Outcomes At the completion of the course, the student should be able to:
- understand and use an oscilloscope to observe and measure electronic voltages and signals;
- use test equipment to analyze the operation of electronic components;
- identify various electronic devices in a circuit and determine their operational function in the circuit;
- analyze and explain the operation of rectifiers, regulators and filters in a power supply;
- breadboard an amplifier, measure and determine the circuit operating point, voltage gain and phase angle;
- analyze simple transistor circuits operation, particularly small amplifiers; and
- write a well-organized and comprehensive report of the experimental results.
Corequisites: EL 154, EL 159 S (N)
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EL 158 - Electrical Circuits II Credit Hours: 3
This course will provide theoretical background in the following topics: distribution of voltage and current in series/parallel DC networks; advanced methods of circuit analysis for DC circuits such as source conversion, superposition, and Thevenin theorem; alternating current and voltage; sine wave form and values; capacitors or inductors in DC/AC circuits, energy storage and time constant; phase relationship; complex numbers; polar/rectangular conversions; vector representation; alternating current RL, RC and RLC series circuits.
Course Outcomes Upon completion of this course, the student will be able to:
- understand theoretical concepts as they apply to electrical circuits;
- understand and correctly use electrical terminology, symbols and units;
- identify basic components and determine their function in various types of circuits;
- apply electrical theory and concepts to determine the circuital values of voltage, current and power;
- describe the difference between DC and AC as they apply to electrical circuits with passive components;
- apply AC phasor and vector theory to combinational series RLC circuits and determine the voltages, currents, impedance, phase angle, apparent power, true power, reactive power; and
- employ a systematic and methodical approach to mathematically solving circuital problems.
Prerequisites: EL 118, MT 125 Corequisites: MT 126 S (N)
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EL 159 - Lab for EL 158 Credit Hours: 1
This laboratory course will provide hands-on experience for DC electrical circuits and will include the following experiments: use of voltage, current power and resistance measuring instruments; factors effecting resistance; distribution of voltage, current and power in series, parallel and series/parallel DC resistor circuits; Kirchhoff’s Laws; superposition and Thevenin’s theorems verified; RC time constant. AC experiments emphasize the use of AC voltage, current and power measuring instruments; measurement of voltage, current and power in series RC, RL and RLC single phase circuits; vector diagrams of circuit voltage and current.
Course Outcomes Upon completion of this course, the student will be able to:
- apply theoretical concepts to practical electrical circuits;
- display a working knowledge of electrical symbols by constructing a circuit from a schematic;
- select the proper instruments to measure voltage, current and power;
- determine the proper placement of meters in a working circuit;
- identify basic components and determine their function in a circuit;
- employ a systematic and methodical approach to analyzing and solving circuital problems; and
- format data into tables and graphs to develop a neat, concise, well-written report.
Corequisites: EL 158 S (N)
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EL 162 - Digital Systems Credit Hours: 2
This course will provide an introduction to sequential logic and digital systems including: flip-flops; registers; counters; memory circuits; introduction to FPGAs; computing concepts and microprocessors; TTL and CMOS logic families and device parameters.
Course Outcomes Upon completion of this course, the student will be able to:
- analyze sequential logic circuits;
- identify and explain the behavior of sequential circuits including latches, flip-flops, registers and counters; and
- understand and explain the behavior of FPGAs, microprocessors, and memory.
Prerequisites: EL 116 F/S (N)
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EL 163 - Lab for EL 162 Credit Hours: 1
This laboratory course will provide experiments and demonstrations with integrated logic circuits and FPGAs to develop logic designs, latches, flip-flops, data registers, counters, multiplexors, RAM operation, and microprocessors. It will also provide students with hands-on experience in verifying the TTL IC circuit parameters.
Course Outcomes Upon completion of this course, the student will be able to:
- construct, test and troubleshoot the operation of flip flops, registers, counters, memory arrays;
- utilize FPGAs in circuit development and testing;
- write simple VHDL programming files;
- write a well-organized and comprehensive report of the experimental results; and
- function effectively on a team.
Prerequisites: EL 117 Corequisites: EL 162 F/S (N)
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EL 164 - Digital Circuits I Credit Hours: 3
Logic circuits and Boolean algebra; logic circuit design; logic families operation and specification; flip-flops; registers; counters; data handling; decoder and multiplexer; number systems and codes; arithmetic functions; input/output circuits and memory circuits; D/A and A/D converters.
Course Outcomes At the completion of the course, the students will be able to:
- perform calculations and base conversions in the binary, decimal and hexadecimal number systems;
- relate logic diagrams to Boolean expressions, truth tables and state tables;
- analyze combinational and sequential logic circuits;
- identify and explain the behavior of combinational circuits including encoders, decoders, arithmetic circuits, multiplexers and demultiplexers;
- identify and explain the behavior of sequential circuits including latches, flip-flops, registers and counters; and
- identify and use appropriate technical literature for the research assignment.
Corequisites: MT 126 F/S (N)
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EL 165 - Lab for EL 164 Credit Hours: 1
Experiments and demonstrations using integrated circuits to develop logic designs and combinational logic circuits, flip-flop, data registers, counters, encoding and decoding circuits, arithmetic circuits, RAM operation.
Course Outcomes At the completion of the course, the students will be able to:
- test a Boolean algebraic expression by implementing a logic circuit;
- verify circuit operation using truth tables and Karnaugh maps;
- construct, test and troubleshoot the operation of complex logic functions, registers, counter, encoder/decoders, MUX, adders, memory arrays;
- write a well-organized and comprehensive report of the experimental results; and
- function effectively on a team.
Corequisites: EL 164 F/S (N)
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EL 170 - Electric Power Systems Credit Hours: 3
An overview of the electric power system from generation, transmission, distribution and delivery of electric power. Topics include: methods of generating electricity such as hydro, thermal coal, thermal nuclear, solar and gas turbine, transmission system voltages and construction, along with Wye and Delta distribution systems, transformers, single phase and three phase banks for common delivery voltages, electric service construction and building wiring methods and electric safety.
Course Outcomes At the completion of the course, the student should be able to:
- use tools for electromechanical fabrication;
- demonstrate wiring techniques;
- identify electrical equipment used in building service wiring and utility distribution system;
- perform building wiring and residential service wiring in accordance with the NEC code;
- install single phase service connection to service from transformer secondary;
- identify the delivery voltages in use: 120/240V, 208Y/120V, 480Y/277V, 120/240V Delta;
- identify the distribution voltages in use: 4.8kV Delta, 4.16kV Wye, 12.47kV Wye, 13.2kV Wye, 13.8kV Wye, 34.5kV Wye;
- identify the sources of electric power generation in Western New York and New York State and the specific types of generation;
- describe how each type of generation plant produces energy: Hydro, Nuclear, Thermal (Coal and Oil), Gas Turbine, Diesel;
- identify the major transmission voltages in use: 115kV, 230kV, 345kV, 765kV and describe how they are connected in a network; and
- identify the sub-transmission voltages in use: 11.5kV, 23kV, 34.5kV, 46kV, 69kV and describe how they are connected either radial or loop.
Prerequisites: EL 130 Corequisites: EL 174 S (N)
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EL 173 - Electric Power Overhead Construction Credit Hours: 4
Learn the skills necessary for the construction and maintenance of overhead electric distribution systems. Topics include: climbing of wood poles, performing construction from an overhead position, use of ropes and rigging equipment.
Course Outcomes At the completion of the course, the student should be able to:
- use Tools for electromechanical fabrication;
- identify electrical equipment used in overhead distribution systems;
- assemble equipment used in overhead distribution systems;
- climb distribution class poles safely, use fall protection;
- use rope and other equipment to rig and install equipment on distribution poles;
- install Work Area Protection;
- perform a pre-job brief, understand APR rules, use PPE;
- set up and work from a ladder; and
- install Guy wire.
Prerequisites: EL 170 S (S)
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EL 174 - Electrical Principles II Credit Hours: 4
Presents the foundations of basic AC circuit analysis. Topics include: alternating current and voltage, sine wave form and values, phase relationships, vector representation, AC series, parallel and series/parallel RC, RL, and RLC circuits, active/reactive/apparent power, phasors, Kirchhoff’s Laws, maximum power transfer applied to AC, resonance, polyphase systems (three-phase voltage, current and power, balanced and unbalanced loads), magnetic circuits, transformers.
Course Outcomes At the completion of the course, the student should be able to:
- describe the difference between DC and AC as they apply to electrical circuits with passive components;
- apply AC phasor and vector theory to combinational series-parallel RLC circuit and determine the voltages, currents, impedance, phase angle, apparent power, true power, reactive power, and power factor improvement;
- calculate the circuital values for series, parallel and series/parallel circuits;
- correctly apply electrical subscripting, symbols and units to polyphase systems;
- apply AC theory to determine the primary and secondary values of voltage, current, power, and impedance of a transformer; and
- employ a systematic and methodical approach to mathematically solving circuital problems.
Prerequisites: EL 130, MT 121 Corequisites: EL 175 S (N)
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EL 175 - Lab for EL 174 Credit Hours: 1
Laboratory course to complement EL 174 with experiments emphasizing: use of AC voltage, current and power measuring instruments, measurement of voltage, current and power in series, parallel and series/parallel RC, RL and RLC single phase circuits, vector diagrams of circuit voltages and current, power factor improvement, current, voltage and power in three-phase circuits, balanced and unbalanced loads, delta-wye connections, data collection and analysis, well organized reports.
Course Outcomes Upon completion of this course, the student will be able to:
- apply theoretical concepts to practical electrical circuits;
- display a working knowledge of electrical symbols by constructing a circuit from a schematic;
- select the proper instruments to measure voltage, current and power;
- demonstrate an understanding of the limitations and loading effects of various meters, determine the proper placement of these meters in a working circuit;
- identify basic components and determine their function in a circuit;
- employ a systematic and methodical approach to analyzing and solving circuital problems;
- format data into tables and graphs using manual and computer techniques;
- develop a neat, concise, well-written report; and
- work in teams to affect the final circuit and data.
Prerequisites: EL 131 Corequisites: EL 174 S (N)
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EL 202 - Electrical Circuits III Credit Hours: 3
This course will provide an overview of circuit analysis techniques for AC circuits including the following topics: AC series, parallel and series/parallel circuit analysis; phasors; Kirchhoff’s Law; network theorems; AC power, maximum power transfer, power factor and power factor correction; resonance; polyphase systems: delta-wye connections, three-phase voltage/current/power, vector representation, and balanced and unbalanced three-phase loads; magnetic circuits; transformers; and mesh and nodal analysis.
Course Outcomes Upon completion of this course, the student will be able to:
- apply AC phasor/vector theory and advanced network theorems and circuit analysis tools to combinational series-parallel RLC circuits and determine the voltages, currents, impedance, phase angle, apparent power, true power, reactive power, and power factor improvement;
- calculate the circuital values for series, parallel and series/parallel resonant circuits;
- correctly apply electrical subscripting, symbols and units to polyphase systems;
- apply AC theory to explain basic transformer operation and to determine the primary and secondary values of voltage, current, power, and impedance;
- employ a systematic and methodical approach to mathematically solving circuit problems; and
- identify and use appropriate technical literature for the research assignment.
Prerequisites: EL 158, MT 126 F (N)
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EL 203 - Lab for EL202 Credit Hours: 1
This laboratory course provides ample hands on experience with wiring and trouble-shooting of AC circuits by means of the experiments emphasizing: use of AC voltage, current and power measuring instruments; measurement of voltage, current and power in series, parallel and series/parallel RC, RL and RLC single phase circuits; vector diagrams of circuit voltage and current; power factor improvement; current, voltage and power in three-phase circuits; balanced and unbalanced loads; delta-wye connections; transformers.
Course Outcomes Upon completion of this course, the student will be able to:
- select the proper instruments to measure voltage, current and power;
- determine the proper placement of meters in a working circuit;
- identify basic components and determine their function in a circuit;
- employ a systematic and methodical approach to analyzing and solving circuit problems; and
- format data into tables and graphs to develop a neat, concise, well-written report.
Prerequisites: EL 159 Corequisites: EL 202 F (N)
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EL 206 - Machines and Control Credit Hours: 3
This course will provide theoretical background in the following topics: magnetics; electromagnetics; B-H curves; Faraday’s Law; ideal transformer; practical transformer; losses; hysteresis; Eddy currents; equivalent circuit, Lenz’s Law; short circuit/open circuit testing; introduction to heat, torque, speed, inertia; DC motor theory; shunt, series, compound motor characteristics; armature reaction; Lorentz’s Law; review of three phase power; AC motor theory; induction, synchronous, three phase and single phase motors; stepper motors.
Course Outcomes At the completion of the course, the student should be able to:
- relate fundamental laws governing electrical machines;
- understand the operation and usage of power transformers;
- identify the operational differences between various DC motors and generator systems;
- identify and describe various 3-phase motor systems;
- understand the operation and application of 3-phase induction and synchronous motors;
- describe the difference between single and 3-phase motors;
- identify and use appropriate technical literature for the research project; and
- make effective presentation of the research topic.
Prerequisites: EL 202 S (N)
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EL 207 - Lab for EL 206 Credit Hours: 1.5
This laboratory course will provide hands-on experience with motor/generator/transformer circuits and will include the following topics: transformer turns ratio; Edison system; autotransformer; transformer polarity test and short and open circuit tests; transformer loading characteristics; DC generator operating characteristics; shunt, series, and compound DC motor characteristics; dynamic braking; AC three phase induction motor operating characteristic; variable speed drives; stepper motors.
Course Outcomes At the completion of the course, the student should be able to:
- develop and identify various types of transformer operations;
- determine the characteristic of a practical transformer under loaded and unloaded operations;
- relate fundamental laws governing electrical machine operations;
- identify the characteristic differences between various DC motors and generator systems;
- identify and describe the characteristic of the 3-phase induction motor;
- use a variable speed control for 3-phase motors; and
- identify and describe the characteristic of the stepper motor.
Prerequisites: EL 203 Corequisites: EL 206 S (N)
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EL 210 - Microcontrollers Credit Hours: 3
This course includes a study of microcontroller hardware, software, interfacing and applications. The architecture, instruction set and programming of a modern microcontroller are covered. Special features, such as A/D and D/A conversion and timer functions, are included. Applications to data acquisition and control are presented.
Course Outcomes At the completion of this course, the student should be able to:
- identify and describe computer subsystems and explain their function;
- explain addressing modes and computer operating cycles;
- write, comment, and debug code in assembly or a higher level language on an 8-bit microcontroller; and
- analyze the operation of I/O devices, including parallel ports, A/D converters, D/A converters and timers.
Prerequisites: EL158, EL162, EL 214 S (N)
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EL 217 - Lab for EL 214 Credit Hours: 1
This laboratory course introduces experiments demonstrating the characteristics of operational amplifiers, timers, three-terminal regulators, active and passive filters, A/D and D/A converters, comparators, and PLLs.
Course Outcomes Upon completion of this course, the student will be able to:
- measure voltages and signals for a variety of circuits using an oscilloscope;
- analyze circuit operation analytically and using Multisim;
- build electronics circuits based on a schematic;
- apply mathematical relationships to closely approximate the actual circuit response; and
- write a well-organized and comprehensive report of the experimental results.
Prerequisites: EL 155 Corequisites: EL 214 F (N)
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EL 223 - Electronic Fabrication Credit Hours: 1
This course will provide an introduction to various electronic fabrication processes and techniques including: lab safety; soldering, desoldering and rework of through-hole and SMT printed-circuit boards; cable fabrication and testing; electromechanical construction project including layout, fabrication and assembly; use of drill press, shears, hole punch and bend brake; and electrical power wiring using the National Electrical Code.
Course Outcomes Upon completion of this course, the student will be able to:
- perform electromechanical fabrication using a variety of tools;
- demonstrate soldering and desoldering techniques for through-hole and SMT components;
- demonstrate wiring techniques, including power wiring in accordance with NEC; and
- identify components, and perform and verify assemblies.
Corequisites: EL 154, EL 158 S (N)
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EL 228 - Electronic Communications I Credit Hours: 3
This course is an introductory study of analog and digital communications theory. Analog topics include modulation techniques, noise, AM, FM, and SSB modulation and demodulation, wave propagation, and microwave applications. The digital communications circuits and systems considered include PCM and mobile telephone.
Course Outcomes At the completion of the course, the students will be able to:
- dentify and describe a variety of modulation methods including AM, FM, SSB, PCM, and QAM;
- describe electromagnetic waves, their properties and behavior; and
- explain the effects of modern communications methods on society.
Prerequisites: EL 164 Corequisites: El 202 and EL 214 F/S (N)
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EL 230 - Introduction to Photovoltaic Systems Credit Hours: 3
This course will provide an overview of fundamental concepts necessary to work with Photovoltaic (PV) systems, including: photoelectric effect, pn junction, solar cell design and manufacturing, history of solar power; solar radiation, site analysis; grid-direct PV system components (PV modules, inverters, balance of system components), PV module criteria, PV systems safety; system design and sizing for grid-direct systems; NEC for photovoltaic applications, wire sizing, over-current protection, grounding; mounting solutions, thermal effects, wind load; commissioning and maintenance; economic analysis. Experiments emphasize: photoelectric effect; performance characteristics of solar modules based on different technologies; irradiance, temperature, and angular position response of PV modules; shading analysis and mounting determination; series and parallel PV circuits and their characteristics; proper usage of inverters in the PV systems; comparison of pure sine inverters and modified square wave inverters.
Course Outcomes Upon completion of this course, the student will be able to:
- demonstrate mastery of electrical PV terminology, symbols and units;
- identify basic components and determine their function in various PV systems;
- apply basic principles of photovoltaic systems to design and installation;
- construct and troubleshoot photovoltaic circuits including solar modules and inverters;
- apply safety procedures applicable to PV systems;
- perform standard measurements and analysis using industry-specific PV equipment and software;
- function effectively as a member of technical design team; and
- make an effective presentation of a research or design topic.
Prerequisites: EL 154, EL 155, EL 158, EL 159 F/S (N)
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EL 250 - Electronic Communications Credit Hours: 3
This course is an introductory study of analog and digital communications theory, systems, and circuits. Analog topics include modulation techniques, noise, tuned circuits, oscillators, AM, FM, and SSB modulation and demodulation, mixers, transmission lines, wave propagation, antennas, and microwave applications. The digital communications circuits and systems considered include PCM, television, and mobile telephone.
Course Outcomes At the completion of this course, the student should be able to:
- identify and describe a variety of modulation methods including AM, FM, SSB, PCM and QAM;
- analyze communications circuits including RF, IF, and audio amplifiers, oscillators, detectors, AGC circuits, tuned circuits, filters, mixers, modulators, superheterodyne receivers;
- identify transmission lines and describe the characteristics of each type;
- describe the propagation of DC waves and standing waves in transmission lines;
- describe electromagnetic waves, their properties and behavior; and
- explain the effects of modern communications methods on society.
Prerequisites: EL 162, EL 202, EL 214 S (N)
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EL 253 - Lab for EL 250 Credit Hours: 1
This course is an introductory study of communications, theory, systems and circuits. Analog topics include modulation techniques, noise, tuned circuits, AM, FM, and SSB modulation, demodulation, mixers, transmission lines and applications. Basic breadboard experiments include resonance, oscillators, class C tuned amplifiers, modulators, detectors, filters and mixers. Additional and/or substitute experiments and simulations selected from frequency multipliers, PLL, transmission lines, transmitters, receivers, PCM and other topics as approved by instructor.
Course Outcomes Upon completion of the course, the student will be able to:
- construct, simulate, analyze, and measure communications circuits including RF amplifiers, oscillators, detectors, tuned circuits, filters, mixers, modulators, TRF receivers;
- use a spectrum analyzer to observe signals in the frequency domain;
- identify and use appropriate technical literature for a research project; and
- make an effective presentation of a research topic.
Prerequisites: EL 155, EL 203, EL 217 Corequisites: EL 250 S (N)
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EL 258 - Semiconductor Fabrication Credit Hours: 3
This course will provide an overview of semiconductor device fabrication, including both front-end of line and back-end of line processes. Topics will include basic fabrication and yield; silicon wafer crystal structure and manufacturing; thermal processes; lithography methods; wet and dry etching; chemical and physical vapor deposition; device characterization methods; and applications to simple devices and integrated circuits.
Course Outcomes Upon completion of this course, the student will be able to:
- demonstrate mastery of semiconductor instrument terminology and functionality;
- identify basic instruments and determine their function in various process applications;
- apply basic principles of semiconductor instrumentation to design and installation of a functioning fabrication line;
- apply theoretical concepts of semiconductor physics to the design of real components; and
- identify and use appropriate technical literature for the research assignment.
Prerequisites: EL 154, MT 126 S (N)
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EL 259 - Lab for EL 258 Credit Hours: 1
This course will provide an overview of the instrumentation used in the fabrication of semiconductor devices, and a simple device will be fabricated and tested. Experiments will include vacuum systems; thermal processes such as dry oxide growth and diffusion in a tube furnace; photolithography; reactive ion etching; metallization via sputtering; profilometry; ellipsometry; fabrication of a PN Junction or Schottky barrier diode; and testing of the device using various characterization instruments.
Course Outcomes Upon completion of this course, the student will be able to:
- construct and test basic vacuum systems using standard components and gauges;
- use a top down approach (lithography, deposition, material modification, and etching) to construct a simple semiconductor device;
- identify and use appropriate characterization equipment to test a device; and
- write a well-organized and comprehensive report of the experimental results.
Corequisites: EL 258 S (N)
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EL 260 - Programmable Logic Controllers Credit Hours: 3
Introduction to PLCs; PLC architecture; memory addressing and I/O addressing; scan time; ladder logic programming; timers and counters; I/O modules; arithmetic instructions; sequencer instructions and troubleshooting PLC systems. Experiments include: PLC I/O characteristics; sinking and sourcing; reading digital inputs and producing on-off outputs; window comparators and alarms; motor control logic; time delays and timer intervals; counting events; reading AC inputs and controlling AC loads; sequencer control; troubleshooting PLC systems and PLC communications; controlling PLC and loads from touch-screen panel interface.
Course Outcomes At the completion of the course, the student should be able to:
- identify and use symbology of ladder logic;
- write and execute programs using timers, counters and sequencing;
- understand the PLC architecture;
- choose the appropriate I/O loading configuration;
- identify and interpret data manipulation and arithmetic operations for the PLC;
- properly connect a PLC to control digital or analog devices;
- properly program touch-screen interface modules and connect them to PLC; and
- effectively work as a member of technical team on larger design projects.
Prerequisites: EL 116, EL 158, EL 159 F (N)
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EL 262 - Renewable Energy in Electric Power Systems Credit Hours: 3
This course covers several types of renewable energy including wind, photovoltaic and solar thermal electricity, tidal power, wave power, hydropower and biomass. Students will be introduced to the fundamentals of conventional power generation and conditioning, and the effects of variable power generation on voltage and frequency stability. Circuits and machines used to convert renewable energy into electrical form will be examined. Electrical transmission and distribution systems, reactive power management, power and load flow, faults and protection will be introduced.
Course Outcomes Upon completion of this course, the student will be able to:
- identify and describe a variety of renewable energy systems;
- apply electrical and electronic circuit theory to the conversion of renewable energy to electrical form;
- describe electrical transmission and distribution systems;
- explain the effects of various renewable energy systems on society and the environment;
- identify and use appropriate technical literature for the research project; and
- make an effective presentation of a research topic.
Prerequisites: EL154, EL158 S (N)
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EL 264 - Photovoltaic Systems Credit Hours: 3
This course will provide an overview of fundamental concepts necessary to work with PV systems, including: photoelectric effect, pn junction, solar cell design and manufacturing, history of solar power; solar radiation, site analysis; PV system components (PV modules, batteries, inverters, charge controllers), PV module criteria, PV systems safety; system design and sizing for grid-direct, stand-alone, bimodal and hybrid systems; NEC for photovoltaic applications, wire sizing, over-current protection, grounding; mounting solutions, thermal effects, wind load; commissioning and maintenance; economic analysis.
Course Outcomes At the completion of this course, the student should be able to:
- apply theoretical concepts as they apply to photovoltaic circuits;
- demonstrate mastery of electrical PV terminology, symbols and units;
- identify basic components and determine their function in various PV systems;
- apply basic principles of photovoltaic systems to design and installation;
- function effectively as a member of technical design team; and
- make an effective presentation of a research or design topic.
Prerequisites: EL 154, EL 202 S (N)
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EL 266 - Advanced Network Analysis Credit Hours: 1
This course will provide an overview of advanced electrical networks and electronics analysis techniques including: mesh analysis, nodal analysis, bridge networks, Y and delta conversions, Norton theorem, Millman’s theorem, and two-port networks including hybrid transistor model and H-parameters, impedance (Z) and admittance (Y) transistor and circuit parameters, scattering (S) and chain (ABCD) circuit parameters. The course will emphasize the use of linear algebra approach as an integral part of the advanced analysis of electrical networks.
Course Outcomes At the completion of the course, the students should be able to:
- demonstrate mastery of advanced electrical and electronic networkanalysis techniques; and
- apply linear algebra to advanced network analysis.
Prerequisites: EL 150, EL 154 Corequisites: EL 214 S (N)
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EL 267 - Lab for EL 264 Credit Hours: 1
This course is an introductory study of photovoltaic systems, theory, PV components and PV circuits. Experiments emphasize: photoelectric effect; performance characteristics of solar modules based on different technologies; irradiance, temperature, and angular position response of PV modules; shading analysis and mounting determination; series and parallel PV circuits and their characteristics; proper usage of inverters, charge controllers and batteries in the PV systems; comparison of pure sine inverters and modified square wave inverters; implementation of stand-alone battery-backup PV system. Additional and/or substitute experiments from grid-intertie, hybrid systems, and other topics as approved by instructor.
Course Outcomes Upon completion of this course, the student will be able to:
- construct and troubleshoot photovoltaic circuits including solar modules, charge controllers, inverters, batteries;
- identify basic PV components and determine their function in a circuit;
- apply safety procedures applicable to PV systems; and
- perform standard measurements and analysis using industry-specific PV equipment and software.
Prerequisites: EL 155, EL 159 Corequisites: EL 264 S (N)
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EL 268 - Wind Power Credit Hours: 4
This course will provide an overview of fundamental concepts necessary to work with wind power systems, including: aerodynamics of wind turbines, wind characteristics and resources, determination of turbine’s power output, design of various sizes wind turbines, power transmission, transformers, generators (ac induction/asynchronous, ac synchronous, ac double fed induction generators, dc generators), wind turbine materials and components, wind turbine siting, interconnection with the utility, off-the-grid systems, hybrid systems, wind energy economics, environmental aspects and impacts.
Course Outcomes At the completion of this course, the student should be able to:
- apply theoretical electrical, mechanical, and physical concepts to wind power systems;
- demonstrate mastery of electrical wind power terminology, symbols and units;
- identify basic components and determine their function in various wind systems;
- apply basic principles of wind power systems to siting analysis, design and installation; and
- make an effective presentation of a research or design topic.
Prerequisites: EL 154, EL 202 S (N)
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EL 272 - Advanced PLCs and Automation Credit Hours: 3
This course will introduce students to advanced programmable logic controllers (PLCs) and automation topics: networking fundamentals such as routing protocols, IP addressing, network infrastructure, access methods and networking cabling; PLC I/Os electronic circuitry (triacs, SCRs, opto-isolators); specialty I/Os for work with electro-mechanical and pneumatic sensors, controllers, transducers, limit switches, electronic switches, speed/rotation sensors, VFDs; fundamentals of control and operation of pneumatic systems including basics of fluid mechanics, theory of use of pneumatic devices for process control, theory and operation of direction control valves and pressure control valves; fundamentals of highly automated manufacturing systems such as manufacturing sequences, remote access, production flow analysis; advanced programming techniques such as stage programming for controlling robotic mechanisms in an integrated manufacturing cell; safety PLCs.
Course Outcomes Upon completion of this course, the student will be able to:
- design, build and troubleshoot local network including PLCs, operator interfaces and Ethernet-connected loads;
- control electro-pneumatic systems using PLCs;
- write and troubleshoot ladder logic programs to control VFDs, high-speed motors, and actuators using the input from specialty I/O units;
- utilize stage programming for analyzing and implementing the controlling sequence for robotic manufacturing applications; and
- effectively work as a member of technical team on larger design projects.
Prerequisites: EL 260 S (N)
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EL 274 - Internship Credit Hours: 3
The cooperative/internship is designed to provide job-success skills and on-the-job work experience in local electronics industries. The course emphasizes job search techniques, resume preparation, effective interviews, self-assessment and improvement, motivation, interpersonal skills, time management and problem resolution. Work in a local industry may provide a job opportunity or at least improve the resume by providing job experience.
Course Outcomes At the completion of the course, the student will be able to:
- complete a job application, including a cover letter and resume;
- apply basic electronics technology skills on the job; and
- demonstrate ability to accept and utilize constructive criticism to perform more effectively on the job.
Prerequisites: 2.0 GPA, completion of first year EET courses, recommendation by EET Department Chair, and acceptance by a local employer or an ECC Department that can provide electronics/computer work experience. F/S (N)
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EL 278 - Electronic Communications II Credit Hours: 3
This is the second course of a sequence in analog and digital communications theory. Topics include transmitters, receivers, communication circuits, transmission lines, and antennas. Basic experiments include oscillators, class C tuned amplifiers, modulators, detectors, filters, mixers, transmission lines, transmitters, receivers, PCM and other topics.
Course Outcomes At the completion of the course, the students will be able to:
- identify transmission lines and describe the characteristics of each type;
- describe the propagation of DC waves and standing waves in transmission lines;
- construct, simulate, analyze, and measure communications circuits including RF amplifiers, oscillators, detectors, tuned circuits, filters, mixers, modulators, transmission lines, and antennas; and
- use a spectrum analyzer to observe signals in the frequency domain.
Prerequisites: EL 202, EL 214, EL 238 S (N)
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EL 280 - Advanced Photovoltaic Systems Credit Hours: 3
This course will provide an overview of battery energy storage, charge controllers, power conditioning units; generators; system design and sizing for stand-alone, bimodal and hybrid ptotovoltaic systems; NEC for stand-alone, bimodal and hybrid photovoltaic applications, wire sizing, over-current protection, grounding. Experiments emphasize: proper usage of charge controllers and batteries in the PV systems; state of charge monitoring; inverters in stand alone, bimodal and hybrid battery-backup systems; implementation of stand-alone battery-backup PV system. Additional and/or substitute experiments from grid-intertie, hybrid systems, and other topics as approved by instructor.
Course Outcomes Upon completion of this course, the student will be able to:
- apply basic principles of photovoltaic systems to design and installation;
- construct and troubleshoot photovoltaic circuits including solar modules, inverters, batteries, charge controllers, DC/AC disconnects;
- apply safety procedures applicable to PV systems;
- make an effective presentation of a research or design topic; and
- function effectively as a member of technical design team.
Prerequisites: EL 230 |
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EL 282 - Plasma and Thin Films Deposition Course Outcomes Upon completion of this course, the student will be able to:
- describe DC, AC and RF plasma;
- describe transmission of RF electro-magnetic waves in coaxial cables;
- construct, analyze and measure RF propagation circuits including RF sources, coaxial cables, impedance-matched circuits, SWR analyzers, and oscilloscopes; and
- deposit and measure thin films in DC and AC/RF sputtering systems.
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IE 161 - Industrial Robotics & Automation Credit Hours: 3
This course provides an introduction to the basics of robotic operation and use in manufacturing industries. Included are robot classifications, principles and practical applications. Emphasis is on the workings of the mechanical manipulators in a safe manner. The student will also experience how to compute the spatial positions, orientation, and frames of a robot manipulator. The different methods of programming an industrial robot using specific manufacturer’s software will also be demonstrated. The course will also cover various robotic nomenclature, classifications, applications, input/output sensor interfacing, and work cell design.
Course Outcomes Upon successful completion of this course, the student will be able to:
- differentiate the different types of industrial robots;
- demonstrate I/O and sensor interfacing used with robotic controllers;
- contrast end effector types, considerations and control;
- explain robot motion and control;
- write simple programs to map robotic motion;
- program a robot to work under programmed control; and
- outline steps to prepare a plan for implementing the use of a robot for a process.
Prerequisites: IE 100, IT 275 Corequisites: IE 160 S (N)
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Emergency Management |
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ER 110 - Introduction to Emergency Management Credit Hours: 3
An introduction to the fundamentals of emergency management. The basic types of hazards threatening the United States are discussed and the differences between hazards, emergencies, and disasters are described. The many players involved in emergency management are identified; and their roles, responsibilities, and responses impacting the socio-economic effects of emergencies or disasters in their communities are examined. The activities required to build effective emergency management organizations and developing an emergency plan are presented. The perception of risk to environmental hazards and the protective action decision model are discussed in detailed. Hazard, vulnerability, and risk analysis concepts and methodologies are learned and applied to different scenarios. The four phases of emergency management: hazard mitigation, preparedness for emergency response, organizational emergency response, and disaster recovery are defined and analyzed. Emphasis is on all hazards for all government levels, business or industry, and nonprofit organizations across the four phases. A performance-based approach is utilized that allows the students to apply what they have learned at the ECC Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- identify and understand the types of hazards, emergencies, and disasters that impact a community;
- explain the roles, responsibilities, and interrelationship among players involved in emergency management;
- build an effective emergency management organization;
- describe risk, how people perceive risk of environmental hazards, and how to take protective actions;
- assess the pre-event conditions that produce disaster vulnerability within communities;
- demonstrate an understanding of mitigation and the use mitigation strategies;
- examine the functions of the community emergency response organization; and
- describe and understand the activities during the recovery phase.
F (C, S)
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ER 111 - Risk Communication and Public Information Credit Hours: 3
A description of risk communication and its principles; and the study of the role and skills of the public information officer during an emergency. The principles and factors for effective risk communication are explained. Topics addressed includes: major problems faced in communicating risk to the public, common misconceptions during communication campaigns, and writing risk messages. The basic skills of the public information officer, including verbal and written communications, information dissemination, and the role of the media and the relationship of the PIO with the media are described. The basic tools, techniques and latest technology to assist the PIOs in carrying out their emergency public information responsibilities are presented. A performance-based approach is utilized by conducting radio and TV interviews allowing the students to apply what they have learned at the ECC Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- describe the basic communication process;
- list and explain the principles of risk communication;
- explain the roles and responsibilities of the public information officer including the legal aspects;
- demonstrate the ability to develop working relationships with the media, co-workers, and superiors concerning public information activities;
- demonstrate the ability to research, write and deliver news releases;
- demonstrate the ability to explain the public information officer’s role in crisis communications;
- explain the public information officer’s roles within the incident command system; and
- describe the responsibilities of the PIO to the public, the media, the PIO’s agency, and responding agencies.
F (C, S)
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ER 120 - Emergency Planning Credit Hours: 3
An introduction to the principles of the process and practice of emergency planning. Emergency planning is presented in its many contexts: the practice of emergency management; the community for which the planning is conducted, including the political, private business and nonprofit sectors; and the network of intergovernmental relationships. A range of strategies and skills required for a successful planning process are learned and applied. The process addresses preparedness, vulnerability, and resources inside and outside the community. Special emphasis is placed on all hazards exposure, the basics of protective actions, and protective actions recommendations. Emergency continuity of operations plans for government and private businesses are covered in detail. A performance-based approach is utilized that allows the students to apply what they have learned at the ECC Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- understand the emergency planning process as a key function of emergency management;
- design planning goals for mitigation, preparedness, response, and recovery;
- identify the components of an emergency plan, the principles of the planning process, and the resources used in the planning process;
- describe the impacts of disasters on people’s mental and health physical health;
- assemble an emergency planning team, motivate the team members, and train the team;
- estimate hazard exposure;
- write an emergency plan;
- develop and implement continuity plans for the government and businesses; and
- demonstrate understanding of the role of the Emergency Operations Center and the Incident Management System.
S (C, S)
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ER 121 - Incident Management System Credit Hours: 3
A study of the fundamentals and applications of the Incident Management Systems (IMSs). The major forms and concepts of the Incident Management/Incident Command Systems, including the evolution of three of the IMSs are discussed. The coordination of efforts and activities of individual agencies in order to stabilize an incident and protect life, property, and the environment are presented. Advanced Incident Management Systems Concepts: incident management team; incident management team training; unified command; and priorities are learned and applied at the ECC Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- develop an initial organizational structure;
- describe the minimum staffing requirements for an incident;
- develop incident objectives and prepare an incident action plan;
- list and describe the key positions and functions within the ICS organization;
- describe the unified command for complex incidents and multijurisdictional responses;
- describe the ICS/EOC interface;
- identify and explain the steps involved in managing incident resources;
- identify factors that may require expanding the command structure;
- identify potential issues regarding coordination and communication with other command structures and develop strategies for resolving the issues;
- define the elements to consider when developing a unified command; and
- describe the features of a unified command organization.
S (C, S)
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ER 122 - Emergency Management Leadership Credit Hours: 3
Basic principles of leadership with an emergency management perspective. The skills necessary to lead and influence others in the demanding setting of emergency management by increasing their range of skills in a variety of interpersonal areas: conflict management, use of power group dynamics, leadership and influence. It also identifies problems and their root causes as an important step in the process to be able to determine the appropriate type of decision-making style. Using a suggested process of problem solving, the students apply creative solutions to both emergency and non-emergency situations in an emergency management situation. A performance-based approach is utilized that allows the students to apply what they have learned at the ECC Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- explain the importance of leadership in emergency management;
- explain the principles of effective leadership;
- identify the actors that underlie the thought processes and affect the ability to lead;
- identify the leadership capabilities and areas for personal development;
- develop a change management model for management and the process for planning, communicating, and implementing change;
- describe the process to build and rebuild trust in an organization;
- develop political savvy to network and influence people effectively; and
- develop strategies for creating a positive work environment that fosters leadership and a commitment to continuous improvement in others.
S (C, S)
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ER 210 - Mitigation and Preparedness for Emergency Managers Credit Hours: 3
A study of the principles, process, and techniques for planning and building resilient communities. Hazard Mitigation and Preparedness provides an overview of building resilience at the community level, and defines hazards mitigation and preparedness as part of emergency management, including mitigation strategies. Meteorological and hydrological hazards, geological hazards, and man-made hazards focusing on the key characteristics of each type of hazard are discussed. Emphasis is placed on risk assessment as an essential component of emergency management, the process for identifying the hazards, and assessing vulnerability. Hazard mitigation planning and describing the process for goals, policies, and strategies are discussed. The mitigation tools and techniques to reduce vulnerability are covered. A performance-based approach is utilized that allows the students to apply what they have learned at the SUNY Erie Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- build resilience at the community level;
- assess the value of mitigation and preparedness;
- estimate the different types of costs associated with natural hazards, man-made hazards, and disasters;
- describe the major categories of hazards, including meteorological and hydrological hazards, geological hazards, and manmade hazards;
- evaluate the main issues regarding mitigation policy decision at the federal, state, and local government levels;
- assess risk and vulnerability and identify hazards;
- apply appropriate mitigation tools and techniques to reduce vulnerability;
- examine and explain an all hazards approach to mitigation planning; and
- apply the principles of sustainable development to foster a culture of prevention.
F (C, S)
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ER 211 - Disaster Response and Recovery Operations Credit Hours: 3
A study of the challenges confronting emergency managers after disasters, and the principles and concepts of disaster response and recovery operations. The different types of hazards and their interaction, and the consequences of disasters are discussed. It addresses the agencies and organizations participating in the response and recovery operations, including public servants, government departments, private, and non-profit organizations, and citizen volunteers. Two theoretical approaches to the management of disasters are identified, and the advantages and disadvantages of the traditional and the professional models are presented. In addition, these topics are covered in the response phase: hazard detection, warning, evacuation and sheltering, search and rescue, emergency medical care, fatality management, and stress counseling. In transitioning to the recovery phase, damage assessment, disaster declarations, and debris management are covered. The process of recovery and its relation to mitigation is investigated, and the types of disaster assistance and ways to reduce vulnerability are described. The decision making process in the areas of transportation, politics, special needs populations, communication, legal issues, and record keeping is explained.
Emphasis is placed in developing disaster resilient communities by underscoring the value of preparedness, improvisation, professionalism, and leadership in emergency management. A performance-based approach is utilized that allows the students to apply what they have learned at the SUNY Erie Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- evaluate distinct types of hazards as well as common disaster characteristics;
- assess the importance of response and recovery operations;
- describe the roles and responsibilities in the public and private sectors;
- explain the difference between the responsibilities of the local government after a disaster versus those of the state and the federal government;
- define the different disaster functions, including search and rescue, emergency medical care, fatality management, and stress counseling;
- determine what really happens in disaster situations;
- describe the two theoretical approaches to the management of disasters;
- describe the protective measure to protect lives in the initial steps of hazard detection, warning, evacuation, and sheltering;
- demonstrate an understanding of damage assessment, disaster declarations and debris assessment; and
- explain the value of preparedness, improvisation, professionalism and leadership.
F (C, S)
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ER 212 - Terrorism: Prevention, Preparedness, Response and Recovery Credit Hours: 3
A study of the challenges confronting emergency managers after disasters, and the principles and concepts of disaster response and recovery operations. The different types of hazards and their interaction, and the consequences of disasters are discussed. It addresses the agencies and organizations participating in the response and recovery operations, including public servants, government departments, private, and non-profit organizations, and citizen volunteers. Two theoretical approaches to the management of disasters are identified, and the advantages and disadvantages of the traditional and the professional models are presented. In addition, these topics are covered in the response phase: hazard detection, warning, evacuation and sheltering, search and rescue, emergency medical care, fatality management, and stress counseling. In transitioning to the recovery phase, damage assessment, disaster declarations, and debris management are covered. The process of recovery and its relation to mitigation is investigated, and the types of disaster assistance and ways to reduce vulnerability are described. The decision making process in the areas of transportation, politics, special needs populations, communication, legal issues, and record keeping is explained.
Emphasis is placed in developing disaster resilient communities by underscoring the value of preparedness, improvisation, professionalism, and leadership in emergency management. A performance-based approach is utilized that allows the students to apply what they have learned at the SUNY Erie Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- define “terrorism;”
- list and describe the types of Terrorist Incidents;
- describe the safety factors to consider when approaching a crime scene involving terrorist activity;
- explain the effects of chemical, biological, and radiological agents;
- synthesize the factors influencing the appearance of terrorism;
- compare and contrast the positive and negative impact of the media coverage;
- assess the threats of terrorism;
- predict the advantages of structural and non-structural mitigation;
- describe the differences between domestic and international terrorism, and the characteristics of terrorist groups and /or individuals; and
- select the appropriate personal protective equipment (PPE) required responding to any WMP or hazardous material incident.
F (C, S)
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ER 220 - Emergency Operations Center Management and ICS Interface Credit Hours: 3
An introduction to the design, operation, and management of the Emergency Operations Center (EOC). The following topics are covered and examined: EOC location and physical design; technology in the EOC; EOC functional and space layouts; financing the EOC; organization and staffing of the EOC; creating and maintaining a climate for cooperation and communication in the EOC; and creation of job aids and standard operating procedures (SOPs).
Emphasis is placed in developing an effective interface between the Incident Command and the Emergency Operations Center (EOC) by applying Incident Command System (ICS) principles. A performance-based approach that emphasizes the learning activities, consisting of a series of exercises to allow activation, operation and de-activation of the EOC at the SUNY Erie Multi-Scenario Simulator is utilized.
Course Outcomes Upon completion of this course, the student will be able to:
- explain the relationship between EOC operations and the National Incident Management System (NIMS) requirements;
- describe the role that EOCs play in overall multiagency coordination;
- describe the relationship between the EOC and the on-scene Incident Command System (ICS) structure;
- identify staffing, information, systems, and equipment needs at the EOC;
- identify potential alternate locations suitable for EOC operations should the primary EOC facility become inoperable;
- develop a test, training, and exercise plan for critical EOC operations;
- develop a strategy and schedule for reviewing EOC resource requirements and technology needs;
- conduct briefings, exercises, and evaluations;
- identify the roles of ICS and EOC during emergency operations;
- apply ICS/EOC interface concepts in an exercise situation; and
- develop an ICS/EOC interface action plan for your community.
Prerequisites: ER 120, ER 121, ER 210, ER 211 S (C, S)
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ER 221 - Emergnecy Exercise Program Management Credit Hours: 3
A comprehensive study of the fundamentals of an exercise program for development, implementation, and administration. A performance-based approach for exercise design, development, conduct, evaluation, and improvement planning is presented as well as the process to identify the deficiencies and vulnerabilities and develop the after action report (AAR) and improvement plan (IP). Also, course topics that are addressed include: the value of conducting exercises; components of a comprehensive exercise program; the seven types of exercises; exercise evaluation; after action report with recommendations and corrective actions; and improvement plan. A small functional exercise is developed and conducted at the SUNY Erie Multi-Scenario Simulator.
Course Outcomes Upon completion of this course, the student will be able to:
- determine the benefits of an exercise program based on the results of exercises on improving response and recovery capability for specific emergencies;
- describe and apply the eight exercise design steps;
- identify the advantages and disadvantages of the three major types of exercises (tabletop, functional, and full-scale);
- define the purpose, objectives, and components of an exercise program;
- design and implement a small functional exercise using the eight-step design process;
- identify the critical tasks required to develop, implement, review, and revise an exercise program;
- conduct an exercise program needs assessment;
- develop the purpose, goals, objectives, and implementing strategies for a comprehensive exercise program; and
- develop a long-range (5 years or longer) exercise program plan that is risk-based and all-hazards, including the financial, personnel, equipment, and facilities requirements.
Prerequisites: ER 120, ER 121, ER 210, ER 211 S (C, S)
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Emergency Medical Technology/Paramedic |
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EG 009 - Basic Emergency Health Care Credit Hours: 2
This course is designed to train students in AHA cardiopulmonary resuscitation (CPR) and in hemorrhage control, management of fractures, treatment of various types of shock and management of poisoning victims in order to stabilize an individual prior to the arrival of paramedical personnel or the delivery of the victim to a hospital. Emphasis in the first three weeks is human anatomy and physiology relevant to emergency health care problems. Other topics covered include patient assessment, triage, mechanisms of injury and the attitude and performance expected of persons delivering emergency health care. It is recommended for students in any curricula.
Course Outcomes Upon completion the student will be able to perform a patient assessment and treatment on a patient in an emergency situation. This will include simple airway maneuvers, choking, treating unresponsive trauma or medical patients, performing CPR when needed and defibrillation. In addition the student will learn bleeding control, bandaging, and splinting among other emergency skills.
F/S (N)
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