Accredited by the Engineering Accreditation Commission(s) of ABET, http://www.abet.org, under the General Criteria and the Industrial and Similarly Named Engineering Program Criteria.

Industrial engineering contributes to the management decision-making process. It is concerned with the optimal utilization of integrated systems of people, methods, materials, machines, and energy to achieve organizational goals. In the application of principles and methods of engineering analysis and design, it is distinguished from other engineering disciplines in its concern with problems which involve human effort and energy, production systems, economy in the use of money, materials and time, and a high utilization of the social sciences.
Typical duties of an industrial engineer include:
- Review production schedules, engineering specifications, process flows, and other information to understand manufacturing and service methods and activities
- Determine how to manufacture parts or products or deliver services with maximum efficiency
- Develop management control systems to make financial planning and cost analysis more efficient
- Implement quality control procedures to resolve production problems or minimize costs
- Work with customers and management to develop standards for design and production
- Design control systems to coordinate activities and production planning to ensure that products meet quality standards
- Consult with clients about product specifications, vendors about purchases, management personnel about manufacturing capabilities, and staff about the status of projects
Industrial Engineering Degree Requirements
Career Potential in Industrial Engineering
The median annual wage for industrial engineers was $87,040 in May 2018. The median wage is the wage at which half the workers in an occupation earned more than that amount and half earned less. The lowest 10% earned less than $56,470, and the highest 10% earned more than $132,340.
In May 2018, the median annual wages for industrial engineers in the top industries in which they worked were as follows:
Professional, scientific, and technical services | $94,870 |
Computer and electronic product manufacturing | $93,760 |
Transportation equipment manufacturing | $89,530 |
Machinery manufacturing | $80,670 |
Fabricated metal product manufacturing | $75,080 |
Most industrial engineers work full time. Depending upon the projects in which these engineers are engaged, and the industries in which the projects are taking place, hours may vary.
Bureau of Labor Statistics, U.S. Department of Labor, Occupational Outlook Handbook, Industrial Engineers, on the internet at https://www.bls.gov/ooh/architecture-and-engineering/industrial-engineers.htm (visited November 19, 2019).
Industrial Engineering, BS Major in
Accredited by the Engineering Accreditation Commission(s) of ABET, https://www.abet.org, under the General Criteria and the Industrial and Similarly Named Engineering Program Criteria.
Associate Professor Puerzer, Program Director
Industrial engineering contributes to the management decision-making process. It is concerned with the optimal utilization of integrated systems of people, methods, materials, machines, and energy to achieve organizational goals. In the application of principles and methods of engineering analysis and design, it is distinguished from other engineering disciplines in its concern with problems that involve human effort and energy, production systems, the economy in the use of money, materials, and time, and high utilization of the social sciences.
Using the scientific method, industrial engineers establish factual information from which alternatives are defined, problems recognized and solved. In their concern for the design, improvement, and control of systems, they collect, analyze, arrange, and statistically examine data. They introduce new techniques and tools into the organization and into the decision-making process.
Areas of specialty associated with industrial engineering are administrative engineering, production and inventory control, automation, plant location and layout, methods engineering, quality control, data processing, operations research, cost forecasting, and control.
Program Educational Objectives
The program objectives of the Industrial Engineering Program at Hofstra University are to prepare graduates who:
- Are successful professionally in their desired career path, including industrial engineering based and other professional careers.
- Continue to adapt, learn, and grow by formal and informal means.
- Are ethical and responsible leaders with a global perspective in their profession and society.
Student Outcomes
Industrial engineering graduates will exhibit a range of knowledge, abilities and behaviors prepared to enter and become a successful member of the engineering community. These include:
- an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
- an ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
- an ability to communicate effectively with a range of audiences
- an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
- an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
- an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
- an ability to acquire and apply new knowledge as needed, using appropriate learning strategies.
Candidates for graduation must fulfill the following requirements:
1. The Successful Completion of at Least 128 Semester Hours
The successful completion of at least 128 semester hours and a cumulative grade point average of 2.0 in work completed at Hofstra. Military Science may not be counted toward this total semester hour requirement.
2. Liberal Arts
At least 68 semester hours must be completed in the liberal arts, with at least 48 of these semester hours taken outside of engineering.
3. Residence Requirements
There are two requirements that must ordinarily be completed in residence at Hofstra: 15 semester hours in the major field of specialization and the last 30 semester hours. The 15 semester hours need not be included within the last 30 hours.
4. DEPTH Requirement
The
is committed to ensuring that all undergraduate students engage in professional development activities prior to earning their degrees.Consequently the DeMatteis Experiences for Professional Training and Hiring (DEPTH) program has been created to provide specific opportunities for students to fulfill that requirement and consequently be better prepared for entrance into the working world. Every student must complete at least one professional activity prior to graduation. Examples of meeting this criterion include:
- Take SEAS 100 and then work as a Co-op student
- Work as an intern in a field related to major
- Maintain paid employment in any field
- Participate in W-SPiCE summer program and take SEAS 100
- Participate in ASPiRe program
- Do faculty-supervised research
- Participate in school-sanctioned competition(s) or other profession-oriented activities
- Volunteer at a charitable or non-profit organization
Attainment of this requirement will be reviewed and determined by the engineering department. Official acknowledgment of the successful completion of this degree requirement will appear on the student's transcript after approval by the Dean's Office.
5. General and Major Requirements
The following general and major requirements: WSC 001 or placement examination* and WSC 002; 3 hours in literature, literature in translation or comparative literature (chosen from distribution courses designated LT); 3 hours in behavioral social sciences (chosen from distribution courses designated BH); and 3 hours in history, philosophy, religion in social sciences (chosen from distribution courses designated HP). Students transferring in with previous social science/humanities credits may use them in place of distribution requirements in the same category as the transferred credits. Courses may not be taken on a Pass/D+/D/Fail basis. Transfer credit will only count toward the major for engineering courses completed with a minimum grade of C-.
Substitution for the following core courses in the Industrial Engineering program is not permitted: ENGG 119 - Industrial Engineering Methods, ENGG 186 - Design and Analysis of Experiments, ENGG 188 - Operations Research Optimization Techniques, CSC 132 - Computational Modeling, and CSC 187 - Linear Programming.
- CHEM 003A - (NS) General Chemistry I
- CHEM 003B - (NS) General Chemistry Laboratory I
CHEM 003B - (NS) General Chemistry Laboratory I
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- WSC 001 - Composition
- WSC 002 - Composition
- MATH 071 - (MA) Analytic Geometry and Calculus I
MATH 071 - (MA) Analytic Geometry and Calculus I
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- MATH 072 - (MA) Analytic Geometry and Calculus II
MATH 072 - (MA) Analytic Geometry and Calculus II
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- MATH 073 - (MA) Analytic Geometry and Calculus III
MATH 073 - (MA) Analytic Geometry and Calculus III
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- MATH 131 - (MA) Elementary Differential Equations
MATH 131 - (MA) Elementary Differential Equations
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- PHYS 011A - (NS) General Physics
- PHYS 011B - (NS) General Physics Laboratory
- PHYS 012A - (NS) General Physics
- TPP 112 - Technology and Human Values
- or
- ENGG 019 - Technology and Society
- or
- PHI 014 - (HP) Ethics
- or
- PHI 090 - (HP) Contemporary Ethical Issues
- ACCT 101 - Financial Accounting
- ENGG 010 - Computational Methods in Engineering
ENGG 010 - Computational Methods in Engineering
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- ENGG 015 - Designing the Human-Made World
- ENGG 016 - Comprehensive Engineering Design
- ENGG 025 - Mechanics: Statics
- ENGG 026 - Mechanics: Dynamics
- ENGG 027 - Engineering Materials
- ENGG 028 - Strength of Materials
- ENGG 030 - Engineering Circuit Analysis
- ENGG 034 - Circuit Analysis Laboratory
- ENGG 100 - Engineering Economy
- ENGG 101 - (MA) Numerical Methods I
- ENGG 110 - Project Management
- ENGG 112 - Engineering Drawing
- ENGG 113 - Engineering Thermodynamics
- ENGG 119 - Industrial Engineering Methods
- ENGG 121 - Computational Modeling
- ENGG 122 - Linear Programming
- ENGG 128 - Human Computer Interaction / Human Factors
ENGG 128 - Human Computer Interaction / Human Factors
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- ENGG 155 - Lean Six Sigma For Engineers
- ENGG 156 - Independent Projects in Engineering Design — Industrial Systems Engineering and Operations Research I
ENGG 156 - Independent Projects in Engineering Design — Industrial Systems Engineering and Operations Research I
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- ENGG 185 - Methods of Random Processes
- ENGG 186 - Design and Analysis of Experiments
- ENGG 188 - Operations Research Optimization Techniques
ENGG 188 - Operations Research Optimization Techniques
INDUSTRIAL ENGINEERING, BS MAJOR IN
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- MGT 101 - Introduction to Management
- PSY 001 - Introduction to Psychology
- PSY 033 - Industrial Psychology
- or
- PSY 034 - Organizational Psychology
- ECO 001 - Principles of Economics
6. Cumulative Average
A cumulative average of C or better is required in all engineering courses. A cumulative average of C or better is required in the courses: listed below. Reflecting the fact that not all full-time students can and do adhere to a four year time frame for degree completion, the suggested sequence below shows a possible alignment of courses within that compass.
- ENGG 025 - Mechanics: Statics
- ENGG 028 - Strength of Materials
- ENGG 030 - Engineering Circuit Analysis
- ENGG 100 - Engineering Economy
- ENGG 119 - Industrial Engineering Methods
- ENGG 185 - Methods of Random Processes
- ENGG 186 - Design and Analysis of Experiments
- ENGG 188 - Operations Research Optimization Techniques
ENGG 188 - Operations Research Optimization Techniques
INDUSTRIAL ENGINEERING, BS MAJOR IN
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Footnotes
* If this requirement is fulfilled by passing the placement examination, three (3) semester hours in the humanities or social sciences should be taken with adviser's approval.
** With adviser's approval.
Complete BS Requirements
Recommended Program Sequence - Total Hours: 128
INDUSTRIAL ENGINEERING, BS MAJOR IN
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