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50 Years of ERIC
50 Years of ERIC
The Education Resources Information Center (ERIC) is celebrating its 50th Birthday! First opened on May 15th, 1964 ERIC continues the long tradition of ongoing innovation and enhancement.

Learn more about the history of ERIC here. PDF icon

Showing 136 to 150 of 827 results
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Wankat, Phillip C. – Chemical Engineering Education, 2009
The Massachusetts Institute of Technology started the first US chemical engineering program six score years ago. Since that time, the chemical engineering curriculum has evolved. The latest versions of the curriculum are attempts to broaden chemical engineering to add product engineering, biology and nanotechnology to the traditional process…
Descriptors: Chemical Engineering, Engineering Education, Curriculum Development, Interdisciplinary Approach
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Heitsch, Andrew T.; Ekerdt, John G.; Korgel, Brian A. – Chemical Engineering Education, 2009
The University of Texas at Austin has developed an upper-division undergraduate laboratory called "NANOLAB" to introduce undergraduate science and engineering students to nanoscale science and engineering (NSE) concepts. The NANOLAB is not a stand-alone course offered by a specific department, but rather a laboratory station--or hub--that…
Descriptors: Undergraduate Students, Engineering Education, Laboratories, Natural Sciences
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Young, Edmond W. K.; Simmons, Craig A. – Chemical Engineering Education, 2009
We describe a simple, low-cost laboratory session to demonstrate the Fahraeus-Lindqvist effect, a microphase flow phenomenon that occurs in small blood vessels and alters the effective rheological properties of blood. The experiments are performed by flowing cells through microchannels fabricated by soft lithography and characterization of cell…
Descriptors: Science Experiments, Science Laboratories, Scientific Concepts, Science Instruction
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Fahidy, T. Z. – Chemical Engineering Education, 2009
Several currently popular methods of ascertaining which treatment (population) means are different, via random samples obtained under each treatment, are briefly described and illustrated by evaluating catalyst performance in a chemical reactor.
Descriptors: Comparative Analysis, Chemistry, Chemical Engineering, Sampling
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Spencer, Jordan L. – Chemical Engineering Education, 2009
This paper describes a process control experiment. The apparatus includes a three-vessel glass flow system with a variable flow configuration, means for feeding dye solution controlled by a stepper-motor driven valve, and a flow spectrophotometer. Students use impulse response data and nonlinear regression to estimate three parameters of a model…
Descriptors: Undergraduate Study, College Science, Science Experiments, Science Instruction
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Wood, Brian D. – Chemical Engineering Education, 2009
Although the multiscale structure of many important processes in engineering is becoming more widely acknowledged, making this connection in the classroom is a difficult task. This is due in part because the concept of multiscale structure itself is challenging and it requires the students to develop new conceptual pictures of physical systems,…
Descriptors: Engineering Education, Evaluation, Geometry, Computation
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Luyben, William L.; Tuzla, Kemal; Bader, Paul N. – Chemical Engineering Education, 2009
This paper describes a heat-transfer experiment that combines steady-state analysis and dynamic control. A process-water stream is circulated through two tube-in-shell heat exchangers in series. In the first, the process water is heated by steam. In the second, it is cooled by cooling water. The equipment is pilot-plant size: heat-transfer areas…
Descriptors: Heat, Experiments, Equipment, Energy
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Ali, Emad; Idriss, Arimiyawo – Chemical Engineering Education, 2009
Recently, chemical engineering education moves towards utilizing simulation soft wares to enhance the learning process especially in the field of process control. These training simulators provide interactive learning through visualization and practicing which will bridge the gap between the theoretical abstraction of textbooks and the…
Descriptors: Engineering Education, Chemical Engineering, Computer Simulation, Science Instruction
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Abbas, A.; Alhammadi, H. Y.; Romagnoli, J. A. – Chemical Engineering Education, 2009
In this paper, we discuss our approach in teaching the final-year course Process Systems Engineering. Students are given ownership of the course by transferring to them the responsibility of learning. A project-based group environment stimulates learning while solving a real engineering problem. We discuss postgraduate student involvement and how…
Descriptors: Engineering Education, Student Projects, Student Research, Undergraduate Study
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Farhadi, Maryam; Azadi, Pooya; Zarinpanjeh, Nima – Chemical Engineering Education, 2009
In this study, performance of a hydrogen-peroxide-driven car has been simulated using basic conservation laws and a few numbers of auxiliary equations. A numerical method was implemented to solve sets of highly non-linear ordinary differential equations. Transient pressure and the corresponding traveled distance for three different car weights are…
Descriptors: Motor Vehicles, Equations (Mathematics), Calculus, Performance
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Kontogeorgis, Georgios M.; Michelsen, Michael L.; Clement, Karsten H. – Chemical Engineering Education, 2009
According to so-called "Bologna model," many technical universities in Europe have divided their educations into separate 3-year Bachelor and 2-year Master programs (followed by an optional Ph.D. study). Following the "Bologna model," DTU has recently transformed its 5-year engineering education into a 3-year Bachelor (B.Sc.) and a two-year Master…
Descriptors: Engineering Education, Textbooks, Thermodynamics, Graduates
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Whitaker, Stephen – Chemical Engineering Education, 2009
Chemical engineering students begin their studies of mechanics in a department of physics where they are introduced to the mechanics of Newton. The approach presented by physicists differs in both perspective and substance from that encountered in chemical engineering courses where Euler's laws provide the foundation for studies of fluid and solid…
Descriptors: Mechanics (Physics), Chemical Engineering, Scientific Principles, Science Education
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Aronson, Mark T.; Deitcher, Robert W.; Xi, Yuanzhou; Davis, Robert J. – Chemical Engineering Education, 2009
A new laboratory course has been developed at the University of Virginia for senior- level chemical engineering students. The new course is based on three 4-week long experiments in bioprocess engineering, energy conversion and catalysis, and polymer synthesis and characterization. The emphasis is on the integration of process steps and the…
Descriptors: Feedback (Response), Laboratories, Chemical Engineering, Laboratory Experiments
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Nasri, Zakia; Binous, Housam – Chemical Engineering Education, 2009
A single equation of state (EOS) such as the Peng-Robinson (PR) EOS can accurately describe both the liquid and vapor phase. We present several applications of this equation of state, including estimation of pure component properties and computation of the vapor-liquid equilibrium (VLE) diagram for binary mixtures. We perform high-pressure…
Descriptors: Thermodynamics, Chemical Engineering, Chemistry, Equations (Mathematics)
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Woods, Donald R.; Sheardown, Heather – Chemical Engineering Education, 2009
The key idea is that 50 minutes of teacher talk with passive student listening is relatively ineffective in developing student learning. Teachers can create silences for productive active student learning. Students can also change from passive listeners to active talker-discussers of their learning. Ideas are given about how to overcome silences…
Descriptors: Discussion, Discussion (Teaching Technique), Engineering Education, College Students
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