





Here is a list of classes I teach at Alfred University. I teach at the
undergraduate and graduate level.
I also work on
independent study and thesis projects with students at the undergraduate
and graduate level.
Current year (07-08) ::
::: Undergraduate :::
CEMS 314 - Ceramic Processing Principles
3 hours. Processing ceramic materials into finished shapes ready for firing is dicussed in terms of engineering unit operations and scientific principles. Topics include specifications of raw materials, characteristics of processing additives, particle packing, rheology, milling, mixing, filtration, sizing and spray drying, dry pressing, plastic forming, injection molding, casting processes, and drying. Examples of process systems used and control of defects are discussed. Prerequisite CEMS 203.
CEMS 316 - Chemical Processing in Ceramics (CES 331)
3 hours. This course provides a knowledge and working understanding of the chemical facts and principles
involved in the synthesis of raw materials and the chemical fabrication techniques used in current industrial
practice. The discussion focuses attention on both oxide and non-oxide ceramics involved in high-performance
structural and electronic applications. The design of chemical processes is emphasized in assignments.
::: Graduate :::
CEMS 510 Advanced Ceramic Processing (CES 510)
3 hours. This course provides a review of all relevant issues concerning the processing and sintering of
advanced ceramic materials - discussing powder preparation and characterization, colloidal and sol-gel techniques,
powder consolidation and forming, sintering theory and practice, and microstructure evolution. The course shows
the importance of each step, and the critical interconnections among the steps, in the overall fabrication of
ceramics focuses on the formation of ceramics by firing consolidated powders reveals which ceramic manufacturing
methods are easier to employ and why covers the properties of colloidal suspension selucidates the liquid-phase
sintering and vitrification describes the role of solid solution additives in the sintering of ceramics considers the
densification of amorphous materials that can crystallize during firing and more.

Previous years ::
::: Undergraduate :::
CEMS 203 - Introduction to Ceramic Powder Processing. 3 hours. (Lab) (CES 205)
This course provides an introduction to the fundamental concepts ceramic powder processing with an emphasis
on the control of particle suspensions. These concepts are reinforced through a series of experiments investigating
colloidal suspension stability and theology, spray drying and compaction of ceramic powder/binder systems,
powder characterization (involving particle size distribution, powder surface area, and powder density),
particle packing behavior, and sintering and densification of powder compacts.
CEMS 235 - Thermodynamics of Materials. 3 hours. (CES 235)
This course introduces the fundamental concepts of thermodynamics and their application to materials systems.
CEMS 237 - Thermal Processes in Materials. 3 hours. (CES 241)
This course studies the basic principles of high-temperature reactions and processes. The course is divided into
several subunits: ternary phase diagrams, surface and interface phenomena, atomic defects in materials,
diffusion, and sintering theory. Students will get a solid foundation in each of these areas as well as seeing the
interrelation and importance of those principles with respect to a control of the microstructure and properties
of material.
CEMS 314 - Ceramic Processing Principles
3 hours. Processing ceramic materials into finished shapes ready for firing is dicussed in terms of engineering unit operations and scientific principles. Topics include specifications of raw materials, characteristics of processing additives, particle packing, rheology, milling, mixing, filtration, sizing and spray drying, dry pressing, plastic forming, injection molding, casting processes, and drying. Examples of process systems used and control of defects are discussed. Prerequisite CEMS 203.
CEMS 316 - Chemical Processing in Ceramics (CES 331)
3 hours. This course provides a knowledge and working understanding of the chemical facts and principles
involved in the synthesis of raw materials and the chemical fabrication techniques used in current industrial
practice. The discussion focuses attention on both oxide and non-oxide ceramics involved in high-performance
structural and electronic applications. The design of chemical processes is emphasized in assignments.
CEMS 413? - Nano Technology (CES 420)
3 hours. This course provides a basic knowledge of nano-structured materials. The first section deals with
fundamentals of the synthesis processes, e.g. gas phase reactions or precipitation reactions. In the second
section the various applications and properties of nano-structured materials will be discussed. Examples are
quantum dot (lasers), ductile ceramics, solar cells, memory devices, or magnetic refrigeration.
ENGR 305 - Engineering Statistics (EGR 315)
3 hours. Statistics as a tool in scientific and engineering applications.
Topics include design of experiments,
hypothesis testing, analysis of variance, regression analysis, statistical
quality control, Bayesian decision-making
and industrial applications and design.
::: Graduate :::

CEMS 510 Advanced Ceramic Processing (CES 510)
3 hours. This course provides a review of all relevant issues concerning the processing and sintering of
advanced ceramic materials - discussing powder preparation and characterization, colloidal and sol-gel techniques,
powder consolidation and forming, sintering theory and practice, and microstructure evolution. The course shows
the importance of each step, and the critical interconnections among the steps, in the overall fabrication of
ceramics focuses on the formation of ceramics by firing consolidated powders reveals which ceramic manufacturing
methods are easier to employ and why covers the properties of colloidal suspension selucidates the liquid-phase
sintering and vitrification describes the role of solid solution additives in the sintering of ceramics considers the
densification of amorphous materials that can crystallize during firing and more.
CEMS 546 Surface and Porosity Characterization (CES 526)
3 hours. Students should get familiar with various surface and porosity characterization techniques, e.g. ESCA,
SIMS, Auger, DRIFT, temperature programmed desorption (TPD), electrophoresis, adsorption techniques,
Hg-porosimetry, MNR, and permeability studies. The course will give a brief introduction to each of those techniques.
Adsorption as well as several pore characterization methods will be discussed in more detail. The course should
provide students with an overview of the general field as well as a more in depth discussion about some specific
techniques. Several lab sections will provide a sufficient practical supplement to the theoretical concepts shown
in the lecture.
CEMS 512 Colloids and Interfaces (CES 532)
3 hours. This course will develop a fundamental understanding in several areas of colloidal and interfacial
chemistry that are important in the modern processing of fine ceramics. Adsorption from solution, wetting,
dispersion and stability of suspensions, sedimentation, osmosis effects, rheology, light scattering, emulsions,
and gels. Applications to modern ceramic processing.
CEMS 513 Nano-Structured Materials (CES 571)
3 hours. This course provides a basic knowledge of nano-structured materials. The first section deals with
fundamentals of the synthesis processes, e.g. gas phase reactions or precipitation reactions. In the second
section the various applications and properties of nano-structured materials will be discussed. Examples are
quantum dot (lasers), ductile ceramics, solar cells, memory devices, or magnetic refrigeration.
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