All courses offered through the
Summer Honors Program are designed to be dynamic, interactive explorations by the students and professor into the course topic.
Classes meet Monday through Friday between 9:00 a.m. and noon and again between 1:00 and 4:00 p.m. Half the day will be spent in Honors Core and the other half in the discipline-based class chosen by the student. All classes are conducted by IUP faculty
members and local professionals.
Required class for all students: Two one-hour-and-15-minute sections will be assigned randomly.
In the Interdisciplinary Honors Core Course, all students will tackle some of the most basic and debated questions of human existence, such as, “How do we discern the good from the bad?” or, “What do we know? What do we believe? Is there a difference?”
Working with professors from literature, philosophy, history, and the fine arts provides a unique opportunity for a synthesis of ideas. You will be challenged to develop critical thinking skills through the analysis of great scholars’ arguments, group
discussions, writing, and group presentations.
Genetic Engineering: Techniques and Application
Covers nucleic acid properties, structure, and functions. The lecture part of the course will cover the principles and techniques of recent developments and findings in recombinant DNA technology. The laboratory component will provide the opportunity
to learn and apply hands-on recombinant DNA procedures and the technologies of spectrophotometer analysis of nucleic acids and proteins; restriction enzyme digestion, gel electrophoretic analysis of mutant genes, and polymerase chain reaction (PCR)
Program Prerequisites: High school biology, chemistry or physics
Instructor: Dr. N. Bharathan
Investment Analysis and
Student participants will apply empirical and theoretical concepts to real financial management and investment decisions! A variety of investment strategies and valuation models will be used to reinforce sound investment principles. Particular emphasis
will be placed on market efficiency and diversification.
The course will take place in the Eberly Financial Trading Room, which features computer workstations and a data-wall providing breaking financial news and information. A private investment game on Investopedia will be run throughout the two-week class,
enabling each student to invest $100,000 in stocks, exchanged traded funds, mutual funds and/or options. While the money is simulated, all securities bought, sold, or held will be tracked in real time. Students will certainly alter their individual
portfolio holdings throughout the two-week period as they develop a greater understanding of portfolio management. Student learning outcomes include:
Instructor: Dr. Daniel Lawson
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Reading Film, YouTube, and Social Media
"One touch of nature makes the whole world kin." (Ulysses, Troilus and Cressida, Act III, iii)
In this course, we will be taking a more “natural” approach to William Shakespeare. All fig leaves aside, for two weeks, we will be interacting with the history of humans and nature by investigating with the actual science present in Shakespeare's works.
Among many facets, we will be exploring:
Throughout the course, we will transition between times and spaces in order to correlate how the nature of Shakespeare has evolved into the 21st century in terms of literature, pop culture, and social media. Cross-traveling between our time periods, we
will be exploring Shakespeare in the contemporary sphere, such as how he is appropriated via:
We will delve into how our current human experience both accepts and resists the varying natures of Shakespeare. Examining how his works have outlived the "survival of the fittest" and critically questioning the ways that his works continue to sustain
relevance after 400 years will lead us to speculate the influence of perhaps his greatest nature of all: the human nature that connects each of us.
Instructor: Ms. O’Toole
We live in a world bathed in light. The field of optics deals with phenomena, components, systems, and techniques that control light and enable it to perform useful tasks. As this century is unfolding, light is playing an even more significant role than
it has in the past. This program provides an opportunity for high school juniors and seniors with a strong background in math or physics to explore the growing field of one of the oldest branches of physics, optics. Our lighthearted curriculum includes:
Student testimonial: Eddie, EO Summer Program alumnus and now an engineer at Intel, said, “I’d recommend this to anyone who enjoys science.”
He became interested in a career in electro-optics after attending the summer program.
See the article “Going High Tech for Summer,” published by Leader Times on May 27, 2009.
To see other student’s experience, visit Facebook.
Instructor: Dr. Andrew Zhou
Biotechnology, materials science, molecular medicine, nanoengineering—any discipline involving molecular-level investigation relies on chemical measurements. This course will introduce students to a variety of modern measurement techniques and provide
hands-on experiences with some of the most important investigative tools available for modern science.
Instructor: Dr. J. Ford
The Art and Applications of Counting
You very well may be insulted if someone were to ask you if you can count. In fact, counting can be one of the most difficult tasks expected of you in certain courses. You might ask: “What is so difficult about counting?” Well, it depends on what you
are attempting to count. For instance, if you are asked to count the number of pennies in a small 12-ounce jar, then you should be able to come up with an answer within a few minutes, but being utterly bored during the entire process! However, consider
the very simple equation
a + b + c + d + e = 30;
where a, b, c, d, and e are assumed to be nonnegative integers. Can you count the number of distinct solutions to this equation? One solution is found by assigning the following values:
a = 7; b = 3; c = 11; d = 9; and e = 0:
Another solution is found by assigning the following values:
a = 17; b = 0; c = 0; d = 8; and e = 5:
One approach to solve this problem is to write down all of the possible solutions and then count all of them. Indeed, it would be impressive if you could determine that there are 46,376 solutions to this equation using this “brute force” approach!
For the next question, can you count the number of nonidentical labeled trees having six vertices? Here are two of them:
By using the “brute force” method, you would have to draw 1,296 such diagrams to obtain all of them. Change the question to just 11 vertices (a very small number of vertices) and you would have to draw over 2.3 billion of these trees!
In this two-week session, you will learn advanced counting techniques that will not only enable you to easily answer these two specific counting problems, but also a variety of other counting problems. These techniques are not too difficult to understand
and, moreover, they will circumvent the laborious “brute force” method of counting. You will also learn that these techniques have many other surprising applications not necessarily related to counting. Applications of counting are wide-ranging and
include but are not limited to the areas of statistical physics, operations research, computer science and algorithm theory, graph theory and error-correcting codes, logic, evolutionary biology, and properties of discrete structures.
Instructor: Dr. J. Lattanzio
The purpose of this course is to provide students with an overview of the key concepts and theories regarding communication’s role in politics and the political process. We will take an interdisciplinary approach to the field through the exploration of
research from scholarship in the fields of communication, political science, psychology, and sociology. We will address the role of news media, political entertainment, online media, popular culture, political campaigns, and face-to-face communication
from the perspective of both the public and the government. We will also discuss cognitive and behavioral effects of political messages on the public. The primary emphasis of this course will be on American Politics, however, at times we will discuss
how the American system differs from others.
Instructor: Dr. S. Kleinman
This course will explore the relationship between the brain, the mind, and behavior. We will examine the neuroanatomical and neurochemical underpinnings of everyday behavior (vision, sleeping, learning) as well as disease states (Alzheimer’s disease,
Parkinson’s disease, Schizophrenia). A variety of hands-on experiences will be used to engage students in the study of neuroscience (examining brain cells under microscopes and sheep brain dissections). Special attention will be paid to how neuroscience
methods can be applied to the study of behavior, how drugs influence brain and behavior, and new research findings in the field. We will challenge common beliefs and myths about the brain and its functions. Also, central to this course will be the
investigation of how the organization of the nervous system influences how we interact with the environment and conversely how the environment impacts the structure and function of our brain.
Instructor: Dr. W. Meil
Women in the Home Front
Although no military battles were fought on the American mainland, World War II affected all areas of life at home. In this course, we will look at how women responded to the demands of war: at home, at the workplace, and in their communities. We will
look at new areas of opportunity that opened for women in traditionally male dominated areas of life, and at how cultural mores for women were shaped by the realities of war. Among the topics we will address are female pilots, women’s baseball, changing
sexual mores, and the special challenges faced by women of color.
Instructor: Dr. E. Ricketts