Arts - Buffalo State College
Arts - Buffalo State College
Arts - Buffalo State College
Create successful ePaper yourself
Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.
does not match the answers, it will be marked incorrect, and users<br />
can change their answers. Once completed, the user will see their<br />
completion time. This research project will help us better understand<br />
Python, and lend a better understanding to anyone interested in<br />
game programming with Python, or game design.<br />
Presentation Type and Session: Poster VIII<br />
Swaging Process For a Brazed Heat<br />
Exchanger<br />
Michael Wutz and Steve Mancuso, ENT 422: Machine Design II<br />
Faculty Mentor: Professor David Kukulka, Technology<br />
Xylem is a distributer of heat exchangers and is located in<br />
Cheektowaga New York. Currently Xylem uses an inefficient process<br />
for swaging their connectors onto plates for their heat exchangers.<br />
Swaging is a forging process in which the dimensions of a material<br />
are altered. The objective of this project is to create and utilize a<br />
more efficient process for swaging the connections on the heat<br />
exchanger to ensure that the unit will only need one pass through<br />
the brazing process. This would maximize profit and reduce the<br />
amount of labor needed. Setup should be basic and simplistic for the<br />
operator and would not involve any additional training. This report<br />
will include five different designs that would fix Xylems current<br />
process of inaccurate swaging. The connector must be swaged<br />
correctly in order for the copper brazing rings properly seal the unit.<br />
Setting up the heat exchanger and swaging the connectors has been<br />
observed to take fifteen minutes or more; this is a longer process<br />
than Xylem wants. After the fixture is in place, the unit is prepped<br />
and then placed in the oven for eight hours. Out of the units that<br />
get swaged and brazed, a significant percentage of the units fail and<br />
have to be re-brazed. Designs in this report are required to produce<br />
a safer, more consistent, and faster process for swaging.<br />
Presentation Type and Session: Poster VIII<br />
Tag Attachment For Ball Joints At<br />
Advanced Thermal Systems<br />
Richard Baumann and Richard Simonetti, ENT 422:<br />
Machine Design II<br />
Faculty Mentor: Professor David Kukulka, Technology<br />
Advanced Thermal Systems (ATS) is a local company well<br />
known for ball joint and slip-type expansion joints. Their featured<br />
product is a composite packed ball joint used in processes that<br />
involve thermal expansion. Forming, machining, and welding of<br />
all product lines are performed at the Lancaster facility. ATS is<br />
experiencing a disruption of workflow due to the current process<br />
of attaching their nameplates to their product. Nameplates<br />
are currently attached through a manual process, which is the<br />
“bottleneck” of the production line. Implementing a new process to<br />
attach these nameplates will increase efficiency, increase output and<br />
decrease lead times. An effective solution to this problem includes<br />
the ability to be used on an array of sizes (ranging from 2 inches to<br />
24 inches). A new system must be capable of securely the nameplate<br />
Computer Information Systems & Technology<br />
to the ball joint without drilling holes or welding. This process will<br />
be a new process or an improvement of the current manual process.<br />
The objective of this study is to decrease labor by 33% while staying<br />
within the budget of $15,000.<br />
Presentation Type and Session: Poster VII<br />
Technology Education In the Elementary<br />
Classroom<br />
Daniel Brazeau, INT 689: Research Design and Methods<br />
Faculty Mentor: Professor John Earshen, Technology<br />
Science, Technology, Engineering, and Math (STEM) are<br />
generally regarded as an essential focal point of education in the<br />
US. While considerable investment has been made to include STEM<br />
principles in junior and senior high schools, far less attention has<br />
been paid to the inclusion of Technology exposures in the primary/<br />
elementary school years (K - 6). This research seeks evidence to<br />
support the argument that inclusion of Technology curriculum<br />
in the primary schools will be of significant educational benefit.<br />
This study will employ a case study methodology to examine and<br />
characterize those elementary (K - 6) students in schools electing<br />
to include a technology education curriculum content exposure in<br />
the classroom. It is hoped that this research approach will provide<br />
convincing evidence regarding the positive impact of including Tech<br />
Ed in the primary school experience. Guiding questions include: will<br />
elementary students exposed to a Tech Ed curriculum demonstrate<br />
a better understanding of the physical world, will such students<br />
develop better problem-solving skills, and perform at a higher level<br />
of academic achievement and will students exposed to K - 6 Tech Ed<br />
curriculum demonstrate superior performance in later years, beyond<br />
primary school?<br />
Presentation Type and Session: Oral – Education<br />
Technology Solutions: A Study of the<br />
Effectiveness of Project Lead the Way<br />
Christopher Traugott, INT 689: Research Design and Methods<br />
Faculty Mentor: Professor John Earshen, Technology<br />
Technology Education (Tech Ed) as a curriculum is surprisingly<br />
ill-defined in the United <strong>State</strong>s today. As a result, best practices<br />
for teaching and universal curriculum standards remain elusive.<br />
There exists no standardized test of Tech Ed content. One of the<br />
most prevalent and successful Tech Ed curriculum movements<br />
today - Project Lead the Way (PLTW) - is a curricular approach<br />
developed by a private not-for-profit group in 1997 to address the<br />
country’s need for more leaders in science, engineering, technology<br />
and mathematics (STEM). Though not universal, today 4,200 school<br />
districts in all 50 states have adopted the PLTW curriculum. The<br />
purpose of this study is to measure the extent to which PLTW has<br />
positively impacted enrollment in Tech Ed courses at the high school<br />
level in New York <strong>State</strong>. This study will investigate whether students<br />
exposed to PLTW-programming indicate a greater interest in<br />
61