The proposal requests funding for the development of a commercial prototype of a composite auto wheel and a proprietary process for producing it. The project seems feasible and well thought out. There is ample commercial potential if it is well executed and the students involved appear to have the appropriate background and skills to carry it out. The proposal has strong support for the advisor who advises a number of E-Teams.The budget request is appropriate and the proposal is well written presenting a clear work plan and time line.A total of $19,718 is requested for:Equipment: $1,799Internships: $4,500IP: $2,300Travel: $500Supplies, etc.: $10,619
This E-Team originated in the NCIIA-funded course,Invention Project. The team is designing a refrigeration system that uses heat sources to create cooling.
The refrigeration system will be marketed to developing communities where electricity is scarce. Industrialization goes hand-in-hand with the spread of refrigeration, as it creates a way of storing and transporting food. Heat-driven refrigeration systems have unique capabilities. They are capable of using waste heat from a power plant, an industrial process, or an agricultural process to provide cooling at little extra cost, and can also use solar power or energy produced by low-grade fuel.
This E-Team is developing an inexpensive consumer device for viewing, optimizing, and printing photographs from film. The apparatus is an inexpensive stand-alone device to view both positive and negative film on a built-in LCD display. Students estimate that even a percentage penetration of the product into the huge post processing market would generate multimillion-dollar revenues.
The reader displays a real-time positive image of positive or negative photographic film onto the reader's LCD display or to a separate TV screen. Output from the reader may be fed into the video input of a PC or MAC where the film is displayed on the monitor as a positive image. Software will allow the user to adjust the image for intensity, contrast, and color balance. The user may then print the final image.
The group is funded to build and test a proof of concept model and to then develop and test a prototype. The team works on the device as an independent study project. The project originated in an E-Team courseInvention: Creative and Legal Perspectives at Ramapo College
This E-Team developed the Cooper Cooler, a shoebox-size device capable of chilling a bottled or canned beverage from room temperature to refrigerator temperature in less than a minute. The device provides rapid, natural cooling of the internal contents using only ice water and a spinning device. The process is perfectly safe for carbonated beverages like beer and soda, which are not agitated and do not explode upon opening.
The idea for the Cooper Cooler was born on a summer day in 1992. Faced with the age-old college dilemma of running out of cold beverages at a party he was hosting, Cooper Union engineering student Greg Loibl was inspired to use his engineering skills to solve the "academic" problem. Loibl worked on the idea as part of his chemical engineering master's thesis, and, sensing commercial promise, co-founded a parent company, Revolutionary Cooling Systems, Inc. The Cooper Cooler experienced strong commercial success and is now sold around the world through major retailers like Amazon.com and BestBuy.com.
Many surgical procedures require the removal of fluid from the surgical site using a vacuum system. The typical source of suction in the surgical field is a large tube connected to a wall vacuum at one end of the operating room. Because the suction system's tubes run across the floor of the operating room and need to be maneuvered like a garden hose, the system is ungainly and awkward. To address these problems, the Surgical Dustbuster E-Team is developing a prototype portable, freestanding unit for removing fluid where wall suction is unavailable, or large capacities for fluid collection are not required. This device incorporates a surgical vacuum with greater maneuverability and lower cost, making it suitable for use in outpatient settings as well as traditional operating rooms.
The HP Design Team has developed an educational software game to teach middle school students about the connection between humans and nature. The game simulates Adirondack Park in New York state. In the game, the player is the park manager, and has to solve the problems posed in different park simulations. Through the problem-solving process, students learn how people affect the park economically, environmentally, and socially and how these aspects are interdependent. Students also learn the park's history by means of a slide show.
The Climbing High to Fitness E-Team has created the Wall Climber 2000 (WC2000), an indoor rock climbing simulator for use as a training instrument and low impact exercise machine. The WC2000 consists of a collapsible climbing deck that rotates with a speed and incline chosen by the user. The hand and foot holds, made of rubber to simulate a rocky surface, change as the climbing deck rotates, according to the difficulty level chosen by the user.
At this stage, the Climbing High to Fitness E-Team is creating an advanced prototype of the WC2000. In addition, the team is working to better understand the exercise equipment market, by conducting market research and drafting a business plan. In the fall the E-Team plans to apply for a patent. The Climbing High to Fitness E-Team originated in a team based design course at RPI and is composed of five engineering students.
The OmniSport E-Team has designed the SideWinder, an electric wheelchair capable of moving in any direction while the rider faces forward. Using any number of compatible input control devices such as a joystick, mouse, track ball, or voice control the rider controls the wheelchairs motions through a track ball drive system. The increased mobility offered by this design provides the rider with the choice of participating in a wider variety of sports and offers greater accessibility in the office and home.
The OmniSport E-Team is now in the process of researching the market potential of the SideWinder and determining the feasibility of the technology. The team originated in an introductory engineering design course, and consists of three engineering students, and a faculty advisor. The team is recruiting advisors with adaptive equipment expertise.
The Miniature Ice Resurfacer E-Team has developed an innovative ice resurfacing machine called the Ice Chief. The Ice Chief is a lightweight, portable, and relatively inexpensive machine intended to maintain quality ice surfaces on private skating rinks or ponds. The device is towed behind a standard garden tractor and will be priced to make it accessible to small municipalities or individuals with access to a pond or artificial rink. To date, the E-Team has built a working prototype that successfully cleans an ice surface; collects debris; then resurfaces the ice in one pass. The E-Team plans to continue prototype testing and refine the design, while writing a business plan in partnership with the RPI Incubator Program. The team is also conducting a patent search and prepare a patent application.
The Miniature Ice Resurfacer E-Team originated in an RPI engineering design class. The team consists of six engineering majors, several with minors in economics or computer science. They plan to launch a business to market this product in 1998.
Current search engine technology on the internet will often provide the user with several thousand entries, leaving it to the user to find the most valuable information. In addition, the user interfaces currently available can be difficult to use. In response to these problems, this E-Team has begun development of the Internet Secretary Tool (InterSecT), a software package which serves as a highly personalized, smart web browser. The InterSecT browser works to continually learn and relearn the likes and dislikes of the user. When prompted to find a specified piece of information, InterSecT accesses an array of internet search engines, chooses the results it judges the user most values (based on what it has learned about the user's habits) and reports back. With each completed search, the selective abilities of the personal browser become more refined and gain accuracy.
InterSecT utilizes several cutting edge technologies, such as neural net programming, to create an innovative, powerful, and user-friendly end product. This product makes the internet easier to use and extends its benefits to those with little or no computing experience, and/or limited hardware resources.
The InterSecT E-Team was founded by Josh Lifton, an honors student at Swarthmore College who is pursuing a double major in physics and mathematics and a minor in computer science, during his semester at Hampshire College as a Lemelson Fellow. When Josh returned to Swarthmore, he applied for an Advanced E-Team grant to continue his advanced project working with another computer science student, faculty from Swarthmore and Hampshire Colleges, and four technical and business advisors. Josh is now in the process of recruiting business students to help him conduct more extensive market research and develop a business plan.