Design Project
Structure of Design Project
Students learn ways of thinking, methods, and methodologies from classroom lectures in the first phase. They then put this knowledge into practice through hands-on learning and take further lectures by visiting lecturers from partner universities abroad. Finally, they work on team projects for themes raised by proposers.
| Phases | Summary |
|---|---|
| First phase: Learning Project (LP) |
Classroom lectures on way of thinking, methods and methodologies |
| Second phase: Active Learning Projects (ALPs) |
Hands-on learning and lectures by lecturers from partner universities abroad |
| Third phase: Real Innovation Project (RIP) |
Problem solving with proposers |
First phase: Learning Project
SDM professors teach way of thinking, methods, and methodologies in Japanese.
Second phase: Active Learning Projects
Students practice way of thinking, methods, and methodologies that they have learnt in the first phase.
Furthermore, lecturers in English are offered by lecturers from partner universities abroad (Delft University of Technology (the Netherlands), Stanford University (US), Massachusetts Institute of Technology (US), University of Adelaide (Australia) ).
Third phase:
Real Innovation Project
Students create realistic solution for real problems based on techniques they learned in the first and second phases.
Students work together with proposers on themes raised by them. Proposers include private companies, public organizations and NPOs.
Students examine products and services related to a theme, define the problems, learn the requirements of the interested parties, set system requirements, design concepts, propose architecture, repeatedly test and prototype, and finally define and propose products and services which can generate innovation to the entire society.
Project Characteristics and 2011 Theme
In 2011, ALPS projects will focus on the aspects of "Symbiosis and Synergy system design".
ALPS 2011's theme is Symbiosis and Synergy. Students of ALPS will use the latest design thinking and systems engineering approaches to propose novel concepts for symbiosis and synergy. In systems engineering, symbiosis and synergy can mean a construct of different elements working together to produce results not obtainable by any individual elements. The elements can include products, services, people, facilities and policies required to produce system-level results. The value created by the system as a whole, beyond individual and independent contributions, is primarily from the relationship and interaction among the elements (Blanchard, B., 2004)
Keio SDM invites you to propose a theme that can encompass and leverage symbiotic and synergetic relationships relevant to your organization.
Symbiosis and Synergy
The term Symbiosis comes from the in Greek, sýn "with" and bíōsis "living," describing an interaction between two different organisms living in close physical association, especially to the advantage of both (Oxford Dictionary). In particular, we refer to Mutualistic Symbiosis, a relationship between individuals of different species where both benefit from each other (Ahmadjian, V., Paracer, S., 2000). The term Synergy comes from Greek word syn-ergos, meaning 'working together' (Segal-Horn, S., 2004).
Here is a list of sample topics we feel might provide a good entry to ALPS 2011.
1. Symbiotic Mutualism of Clownfish and Sea Anemone
There is a symbiotic mutualism of clownfish and sea anemone as shown in Figure 1. The sea anemone provides protection to the clownfish, as the predators of the clownfish prefer to steer clear of the poisonous tentacles of the sea anemone. After the sea anemone has eaten its meal, the clownfish feeds on the remains of the kill. In return, the clownfish attracts other fishes with its bright colors into the tentacles of the sea anemone. This relationship shows, how living things have evolved relationships, with the help of which, they have ensured their survival.
2. Egyptian Plover and Crocodile
Figure 2: Symbiosis of the Egyptian Plover and the crocodile
A classic example of symbiosis in nature is the relationship between the Egyptian Plover and the crocodile shown in Figure 2. The plovers will peck and feed on the food lodged between the crocodile's teeth while providing dentistry work.
3. Use of Company's Byproducts and Waste Energy to Produce Valuable Material and Energy
A notable example of both symbiosis and synergy in industry is the Danish industrial park of Kalundborg. Here one company's byproducts and waste energy becomes valuable material and energy for another. Various entities such as a large power plant, an oil refinery, a pharmaceutical plant, a plasterboard factory, an enzyme manufacturer, a waste company and the city itself forms an industrial eco-system as shown in Figure 3.
4. Merger of Airline Companies to Obtain Synergy Effect by sCombining Non-overlapping Routes and Sharing a Hub Airport
Figure 4 : Merger of United and Continental Airlines to generate synergy effect by combining non-overlapping routes and sharing a hub airport.
Merger of United Airlines and Continental Airlines as shown in Figure 4 will produce synergetic effect by combining routes that barely overlap and by sharing a hub Houston Airport.
5. Use of Electric Power for Home and Plug-In Electronic Vehicles
Figure 5 : Use of Electric Power for Home and Plug-In Electronic Vehicles
Many future homes will be using solar power such as solar cells to supply energy for home appliances. At the same time, many homes are expected to own plug-in electronic vehicles. If homes use solar power for both home appliances and plug-in electronic vehicles, they will not have to charge the vehicle batteries at public charge stations. This will reduce the burden of building a huge charge station infrastructure. Thus, if car companies and home power utility companies work together, great synergy effect will be obtained.
6. Artificial Photosynthesis for Symbiosis of Human and Nature
図6：人工光合成による自然と人間の共生
Currently humans produce much more CO2 than the limit which the Earth is able to endure. If the artificial photosynthesis technology is achieved as shown in Figure 6, both human and nature will be able to absorb CO2 from the atmosphere, thus tbalancing with the CO2 exhaust's by human activities of manufacturing, transportation, etc. This will result in a better symbiosis of human and nature.
The above topics are merely suggestions made to illustrate the range of topics that fall under the ALPS 2011 umbrella.
Keio SDM is intending to arrange occasions to discuss with private companies in wide variety of industries, government institutions, or other organizations in order to find more project topic alternatives for ALPS 2011.
2010 theme: "Safety and Security"
Examples of projects
"Portable multi energy backpack system for refrigerating vaccines" (proposer company: Kokusai Kogyo group Infrastructure Innovation Institute, Inc.), "Building New Brand Image of Safety and Security Using Positive Cycle Business Model" (proposer company: Adidas), "Safe and Secure Solar Power Generation in Japan - dual Mode Solar Panel System: Proof of Concept" (proposer company: Delft University of Technology), "Safety Premium Point System" (proposer company: Suzuki Motor Corporation) and "Design of Bicycle Simulator to Reduce the Risks of Traffic Accidents" (proposer company: Toshiba System Technology).
2009 theme: "Sustainable Community"
Examples of projects
"Use of Empty Urban Schools for State-of-the-Art Water Cultivation Facilities, and Implications for Agricultural Education and Restaurants," "Falling Birthrates and Implications for Food and Health," "Personal and Family Communication," "Soccer Communities," "Sake Promotion" and "Maintenance of Craftsman Communities"
2008 theme: "Enhancing Senior Life"
Examples of projects
"Personal Mobility Services," "Pet-Type Travel Navigation Robots," "Senior Safety Jackets," "Senior Life-Long Learning Programs" and "Second Life Simulation Games"
Voices from Design Project Instructors
Olivier L. de WECK, Ph.D. Associate Professor Engineering Systems Division and Department of Aeronautics & Astronautics, MIT
Kurt A. BEITER, Ph.D. Acting Associate Professor Department of Mechanical Engineering, Design Group Stanford University
Sun KIM, Ph.D. Global COE Research Fellow; Assistant Professor, Keio University