so usage time is limited. The dimensions of the kick bike are based only on adult geometry. Kick
bikes are specifically designed for use in amusement parks.
3. Design Description: The product designed is a kick bike using an electric motor as additional
power. It is for transportation around an amusement park. This vehicle is also equipped with a
basket as a place for visitors’ luggage when driving. The kick bike target users are teenagers and
adults.
3.3 Product visualization (visualization)
Figure 3. A 3D model rendering of an electric kick bike.
4 CONCLUSION
The conclusion of this research is that the electric kick bike is one of the solutions that we choose to
accommodate the need for transportation and attraction in an amusement park. The electric motor
drive chosen to be added on the kick bike provides more power that can help tourists efficiently
drive the vehicle uphill. An additional feature that adds function to the kick bike is the rear basket
for carrying luggage safely. Furthermore, the electric kick bike will become one of the choice ways
for young-adult tourists to enjoy the amusement park. The next step is to figure out how to apply the
design concept and product visualization to the scaled model and so that it can become a product
prototype.
REFERENCES
Creswell, John W. 2010. Research Design: Pendekatan Kualitatif, Kuantitatif, dan Mixed. (diterjemahkan
oleh: Achmad Fawaid). Yogyakarta: Pustaka Pelajar.
Eberle, Bob. 1996. Scamper: Games for Imagination Development. Prufrock Press Inc.
KickBike. 2018. Geometry Info Race Max 20. https://kickbike.com/showroom_en/product-race-max-20.html
McLennan, J. F. 2004. The Philosophy of Sustainable Design: The Future of Architecture. Kansas City: Ecotone
LLC.
Ohio Electric Motors. 2012. Brushless DC Motors Used in Industrial Applications. http://www.ohio
electricmotors.com.
Swifty Scooters. 2020. SwiftyOne MK3. www.swiftyscooters.com
UNEP. 2009. UNEP Year Book 2009: New Science and Developments in Our Changing Environment. United
Nations Environment Programme, Kenya
Walker, Stuart. 2006. Sustainable by Design: Explorations in Theory and Practice. Earthscan: London.
192
bikes are specifically designed for use in amusement parks.
3. Design Description: The product designed is a kick bike using an electric motor as additional
power. It is for transportation around an amusement park. This vehicle is also equipped with a
basket as a place for visitors’ luggage when driving. The kick bike target users are teenagers and
adults.
3.3 Product visualization (visualization)
Figure 3. A 3D model rendering of an electric kick bike.
4 CONCLUSION
The conclusion of this research is that the electric kick bike is one of the solutions that we choose to
accommodate the need for transportation and attraction in an amusement park. The electric motor
drive chosen to be added on the kick bike provides more power that can help tourists efficiently
drive the vehicle uphill. An additional feature that adds function to the kick bike is the rear basket
for carrying luggage safely. Furthermore, the electric kick bike will become one of the choice ways
for young-adult tourists to enjoy the amusement park. The next step is to figure out how to apply the
design concept and product visualization to the scaled model and so that it can become a product
prototype.
REFERENCES
Creswell, John W. 2010. Research Design: Pendekatan Kualitatif, Kuantitatif, dan Mixed. (diterjemahkan
oleh: Achmad Fawaid). Yogyakarta: Pustaka Pelajar.
Eberle, Bob. 1996. Scamper: Games for Imagination Development. Prufrock Press Inc.
KickBike. 2018. Geometry Info Race Max 20. https://kickbike.com/showroom_en/product-race-max-20.html
McLennan, J. F. 2004. The Philosophy of Sustainable Design: The Future of Architecture. Kansas City: Ecotone
LLC.
Ohio Electric Motors. 2012. Brushless DC Motors Used in Industrial Applications. http://www.ohio
electricmotors.com.
Swifty Scooters. 2020. SwiftyOne MK3. www.swiftyscooters.com
UNEP. 2009. UNEP Year Book 2009: New Science and Developments in Our Changing Environment. United
Nations Environment Programme, Kenya
Walker, Stuart. 2006. Sustainable by Design: Explorations in Theory and Practice. Earthscan: London.
192