Abstract In new product development processes the ramp-up phase is the most critical. For the first time the new product will be produced under standard production conditions. Thereby companies are facing enormous challenges relating to new products: increasing product and process complexities, less time-to-market and highest quality requirements. In addition to this, shorter product lifecycles cause frequent ramp-ups. Companies must develop skills to conquer these challenges especially in terms of developing professional ramp-up expertise. The transfer from prototype to scalable product causes many different unpredictable failures. Those failures require a strong failure management to guarantee the planned time-to-market. Key element in effective failure management is communication in this high interdisciplinary process. Today failure management in most companies is realized in task force mode. There is no system support from right failure notice, right failure classification and failure allocation to the right person to the point of effective support finding a solution as well as failure solution documentation. In addition to that there is no transparency about work in progress and allocated failures. The outcome of this is loss of time and inadequately documentation of failures which again causes loss of time. Hence the focus of this paper is on a CPS-tool realizing holistic failure management within the human acts as human sensor to solve those challenges. Objective at this juncture is the development of intelligent connection between responsibilities (ad-hoc organizations) in ramp-up and workflow strategies to reach efficient management applying tablet computer. Focused strategies are effort reducing, highest transparency and escalation scenarios.
[1]
Jürgen Fleischer,et al.
Proaktive Anlaufsteuerung von Produktionssystemen entlang der Wertschöpfungskette
,
2004
.
[2]
Peter Nyhuis,et al.
A controlling system based on cause–effect relationships for the ramp-up of production systems
,
2007,
Prod. Eng..
[3]
Helen Gill,et al.
Cyber-Physical Systems
,
2019,
2019 IEEE International Conference on Mechatronics (ICM).
[4]
Steven C. Wheelwright,et al.
Revolutionizing Product Development: Quantum Leaps in Speed, Efficiency and Quality
,
1992
.
[5]
Hans-W. Savelsberg.
Ergebnis der Untersuchung
,
1994
.
[6]
Kristina Säfsten,et al.
Production Ramp-up in the Manufacturing Industry Experiences from a Project under Extreme Time Pressure
,
2006
.
[7]
Manfred Broy,et al.
Cyber-physical systems : Innovation durch softwareintensive eingebettete systeme
,
2010
.
[8]
Karl T. Ulrich,et al.
Product Design and Development
,
1995
.
[9]
井口 道生.
W. Strunk, Jr. and E.B. White: The Elements of Style, MacMillan Co,, New York, 1959, 71頁, 13×21cm, $2.95. Paperback 11×17cm, $0.95
,
1971
.
[10]
Peter Nyhuis,et al.
Fundamentals of Production Logistics
,
2009
.
[11]
Katja Windt,et al.
Changing Paradigms in Logistics — Understanding the Shift from Conventional Control to Autonomous Cooperation and Control
,
2007
.