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The chapter deals with the promotion of competitiveness of national producers as compared to the main leaders in the industry.

The system management of the process of creating and mastering the production of a new product is based on effective change management, development of organizational and technical management systems, business-to-business interaction systems, business solutions relating to product creation in the industry. Systemization of problems and identification of ways of development of theory and methodology of creation of a new product by the domestic manufacturing companies can be performed by means of implementation of continuous acquisition and life cycle support (CALS) systems.

Today, the fundamental conceptual basis for the formation of information space of an enterprise and application of miscellaneous information systems is the concept of continuous information support of products throughout the entire life cycle – CALS. According to this concept, one can single out the following major objectives which are essential for an enterprise and can be achieved through information technologies: the automation of production management which was conventionally achieved through the use of MICS systems, and today it is achieved due to the use of the so-called ERP/CRM/SCM systems; product data management and automation of design and engineering analysis of structures and processes (PDM/PLM, CAD/CAM/CAE-system); information support of operation and aftersales service, integrated logistic support of products. The information technologies at the present stage are a prerequisite for achieving a competitive advantage by an enterprise, particularly if the enterprise is specialized in the production of high-technology products. The major purpose of information technologies at the enterprise is the maximum effective support of design processes, production processes and other processes running at the enterprise, creation of the information basis which enables the management to take decisions which help the enterprise to achieve a dominant position in the industry sector. For Russian companies, the problem of implementation and effective employment of CALS-technologies as a means of cardinal improvement in quality and competitiveness of science-intensive products, discussed in the chapter, is extremely topical.

For many companies, the employment of these technologies largely determines the ability to survive in the context of an intensifying competitive struggle in the domestic market and can be considered as an indispensable condition for maintaining and expanding the sales of products on the international market.

The aim of this chapter is to analyse and to define the role and opportunities offered by the adoption of a new ICT (Information and Communication Technology) tool within an organization, focusing attention on internal collaborative processes that have been induced by the development and use of the new tool. As noted by some authors, ICT tools may create a virtual meeting place where individuals can engage in dialogue and collaboration. However, other authors argue that technology could reduce direct involvement, social interaction, collaboration and reflective conversations that traditionally give rise to knowledge processes and thus to innovation processes inside the organizations. Nevertheless, some research contributions show that it is not an ICT tool itself that provides positive or negative effects on organizations, but how the tool is used in conjunction with complementary human resources. These contributions avoid technological determinism by stressing contingency and by coupling human design intent and activity with the disposition of actors inside organizations.

In order to fulfil the aim of the chapter, a study was carried out in a leading firm in the automotive industry, till now involved in a project aimed at implementing a new simulation tool for the assembly process. The evidence from the case seems to suggest that the development and use of the simulation tool activated the social interactions and collaborations that enacted innovation processes. The simulation tool seemed to facilitate a productive dialogue among the different departments and a deeper understanding of the different challenges involved. The development of the simulation “forced” experts of different departments to meet and to keep the focus on salient aspects. The simulation acted as a boundary object. The development of this boundary object was un-intentional but it is clear that the simulation contributed to the formation of a community of collaborators.

It is worth noting that this was not the result of the simulation tool itself but rather the result of management actions aimed at making sense of the whole project, supporting the initiative and thus motivating users.

Present research on Concurrent Engineering (CE) mainly focusses on technological aspects like information sharing, and common communication platforms, or coordination systems such as CE-Tools like CAD, CAM, DFA or QFD. In the European context, the implementation of Concurrent Engineering certainly involves changes of organizational management and people. traditional way of work. For the success of Concurrent Engineering, organizational, managerial and human issues are very important.

This chapter presents the results of a current research project that is being carried out at the Chair and Institute of Industrial Engineering and Ergonomics of the University of Technology in Aachen, Germany. It shows the results of a study about cross functional teams in a Concurrent Engineering environment. Based on a multi-dimensional model of self directed work organization for teams in Concurrent Engineering, preconditions were generated to design and develop learning organizations which use Concurrent Engineering. Based on this team model for a learning organization in CE, requirements for soft skill qualification for team members were developed.

In the core of the Concurrent Engineering Team research, there are three levels: individual issues, team issues and organizational issues. Individual issues focus on the differences among team members that may influence the cooperation in the team (different specialization, different work departments, different values, different socializations etc.). The team level issue focusses on the internal management of a CE team (goal system, distribution of tasks, sharing of team rules, interaction style, interpersonal relations, team leadership etc.). Finally, the organizational level can be regarded as a team-external support environment for team management (management, commitment and involvement, empowerment of the team leader etc.). The individual and organizational levels influence the team level factors.

But cross functional organization effectiveness in a Concurrent Engineering environment is more than the design of teams. The implementation of Concurrent Engineering must change the whole organization. An effective organization can be based on eight principles of the Learning Organization, as pointed out by Senge or Probst. The objective for the design of this organization is to be self-organized.

To reach these principles in a CE team environment, the involved team members must be qualified to be prepared for new work in a crossfunctional organization. A soft skill qualification system for Concurrent Engineering will be presented at the end of the research project. Contents of this qualification model include communication in teams, techniques of group discussion and project management.

This chapter develops a framework for classifying approaches to conceptualizing and measuring implementation of innovations. It first develops a typology that distinguishes rollout, modification, programmatic and transformation conceptualizations of implementation. The implications of each conceptualization for measurement of implementation are discussed. Following this a classification scheme for implementation measures is presented that distinguishes measures on the basis of their: (a) criterion for success of the implementation; (b) innovation unit; (c) source of data; (d) measurement scale; and (e) level of analysis. Issues related to various measurement choices are discussed along with recommendations for future research and development in the measurement of implementation.

Understanding when entrants might have an advantage over an industry’s incumbent firms in developing and adopting new technologies is a question which several scholars have explained in terms of technological capabilities or organizational dynamics. This paper proposes that the value network—the context within which a firm competes and solves customers’ problems—is an important factor affecting whether incumbent or entrant firms will most successfully innovate. In a study of technology development in the disk drive industry, the authors found that incumbents led the industry in developing and adopting new technologies of every sort identified by earlier scholars—at component and architectural levels; competency-enhancing and competency-destroying; incremental and radical—as long as the technology addressed customers’ needs within the value network in which the incumbents competed. Entrants led in developing and adopting technologies which addressed user needs in different, emerging value networks. It is in these innovations, which disrupted established trajectories of technological progress in established markets, that attackers proved to have an advantage. The rate of improvement in product performance which technologists provide may exceed the rate of improvement demanded in established markets. This mismatch between trajectories enables firms entering emerging value networks subsequently to attack the industry’s established markets as well.

In 1993, the author labeled “Privatization: The Theme of the 1990s.”¹ This may or may not be true in the developing world but it was certainly accurate for the CEE and the CIS. Privatization was central to the structural reform that has taken place in the region and it is central to the creation of a market economy.

The purpose of the study was to investigate the alignment between current product and manufacturing systems and how it could be achieved.

Case study research method was chosen for the collection and analysis of empirical data. The data was of qualitative nature and was collected using research techniques such as observations through video recordings of processes, documents and open and semi-structured interviews.

The variation of outer side sub-element of the exterior wall element was found to not be aligned with its corresponding assembly. A hybrid assembly of outer side sub-elements characterised by flexibility and reconfigurability can be developed.

The study is limited to the exterior wall element and corresponding manufacturing system.

The presented approach was formulated with the aim to be used both for the analysis of existing products and manufacturing systems as well as for the design of new manufacturing systems.

So far, this is the first study in the context of timber house building where the alignment between product and manufacturing systems was investigated by considering product variety and flexibility of manufacturing systems.