Javascript must be enabled to continue!
Towards best management practices for implementing manufacturing flexibility
View through CrossRef
PurposeThe purpose of this research is to develop a framework and an initial list of best management practices for implementing manufacturing flexibility.Design/methodology/approachTo identify these practices, recent frameworks (i.e. 1988 and onward) for implementing manufacturing flexibility in organizations are reviewed. Based on this review, the major management practices for implementing flexibility are identified and synthesized into a new framework.FindingsThis framework suggests that manufacturing flexibility should be implemented using a three‐stage approach, labeled: identifying required flexibility (i.e. identifying and justifying the flexibility types, measurements and tools needed to achieve the required manufacturing flexibility), achieving required flexibility (i.e. acquiring and implementing the organizational and technological tools needed to achieve the required manufacturing flexibility) and managing required flexibility (i.e. monitoring and changing the required flexibility types and levels, in light of changing uncertainty and competitive, manufacturing and marketing strategies). Based on this framework, a number of potential best management practices are identified.Research limitations/implicationsThis report is conceptual in nature. Future research will focus on empirically testing the practices presented in order to develop a more complete and rigorous list of best management practices for implementing manufacturing flexibility.Practical implicationsThis research provides manufacturing managers with a starting point for developing a formal process for identifying, implementing, and monitoring manufacturing flexibility, thus ensuring that the manufacturing flexibility that exists is continually meeting the manufacturing and competitive strategies of the organization. Various conceptual relationships are identified by the presence of arrows in the framework. As a result, the implications of the conceptual framework for researchers is that it provides a very good starting point for conducting exploratory and confirmatory research on the process of managing manufacturing flexibility.Originality/valueThis research synthesizes existing frameworks for implementing manufacturing flexibility in organizations, and addresses a gap in the research, specifically the need to identify and empirically test best management practices for implementing manufacturing flexibility.
Title: Towards best management practices for implementing manufacturing flexibility
Description:
PurposeThe purpose of this research is to develop a framework and an initial list of best management practices for implementing manufacturing flexibility.
Design/methodology/approachTo identify these practices, recent frameworks (i.
e.
1988 and onward) for implementing manufacturing flexibility in organizations are reviewed.
Based on this review, the major management practices for implementing flexibility are identified and synthesized into a new framework.
FindingsThis framework suggests that manufacturing flexibility should be implemented using a three‐stage approach, labeled: identifying required flexibility (i.
e.
identifying and justifying the flexibility types, measurements and tools needed to achieve the required manufacturing flexibility), achieving required flexibility (i.
e.
acquiring and implementing the organizational and technological tools needed to achieve the required manufacturing flexibility) and managing required flexibility (i.
e.
monitoring and changing the required flexibility types and levels, in light of changing uncertainty and competitive, manufacturing and marketing strategies).
Based on this framework, a number of potential best management practices are identified.
Research limitations/implicationsThis report is conceptual in nature.
Future research will focus on empirically testing the practices presented in order to develop a more complete and rigorous list of best management practices for implementing manufacturing flexibility.
Practical implicationsThis research provides manufacturing managers with a starting point for developing a formal process for identifying, implementing, and monitoring manufacturing flexibility, thus ensuring that the manufacturing flexibility that exists is continually meeting the manufacturing and competitive strategies of the organization.
Various conceptual relationships are identified by the presence of arrows in the framework.
As a result, the implications of the conceptual framework for researchers is that it provides a very good starting point for conducting exploratory and confirmatory research on the process of managing manufacturing flexibility.
Originality/valueThis research synthesizes existing frameworks for implementing manufacturing flexibility in organizations, and addresses a gap in the research, specifically the need to identify and empirically test best management practices for implementing manufacturing flexibility.
Related Results
Smart Manufacturing Application in Precision Manufacturing
Smart Manufacturing Application in Precision Manufacturing
Industry 4.0 presents an opportunity to gain a competitive advantage through productivity, flexibility, and speed. It also empowers the manufacturing sector to drive the sustainabi...
Green supply chain management initiatives and operational competitive performance
Green supply chain management initiatives and operational competitive performance
PurposeManufacturing organizations have begun to implement green supply chain management (GSCM) practices in response to customer demand for products and services that are environm...
Unveiling the Environmental and Economic Implications of Additive Manufacturing on Inbound Transportation
Unveiling the Environmental and Economic Implications of Additive Manufacturing on Inbound Transportation
This studyaims to investigate the impact of additive manufacturing (AM) on the sustainability of inbound transportation. By combining insights from existing litera...
Concurrent Engineering and the Virtual Factory: Developing Products With Supply Chains
Concurrent Engineering and the Virtual Factory: Developing Products With Supply Chains
Abstract
Several recent developments have led to significant changes in the way new products are developed. The emphasis on core competency has resulted in having ma...
Non-Recommended Publishing Lists: Strategies for Detecting Deceitful Journals
Non-Recommended Publishing Lists: Strategies for Detecting Deceitful Journals
Abstract
The rapid growth of open access publishing (OAP) has significantly improved the accessibility and dissemination of scientific knowledge. However, this expansion has also c...
The impacts of additive manufacturing technology on lean manufacturing
The impacts of additive manufacturing technology on lean manufacturing
This paper aims to investigate how the use of 3D printing can facilitate the achievement of lean manufacturing objectives. The main goal of the study is to identify the similaritie...
A Similarity-Based Hierarchical Clustering Method for Manufacturing Process Models
A Similarity-Based Hierarchical Clustering Method for Manufacturing Process Models
As the adoption of information technologies increases in the manufacturing industry, manufacturing companies should efficiently manage their data and manufacturing processes in ord...
A Mobile Additive Manufacturing Robot Framework for Smart Manufacturing Systems
A Mobile Additive Manufacturing Robot Framework for Smart Manufacturing Systems
Abstract
Recent technological innovations in the areas of additive manufacturing and collaborative robotics have paved the way toward realizing the concept of on-dem...

