All Stories

  1. A machine learning digital twin approach for critical process parameter prediction in a catalyst manufacturing line
  2. Complexity Management in Engineer-To-Order Industry: A Design-Time Estimation Model for Engineering Processes
  3. Configuration Systems Applied to the Healthcare Sector for an Enhanced Prescription Process
  4. Evaluating the benefits of a computer-aided software engineering tool to develop and document product configuration systems
  5. The costs and benefits of multistage configuration: A framework and case study
  6. Complexity management in project organisations
  7. A Framework for Multiple Fire Investigation Using Big Data and Statistical Analysis
  8. A Procedure for Product Variety Reduction That Considers Linked Revenue
  9. Data Quality Issues When Quantifying Costs of Complexity
  10. Enablers and Barriers to the Implementation of Digital Twins in the Process Industry: A Systematic Literature Review
  11. Measuring Information Technology Service Levels: a Literature Review
  12. Profit-driven Maintenance in Process Industries
  13. Developing a Framework for Scoping Digital Twins in the Process Manufacturing Industry
  14. Reduction of Product Portfolio Complexity Based on Process Analysis
  15. Scrum versus Rational Unified Process in facing the main challenges of product configuration systems development
  16. Application of design thinking to product-configuration projects
  17. Differential effects of information technology on competitive positioning
  18. Modularisation strategies in the AEC industry: a comparative analysis
  19. Why slow down? Factors affecting speed loss in process manufacturing
  20. An Operational Tool to Assess Configuration Lifecycle Maturity
  21. Can Domain Theory Combined with the Resource-Based View Demonstrate the Missing Link in IT Value Creation?
  22. Maintenance Costs in the Process Industry: A Literature Review
  23. The Concepts of Modularization in ICT Service Modeling
  24. Complementing the Scoping Process of Configuration Projects by Design Thinking
  25. Development of a Design-Time Estimation Model for Complex Engineering Processes
  26. Configuration platform for customisation of design, manufacturing and assembly processes of building façade systems: A building information modelling perspective
  27. The causes of product configuration project failure
  28. Product complexity and operational performance: A systematic literature review
  29. Configuration lifecycle management maturity model
  30. The reduction of product and process complexity based on the quantification of product complexity costs
  31. The costs and benefits of product configuration projects in engineer-to-order companies
  32. A Database Administration Tool to Model the Configuration Projects
  33. Challenges of Digital Transformation: The Case of the Non-profit Sector
  34. Scoping a PIM System: A Supporting Framework
  35. The Use of Design-science to Define Information Content Requirements for IT Service Catalogs
  36. Time Estimation for Product Configuration Systems Projects
  37. Configuration Lifecycle Management – Future of Product Configurators
  38. Cost of Not Maintaining a Product Configuration System
  39. The main challenges for manufacturing companies in implementing and utilizing configurators
  40. Return on investment from the use of product configuration systems – A case study
  41. Product Wheels for Scheduling in the Baking Industry: A Case Study
  42. Design Science Research: A Suitable Approach to Scope and Research IT Service Catalogs
  43. Understanding the impact of non-standard customisations in an engineer-to-order context: A case study
  44. Using business critical design rules to frame new architecture introduction in multi-architecture portfolios
  45. How to scope configuration projects and manage the knowledge they require
  46. The impact of applying product-modelling techniques in configurator projects
  47. Usage frequency of product configuration systems relative to integrations and fields of application
  48. Product portfolio optimization based on substitution
  49. A framework for determining product modularity levels
  50. Applying product features for analysis and development of engineering processes
  51. Impact of product configuration systems on product profitability and costing accuracy
  52. Identification of critical technology building blocks
  53. The documentation of product configuration systems: A framework and an IT solution
  54. Analysis of visual representation techniques for product configuration systems in industrial companies
  55. Development and implementation strategy for the of product configuration systems in engineer-to-order companies
  56. Product configuration system and its impact on product's life cycle complexity
  57. Succeeding in process standardization
  58. Modelling production system architectures in the early phases of product development
  59. Identification of Profitable Areas to Apply Product Configuration Systems in Engineer-To-Order Companies
  60. Goal-Oriented Data Collection Framework in Configuration Projects
  61. Reconfiguring Variety, Profitability, and Postponement for Product Customization with Global Supply Chains
  62. Assessing the cost saving potential of shared product architectures
  63. Business process management and IT management: The missing integration
  64. Utilizing product configuration systems for supporting the critical parts of the engineering processes
  65. Alignment of Configuration and Documentation for Highly Engineered Complex Product Configuration Systems: A Demonstration from a Case Study
  66. Formal computer-aided product family architecture design for mass customization
  67. Two-way substitution effects on inventory in configure-to-order production systems
  68. Utilizing platforms in industrialized construction
  69. The Use of Modelling Methods for Product Configuration in Industrial Applications
  70. The cost of customising: assessing the performance of a modular product programme
  71. Rethinking the Business Model in Construction by the Use of Off-Site System Deliverance: Case of the Shaft Project
  72. Using a Configuration System to Design Toilets and Place Installation Shafts
  73. Stepwise Modularization in the Construction Industry Using a Bottom-Up Approach
  74. Modularization in the Construction Industry Using a Top-Down Approach
  75. Mass Customisation and Personalisation in Architecture and Construction
  76. Reducing variety in product solution spaces of engineer-to-order companies: the case of Novenco A/S
  77. Definition and evaluation of product configurator development strategies
  78. Analyzing the Accuracy of Calculations When Scoping Product Configuration Projects
  79. Optimizing the order processing of customized products using product configuration
  80. Efficient on‐site construction: learning points from a German platform for housing
  81. The impact of product configurators on lead times in engineering-oriented companies
  82. A layout technique for class diagrams to be used in product configuration projects
  83. CRC cards to support the development and maintenance of product configuration systems
  84. Implementing a product platform in 35 man-days: the visual thinking approach
  85. Modelling and visualising modular product architectures for mass customisation
  86. Product Customization
  87. An approach for the development of visual configuration systems
  88. Industrializing Engineering Work: Challenges Associated with the Implementation of Product Models
  89. The modelling techniques of a documentation system that supports the development and maintenance of product configuration systems
  90. Improving the quotation process with product configuration
  91. Mass customisation of process plants
  92. Reengineering of the quotation process: application of knowledge based systems
  93. CRC cards for product modelling
  94. A procedure for the application of product modelling
  95. A procedure for building product models
  96. The Rulers Factory — a tool for learning product modeling techniques
  97. Re‐engineering the specification process
  98. Re‐engineering caused by ISO 9000 certification