Advance Simulation and Digital Twin

The digital factory concept offers an integrated approach to enhance the product and production engineering processes and simulation is a key technology within this concept. 
Simulation helps to create digital models of products, production systems, logistic systems so that one can explore a system’s characteristics and optimize its performance. These digital models have the ability to run experiments and what-if scenarios without disturbing existing production systems or – when used in the planning process – long before the real production systems are installed. Extensive analysis tools, such as bottleneck analysis, statistics and charts give us an opportunity to evaluate different manufacturing scenarios.
The results provide us with the information needed to make fast, reliable, smarter decisions in the early stages of production planning. In addition, we can also optimize material flow, resource utilization and logistics for all levels of plant planning from global production facilities, through local plants, to specific lines. This helps to fulfil the user’s need to deliver just-in-time (JIT) or just-in-sequence (JIS).
 Increase existing system productivity
 Optimize resource consumption and re-use
 Optimize systems for reduced energy consumption
 Shorten new product introduction, time-to market, and time-to-volume
 Improve production layout and minimize investments
 Ensure that machines and equipment are in the right place
 Ensure that sufficient material handling equipment is available
 Optimize buffer sizes
 Ensure that product handling is kept to a minimum
Apart from advance simulation another disruptive innovation is the concept of digital twin. With the growing deployments of Internet of Things (IoT) systems, the importance of the concept of a digital avatar of a physical thing has gathered significant interest in the recent years. A digital twin can be defined, fundamentally, as an evolving digital profile of the historical and current behavior of a physical object or process that helps optimize business performance. The digital twin is based on massive, cumulative, real-time, real-world data measurements across an array of dimensions. These measurements can create an evolving profile of the object or process in the digital world that may provide important insights on system performance, leading to actions in the physical world such as a change in product design or manufacturing process. It provide the means to design, validate and optimize a part, a product, a manufacturing process or a production facility in the virtual world. It does these things fast, accurately and as close as possible to the real thing – the physical counterpart. These digital twins use data from sensors that are installed on physical objects to represent their near real time status, working condition or position. Nonetheless, advances in computer science have made it possible to broaden the scope of the digital twin to include many more capabilities, information, inputs and outputs. It also helps you develop and introduce new products to the market much faster than ever.
A digital twin enables flexibility in manufacturing to reduce time needed for product design, manufacturing process and system planning and production facility design. A digital twin improves quality and even supports new business models that offer opportunities for small- to mid-size companies to expand and bring more high-tech capability into their shops. Digital twins will help all companies become more flexible, reduce time to market, reduce cost, improve quality and increase productivity at all levels of the organization.
Digital twin business values:
1. Quality
 Improve overall quality
 Predict and detect quality trend defects sooner
 Control quality escapes and be able to determine when quality issue started
2. Warranty cost and services
 Understand current configuration of equipment in the field to be able to service more efficiently
 Proactively and more accurately determine warranty and claims issues to reduce overall warranty cost and improve customer experiences
3. Operations cost
 Improve product design and engineering change execution
 Improve performance of manufacturing equipment
 Reduce operations and process variability
4. Record retention and serialization
 Create a digital record of serialized parts and raw materials to better manage recalls and warranty claims and meet mandated tracking requirements
5. New product introduction cost and lead time
 Reduce the time to market for a new product
 Reduce overall cost to produce new product
6. Revenue growth opportunities
 Identify products in the field that are ready for upgrade

 Improve efficiency and cost to service product