THYSSENKRUPP INDUSTRIAL SOLUTIONS AG

Modern engineering of equipment
for the cement industry

The engineering of equipment for the cement industry is in comparison to other industries influenced by some special overall conditions. These are mainly the small built quantities, the very large dimensions of components, the demanded very high availability of plants and the usually unique set of parameters for each and every project. This led to the buildup of expertise using the finite element method (FEM) for computational optimization over the last decades, at least at the reputable equipment suppliers. Until now, this was typically reserved for separate product development due to the necessary effort. Integration into running order executions could usually not or only be poorly realized. This article presents an engineering process that significantly reduces the effort required for computational optimization and thus enables integration into day-to-day business if required. In addition, the presented workflow reduces the effort to dimension project-specifically, whereby the quality can be increased and the possibility is created to offer competitive, individual and tailor-made solutions. The engineering process is based on the consistent use of highly automated 3D CAD models, which form the basis for the 2D production drawings and also the mathematical optimization. A consistent database – one 3D model as the basis for all applications – reduces interface losses.

1 Introduction

Cement plant engineering or large scale plant engineering in general is subject to certain boundary conditions, which influence the equipment engineering for it, make it very challenging and make both the optimization of the engineering processes and the products themselves demanding. From an mechanical engineering view these are:

the small quantities built

the very large dimensions of components

the need for extremely high availability of plants and especially

the constantly changing requirements from order to order, e. g. regarding to plant size, scope of delivery, process...

Related articles:

Issue 06/2011

Computational Fluid Dynamics for fans and plants – Part 2

1 Introduction Computational Fluid Dynamics (CFD) is a method that is used for the computerized calculation of technical flows with state-of-the-art accuracy. With this method, it is possible to make...

more
Issue 5/2017 BELGOGRAD STATE TECHNOLOGICAL UNIVERSITY

Engineering design of mechanical ­equipment for the production of cement on basis of configurators

1 Situation The cement industry is a dynamically growing sector of Russian economy. Analysts estimate further positive prospects due to Russian infrastructure modernization and realization of the...

more
Issue 05/2011

Computational Fluid Dynamics for fans and plants – Part 1

1 Introduction Computational Fluid Dynamics (CFD) is a method that is used for the computerized calculation of technical flows with state-of-the-art accuracy. With this method, it is possible to make...

more
Issue 03/2010

Eliminating weak spots – detecting optimization potentials

In 2009, ThyssenKrupp Fördertechnik’s business unit processing invested in the purchase of a high-performance 3D laser scanner (Fig. 1). Especially at system optimization processes and preventive...

more
Issue 6/2019

From raw material to product

Such is the wide range we are covering in our latest issue of ZKG. Dynamic flow tests can be used to characterize the flow properties of Portland cements (from page 26). Improving the flowability of...

more