TL;DR: A recently developed platform that integrates data acquisition management platform and post simulation performance analysis models (synthesis) is described and the use of real-time discrete event simulation modelers as a vehicle is proposed.
Abstract: This paper introduces a new technology platform that improves the efficiency and effectiveness of simulation modelling projects. A recently developed platform that integrates data acquisition management platform (primary models) and post simulation performance analysis models (synthesis) is described. The use of real-time discrete event simulation modelers as a vehicle is proposed. In recent years we have suggested a number of solutions to integrate shopfloor data with higher level information systems. All these solutions lacked two key capabilities. Firstly, the solutions were not capable of interacting with data acquisition systems with-out expert interference in determining the quality and quantity of input signals. Therefore, connecting in-put signals to key performance indicators (i.e. simulation parameters) was extremely challenging and error prone. Secondly, from health workers' and plant managers' perspective, simulation results (e.g. resource utilization, waiting times, work-in-process, etc.) did not correspond to industry performance metrics. SIMMON is proposed here to address these two problems.
TL;DR: A new tool, Dymola 2.0, is presented that implements all of the aforementioned formula manipulation techniques and can be used to generate state-space models in a variety of different simulation languages (ACSL, DESIRE, and Simmon).
Abstract: Automated formula manipulation is shown to be central to object-oriented continuous-system modeling. Such techniques are needed to (i) solve the causality assignment problem in modeling any kind of energy transducer, (ii) generate the equations that result from the couplings between different objects, (iii) automatically reduce structurally singular models, and (iv) take care of algebraic loops that often result from subsystem couplings, and that also occur from the reduction of structurally singular models. A new tool, Dymola 2.0, is presented that implements all of the aforementioned formula manipulation techniques and can be used to generate state-space models in a variety of different simulation languages (ACSL, DESIRE, and Simmon). >
TL;DR: SimMon is a toolkit for simulating monitoring mechanisms in cloud computing environments designed to simulate the topologies, actions, and strategies in data collection, dissemination, storage, and management processes and provides a controllable and repeatable way to evaluate monitoring mechanisms.
TL;DR: SimMon, a toolkit for simulating monitoring mechanism in cloud computing environments, is proposed and is used to simulate the process on collection, dissemination, storage and requisition of monitoring data.
Abstract: Monitoring is significant to supervise the state of services and guide adaptive management of services in cloud computing environments. Working as auxiliary tools, monitoring systems are expected to incur the least extra cost on physical resources (CPU, memory, network, etc.). Since the scale and requirement of different data centers vary from each other, it is impossible to design a suit-to-all monitoring solution for all the data centers. However, for a certain data center, it is hard to determine whether a predesign monitoring mechanism is well suited before the mechanism is deployed in a real production environment. To address these issues, we propose SimMon, a toolkit for simulating monitoring mechanism in cloud computing environments. SimMon is used to simulate the process on collection, dissemination, storage and requisition of monitoring data. With the help of SimMon, system administrators are able to compare different monitoring mechanisms and select the best one before it is adopted by a monitoring system in a real-world data center.