arrow_back_ios

Main Menu

See All Simulação e Análise See All DAQ See All Drivers API See All Utilitário See All Controle de vibração See All Calibração See All DAQ See All Portátil See All Industrial See All Analisadores de potência See All Condicionadores de sinal See All Acústica See All Tensão e Corrente See All Deslocamento See All Força See All Células de carga See All Multicomponente See All Pressão See All Deformação See All Strain Gauges See All Temperatura See All Inclinação See All Torque See All Vibração See All Acessórios See All Controladores See All Excitadores de medição See All Excitadores modais See All Amplificadores de potência See All Sistemas Shaker See All Soluções de teste See All Atuadores See All Motores de combustão See All Durabilidade See All eDrive See All Sensores de teste de produção See All Caixas de transmissão See All Turbo Charger See All Cursos de formação See All Acústica See All Monitorização de activos e processos See All Energia eléctrica See All Sensores personalizados See All NVH See All Sensores personalizados do OEM See All Vibração See All Integridade estrutural See All Transporte automotivo e terrestre
arrow_back_ios

Main Menu

See All nCode - Análise de Durabilidade e Fadiga See All ReliaSoft - Análise e gerenciamento de confiabilidade See All API See All Ruído do produto See All Ruído de passagem de veículos See All Electroacoustics See All Identificação da fonte de ruído See All Ruído ambiental See All O que é potência sonora e pressão sonora See All Certificação de ruído See All Teste de produção e garantia de qualidade See All Análise e Diagnóstico de Máquinas See All Monitoramento de integridade estrutural See All Teste de bateria See All Introdução à Medição de Energia Elétrica Durante Transitórios See All Diagrama de circuito equivalente do transformador | HBM See All Sensores OEM para a indústria agrícola See All Sensores OEM para aplicações robóticas e de torque See All Dinâmica estrutural See All Ensaio das propriedades dos materiais
img

expand_more
chevron_left
chevron_right

Maintenance Optimization and Simulation Modeling with Process Flow

Facing increasingly complex production systems, as well as technological, economic and competitive challenges, various companies and organization must bring new processes and products to market more quickly. Because of the advanced nature of manufacturing operations, planning for improvements and managing increased demands must be made carefully and with each part of the operation taken into account.

Optimizing production and minimizing costs is a constant challenge. With so many different requirements and configurations, the outcomes of the process improvement changes can be difficult to predict. These difficulties often lead to neglected or over-simplified modeling. In order to correctly forecast real life scenarios, allowing you to evaluate, analyze and quickly identify bottlenecks, HBM Prenscia developed Process Flow, an advanced simulation module available in ReliaSoft BlockSim software.

What is Process Flow?

 

Process Flow is an essential model-based tool designed for modeling the reliability and maintainability of equipment and for analyzing multiple flow types within the system. It can be used for the visual design and optimization of any technical processes such as chemical plants, Oil and Gas facilities, power stations, complex manufacturing operations and biological processes such as water treatment.  

Why Process Flow?

 

Traditionally process-oriented throughput-based simulation approaches have been largely focused on cost or throughput capability and many simplified the RAM impact. With Process Flow, organizations are now ableto analyze their continuous output system efficiency and safely test process changes to improve throughput and profitability. With its advanced capabilities, Process Flow becomes an essential tool for visual design and optimization of nearly any technical processes.  

Using Process Flow to improve efficiency

 

Process Flow takes full advantage of the Monte Carlo based simulation engines that are already built into BlockSim software and assess how to use properly the existing framework in order to focus on continuous throughput environments.

For existing BlockSim customers who have focused their activities on Reliability and Maintainability (RAM Analysis) of their systems, all the reliability information including tasks, crew, and sparing information is immediately re-usable in the Process Flow.

Process Flow block types

 

Block types for Process Flow are focused on the application of production. 

Source block
A source block is where a fluid enters the PFS diagram.
Sink block
A sink block is where a fluid exits the PFS diagram.
Process block
A process block represents where fluids are combined to create other fluid types.
Tank block
A tank block is used to store fluids.
Valve block
A valve block is used to switch flow from one output to another.
Subdiagram block
A PFS subdiagram block represents another PFS diagram within the project. Subdiagrams are generally used to break down a larger diagram into simpler steps to reduce complexity and improve traceability.

Example: Understanding the petroleum refining process

 

A petroleum refinery needed to identify ways to increase throughput and decrease cost of its refining process. By using the Process Flow module, customers working within very large industrial complexes such as oil refineries can define the major factors involved and locate the deficiencies which need attention and improvement.

Quantify and fully optimize design of processes

 

Different types of analyses require different applications and logic to achieve variations and balance between RAM analysis and process efficiencies. With the advanced techniques available in the Process Flow module, we have created an advanced solution to help you quantify and fully optimize the design of your processes.