Simul8

Last updated
SIMUL8
Original author(s) SIMUL8 Corporation
Developer(s) SIMUL8 Corporation
Stable release
SIMUL8 2023
Operating system Cloud edition: any OS with a modern browser, Desktop edition: Windows 11, 10, 8, 7, XP, Vista, 2000, 98, 95, NT4, Windows server 2019, 2016, 2008, 32 bit and 64 bit
Available inEnglish, Japanese
Type Simulation & Optimization
License Proprietary, Concurrent User Licensing
Website https://www.simul8.com

SIMUL8 simulation software is a product of the SIMUL8 Corporation used for simulating systems that involve processing of discrete entities at discrete times. This program is a tool for planning, design, optimization and reengineering of real production, manufacturing, logistic or service provision systems. SIMUL8 allows its user to create a computer model, which takes into account real life constraints, capacities, failure rates, shift patterns, and other factors affecting the total performance and efficiency of production. [1] Through this model it is possible to test real scenarios in a virtual environment, for example simulate planned function and load of the system, change parameters affecting system performance, carry out extreme-load tests, verify by experiments the proposed solutions and select the optimal solution. A common feature of problems solved in SIMUL8 is that they are concerned with cost, time and inventory.

Contents

SIMUL8 uses dynamic discrete simulation and agent based simulation, which makes it possible to provide unambiguous and concrete results and proofs – information on how the designed or optimized production system will actually function. The outputs of SIMUL8 simulation are "hard data", values and statistics of performance parameters and metrics of the production system. [2]

Model building

Construction of SIMUL8 models is usually not based on programming or statistical data, but rather on drawing organization schemes on the screen. However, SIMUL8 implements a two-way interface with Visual Basic, which leaves space for creation of advanced model features, which cannot be modeled using only the graphical interface. SIMUL8 also provides its own simulation language optimized for simulation processing, called Visual Logic, which allows the user to implement detailed logic of the simulation. The design of SIMUL8 also facilitates communication with other software packages such as Microsoft Access, Excel and Visio. The support of XML and OLE automation allows working with external sources of data and exporting internal data to other systems. SIMUL8 also supports communication with databases using SQL. [3]

Simulation models can also be built automatically using Simul8's process mining import functionality, which takes a transaction log of data and builds the process simulation structure and rules dynamically.

Basic components of SIMUL8 environment

A SIMUL8 simulation revolves around processing work items. They enter the system via work entry points, pass through work centers, may temporarily reside in storage areas and leave via work exit points. In addition to this mechanism, work centers may need specific resources to process work items. A simulation consists of a number of these objects and of the routes between them, modeled as a directed graph. [4]

ComponentDescription
Work item

(element, entity)

models physical or logical objects moving through the system. Entities enter the system, induce different sorts of activities, use different kinds of resources and at the end leave the system. A customer, product or document can be a SIMUL8 model entity.
Entrance (Work entry point) objects that represent the entry of entities into the system (for example an arrival of customer or formation of a product
Activity

(Work center, action)

objects that model activities which the entities go through. Resources are typically used during execution of an activity
Queue

(Storage bin, stack)

objects that model cumulation of entities. The stack usually precedes activities for which the stacked entities wait because of lack of resources
Exit

(Work exit point)

a place through which the entities leave the modeled system (completion of an order, leaving of a customer)
Resource

(source)

objects that are used for modeling capacity restraints of workers, material or means of production used in activities
Routeobjects that connect all the other simulation objects. They represent sequences of activities and thus the movement of entities in the system.

Simul8 also provides advanced simulation objects such as conveyors, vehicles, and tanks and pipes. Simul8 also provides further modelling objects such as Value Steam Mapping and BPMN objects to enable simulation of other process formats. Primarily it is a discrete event simulation tool, it also has continuous and agent based functionality, it is a hybrid simulation tool.

Typical inputs and outputs

These are the most common parameters of a SIMUL8 model, which are set by the user to influence the conditions of simulated environment:[ citation needed ]

The outputs of the simulation provide information about:

Areas of use

SIMUL8 can be used to model any process where there is a flow of work, however the main areas of use are in manufacturing, health care, contact centers, automotives and supply chain. [5] [6]

SIMUL8 can be used to simulate different kinds of:

Simul8 Cloud

Simul8 is the only simulation tool on the market that is fully cloud enabled, allowing you to build, run and share simulations online. Their online version is a complete replica of their desktop version, so users can switch between both with ease, and all functionality available in the desktop version is available in their online version. In addition all users are provided with free online sharing functionality which allows you to share simulations with others without them needing to install anything. Simul8 also provides ASP functionality allowing you to use their web tool as a service passing information silently to their service for processing, this is ideal for embedding their software in your website services.[ citation needed ]

See also

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References

  1. Concannon et al. Simulation Modeling with SIMUL8, USA, 2003-11-01, ISBN   0-9734285-0-3, p. 68/410
  2. Logio consulting. "Dynamic simulation and modeling of production systems" . Retrieved 2009-01-22.
  3. SIMUL8 Corporation. "SIMUL8 Standard 2008 FAQs" . Retrieved 2009-01-07.
  4. Concannon et al. Simulation Modeling with SIMUL8, USA, 2003-11-01, ISBN   0-9734285-0-3, p. 115/410
  5. Gulyás. "Learning SIMUL8: The Complete Guide Review" . Retrieved 2008-12-30.
  6. "Industries". SIMUL8. Retrieved 23 August 2020.