Este é um bom exemplo de como um modelo sem complexidade de detalhes pode mostrar um relativa complexidade de dinâmica. Muitos gerentes já foram submetido a este exercício e um número pequeno conseguiu prever o comportamento do sistema.

Este é um bom exemplo de como um modelo sem complexidade de detalhes pode mostrar um relativa complexidade de dinâmica. Muitos gerentes já foram submetido a este exercício e um número pequeno conseguiu prever o comportamento do sistema.

 Laço (Loop) de Equilíbrio com Atraso (Delay). ( https://youtu.be/LRlkwN_cFnQ )     PS: baseado em um modelo prévio do Insight Maker.      https://insightmaker.com/functions#Time%20FunctionsFns        Delay     Basic Structure:  Delay([Primitive], Delay Length, Default Value)  Description:   Returns
Laço (Loop) de Equilíbrio com Atraso (Delay). (https://youtu.be/LRlkwN_cFnQ)

PS: baseado em um modelo prévio do Insight Maker.

https://insightmaker.com/functions#Time%20FunctionsFns

Delay

Basic Structure:

Delay([Primitive], Delay Length, Default Value)

Description:

Returns the value of a primitive for a specified length of time ago. Default Value stands in for the primitive value in the case of negative times.

Example Usage:

Delay([Income], {5 Years})
 This model of a single simple shower is based on a 1994  paper  by John Morecroft et al of the London Business School.  It is used to show the impact of delay on control of a simple system.

This model of a single simple shower is based on a 1994 paper by John Morecroft et al of the London Business School.  It is used to show the impact of delay on control of a simple system.

This Insight is a simple model of a sluggish shower, the classic example from Systems Thinking of a balance loop with delay. It illustrates the sometimes baffling influence that time delays can have on simple decision making tasks.
This Insight is a simple model of a sluggish shower, the classic example from Systems Thinking of a balance loop with delay. It illustrates the sometimes baffling influence that time delays can have on simple decision making tasks.
A Conveyor is essentially an infinite order exponential delay.  This insight illustrates how increasing the order of an exponential delay begins to approximate a conveyor.  The 10th order delay very closely aligns to the Delay 10 Conveyor.
A Conveyor is essentially an infinite order exponential delay.  This insight illustrates how increasing the order of an exponential delay begins to approximate a conveyor.  The 10th order delay very closely aligns to the Delay 10 Conveyor.
3 months ago
Uso da Função Pulso para criar um Delay recorrente.     PS: baseado em um modelo prévio do Insight Maker.      https://insightmaker.com/functions#Time%20FunctionsFns        Pulse     Basic Structure:  Pulse(Time, Height, Width=0, Repeat=-1)  Description:   Creates a pulse input at the specified time
Uso da Função Pulso para criar um Delay recorrente.

PS: baseado em um modelo prévio do Insight Maker.

https://insightmaker.com/functions#Time%20FunctionsFns

Pulse

Basic Structure:

Pulse(Time, Height, Width=0, Repeat=-1)

Description:

Creates a pulse input at the specified time with the specified Height and Width. Height defaults to 1 and Width defaults to 0. Repeat is optional and will create a pulse train with the specified time if positive..

Example Usage:

Pulse({10 Years}, 5, 2)
This Insight is a simple model of a sluggish shower, the classic example from Systems Thinking of a balance loop with delay. It illustrates the sometimes baffling influence that time delays can have on simple decision making tasks.
This Insight is a simple model of a sluggish shower, the classic example from Systems Thinking of a balance loop with delay. It illustrates the sometimes baffling influence that time delays can have on simple decision making tasks.
4 months ago