Simulation Models

These models and simulations have been tagged “Simulation”.

The simple savings account is used to demonstrate the nature of a reinforcing loop. Change the initial amount and interest rate and run the model to see the implications of changing these values. @ LinkedIn ,  Twitter ,  YouTube
Savings Account Simulation Roam

The simple savings account is used to demonstrate the nature of a reinforcing loop. Change the initial amount and interest rate and run the model to see the implications of changing these values.

@LinkedIn, Twitter, YouTube

Savings Account Model
Gene Bellinger
11
This is a high level system dynamics model which is built to determine the dynamic relationships of the FSA and Followups capacity. Therefore, it can help clinicians to find out the optimistic method in order to reduce the waiting list. At past clinicians were seeing more FSA patients, however, af
Healthcare Decision Making Simulation Health Care Patient Flow Hospital Clinical Care
This is a high level system dynamics model which is built to determine the dynamic relationships of the FSA and Followups capacity. Therefore, it can help clinicians to find out the optimistic method in order to reduce the waiting list. At past clinicians were seeing more FSA patients, however, after few months, the followups patients overwhelmed the clinics. Therefore waiting list has been built up again. By running this model, clinicians can find out the balanced leverage point(s). New Model has been developed, this is a very draft model.
Outpatient Clinics Patient Flow
Keming Wang
12
Simple bathtub model to show the difference between Stock and Flow. Run the model with various values for filling and draining to see the implications. @ LinkedIn ,  Twitter ,  YouTube
Roam Bath Tub Simulation

Simple bathtub model to show the difference between Stock and Flow. Run the model with various values for filling and draining to see the implications.

@LinkedIn, Twitter, YouTube

Simple Bathtub Model
Gene Bellinger
5
Basic Stock & Flow models for use in Systemic Perspective video. @ LinkedIn ,  Twitter ,  YouTube
Elements Roam Flow Stock Simulation
Basic Stock & Flow models for use in Systemic Perspective video.
Stock & Flow Models
Gene Bellinger
Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine: a) a velocidade angular do movimento. b) gráfico XY do movimento da cadeira. c) em quanto tempo o passageiro executa uma volta completa.
Physics Simulation. SYSTEM DYNAMIC Kinematics Computational Modeling

Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine:

a) a velocidade angular do movimento.

b) gráfico XY do movimento da cadeira.

c) em quanto tempo o passageiro executa uma volta completa.

Clique aqui para ver uma descrição do que é Movimento Circular.

Movimento Circular Uniforme
Paulo Villela
6
Time Settings are used to define the simulation start time, duration, and the step size used from one calculation to another. @ LinkedIn ,  Twitter ,  YouTube
Time Settings Simulation Roam
Time Settings are used to define the simulation start time, duration, and the step size used from one calculation to another.
Insight Maker/Time Settings
Gene Bellinger
This model represents an elaboration of the Savings Account model to investigate the implications associated with intending to save money for retirement so an amount may be withdrawn monthly for living expenses. @ LinkedIn ,  Twitter ,  YouTube
Retirement Account Roam Simulation

This model represents an elaboration of the Savings Account model to investigate the implications associated with intending to save money for retirement so an amount may be withdrawn monthly for living expenses.

@LinkedIn, Twitter, YouTube

Retirement Account Model
Gene Bellinger
Insight diagram
Game Of Life Simulation
Game of life - simulacija
Igor Benić
Um ponto material percorre uma trajetória circular de raio R = 20m com movimento uniformemente variado e aceleração escalar a = 5m/s². Sabendo-se que no instante t = 0 sua velocidade escalar é nula, determine no instante t = 2s os módulos da: a) Velocidade vetorial; b) Aceleração tangencial;
SYSTEM DYNAMIC Computational Modeling Physics Kinematics Simulation.

Um ponto material percorre uma trajetória circular de raio R = 20m com movimento uniformemente variado e aceleração escalar a = 5m/s². Sabendo-se que no instante t = 0 sua velocidade escalar é nula, determine no instante t = 2s os módulos da:

a) Velocidade vetorial;

b) Aceleração tangencial;

c) Aceleração centrípeta;

d) Aceleração vetorial.

Fonte: (RAMALHO,NICOLAU E TOLEDO; Fundamentos da Física, Volume 1, 8ª edição, pp. 12 – 169, 2003).

Clique aqui para ver uma descrição do que é Movimento Vertical no Vácuo.

Velocidade e Aceleração Vetorial
Claudio Garcia Quirico
This model was developed to support Health Systems Thinking & Learning Events using the systems dynamics modelling approach.
Disease Prevention CVD Public Health Population Health Modelling Simulation
This model was developed to support Health Systems Thinking & Learning Events using the systems dynamics modelling approach.
CVD Prevention Modelling
Chris Skelly
14
This is a model developed with Sarah's and Duncan's help on the 16/5/2017
Simulation Marketing Teaching
This is a model developed with Sarah's and Duncan's help on the 16/5/2017
Teaching model of production and balanced loop
Steven D'Alessandro
This model tries to capture the effect of deviations in Demand & Lead Time on two KPIs that may be important for an organization: * ~Availability (as Missed Sales) and  * Stock Turnover
Inventory Management Optimization Simulation
This model tries to capture the effect of deviations in Demand & Lead Time on two KPIs that may be important for an organization:
* ~Availability (as Missed Sales) and 
* Stock Turnover
Clone of Inventory Management (with varying Demand and Lead Time )
Joal Paiva
Simulation of Goodwin01 Minsky Model CLD in  IM-172002  Compare with  Part3 slide 3 of presentation  in patreon. See extension Goodwin02 at  IM-172145
Goodwin Macroeconomics Dynamic Minsky Economics Keen Simulation

Simulation of Goodwin01 Minsky Model CLD in IM-172002 Compare with Part3 slide 3 of presentation in patreon. See extension Goodwin02 at IM-172145

Goodwin Minsky Simulation Keen Economic Dynamics Aug2019
Geoff McDonnell
3
This model tries to capture the effect of deviations in Demand & Lead Time on two KPIs that may be important for an organization: * ~Availability (as Missed Sales) and  * Stock Turnover
Inventory Management Optimization Simulation
This model tries to capture the effect of deviations in Demand & Lead Time on two KPIs that may be important for an organization:
* ~Availability (as Missed Sales) and 
* Stock Turnover
Inventory Management (with varying Demand and Lead Time )
Gökhan Çetinkaya
The various elements of the Modeling & Simulation with Insight Maker section of the Systemic Perspective Series.
Simulation Systemic Perspective

The various elements of the Modeling & Simulation with Insight Maker section of the Systemic Perspective Series.

Clone of Modeling & Simulation with Insight Maker
Olumide Ogunbanjo
Um corpo é lançado obliquamente no vácuo com velocidade inicial de 100 m/s, numa direção que forma com a horizontal um ângulo x, tal que sen(x) = 0,8 e cos(x) = 0,6. Adotando g = 10m/s², determine: a) Os módulos das componentes horizontal e vertical da velocidade no instante de lançamento; b)
Physics Kinematics Simulation. Computational Modeling SYSTEM DYNAMIC

Um corpo é lançado obliquamente no vácuo com velocidade inicial de 100 m/s, numa direção que forma com a horizontal um ângulo x, tal que sen(x) = 0,8 e cos(x) = 0,6. Adotando g = 10m/s², determine:

a) Os módulos das componentes horizontal e vertical da velocidade no instante de lançamento;

b) O instante em que o corpo atinge o ponto mais alto da trajetória;

c) A altura máxima atingida pelo corpo;

d) O alcance do lançamento.

Fonte: (RAMALHO, NICOLAU E TOLEDO;Fundamentos da Física, Volume 1, 8ª edição, pp. 12 – 169, 2003).

Clique aqui para ver uma descrição do que é Lançamento Oblíquo no vácuo.

Lançamento Oblíquo no vácuo
Claudio Garcia Quirico
This model was developed to support Health Systems Thinking & Learning Events using the systems dynamics modelling approach.
Disease Prevention CVD Public Health Population Health Modelling Simulation
This model was developed to support Health Systems Thinking & Learning Events using the systems dynamics modelling approach.
CVD Prevention Modelling - Step 1
Chris Skelly
The Flipping a Coin insight computes and display the cumulative results of flipping a coin for 1,000 flips. @ LinkedIn ,  Twitter ,  YouTube
Random Roam Simulation

The Flipping a Coin insight computes and display the cumulative results of flipping a coin for 1,000 flips.

@LinkedIn, Twitter, YouTube

Flipping a Coin
Gene Bellinger
Um veículo parte do repouso em movimento retilíneo e acelera com aceleração escalar constante e igual a 2,0 m/s2. Pode-se dizer que sua velocidade escalar e a distância percorrida após 3,0 segundos, valem, respectivamente: Fonte: FUVEST -2004 Clique aqui  para ver uma descrição do que é  Mov
Kinematics SYSTEM DYNAMIC Simulation. Physics Computational Modeling

Um veículo parte do repouso em movimento retilíneo e acelera com aceleração escalar constante e igual a 2,0 m/s2. Pode-se dizer que sua velocidade escalar e a distância percorrida após 3,0 segundos, valem, respectivamente:

Fonte: FUVEST -2004

Clique aqui para ver uma descrição do que é Movimento Uniformemente Variado

Movimento Uniformemente Variado
Claudio Garcia Quirico
32
SYSTEM DYNAMIC Computational Modeling Simulation. Electrical Physics


Circuito RC
Claudio Garcia Quirico
Insight diagram
Post Office Simulation Model
Post Office Simulation
Igor Benić
Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine: a) a velocidade angular do movimento. b) gráfico XY do movimento da cadeira. c) em quanto tempo o passageiro executa uma volta completa.
Physics Simulation. Computational Modeling Kinematics SYSTEM DYNAMIC

Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine:

a) a velocidade angular do movimento.

b) gráfico XY do movimento da cadeira.

c) em quanto tempo o passageiro executa uma volta completa.

Clique aqui para ver uma descrição do que é Movimento Circular.

Movimento Circular Uniforme (ñ)
Claudio Garcia Quirico
This is a high level system dynamics model which is built to determine the dynamic relationships of the FSA and Followups capacity. Therefore, it can help clinicians to find out the optimistic method in order to reduce the waiting list. At past clinicians were seeing more FSA patients, however, afte
Patient Flow Clinical Care Healthcare Health Care Simulation Hospital Decision Making
This is a high level system dynamics model which is built to determine the dynamic relationships of the FSA and Followups capacity. Therefore, it can help clinicians to find out the optimistic method in order to reduce the waiting list. At past clinicians were seeing more FSA patients, however, after few months, the followups patients overwhelmed the clinics. Therefore waiting list has been built up again. By running this model, clinicians can find out the balanced leverage point(s).

Authors: Ashish Taneja, Keming Wang and Daniel Wong
Clone of Outpatient Clinics Patient Flow
Bruce.Beihoff
Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine: a) A velocidade angular do movimento. b) O módulo da aceleração centrípeta do passageiro. c) Em quanto tempo o passageiro executa uma vol
Simulation. Physics Kinematics Computational Modeling SYSTEM DYNAMIC

Uma roda-gigante de raio 14 m gira em torno de um eixo horizontal. Um passageiro sentado em uma cadeira, move-se com velocidade linear v=7 m/s. Determine:

a) A velocidade angular do movimento.

b) O módulo da aceleração centrípeta do passageiro.

c) Em quanto tempo o passageiro executa uma volta completa.

Clique aqui para ver uma descrição do que é Movimento Circular.

Movimento Circular Uniforme
Claudio Garcia Quirico