Serious Game Relationship Between Socio-Economic and Territorial Condition

Serious Game Relationship Between Socio-Economic and Territorial Condition

Windi E.Y. Retnani Saiful Bukhori*

Research Group of Data and Business Intelligence, Department of Computer Science, University of Jember, Jember 68121, Indonesia

Corresponding Author Email: 
saiful.ilkom@unej.ac.id
Page: 
59-63
|
DOI: 
https://doi.org/10.18280/mmep.080107
Received: 
29 December 2019
|
Revised: 
3 December 2020
|
Accepted: 
12 December 2020
|
Available online: 
28 February 2021
| Citation

© 2021 IIETA. This article is published by IIETA and is licensed under the CC BY 4.0 license (http://creativecommons.org/licenses/by/4.0/).

OPEN ACCESS

Abstract: 

This research models a sustainable development through a serious game. The sustainable development system is influenced by internal factors and external factors. Internal factors consist of three sub-systems, namely: Culture, structure and technology. External factors consist of three sub-systems, namely: environment, economic actors and socio-cultural actors. The model in this research is agent-based involving three types of agents (firm, worker, and policy), internal variables, and external variables using a dynamic system. The behavior of each variable is observed using a dynamic system model. By providing initial values in internal factor variables and external factor variables, agent movement can provide information about the firm-size condition, the income of workers and the effect of policy on the development of companies and workers. Determination of initial data from internal factor variables and external factor variables aims to achieve a balance between supply and demand. In a certain phase, it will produce an optimal value, shown by supply and demand are at the same point. This condition needs to be maintained by adjusting all input variables so that supply and demand are in an optimal position.

Keywords: 

sustainable development, internal factor variables, external factor variables, supply, demand

1. Introduction

Sustainable development is a development goal that involves economic, social, ecological and spatial development. These developments must be complemented each other [1]. Economic, social, ecological and spatial development when simplified involves two main elements, namely: socio-economic circumstances and the condition of territorial area. This research is modelling the socio-economic circumstances and the condition of territorial area through a serious game.

The implementation of a society sustainable development strategy is currently under debate. The closure of mining companies in the mining area with high ecological problems would normally leave the social, environmental and economic problem. For a new approach to sustainability with maximum efficiency, in line with the policies adopted by the government, new strategic thinking is needed that combines regional issues and accelerates the process of alignment with global requirements [2].

This research is proposing an objective analysis of the main socio-economic situations that occurred in the previous years, there is a proposed strategy for conducting public management. In addition, this research also examines the territorial dimensions of sustainable development areas and recommends an integrative model that suits current needs by adopting an agent-based model and dynamic systems.

Several researches have succeeded in adopting agent-based model. Crisis simulation for a RTGS is modelled by Luca at al using an agent-based model. This model uses approach the macro-features of reality, shown the sequential effects of an unexpected negative shock affecting [3]. The graph mining to exploring agent-based methods for activity network prediction in RTGS payment system based on clearing house. This research models an activity network in the graph and models the data by entangling variables having an effect on find relationship between banks [4]. The model of activity network system adopts the decentralization paradigm. The principal component of this system are adaptive agents consisting of five agents that are saving agent, reserves agent, loan agent, deposit agent and money transfer agent [5, 6]. Competitive advantage in serious game Supply Chain Management (SCM) Agroindustry by using hybrid forest fire model and profile matching. The focus of this research is adopting an agent-based models in order to fulfil of tobacco from the farmers to cigarette factory [7].

The focus of this research is to analyze the relationship between socio-economic aspects and regional conditions in the sustainable development of a region. Sustainable development is a development in a region that meets the needs of the present without compromising future capabilities [8, 9]. In this research is modeling the conditions of internal factors and conditions of external factors using a dynamic system. The model used in this research is agent-based by involving agent firm, agent worker and agent policy. These agents provide information about the firm-size condition, the income of workers and the effect of policy on the development of companies and workers. Setting initial data from internal factor variables and external factor variables aims to achieve a balance between supply and demand.

The rest of this paper is organized as follows. The proposed model for strategic approach to sustainable development is discussed in section 2. Section 3 gives the analysis of potential district. Finally conclusions are given in section 4.

2. Methodological Approach

The sustainable development of an area puts a people at the center of society, as well as the living environment and its care. Sustainable development is development in an area that meets the needs of the present without compromising the ability of future generations to meet their own [10]. It estimates of what is needed by the society and what will be required of future generations. In addition, the general model of sustainable development shows that there is not an independent factor causing sustainability without a permanent inter-relationship between them, as shown in Figure 1.

Figure 1 shows a model of a sustainable development. This model illustrates that the three main pillars underlying a sustainable development are: economic, socio-cultural, and ecological. These pillars are interdependent and mutually influence. To achieve organizational goals is required a number of indicators that ensure the operational working well. Having determined the indicators, then proceed with determining the criteria as a measurement between zero and the target.

Figure 1. General model of sustainable development

To achieve organizational goals, it is necessary to integrate and balance the three pillars of sustainable development. Therefore, in compiling a balance between these pillars requires bearable, equitable and viable [11]. Bearable is applied between society and environment. Society must make lifestyle adjustments so that it understands the impact of what is done and then tries to contribute to the environment and better welfare. Equitable is implemented in society and economy. Equitable is needed for equal and fair use of resources owned by the state for society. With equality, it is hoped that it can alleviate poverty, social inequality and improve people's lives. Viable applies to economics and the environment. A nation tries to grow and develop its economy but still pay attention to the protection of its environment. Therefore, investment must be able to sustain itself, create jobs, improve people's welfare, and protect the environment from harm.

Sustainable development will lead to major changes in all aspects of life. Models developed World Bank on sustainable development highlights the change of government should be based on technological, cultural and structural change. These factors are interdependent in optimization, improvement and renewal. In each of these approaches, a specific interaction between culture, structure and technology can be recognized as shown in Figure 2. The specific interaction between culture, structure and technology is an environment that can be modeled with agent-based modeling. Agents interact with each other, imitate, communicate, exchange and can also compete with each other [12, 13]. Based on the heterogeneous interaction modalities, various socialites can produce information including communication, identity, economy and culture.

Figure 2. Interaction between culture, structure and technology

A strategic approach in sustainable development, which is modeled using agent-based, must create a social perception that institutions serve the community [14]. Based on these perceptions, the influence of public management which causes changes in society can be an observable model. Public management that causes changes in society is not only influenced by internal variables (culture, structure and technology) but also influenced by external variables as an input such as environment, economic actors, and socio-cultural actors as shown in Figure 3.

The dynamic behavior of sustainable development system is largely determined by the structure of the feedback loops formed by each of the variables that influence both variables in internal and external factors. Each variable acts as a sub-system in a closed system [15]. Closed system formed shows the characteristics of the dynamic properties of a system. In dynamic systems more attention directed toward a closed system or the feedback system. This feedback system is a building block model represented by the closed circles. The circumference feedback is stating causality circular variables.

Figure 3. Internal variable and external variable

Sustainable development system is influenced by Internal Factors (u) and External Factors (y). Internal Factors consist of three sub-systems, namely: Culture, Structure and Technology. External Factors consist of three sub-systems, namely: Environment, Economic Actors and Socio-Culture Actors [16-18]. Each sub-system consists of several variables as shown in Table 1.

The dynamics of each variable behavior was observed in this research using a model of a dynamic system [19-21]. Dynamic system models can be expressed using differential equations. The general form of linear system of order n can be written by the following equation:

$g(y^{(n)}(t), y^{(n-1)}(t), \ldots ., y(t)$,$u^{(m)}(t), u^{(m-1)}(t), \ldots, u(t)=0$     (1)

And $y^{(k)}(t)$ can be expressed by the following equation,

$y^{(k)}(t)=\frac{d^{k}}{d t^{k}} y(t)$     (2)

The basic concept of a dynamic system that interacts with the system can be expressed using the input variables and output variables. Input variables or more simply referred to as the input is a set of variables that come from outside the system and not directly dependent on events in the system. In this research input variables are external factors (y). Output variable or simply referred to as output a set of variables generated by the sub-systems that exist in the system. In this research, the output variables are internal factors (u).

$a_{n} \frac{d^{n} y}{d t^{n}}+a_{n-1}(t) \frac{d^{n-1}}{d t^{n-1}}+\cdots+a_{1} \frac{d y}{d t}+a_{0} y$$=b_{m} \frac{d^{m} u}{d t^{m}}+b_{m-1} \frac{d^{m-1} u}{d t^{m-1}}+\cdots$$+b_{1} \frac{d u}{d t}+b_{0} u$     (3)

a0, a1, ..., an and b0, b1, ..., bm are constants

Table 1. Internal factors and external factors

Internal Variable

External Variable

Culture

Road density

Environment

River number

Daily shopping

Lake number

Sub urban housing

Hill number

Culture number

 

Structure

Policy support

Economic Actors

Initial number firm

Prior area

Initial number CW

Tax rate

Base product demand

Mean tenure

 

 

Technology

Clover leaf number

Socio-Cultural Actors

Demand monthly growth rate

Green park number

Growth rate cycle

Subway number

Maximum job hunting

Indor park number

Maximum time failure finding jobs

University number

Maximum failure finding office

Old factory number

Maximum time office searching

Old housing number

Maximum housing finding

Table 2. Initial data of internal factors and external factors

Internal Variable

External Variable

Variable

Value

Variable

Value

Road density

Medium

River number

1

Daily shopping

Medium

Lake number

1

Sub urban housing

 

Hill number

1

Culture number

Medium

 

 

Policy support

Medium

Initial number firm

30

Prior area

Inner City District

Initial number CW

300

Tax rate

20%

Base product demand

115

Mean tenure

60

 

 

Clover leaf number

Medium

Demand monthly growth rate

0.01

Green park number

Medium

Growth rate cycle

0

Subway number

Low

Maximum job hunting

30

Indor park number

Medium

Maximum time failure finding jobs

6

University number

Medium

Maximum failure finding office

6

Old factory number

Medium

Maximum time office searching

10

Old housing number

Medium

Maximum housing finding

200

3. Conducting Research and Results

This research starts with define the initial data of each input variables and output variables. Input variables and output variables are determined as shown in Table 2. Based on these initial data are observed the dynamic conditions from the firm, income of the workers, comparison of the firm, workers and influence of the policies, development of residents condition (agent) who do not have the job, not have home and not have land from time to time and the latter observing the supply and demand of the potential district.

Based on the initial data conditions that are determined as shown in Table 2, the dynamic development of the firm condition can be mapped to companies with development at a rapid pace (max), the company with the development in the medium (median) and the company's less developed (min). Based on the Figure 4, shows that the firm-size-max develop very high but fluctuate. Firm-size-medium and firm-size-min develop slowly but tend to rise. So based on this condition, the standard deviation and the mean of the firm development looks likely to rise slowly but tend to rise.

Income conditions of the worker follows the pattern of the firm. Income from high worker (max) tends to fluctuate at certain times rise, while others go down. Income condition of the median worker and min worker tend to remain despite ups and downs but not too high. Figure 5 represents the income of workers.

Development of the firm and workers are not always significant. Figure 6 show without the influence of government policy, Development of the firm tend to be faster than development of the workers. However, at certain times development of the firm started to decline and follow the development of workers.

Figure 4. Firm-size condition

Figure 5. The income of worker

Figure 6. The effect of policy on the development of companies and workers

To optimize firm growth and job growth is needed to set a policy that not only benefit the company which is the stronger side, but it should also draw up policies that benefit workers who are the weaker party.

Conditions of the community (agent) to note is not having a job. In Figure 7 is seen that the initial conditions as shown in Table 2, the problem has no home and no land are not a major problem but the condition of the community who are no job are a great impact although at a specific phase will decrease and at some point toward a fixed value.

Figure 7. The problem of the community (agent)

In the final stage is the analysis of supply and demand. Determination of the initial data from the Internal Factors and External Factors are aiming to achieve a balance between supply and demand. Initial data conditions as shown in Table 2 resulted in supply and demand as shown in Figure 8. In Figure 8 is shown that the value of the initial supply should be increased to get an optimal values. At a certain phase will produce the optimal value where supply and demand at the same point. These conditions need to be maintained by adjusting all input variables so that supply and demand are in the optimal position.

Figure 8. Supply and Demand

4. Conclusions

Sustainable development system is influenced by internal factor and External Factor. Internal factors consist of three sub-systems, namely: Culture, Structure and Technology. External factors consist of three sub-systems, namely: Environment, Actor Economic and Socio-cultural dynamics Actors. Internal factors and external factors are interdependent and form a dynamic system. The sustainable development system behavior is determined by the structure of the feedback loop formed by each of the variables that influence. The management process of the sustainable development requires determination of the initial conditions value from the internal factors variables and external factors variables.

The dynamic development of the firm condition can be mapped to firm's with development at a rapid pace (max), the firm's with the development in the medium (median) and the firm's less developed (min). The development of the firm in a district is determined by the initial variable conditions of the internal factors and external factors. Developments in income conditions of the worker tend to follow the pattern of development of the firm.

Development of the firm and workers are not always significant. To manage the development of the firm and workers in order to balance is required the government policy. The government policy in addition to balancing the development of the firm and workers as well as to solve the problems of the impact of people who are not working

Determination of the initial data from the Internal Factors and External Factors are aiming to achieve a balance between supply and demand. At a certain phase will produce the optimal value where supply and demand at the same point. These conditions need to be maintained by adjusting all input variables so that supply and demand are in the optimal position.

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