Reduced Software Complexity for E-Government Applications with ZEF Framework

TELKOMNIKA, Vol.15, No.1, March 2017, pp. 415~420
ISSN: 1693-6930, accredited A by DIKTI, Decree No: 58/DIKTI/Kep/2013
DOI: 10.12928/TELKOMNIKA.v15i1.3195  415
Received October 15, 2016; Revised December 20, 2016; Accepted January 29, 2017
Reduced Software Complexity for E-Government
Applications with ZEF Framework
Ahmad Nurul Fajar*
1
, Imam Marzuki Shofi
2
1
Master in Information Systems Management, Binus Graduate Program,
Bina Nusantara University, Jakarta, Indonesia, Kebun Jeruk Raya Street No 27, (+6221) 53696969
2
Informatics Engineering Deparment, Faculty of Science and Technology,
UIN Syarif Hidayatullah Jakarta, Jakarta, Indonesia, Ir.H.Djuanda Street No 95, (+6221) 7401925
Corresponding author, e-mail: afajar@binus.edu*
1
, imam@uinjkt.ac.id
2
Abstract
The situation of dynamic change is unpredictable and always growth increasingly. It also can
happen anytime and anywhere. The one kind which is always changing is the government policy.This
condition is suggested take the impact for software for information system. It will cause replacement,
modification, and enhancement of software for information system. There is some commonality and
variability of software features in Indonesian Government. Hence, to manage it, we present enhancement
of Zuma’s E-Government Framework (ZEF) for reduce software complexity.We enhance ZEF Framework
using SPLE and GORE approach in order to improve traditional software development.It can reduce, if
the changing continuously happen.The measurement of software complexity relate to functionality of
system.It can describe with function point, because function point can describe logical software
complexity also. The preliminary result of this study can reduce efficiency of software complexity such as
information processing size, technical complexity adjustment factors and function points in e-government
applications.
Keywords: software product line, ZEF, e-government, GORE, software complexity
Copyright © 2017 Universitas Ahmad Dahlan. All rights reserved.
1. Introduction
The government policy that always changing called dynamic environment in this study.
It can impact for the legacy software for information system. The impact such as re-design, re-
code, and re-implementation functionality of system. It causes inefficiency both of physical and
logical. In general, software for information system is consists of some features. It represents
the functionality of the system. A technique that can be used for managing commonalities and
variability within a product line is feature modeling [1]. The need of agile system in dynamic
environment such as illustrated in this study becoming crucial. Previous study has proposed of
agile system in dynamic environment, but lack in detailing how to determine and manage
commonality and variability in software features. Software for information system are developed
with high commonality between different users, however, it is always customized for specific
user needs.
SPLE can exploiting commonalities among related products in order to reduce software
complexity.The commonalities are used to create a product platform that can be used as a
common baseline for all products within a product family [2]. SPLE consists of domain
engineering and application engineering. It can support to build a robust platform and build
specific user applications [2]. SPLE requires many technical, financial, organizational, process
and market considerations [3]. The benefit of SPLE compare to traditional reuse is
maintenance [3, 4].
According to IEEE, software complexity is the degree to which a system or component
has a design or implementation that is difficult to understand and verify [5]. The main factor and
critical success factor of software development is the ability to understand relationships between
requirements, design, coding, and testing [6].
There is the process for exploitation, gathering, collecting and identifying user needs in
system development that called requirement engineering. According to [7], it means A Process
for gathering and identifying user needs, goal of system, and documenting in a template or form.

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Regard of it, there are two approach such as traditional approach and goal oriented approach.
The different between goal approach and traditional approach is goal approach used for
development of software that has much complexity. It is because goal approach has a
characteristic for having goal orientation in actor [7].
2. Research Method
This study has several previous researches, and will be a state of the art in this topic.
We present the state of the art in research method, such as GORE, FODA, and SPLE.
According to [7], the orientation of goal and actor is involved in Goal Oriented Requirement
Engineering (GORE). Then, the orientation has increased dramatically in popularity. The various
of modeling requirement approach in traditional has several characteristic.The characteristic are
form of low-level in the data, operation, and other which are more many understood by other
internal programmers & developers [8]. According to [1], FODA (Feature Oriented Domain
Analysis) has a number of extensions to the original FODA (Feature Oriented Domain Analysis)
notation integrate with Cardinality-based feature modeling. The each feature in a hierarchy of
features has a feature cardinality is called A cardinality-based feature model.A feature
cardinality has an interval, and the interval of the form [m..n], where m ∈ Z ∧ n ∈ Z ∪ {*} ∧ 0 ≤ m
∧ (m ≤ n ∨ n = *) [1]. Features with the cardinality [1..1] are referred to as mandatory, whereas
features with the cardinality [0..1] are called optional [1]. Besides that, features can be arranged
into feature groups, where each feature group has group cardinality [1]. A group cardinality is an
interval of the form (m– n), where m, n Z∧ 0 ≤ m ≤ n ≤ k [1].
The process of discovery and exploiting modeling of what is common and what differ
between product variants is baseline of SPLE [2]. It is an approach that develops and maintains
families of products with variability to support reuse in software for information system
development [2, 6]. It allows realizing a real improvement in time to market, cost, productivity,
quality and flexibility. In fact, SPL techniques are explicitly capitalizing on commonality [2].
Product line engineering has become an important and widely used approach for the efficient
development of whole portfolios of software products [2]. Variability is the ability of a system to
be efficiently extended, changed, customized or configured for use in a particular context [9]. In
order to implement the variability concepts, there is a variability management (VM). It is one of
the fundamental concepts in SPLE, which is purpose to support variant in products. This is not
only taking into account the commonalities but also the variability extracted from the domain [9].
In order to achieve the good implementation, we should consider the variability. It must be
considered at each development phase from the requirements collection to the final
implementation [9].
3. Results and Analysis
This Section describe about data, object experimental, scenario, simulation,ZEF
Framework enhancement, and evaluation
3.1. The Data and Object Experimental
Indonesia has central government and local government, which has characteristics in similarity
of business process and rules. This condition, because the commonalities and variability in
software features. According to the Indonesian E-Governments blueprint, the hierarchy on E-
Government function is dividing into (a) block of functions; (b) block of sub-functions; and block
of modules. The condition of Indonesian e-government applications depicted in Table 1 below:
Table 1. Indonesian E-Government Applications
Function Group Number of Sub Function Number of Module
Support and Services 4 15
Politic and Legal 2 5
Defense and Safety 2 6
Law and Policies 2 6
Economic 2 6
National Development 4 25
Publication 2 7

TELKOMNIKA ISSN: 1693-6930 
Reduced Software Complexity for E-Government Applications with ZEF… (Ahmad Nurul Fajar)
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The Case in our study is module budgeting application. These application consists of 4
sub modules, include: budget planning, budget realization, budget monitoring, and budget
evaluation. Budget planning focus to manage activity, identify what is activity. The activity has
outcome, output and indicator. Budget realizations focus how to synchronize planning and
realization. Budget monitoring focus how to monitor the activity and realization. Budget
evaluation is how to evaluate all the activity. Table 2 below described the commonality and
variability features.
Table 2. Case Study: Budgeting Application
Feature Commonality Variability
Manage Program X
Submit X
Approval X
Reject X
View & Report X
Calculate X
Manage TOR X
Manage Transaction X
Manage Indicator X
Manage Input X
Manage Output X
Manage Outcome X
Manage Impact X
Formula X
Lakip X
Create and legalized SPP X
Create and legalized SPM X
Create legalized SPD X
3.2. The Scenario and Simulation
In this study, we develop several scenarios. This scenario is implemented in simulation
environment. The environment for simulation is described in Figurre 1.
Figure 1. Environment for Simulation
The Case in our study is budgeting application.The scenario based on the environment
simulation above are:
Feature Embedded, this scenario describe feature that consist in local government and
central government. This feature refers to budgeting application. There are 15 features that
cover business process for budgeting planning, budgeting realization, budgeting monitoring and
budgeting evaluation.

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Table 3. Feature Embedded Scenario
Feature Local Government Central Government
Manage Program V V
Submit V V
Approval V V
Reject V V
View & Report V V
Calculate V V
Manage TOR X V
Manage Transaction X V
Manage Indicator V X
Manage Input V X
Manage Output V V
Manage Outcome V V
Manage Impact V V
Formula X V
Lakip X V
Create and legalized SPP X V
Create and legalized SPM X V
Create legalized SPD X V
3.3. The ZEF Framework Enhancement
ZEF Framework has created by Professor Zainal Arifin Hasibuan, Dr. Eko K Budiardjo,
and Dr. Ahmad Nurul Fajar in 2012. In this work, we make enhancement of ZEF Framework.
We proposed enhancement ZEF Framework with adding SPLE and GORE Approach. It used
for accomadate the construction of SPL Platform and Goal of the organization. It also reference
and inspired by [10] mechanism.
The ZEF Framework Enhancement described in Figure 2. It is explain about the
mechanism of to construct software product line platform. In order to construct it, we used goal
model to transform from domain engineering to application engineering in SPLE. It means we
make analysis in domain engineering before create goal model. Then, in order to capture
feature model, we used goal model for eliminate the semantic and meaningfull from the domain.
In the last stage, we develop application platform from feature model in application engineering
phase.
Figure 2. ZEF Framework Enhancement
According to Figure 2 above, we proposed the mechanism for checking consistency in
goal model that described in Figure 3 below. Figure 3 described the flow of stage for checking
consistency in goal model. This mechanism is derived from GCC Method which is achieved
from goal model in domain engineering phase.
Goal
Consistencies
Checking
(GCC Method)
List of Goals/
Goal Model
Based on Regulation
Documents
List of
Consistent Goals
Based on Regulation
Documents
Figure 3. Mechanism for Checking Consistency in Goal Model

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According to scenario and simulation that had been described, the preliminary result,
we improve function point analysis for calculate software complexity. The improvement are:
1. We added component software
2. We classify degree of complexity
There are the step to estimate cost development:
1. Calculate CRUD Function Point
The calculation function point for CRUD functionality is described in Figure 5 below.
This figure represent the value of function point which is focus on CRUD functionality in the
software.
Figure 5. Calculate CRUD Function Point
2. Calculate RCAF (Relative Complexity Adjustment Factor)
From figure above, Total CFP = 233. The next step is calculate RCAF (Relative
Complexity Adjustment Factor). RCAF used to evaluate complexity characterstics. Table 4
below described the result of RCAF Calculation:
Table 4. RCAF Calculation
3. Calculate Function Point (FP)
The last step is Calculate FP, we can calculate FP using : FP = CFP x (0.65 + 0.01 x
RCAF). After that, if CFP = 233 and RCAF = 27. Then FP = 233 x (0.65+0.001 x 27) =
4095,441.
3.4. Evaluation
The evaluation in our study will compare CRUD function point, RCAF and function point
between using enhancement ZEF Framework and without enhancement ZEF Framework. The
result of the evaluation relate to case in our study. Value for calculate CRUD function point,
RCAF and function achieved from software architect expert. There are 5 software architect
expert contribute to judge the value. Table 5 below described the result of the evaluation of
enchancement of ZEF system Architecture.
Subject Score
0 1 2 3 4 5
Back up/Recovery v
Data Communication v
Distributed Processing v
Transaction Rate v
Updating File Master v
Installation v
Input,Output,Query Online, File v
Data Processing v
Reuse Code v
Flexibility/Response Change v
End user Efficiency v
Total = RCAF 27

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Table 5. Evaluation
Variable Using Enhancment ZEF
Framework
Without Enhancment ZEF
Framework
CRUD function point 233 525
RCAF (Relatively Complexity Adjustment Factor) 27 46
Function Point 4095,441 15721,65
4. Conclusion
The enhancement ZEF Framework is construct with SPLE and GORE approach. The
results from it is The Framework that can provide guidance for software developers to construct
software product line platform. It can reduce efficiency software complexity such as information
processing size, technical complexity adjustment factors and function points in the case of
budgeting application for e-government applications.
Acknowledgements
This paper was fully supported by Faculty of Computer Science; University of
Indonesia.This paper also was fully supported by Prof. Zainal A Hasibuan, Dr. Eko K Budiardjo
and Prof Heru Suhartanto from Faculty of Computer Science University of Indonesia.
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