Improving learning computer architecture through an educational mobile game
© Tlili et al. 2016
Received: 10 February 2016
Accepted: 2 May 2016
Published: 10 May 2016
Many studies have reported the efficiency of using educational games to teach a particular subject. With the rapid growth of mobile technology, mobile devices have become very popular and have reached a very high spread. This allowed educational mobile games to gain an increasing attention from researchers and practitioners in the learning field. At the same time, many learners find learning the computer architecture subject dry and hard using the traditional way in classrooms. This paper presents an educational mobile game to provide an interactive, motivating and a mobile learning experience of the computer architecture subject. Twenty seven undergraduate learners participated in evaluating the game using three instruments, namely technology acceptance model questionnaire, 5 stars rating method and interviews. The obtained experimental results showed that these learners were very satisfied and motivated to learn computer architecture using this designed educational game. Besides, they reported that they are willing to use it again in the future.
During the last few years, one of the problems that teachers have been struggling with is learners’ boredom in class (Daschmann et al., 2011). This can be due to the meaningless or repetitive learning tasks (Reid, 1986), overly abstract activities (Condry, 1978) and tasks being less or too challenging (Cullingford, 2002; Moneta and Csikszentmihalyi, 1996). Consequently, learners become frustrated, cut classes (Fallis and Opotow 2003) and even drop out of school (Dow, 2007). In particular, many learners find learning the computer architecture subject using the classical method in classrooms difficult and not motivating. This is because of the many computer components that learners have to go through, understand and memorize (Processor, memory, hard disk, etc.) (Tlili et al., 2015). It is scientifically proven that learners often do less than what teachers expect when it comes to learning computer architecture courses (Porter et al., 2013). Moreover, according to a study mentioned in (Waraich, 2004), learners who have learnt computer architecture and to be precise “Computer Systems Organization” chapter using the traditional way have encountered many problems. For example, the learning content was “dry” and “not very interesting”. Therefore, new methods for teaching computer architecture are required.
With the advances of Technology Enhanced Learning (TEL), new opportunities in education to improve teaching methods and learning quality have improved. Thus, learning mediums and environments have also evolved over time. This evolution can be seen from the classic learning with blackboard in classrooms environment to the online, open or mobile learning environments. In this context, this paper focuses on using mobile technology to present a newly designed educational mobile game to provide an interactive, motivating and a mobile learning experience of the computer architecture subject. The popularity, affordability and rapid spread of mobile devices have created new ways of learning (Shuler et al. 2013). According to Kambourakis et al. (2004), mobile learning or m-learning is the combination of two fields which are electronic learning and mobile computing. Attewell and Savill-Smith (2005) defined mobile learning as the use of wireless technological devices which can be carried in the learner’s pocket for learning.
This paper is structured as follows: Related work presents related work regarding educational games and mobile learning. Game implementation presents the game implementation. In particular, it presents the followed game design strategies and the implemented game learning activities. Experiment lists the used research instruments and the experimental results after using the game. Conclusion, limits and potential future directions concludes the paper with a summary of the findings, the limits and potential research directions.
This section presents the motivation behind using educational games in particular among other learning tools. Besides, it defines mobile learning and lists examples of educational mobile games reported in the literature.
Prensky (2005) claimed that the motivating factors used before are not effective with the present generation of learners. Beck and Wade (2004) talked about a new type of generation called gamer generation. Thus, it is claimed that this generation evolution has affected the learner’s skills (visual and spatial), preferences and the way they think (Oblinger et al. 2005). Digital games are considered as the fastest growing industry in America. Based on a new report made by the Entertainment Software Association (2014), video game industry’s revenue in the United States grew by 9 %. This has touched communities across the country, contributing $6.2 billion to the American economy in 2012. Prensky (2003) mentioned that the children’s attitudes towards their games are completely different from the ones towards school. Thus, it is not surprising that there is a large and growing interest in using games in education.
In educational games, learners are playing within a game scenario while trying to complete a series of learning tasks by themselves (single player games) or in groups (multiplayer games) (Nelson et al., 2011; Paraskeva et al., 2010). Prensky (2001) stated that these games made learning more fun and engaging. Carbonaro et al. (2006) found that educational games add the immersion criterion which does not exist in classrooms. Not only that, but these games support as well, providing an adaptive learning experience by modeling learners (Khenissi et al., 2015, Tlili et al., 2016).
A good and effective educational game should combine good learning content and game design (Oblinger, 2006; Amory and Seagram, 2003). Prensky (2001) recommended that a good educational game design should combine a balanced amount of both fun and educational value. Koster (2004) stated that game design is not an easy task since it is not a precise science. Also, not understanding the learning process within games can affect implementing a structured instructional game design (Egenfeldt-Nielsen, 2005). Furthermore, Plass et al. (2011) listed three elements that should be present while designing an educational game, namely game element which describes the game play activity, learning element which describes the activities that are known with their learning objective and assessment element which describes high level activities that aim to assess learners.
With the rapid growth of mobile technologies, different mobile devices (e.g. mobile phones, tablets) have appeared and have become indispensable in people’s life no matter where they are. In fact, 129.4 million people in the U.S. (almost half the U.S. population) own smartphones (comScore Reports January 2013 U.S. Smartphone Subscriber Market Share, 2013). These devices compared to computers are smaller, wireless, simple and cheaper (Fotouhi-Ghazvini et al., 2009). This helped them to be used in different domains, including education where the learning is mobile. In this type of learning, the learner is not limited to a predetermined place or location (O’Malley et al. 2005). Besides, According to Hashemi et al. (2011), mobile learning can be defined as the use of mobile devices and technologies to facilitate, support, enhance and extend the reach of teaching and learning. Mobile technologies and Internet made mobile learning gain more attention by researchers (Kinshuk et al., 2013).
As a result, new learning strategies are created such as “Just-In-Time” learning strategy where learners instantly access information and learn when it is needed without too much effort. For example, when they are waiting in a queue or for their public transportations, they can make use of that time and use their mobile devices to learn (Lavin-Mera et al., 2009). Also, mobile devices made “situated” learning strategy possible. In this strategy, learners can play and learn in an environment context similar to the subject content. For example, in (Chen et al., 2014), learners use their mobile devices to learn the culture of Taiwan (e.g. religion) by being in a temple and a church. Jacobs (2013) stated that “always on, always connected mobile devices in the hands of students can improve educational outcomes”.
Examples of educational mobile games
Edugame (Hssina et al., 2014)
Teaches construction of words, recognition of letters or mathematical operations
Geometry game (Ketamo, 2002)
MEL game (Sandberg et al., 2011)
Teaches English as a second language
Frequency 1550 (Huizenga et al., 2007)
Teaches the history of Amsterdam
Candy Factory (Aslan 2011)
Teaches fraction in mathematic
(Furió et al. 2013)
Teaches the knowledge about multiculturalism, solidarity and tolerance
As shown in Table 1, various educational mobile games are found dedicated to different operating systems (Android, iOS) with different pedagogical objectives (English, math, history, etc.) and for different ages (primary or high school learners). However, among the reported games in the literature, none of them currently supports learning the computer architecture subject in a fun and motivating way. Therefore, to overcome this problem, a newly designed educational mobile game is presented.
To deliver a motivating learning of the computer architecture subject, a mobile platform game for Android devices was developed. This game is called Science Soldier. This section details the different strategies followed while designing the game. Also, it presents the different learning activities and functionalities used within the game to deliver the learning content.
Science Soldier is a platform game genre. This genre is based on the movement through a series of levels, by way of running, climbing, jumping, and other means of locomotion (Wolf, 2004). The reason of choosing this genre in particular is because it is very known by both male and female learners. This is seen since most of them played a platform game before (e.g. Super Mario game). Besides, this genre is characterized with its simple and easy game play. Thus, learners will play the game and learn without any additional efforts. This keeps them motivated during the learning process. In addition, platform games usually present their playable worlds in an incremental level of difficulty. This satisfies the important characteristic that should be defined within educational games, namely challenge (Malone and Lepper, 1987). In the game, the learners have to control their game character (move forward, backward and jump) and lead him to kill the devil man in order to save the city and win.
The amount of displayed information: It was taken into consideration to make it more readable and visible on the screen. This can affect positively the comprehension and the memorization of the presented information regarding computer architecture. Churchill (2011) recommended that the displayed information on the mobile device’s screen should be short.
The game graphics: It was resized with keeping into consideration the graphic clarity. High quality graphics increase the likeability of a game. This can increase the immersion experience while learning using the game.
Virtual buttons: To control the game character, virtual buttons on the touch screen were designed. However, this technology can be tricky, especially for learners who have fat fingers (Siek et al., 2005). Therefore, these buttons were designed with a large size. This facilitates controlling the game by all types of learners.
Game learning activities
Collecting information: Within the game, the learner can use his/her game character to collect different item (coins, key, etc.). Each one of these items gives the learner information regarding the computer architecture subject.
Jumping through answers: In this learning activity, the learner has to control the game character and jump from a rock to another. Each rock has an answer to a question. If the learner jumps on the wrong rock, it falls down and he/she loses.
Shooting answers: The learner has to control his/her game character in its zeppelin and fight a flying enemy. In this learning activity, this enemy will give the learner a question and he/she has to shoot the correct answer. If the answer is correct the enemy’s blood level decreases. Otherwise, the learner’s blood level decreases.
In addition to these learning activities, after finishing each level, the game presents an exercise which aims to refresh the mind of the learners about the learnt information. This exercise is a question with multiple choices. The learners can submit their answers by touching the correct one. An immediate feedback will be displayed based on the learner’s choice.
A rewarding system: For every correct answer or step the learner does, a clapping sound will be played. This makes the learners feel that they did well and increases their confidence and motivation level (McClarty et al., 2012).
A feedback system: The game provides guidance and further details during the learning process. This helps learners to enhance their level of knowledge regarding the computer architecture subject. According to Oblinger (2004), feedback supports learners in making progress within the interactive process of probing, reacting, hypothesizing and planning.
An incremental level of difficulty: The game provides ample opportunities for “challenge”, which is an important characteristic of educational games, by using goals and incremental levels of difficulty (Malone and Lepper, 1987).
This section presents the hypothesis of this research. Besides, it introduces the participants of the conducted experiment and the used research instruments to validate the game. Furthermore, this section presents the obtained experimental results.
Educational mobile games can enhance the learners’ learning experience of the computer architecture subject.
Technology Acceptance Model (TAM) questionnaire: It is a Likert scale questionnaire which aims to evaluate the learner’s satisfaction after using the game. After the learning-playing process, the learners have to answer by giving points which range from 1: Strongly agree to 7: Strongly disagree. TAM is a widely used model in information science (King and He, 2006). Besides, it has been used to validate different application such as electronic courseware (Park et al., 2007) and multimedia learning environment (Saadé et al., 2007). The questionnaire contains 13 statements and covers the four variables of TAM which are (Davis, 1989): (1) Ease of use (EOU) which defines the degree to which learners find the game easy to use and free of effort, (2) Usefulness (U) which defines the degree to which learners think that the game will enhance their level of knowledge while learning computer architecture, (3) Attitude towards using the game (ATT) which defines the degree to which learners report a favorable and positive attitude towards the game after using it and, (4) Intention to use the system (INT) which defines the degree to which learners are willing to use the game again in the future to learn computer architecture.
5 stars rating method: To evaluate the learners’ likeability of the new educational game after using it, a very popular method which is the 5 stars rating method is used. This method is frequently used by different online stores such as Amazon, Netflix, and iTunes (Teamhively, 2011). The learners have to show the level of their likeability of the game by selecting the number of stars that represent it (number of stars ranges from 1: low likeability level to 5: high likeability level).
Interviews: To investigate the opinion of the learners towards the game, live interviews were used. This method allows learners to be more forthcoming in their answers (Bryman and Burgess, 1998). After the learning-playing process, learners were asked about their opinions and how they felt while learning-playing using the game; were they motivated, satisfied, or bored? Did they find the game interesting or not? This helps evaluating Science Soldier through their given feedback.
This section lists and discusses the obtained experimental results of the three instruments (TAM questionnaire, 5 stars rating method and interviews) used to validate the game. These results are as follows:
Using this game enhances the learning process
Using this game improves the learning effectiveness
Overall, I find this game useful for learning a new course
Learning using this game is easy for me
I find it takes a lot of effort to learn using this game
Overall, I find this game easy to use
I dislike the idea of using this game
I have a generally favorable attitude toward using this game
I believe it would be a good idea to use this game for learning
Using this game is a foolish idea
I intend to use this game during my learning process
I will return to this game often
I intent to use this game frequently for learning
Cronbach’s alpha values
Number of items
If Cronbach’s alpha is equal or greater than 0.7, it shows that the instrument is reliable (Yu, 2001). As shown in Table 3, the questionnaire’s measurements are reliable since all the values of the four variables are greater than 0.7.
Medians and averages values
As shown in Table 4, all values of the average and median are completely far from 7 (between 1 and 2), thus, the learners were very satisfied with this designed educational game. Satisfaction is highly linked to motivation (Myers, 2012). Besides, this can promote a higher level of engagement and learning performance (Sahin and Shelley, 2008; Wickersham and McGee, 2008). In particular, and despite the high satisfaction rate obtained with this designed game, some learners had lower intention of using the game in the future. This could be because some learners, and depending on their personalities, prefer other game genres and not “platform” genre specifically (Peever et al., 2012). Consequently, they decided to not return to the game again.
Pearson’s r value
As shown in Fig. 3, twelve learners (out of 27) rated the game 4 stars, while, six learners rated the game 3 stars and six learners rated the game 5 stars. However, only two learner rated the game 1 star. The obtained results reflect the learners’ high level of likeability of the game. Also, this confirms their high level of satisfaction towards the designed game (presented in Table 3) which affects positively their likeability of the game. The ease of use of the game has affected positively the degree of its likeability (Virvou and Katsionis, 2008).
Examples of the grouped learners’ opinions
I really liked learning using this educational game.
I think that more additional work on the game design will even make it better.
I loved this game and I will use it more often in the future.
I recommend making the game levels longer. This will help us learn and play more.
I wish that the game can deliver other courses. This will make it more efficient.
As shown in Table 6, the learners were really interested in learning the computer architecture subject using Science Soldier. Besides, some of them are willing to use it more often in learning, while, others wished that this educational game can deliver other learning courses so they can use it with other subjects. These findings provide evidence that learners were highly motivated to learn using the game. Furthermore, a new set of suggestions and recommendations were given by learners in order to make the game more fun and playable, such as making the game levels longer. To conclude, the learners’ opinions were very motivating to further enhance the game and use it in teaching the computer architecture subject.
Conclusion, limits and potential future directions
This paper presented an educational mobile game called Science Soldier. It is developed for Android platforms and it aims to make the learning experience of the computer architecture subject fun, motivating and interactive compared to the classical method in classrooms. With the use of mobile technology, Science Soldier allowed learners to learn computer architecture anywhere and anytime through their mobile devices (formal and informal learning). To evaluate the efficiency of this game, twenty seven learners played this game. The obtained results showed that they were very satisfied with this designed educational game. This has affected positively their likeability level of the game. Also, it showed that this game made learning the computer architecture subject interesting and fun. Furthermore, learners suggested further recommendations to enhance the game in the future.
On the other hand, some limitations are found which may limit the generalizability of the results. For example, the learners with Apple mobile devices could not play the game. This affected the number of learners participating in the evaluation process of the game (only 27 learners). Besides, the proposed experiment did not cover other important dimensions, such as the impact of the game on the learners’ level of knowledge and cognitive load.
Future work will focus on creating another version of Science Solider dedicated to iOS operating systems, then, further evaluate it with more learners and with other dimensions (e.g. learner’s cognitive load). To do so, it is possible to refer to cross platform applications. These applications use a single code to design and develop software, including games for all mobile devices (Litayem et al., 2015). This will reduce the overhead time and cost dedicated to prepare educational mobile games for each platform. Furthermore, an educational game generator for this game will be created. In this generator, the teacher will have an interface where he/she can enter new information about his/her course within the game and generate a new instance of it. This allows the reusability of the game with any given course without the need for any programming skills. Consequently, the learners will have the chance to learn other provided courses using the game.
This work is an extension of the paper “[this information has been removed for the double-blind reviewing process]”. (Tlili et al., 2015).
Open AccessThis article is distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made.
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