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January 2012 Volume 15 Number 1 - Educational Technology ...

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questions designed for the system helped them identify the key points of the math questions. Over 94.1% of the<br />

participants indicated that the expression- and calculation-guiding motion pictures furnished by the system helped<br />

them make out the right problem-solving direction and complete the calculation. Over 82.4% of the participants<br />

said the double-check stage of the system helped them verify the expressions and calculations. A great number of<br />

the participants (94.1%) agreed that the method provided by the computer inspired them to think that there may<br />

have been better problem-solving approaches.<br />

Preference of each stage of the problem-solving process (questions 16~19)<br />

Table 7 shows about half of the users (47.1%) felt all the stages were very simple; 17.6% of the users considered<br />

all word-based questions to have been very difficult. About a quarter of the users (23.5%) regard expression<br />

listing and calculation as the easiest, whereas 5.9% each consider the question understanding step and the double<br />

check step the easiest, respectively. When asked again which step was most difficult, 5.9% of the users still said<br />

all the steps were very difficult, whereas 17.6% each consider the expression listing and calculation step and the<br />

double check step the hardest, respectively. Meanwhile, 11.8% see the question understanding step most<br />

challenging. Comparison of the favorite steps reveals that 41.2% of the users prefer the double check step, and<br />

29.4% enjoy the expression listing and calculation step the most. Therefore, we can see users acquire the greatest<br />

sense of achievement from successful completion of a question. The result revealed that 5.9% of the users enjoy<br />

all 3 steps very much and 23.5% indicated their favorite part is the question understanding stage.<br />

Conclusion<br />

The ability to solve basic word-based addition and subtraction questions is the foundation for developing the<br />

ability to tackle complicated questions. Taiwanese students who experienced mathematical learning difficulties<br />

became more and more frustrated when they reached the middle grades because the difficulty and range of<br />

mathematical courses intensified and expanded. Hwang, Chen, Dung and Yang (2007) also recommended that<br />

teachers design problem solving activities to improve students’ mathematical representation skills. The main<br />

purpose of this study, therefore, was to develop an Internet-based computer-assisted mathematics learning system<br />

to help low-achieving elementary students improve their ability to solve basic word-based addition and<br />

subtraction questions and enhances their willingness to continue the learning. Outcomes indicated that the<br />

computer-assisted mathematical learning system developed for this study can serve as a supplementary tool that<br />

helps teachers with remedial instruction and enhances the problem-solving ability of low achievers.<br />

References<br />

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Chang, H. E. (2004). Computer-Aided Learning System for Mathematic Problem Solving. Education Study, <strong>15</strong>2, 51-64.<br />

Chang, K. E., Sung, Y. T., & Lin, S. F. (2006). Computer-assisted learning for mathematical problem solving. Computers &<br />

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