A Sustainable Method to Study Digital Logic Circuits Hands-on Activity Method Using Arduino

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참고문헌 (42)

1. Alsadoon, A., "Using software simulators to enhance the learning of digital logic design for the information technology students", European Journal of Engineering Education, 42(5), pp.533~546 (2017)[DOI]
2. Antao, B. A. A., "Building intelligent tutorial systems for teaching simulation in engineering-education", IEEE Transactions on Education, 35(1), pp.50~56 (1992)[DOI]
3. Arrizabalaga, J. H., "Fabrication of an economical Arduino-based uniaxial tensile tester", Journal of Chemical Education, 94(4), pp.530~533 (2017)[DOI]
4. Aviles-Cruz, C., "A smartphone-based augmented reality system for university students for learning digital electronics", Computer Applications in Engineering Education, 27(3), pp.615~630 (2019)[DOI]
5. Baneres, D., "Evaluation of a new self-study platform for introductory digital systems", International Journal of Engineering Education, 35(1), pp.286~303 (2019)
6. Beg, A., "A web-based method for building and simulating standard cell circuits-A classroom application", Computer Applications in Engineering Education, 23(2), pp.304~313 (2015)[DOI]
7. Bouquet, F., "Project-based physics labs using low-cost open-source hardware", American Journal of Physics, 85(3), pp.216~222 (2017)[DOI]
8. Burch, C., "Logisim : A graphical system for logic circuit design and simulation", Journal on Educational Resources in Computing, 2(1), pp.1~12 (2002)
9. Cappuccino, G., "Educational design of highperformance arithmetic circuits on FPGA", IEEE Transactions on Education, 42(4), pp.366~366 (1999)
10. Chen, S. L., "Case-based instruction in digital integrated circuit design courses for non-major students", International Journal of Electrical Engineering Education, 51(3), pp.232~244 (2014)[DOI]
11. D'Ausilio, A., "Arduino : A low-cost multipurpose lab equipment", Behavior Research Methods, 44(2), pp.305~313 (2012)[DOI]
12. Galeriu, C., "An Arduino investigation of Newton's law of cooling", Physics Teacher, 56(9), pp.618~620 (2018)[DOI]
13. Goncalves, A. M. B, "Surface tension measured with Arduino", Physics Teacher, 57(9), pp.640~641 (2019)[DOI]
14. Gopalakrishnan, M., "A low-cost mirror mount control system for optics setups", American Journal of Physics, 83(2), pp.186~190 (2015)[DOI]
15. Hahn, M. D., "Determining the Speed of Sound as a Function of Temperature Using Arduino", Physics Teacher, 57(2), pp.114~115 (2019)[DOI]
16. Hall, D. V., "Teaching design methodology and"industrial strength"EDA tools in a first-term freshman digital logic course", IEEE Transactions on Education, 41(1), pp.45~49 (1998)[DOI]
17. Kubinova, S., "ChemDuino : Adapting Arduino for low-cost chemical measurements in lecture and laboratory", Journal of Chemical Education, 92(10), pp.1751~1753 (2015)[DOI]
18. Kuc, R., "Teaching introductory autonomous robotics with JavaScript simulations and actual robots", IEEE Transactions on Education, 47(1), pp.74~82 (2004)[DOI]
19. Lee, E., "Developing a low-cost microcontroller–based model for teaching and learning", European Journal of Educational Research, 9(3), pp.921~934 (2020)[DOI]
20. Lee, M. F., "Needham Model Based Instructional Multimedia Material for Teaching Digital Logic Gates", Journal of Technical Education and Training, 11(1), pp.54~62 (2019)[DOI]
21. Mercer, C., "Inexpensive miniature programmable magnetic stirrer from reconfigured computer parts", Journal of Chemical Education, 94(6), pp.816~818 (2017)[DOI]
22. Morrison, G. R., "Designing Effective Instruction" (2010), John Wiley & Son
23. Mostefaoui, H., "Design of a Low Cost Remote Electronic Laboratory Suitable for Low Bandwidth Connection", Computer Applications in Engineering Education, 25(3), pp.480~488 (2017)[DOI]
24. Nayer, F. K., "Virtual laboratories & simulations; Useful tools in introductory digital logic course : A Prince Sultan University case", International Journal of Instructional Media, 39(4), pp.275~283 (2012)
25. Nichols, D., "Arduino-based data acquisition into Excel, LabVIEW, and MATLAB", Physics Teacher, 55(4), pp.226~227 (2017)[DOI]
26. Omar, H. M., "Enhancing automatic control learning through Arduino-based projects", European Journal of Engineering Education, 43(5), pp.652~663 (2018)[DOI]
27. Perez, E. S., "An ultra-low cost line follower robot as educational tool for teaching programming and circuit's foundations", Computer Applications in Engineering Education, 27(2), pp.288~302 (2019)[DOI]
28. Pino, H., "Measuring CO2 with an Arduino : Creating a low-cost, pocket-sized device with flexible applications that yields benefits for students and schools", Journal of Chemical Education, 96(2), pp.377~381 (2019)[DOI]
29. Porter, J. R., "Using simulation tools to verify laboratory measurements", International Journal of Engineering Education, 21(1), pp.11~18 (2005)
30. Ragazzini, G., "Fabrication of a low-cost on-stage cell incubator with full automation", Journal of Biological Education, 53(2), pp.165~173 (2019)[DOI]
31. Rivera-Ortega, U., "Low-cost educational resource using optical fibers to send 4-bit images in grayscale", Computer Applications in Engineering Education, 26(3), pp.711~717 (2018)[DOI]
32. Roy, G., "COLDVL : A virtual laboratory tool with novel features to support learning in logic design and computer organisation", Journal of Computers in Education, 4(4), pp.461~490 (2017)[DOI]
33. Sarao, A., "Using an Arduino seismograph to raise awareness of earthquake hazard through a multidisciplinary approach", Seismological Research Letters, 87(1), pp.186~192 (2016)[DOI]
34. Schultz, K. D., "Phase-sensitive detection in the undergraduate lab using a low-cost microcontroller", American Journal of Physics, 84(7), pp.557~561 (2016)[DOI]
35. Sklyarov, V., "Teaching reconfigurable systems : Methods, tools, tutorials, and projects", IEEE Transactions on Education, 48(2), pp.290~300 (2005)[DOI]
36. Soong, R., "Combining the maker movement with accessibility needs in an undergraduate laboratory: A cost-effective text-to-speech multipurpose, universal chemistry sensor hub (MUCSH) for students with disabilities", Journal of Chemical Education, 95(12), pp.2268~2272 (2018)[DOI]
37. Srivastava, S., "A laboratory testbed for embedded fuzzy control", IEEE Transactions on Education, 54(1), pp.14~23 (2011)[DOI]
38. Stanisavljevic, Z., "SDLDS-System for digital logic design and simulation", IEEE Transactions on Education, 56(2), pp.235~245 (2013)[DOI]
39. Todorovich, E., "Introducing programmable logic to undergraduate engineering students in a digital electronics course", IEEE Transactions on Education, 55(2), pp.255~262 (2012)[DOI]
40. Uyanik, I., "A low-cost feedback control systems laboratory setup via Arduino-Simulink interface", Computer Applications in Engineering Education, 26(3), pp.718~726 (2018)[DOI]
41. Wong, W. K., "Pendulum experiments with three modern electronic devices and a modeling tool", Journal of Computers in Education, 2(1), pp.77~92 (2015)[DOI]
42. Yuan, J. S., "Teaching asynchronous design in digital integrated circuits", IEEE Transactions on Education, 47(3), pp.397~404 (2004)[DOI]

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