All Stories

  1. The VISIR Remote Laboratory: Analysis of Limitations and Proposals for Improvement
  2. Education and Sustainability Habits – Portuguese Students’ Perspectives
  3. Dropout Rate Model Analysis at an Engineering School
  4. Active Learning Promotion: Students’ Resistance Versus Students Embracement
  5. VISIR Remote Lab
  6. Pedagogical and Research Impacts of VISIR
  7. Evolution of non-traditional laboratories - from 2000 till 2020
  8. University 4.0: The Future of Higher Education in the Age of Technology
  9. Online Laboratories in Engineering Education Research and Practice
  10. VISIR Handbook
  11. Trends on Computational Thinking, Engineering Education, Technology in Medicine, Qualitative and Mixed Methods, Diversity in STEM, Lab-Based Education, Technology and Education, Gamification and Games for Learning and Smart Learning at TEEM 2022
  12. A 360º Overview of the VISIR Remote Laboratory in a Handbook
  13. Automatic Assessment Using VISIR-DB
  14. Developing Future Skills in Engineering Education for Industry 5.0: Enabling Technologies in the Age of Digital Transformation and Green Transition
  15. Frequency detection of experimental errors through Learning Analytics techniques
  16. Electric vehicles growth until 2030: Impact on the distribution network power
  17. Impact of COVID-19 pandemic to EDUCON: a bibliometric analysis
  18. A roadmap for the VISIR remote lab
  19. The Impacts of Battery Electric Vehicles on the Power Grid: A Monte Carlo Method Approach
  20. Modify Flipped Model of Co-regulation and Shared-regulation Impact in Higher Education, and Role of Facilitator on Student’s Achievement
  21. A comprehensive VISIR bibliographical reference
  22. Students' perception about using VISIR
  23. Lab-based Education
  24. How may teaching contribute to sustainability in a small scale but with wide use?
  25. An Evolution Model for Remote and Virtual Labs
  26. Remote laboratory VISIR: recent advances, initiatives, federation, limitations and future
  27. An alternative way of teaching Operational Amplifiers using a reconfigurable and expandable kit
  28. Engineering Education: Professional Demands
  29. Brainstorming Students’ Needs versus Engineering Demands
  30. Higher Education for Sustainable Development
  31. Using VISIR Remote Lab in the Classroom: Case of Study of the University of Deusto 2009–2019
  32. An educational remote laboratory for controlling a signal conditioning circuit with an LDR sensor
  33. Front Matter
  34. A Framework for Enhancing Higher Education in The Kurdistan Region of Iraq through A Dedicated Digital Education Mooc
  35. A bibliometric analysis of 10 years of EDUCON (2010-2019)
  36. Classification of Experimental Errors Done in VISIR with Simple Alternated Current Circuits
  37. EDUCON 2020 Preface
  38. Engineering Education and Technological/Professional Learning
  39. Engineering Education addressing Professional Challenges
  40. A sustainable approach to laboratory experimentation
  41. Editorial
  42. A framework for interpreting experimental errors in VISIR
  43. Dashboard for the VISIR remote lab
  44. Improving the use of remote laboratories. The case of VISIR at Universidad Nacional de Rosario
  45. PILAR: Sharing VISIR Remote Labs Through a Federation
  46. PILAR: a Federation of VISIR Remote Laboratory Systems for Educational Open Activities
  47. Special Session—Online Laboratories in Engineering Education: Innovation, Disruption, and Future Potential
  48. Impact of a remote lab on teaching practices and student learning
  49. A reconfigurable and expandable kit to teach electronic circuits based on Operational Amplifiers
  50. Personalized Student Assessment based on Learning Analytics and Recommender Systems
  51. The VISIR Implementation Process at IFSC - problems, obstacles and solutions
  52. VISIR lab integration in Electronic Engineering: An institutional experience in Argentina
  53. Transistor teaching back to Transfer-Resistor : A summary table of definitions and students’ perceptions
  54. Experimenting in PILAR federation: A common path for the future
  55. Active Learning of DC Circuits: Spreading the Use of The VISIR Remote Lab In Argentina
  56. First Practical Steps on the Educational Activities Using VISIR and Remote Laboratories at UNSE in Partnership with UNED inside the VISIR+ Project
  57. Different Uses for Remote Labs in Electrical Engineering Education: Initial Conclusions of an Ongoing Experience
  58. International Cooperation for Remote Laboratory Use
  59. Contributions to Higher Engineering Education
  60. A sustainable approach to let students do more real experiments with electrical and electronic circuits
  61. Engineering Education and Technological / Professional Learning
  62. Macro Analysis on how to Potentiate Experimental Competences Using VISIR
  63. Remote Experimentation supported by Learning Analytics and Recommender Systems
  64. Spreading the VISIR Remote Lab Along Argentina. The Experience in Patagonia
  65. The VISIR+ Project – Preliminary Results of the Training Actions
  66. Educational Scenarios Using Remote Laboratory VISIR for Electrical/Electronic Experimentation
  67. A Community of Practice Around Online Labs in Iraq: Towards Effective Support for Academics and Higher Educational Systems in the MENA Region
  68. A federation of VISIR remote laboratories through the PILAR Project
  69. A demonstration circuit to support (e-)learning on control systems engineering
  70. A teacher training workshop to promote the use of the VISIR remote laboratory for electrical circuits teaching
  71. Science education at high school: A VISIR remote lab implementation
  72. The VISIR+ project-helping contextualize math in an engineering course
  73. Is students' satisfaction in electrical engineering courses influenced by gender?
  74. An educational kit to teach and learn Operational Amplifiers
  75. Starting the study of electronic circuits with VISIR: Viewpoints of college students in a pilot test in Argentina
  76. VISIR federation: Initial building steps: PILAR experience — Work in progress
  77. Sharing educational experiences from in-person classroom to collaborative lab environments
  78. Adjusting Higher Education Competences to Companies Professional Needs:
  79. Do Students Really Understand the Difference Between Simulation and Remote Labs?
  80. 21st Century Challenges in Engineering and Technological learning
  81. Differentiating simulations and real (remote) experiments
  82. Discuss how to ease the transition of young engineers from academia to professional life.
  83. VISIR's usage as an educational resource
  84. Technology behaviors in education innovation
  85. Portuguese and Brazilian students perceptions regarding the flow of knowledge in their courses: Two different realities?
  86. Spreading remote lab usage a system — A community — A Federation
  87. Using UML Models to Describe the VISIR System
  88. Learning objects for demanding themes in eletronics teaching
  89. A practical approach to teaching the propagation of electromagnetic interference in printed circuit boards
  90. Remote laboratory: Application and usability
  91. How to Use Remote Labs for Enhancing E-Learning on PSoCs
  92. Using Remote Lab for Enhancing E-Learning on FPAAs
  93. Reshaping digital methodologies to the analog world
  94. A customizable platform for remotely teaching & learning LVDTs: The relevance of using the IEEE1451.0 Std. to facilitate its design and access
  95. Lab sessions in VISIR laboratories
  96. New experiences and strategies in remote laboratories and apps for electronics: Proposal for a special session
  97. Simultaneous Usage of Methods for the Development of Experimental Competences
  98. Editorial: A Message from the Editorial Team and an Introduction to the January-March 2016 Issue
  99. IT-Based Education with Online Labs in the MENA Region:
  100. Formative assessment diversity to foster students engagement
  101. 1st International Conference of the Portuguese Society for Engineering Education
  102. A Two-Stage Assessment of the Remote Engineering Lab VISIR at Al-Quds University in Palestine
  103. Combined efforts to develop students experimental competences
  104. Low cost boundary scan controller for didactic applications (IEEE 1149.1)
  105. A remote lab to support e-leaning on Programmable System-on-Chip (PSoC)
  106. A remote lab to support e-learning on FPAA
  107. Using embedded instruments to design weblabs: An FPGA-embedded oscilloscope based on the IEEE1451.0 Std.
  108. Assessing the Remote Engineering Lab VISIR at Al-Quds University in Palestine
  109. Freshman's perceptions in electrical/electronic engineering courses
  110. Higher education competences versus companies professional needs in engineering
  111. A federation of online labs for assisting engineering and science education in the MENA region
  112. Engineering and technological learning in educational and professional contexts
  113. Evolutionary analysis of online labs
  114. Proceedings of the 3rd International Conference on Technological Ecosystems for Enhancing Multiculturality - TEEM '15
  115. How Remote Labs Impact on Course Outcomes: Various Practices Using VISIR
  116. Streamlining power electronics teaching
  117. High order experimental skills' gap identification — The need to reshape electronics teaching
  118. Enriched scenarios for teaching and learning electronics
  119. Experiences with deploying VISIR at Al-Quds University in Jerusalem
  120. Reverse Problem-Based Learning - A Case Study with a Braille Machine
  121. Informal learning recognition through a cloud ecosystem
  122. Reshaping higher education systems in the MENA region: The contribution of remote and virtual labs
  123. IX International Conference on Remote Engineering and Virtual Instrumentation REV 2012
  124. Adapting Remote Labs to Learning Scenarios: Case Studies Using VISIR and RemotElectLab
  125. A demo prototype of a reconfigurable IEEE1451.0-compliant and FPGA-based weblab
  126. Experiências da Aplicação de VISIR na Universidade de Al-Quds
  127. Engineering Education: Challenges for Innovation
  128. TRAILER
  129. Improving students experimental competences using simultaneous methods in class and in assessments
  130. Managing informal learning in engineering contexts: The learners' perspective
  131. A mobile robot platform for open learning based on serious games and remote laboratories
  132. Peers' evaluation of a reconfigurable IEEE1451.0-compliant and FPGA-based weblab
  133. Design State Exploration applied to the development of a Remote Lab for Projectile Launch Experiments
  134. Extending access to remote labs from mobile devices in educational contexts
  135. Impact of different Moodle Course Designs on Students’ Performance
  136. Educational application of remote experimentation for mobile devices
  137. A remote lab for projectile launch experiments: Professional and academic perspectives
  138. A Flexible Online Apparatus for Projectile Launch Experiments
  139. Using the TRAILER tool for managing informal learning in academic and professional contexts
  140. A Tool to Aid Institutions Recognize Their Employees Competences Acquired by Informal Learning
  141. Using Remote Labs to Serve Different Teacher’s Needs - A Case Study with VISIR and RemotElectLab
  142. Student performance analysis under different moodle course designs
  143. Embedding Instruments & Modules into an IEEE1451-FPGA-based Weblab Infrastructure
  144. Development of the Virtual Lab Module for Understanding the Concepts of Electric and Magnetic Field Patterns in Rectangular Waveguides and Cavities
  145. Engaging students by Moodleing a Course? Case studies at the Polytechnic of Porto – School of Engineering
  146. Using remote labs to serve different teacher's needs A case study with VISIR and RemotElectLab
  147. Reconfigurable IEEE1451-FPGA based weblab infrastructure
  148. A flexible online apparatus for projectile launch experiments
  149. Utilization of remote experimentation in mobile devices for education
  150. Structuring and moodleing a course: Case studies at the polytechnic of Porto - School of engineering
  151. VISIR: Experiences and Challenges
  152. Work-in-Progress on a Thin IEEE1451.0-Architecture to Implement Reconfigurable Weblab Infrastructures
  153. VISIR deployment in undergraduate engineering practices
  154. VISIR deployment in undergraduate engineering practices
  155. Using remote experimentation in a large undergraduate course: Initial findings
  156. Real-time fault injection using enhanced on-chip debug infrastructures
  157. Using VISIR in a Large Undergraduate Course: Preliminary Assessment Results
  158. Using VISIR in a large undergraduate course: Preliminary assessment results
  159. An embedded 1149.4 extension to support mixed-signal debugging
  160. Extended Immersive Learning Environment: A Hybrid Remote/Virtual Laboratory
  161. Reconfigurable Weblabs Based on the IEEE1451 Std.
  162. An Integrated Reusable Remote Laboratory to Complement Electronics Teaching
  163. Reconfigurable weblabs based on the IEEE1451 Std
  164. Addressing Software Impact in the Design of Remote Laboratories
  165. FPGA-based weblab infrastructures guidelines and a prototype implementation example
  166. Using test infrastructures for (remote) online evaluation of the sensitivity to SEUs of FPGAs
  167. Using SysML in Systems Design
  168. Reliability and Availability in Reconfigurable Computing: A Basis for a Common Solution
  169. Using Remote Lab Networks to Provide Support to Public Secondary School Education Level
  170. A comparative analysis of fault injection methods via enhanced on-chip debug infrastructures
  171. On-Line Self-Healing of Circuits Implemented on Reconfigurable FPGAs
  172. A Framework for Self-Healing Radiation-Tolerant Implementations on Reconfigurable FPGAs
  173. REMOTE EXPERIMENTATION: INTEGRATING RESEARCH, EDUCATION, AND INDUSTRIAL APPLICATION
  174. Real Time Fault Injection Using Enhanced OCD -- A Performance Analysis
  175. A Framework for Fault Tolerant Real Time Systems Based on Reconfigurable FPGAs
  176. Using NEXUS compliant debuggers for real time fault injection on microprocessors
  177. A New Approach to Assess Defragmentation Strategies in Dynamically Reconfigurable FPGAs
  178. REMOTE AND MOBILE EXPERIMENTATION: PUSHING THE BOUNDARIES OF AN UBIQUITOUS LEARNING PLACE
  179. Collaborative Learning in a Web-Accessible Workbench
  180. On-line Defragmentation for Run-Time Partially Reconfigurable FPGAs
  181. Remote Lab Experiments: Opening Possibilities for Distance Learning in Engineering Fields
  182. Run-time Defragmentation for Dynamically Reconfigurable Hardware
  183. A Modified Debugging Infrastructure to Assist Real Time Fault Injection Campaigns
  184. Real Time Fault Injection Using a Modified Debugging Infrastructure
  185. A Self-Healing Real-Time System Based on Run-Time Self-Reconfiguration
  186. Petri Net's execution algorithm for applications in manufacturing systems control
  187. Run-time management of logic resources on reconfigurable systems
  188. A novel methodology for the concurrent test of partial and dynamically reconfigurable SRAM-based FPGAs
  189. Active replication: towards a truly SRAM-based FPGA on-line concurrent testing
  190. DRAFT: an on-line fault detection method for dynamic and partially reconfigurable FPGAs
  191. A system verification strategy based on the BST infrastructure
  192. Board-level prototype validation: a built-in controller and extended BST architecture
  193. From design-for-test to design-for-debug-and-test: analysis of requirements and limitations for 1149.1
  194. An HDL approach to board-level BIST
  195. BIST for 1149.1-compatible boards: A low-cost and maximum-flexibility solution
  196. Using the BS register for capturing and storing n-bit sequences in real-time
  197. International Journal of Human Capital and Information Technology Professionals