In the ever-evolving landscape of higher education, online, distance learning has emerged as a dynamic and accessible platform for students worldwide. However, with this shift to asynchronous online classrooms we must prioritize inclusivity and engagement in our educational strategies. Recognizing this need, Ecampus embarked on a journey to understand inclusive course design and teaching practices through the eyes of the learners.

Survey Summary 

In 2021, Ecampus implemented an Inclusive Excellence Strategic Plan. One goal of this plan focused on enhancing inclusive teaching and learning in online courses. As part of this initiative, a pilot study was conducted during the academic year 2022-2023, to develop a mechanism for students to provide feedback on their learning experiences. The study employed a series of weekly surveys, designed to elicit responses regarding moments of engagement and distancing within online courses.

Administered across five Ecampus courses, the pilot study garnered responses from 163 enrolled students. The findings provide invaluable insights into the nuances of online learning design and offer actionable recommendations for educators seeking to cultivate inclusive excellence in their own asynchronous, online classrooms. The questions were as follows:

  1. At what moment (point) in class this week were you most engaged as a learner?
  2. At what moment (point) in class this week were you most distanced as a learner?
  3. What else about your experience as a learner this week would you like to share?

These questions were carefully crafted to elicit responses related to diversity, equity, and inclusion (DEI). By using the verbs “engaged” and “distanced,” students were prompted to reflect on moments of connection and disconnection within their learning environments. The open-ended nature of the questions allowed students to provide contextual feedback, offering valuable insights beyond the scope of predefined categories.

The results of the survey provide a multifaceted understanding of students’ experiences in online courses. Across all five courses, certain patterns emerged regarding elements that students found most engaging and most distancing. These insights served as a springboard for the development of actionable recommendations aimed at enhancing course design and fostering inclusive learning environments.

Alignment

One crucial area highlighted by the survey results was the importance of alignment. Students noticed when their courses had assessments that were aligned with course content, and they noticed when this alignment was missing. Ensuring that learning objectives are represented in instructional materials, practice activities, assessments, and evaluation criteria is key. For more on this, please see “Alignment” by Karen Watté from 2017.

Learning Materials

Another prominent theme in the survey responses was the overwhelming nature of long, uncurated lists of readings and learning materials, which tended to alienate learners. To address this, providing a reading guide or highlighting key points can alleviate feelings of overwhelm. Optimizing content presentation and learning activities emerged as a key factor in promoting engagement and inclusivity. 

Incorporating interactive elements such as knowledge checks and practice activities within or between short lectures keeps students actively engaged and reinforces learning objectives. By utilizing multiple modes of content delivery–videos, lectures, and readings–educators can cater to diverse learning styles and preferences. Providing study guides is also noted as an effective strategy for enhancing comprehension and engagement with learning materials. 

Community & Connection

Supporting student-to-student interaction is pivotal in fostering a sense of community and participation (Akyol & Garrison, 2008). Many learners noted that they enjoyed engaging in small group discussions, in fact 50% of students in one course noted that the week 1 introductory discussion was the point they felt most engaged. Additionally, students across the courses were excited to view and respond to the creative work of their peers. Community-building course elements like these foster a sense of community and collaboration within the virtual classroom. 

While some students had mixed feelings about peer review activities–voicing concerns about feeling unqualified to judge their peer’s work–distinct guidelines and rubrics can empower learners to develop critical thinking, increase ownership, and enhance their communication skills. Thus, thoughtfully crafted peer review processes can also help to enhance the educational experience.

Authentic Activities

Incorporating authentic or experiential learning activities was also highlighted in student responses as a means of connecting course content to real-world scenarios. By integrating professional case studies, practical exercises, real-world applications, and reflective activities, educators can deepen students’ understanding of course material. Survey respondents noted again, and again how they felt engaged when coursework was relevant and applicable outside the classroom. This type of authentic work in courses can also increase learner motivation. (Gulikers, Bastiaens, & Kirschner, 2004)

Timely Feedback & RSI

By offering timely feedback on student work, online educators demonstrate their active presence and assist students in understanding the critical aspects of assessments, ultimately enhancing their chances of success. One student is quoted as saying,

“I really appreciate the involvement of the instructor. In the past I’ve had Ecampus classes where the teacher was doing the bare minimum and didn’t grade things until the last minute so I wasn’t even sure how I was doing in the class until it was almost over. I appreciate the speed at which things have been graded and the feedback I’ve already received. I appreciate the care put into announcements too!”

Timely feedback and time-bound announcements are also notable ways to showcase Regular and Substantive Interaction (RSI). Please also see “Regular & Substantive Interaction in Your Online Course” by Christine Scott.

Scaffolding

Another noteworthy recommendation from the survey findings was the importance of providing scaffolding and support throughout the course. Respondents expressed appreciation for feedback from peers and instructors to improve their writing. One student noted, “When I used my peer review feedback to improve my draft.” Offering additional resources and tutorials for unfamiliar or complex concepts ensures that all students have the support they need to succeed.Moreover, breaking down larger, high-stakes assignments into smaller, manageable tasks, can reduce feelings of overwhelm, provide a sense of accomplishment, increase early feedback and promote overall success. 

Autonomy

Furthermore, offering choice and flexibility in assignments and assessments empowers students to take ownership of their learning journey. Whether it’s offering choice in topics, deliverable types, or exercise formats, providing students with agency fosters a sense of autonomy and engagement. One respondent noted, “I think choosing a project topic was the most engaging part of this week, because allowing students to research things that they are interested [in,] within some constraints is a good way to get them engaged and interested in the topics.” 

Note on Survey Administration

One final take away from the study underscores the importance of thoughtful survey administration. While weekly surveys offer robust results, participating faculty indicated that surveying students every week was too frequent.   Instead, it’s recommended to conduct surveys between one to three times throughout the course, striking a balance between gathering insights and respecting students’ time. Additionally, transparent communication about the purpose and use of student feedback is essential for fostering trust and eliciting honest responses. Students should understand that their feedback is valued and how it will be utilized to improve their learning experience in both the current term and future iterations of the course.

Conclusion

Engagement and inclusion in online education is multifaceted and ongoing. By listening to student feedback, implementing actionable recommendations, and fostering a culture of continuous improvement, educators can create transformative learning experiences that empower students to thrive in the digital age. Together, let us embark on this journey towards inclusive excellence, ensuring that every learner has the opportunity to succeed while feeling valued, supported, and empowered to reach their full potential.

References

Akyol, Z., & Garrison, D. R. (2008). The development of a community of inquiry over time in an online course: Understanding the progression and integration of social, cognitive and teaching presence. Journal of Asynchronous Learning Networks, 12(3-4), 3-22. 10.24059/olj.v12i3.72 

Gulikers, J.T.M., Bastiaens, T.J. & Kirschner, P.A. (2004). A five-dimensional framework for authentic assessment. ETR&D 52, 67–86. https://doi.org/10.1007/BF02504676 

Scott, C. (2022, November 7). Regular & Substantive Interaction in Your Online Course. Ecampus Course Development & Training Blog.https://blogs.oregonstate.edu/inspire/2022/11/07/regular-substantive-interaction-in-your-online-course/ 

Watté, K. (2017, January 27). Alignment. Ecampus Course Development & Training Blog.   https://blogs.oregonstate.edu/inspire/2017/01/27/alignment/  


Whether you are a new or seasoned online instructor, understanding how to establish and maintain instructor presence is a commonly shared challenge. What is known about online learners is they want to know their instructors are engaged and regularly interacting in the course. Students also express how important it is to know that their instructors care about them.

There is a natural distance inherent in online classrooms which necessitates purposeful actions and intentional structures to prevent isolation and to foster connection. There is great news… this distance can be overcome!  Moreover, research has indicated that instructor presence has a relationship with perceived student satisfaction and success. Being there for your students can make a difference!

Being present goes a step further beyond students perceiving that their instructors are there. By definition, instructor presence is “the design, facilitation, and direction of cognitive and social process for the purpose of realizing personally meaningful and educationally worthwhile learning outcomes.” This may sound like a significant undertaking, but rest assured that you can craft your presence over time and that you have ample support from the Ecampus team. We can help bring your ideas to life!

Keep in mind that curating instructor presence will be an evolution. Learning environments and experiences are dynamic. In addition, the composition of students will change each term, so learner needs and wants will continually shift. Strategies used within a specific context may not work for another, and that is okay.

Let’s get started!

Try starting out small by exploring different ideas. Don’t be afraid to change directions if one approach doesn’t work. With all that said, what are some strategies for establishing and maintaining presence which can be leveraged today?

Establishing presence

  • Welcome announcements
  • Instructor introduction video
  • About your instructor page
  • Course overview video
  • Virtual office hours or individualized virtual sessions to connect with students
  • Personalized language to humanize the learning experience

Maintaining presence

  • Non-graded community building spaces to connect around complex learning activities
  • Announcements to send regular updates, reminders, and check-ins
    • Tip! Announcements can also be leveraged to share and highlight valuable connections, expand upon those insights, and provide relevant resources for learners to explore.
  • Monitor learner progress
    • Regular and timely feedback which is clear and actionable
    • Outreach to learners who are struggling or engagement is lacking
  • Present content in diverse ways
    • Module overview videos
    • Audio recordings (e.g. podcast)
    • Screencast demonstrations
  • Engage in course discussions
  • Solicit student feedback
    • Tip! Consider adding a short anonymous survey in the middle of the course.

As ideas begin to percolate, please do share those with your Instructional Designer so that together you can explore different strategies and tools that will work best for you.

References

  • Budhai, S., & Williams, M. (2016). Teaching Presence in Online Courses: Practical Applications, Co-Facilitation, and Technology Integration. The Journal of Effective Teaching,16(3), 76-84.
  • Ekmekci, O. (2013). Being There: Establishing Instructor Presence in an Online Learning Environment. Higher Education Studies, 3(1), 29-38.
  • Jaggers, S., Edgecombe, N., & West-Stacey, G. (2013, April). Creating an Effective Online Instructor Presence. Retrieved from https://ccrc.tc.columbia.edu/media/k2/attachments/effective-online-instructor-presence.pdf
  • Ladyshewsky, R. K. (2013). Instructor Presence in Online Courses and Student Satisfaction. International Journal for the Scholarship of Teaching and Learning, 7(1). doi:10.20429/ijsotl.2013.070113
  • Sandercock, I. (2014, October 14). The Importance of Instructor Presence in Online Courses. Retrieved from https://teachonline.asu.edu/2014/10/important-instructor-presence-online-course/
  • Smith, T. (2014, September 30). Managing Instructor Presence Online. Retrieved from http://teachonline.asu.edu/2012/08/managing-instructor-presence-online/#more-1069

If you’ve ever needed an excessive amount of photographs or diagrams to accurately describe a physical object for your class, you may benefit from a 3D model.

Standard media types, including text, photographs, illustrations, audio, video, and animation, are crucial to the online learning experience. A 3D model is essentially another media type with a lot of unique qualities.

What is a 3D model?

3D Skull with annotation

3D models, in this case, are digital representations of physical objects. 3D models generally consist of a polygon mesh and a surface texture. The polygon mesh is a “shell” comprised of the different surfaces of a 3-dimensional object. There are three main components that make up this shell: vertices (points), edges (lines), and faces (planes). For what should be clear from the previous sentence, polygon meshes are often referred to as simply “geometry.” There are a lot of other technical terms associated with polygon meshes, but in practical application, you may never need to learn them.

The surface texture, at its most basic, is an image, mapped onto the surface of the polygon mesh.

A texture can be as simple as a solid color, or as complex as a high-resolution photograph. The texture will be wrapped onto the surface of the geometry with the help of a set of instructions called UVs. UVs are a complex topic in and of themselves, so it’s good enough that you just know they exist conceptually.

These textures can have physics-based properties that interact with light to produce effects such as transparency, reflection, shadows, etc.

You’re probably thinking to yourself now, that 3D models are too complicated to be of use in your courses, but that’s not necessarily true. The composition and inner workings of 3D models are complicated, for sure, but you don’t need to be an expert to benefit from them.

Where did they come from, and how are they used?

There probably isn’t a day that goes by where you don’t experience a 3D model in some way. They are everywhere.

3D models, in digital form, have been around for decades. They have been used in industrial applications extensively. 3D models are used to generate toolpaths for small and large machines to manufacture parts more consistently than a human could ever hope to. 3D models are also used to generate toolpaths for 3D printers.

3D models are used in movies, animations, and video games. Sometimes entire worlds are created with 3D models for use in virtual and augmented reality.

Modern interfaces for computers and smartphones are awash in 3D graphics. Those graphics are rendered on the screen from 3D models!

How can they help me as an educator?

If you’re still not convinced that 3D models hold any benefit to you, I’ll explain a few ways in which they can enrich your course materials.

  1. 3D models are easily examined and manipulated without damage to physical specimen.
    • If you are involved in teaching a course with physical specimens, you are no doubt familiar with the concept of a “teaching collection.” A teaching collection is a high-turnover collection that gets handled and examined during class. Normally these collections break down quickly, so instructors are hesitant to include rare and fragile specimens. Having digital proxies for these rare and fragile specimens will allow students access to otherwise unknown information. This has even bigger benefits to distance students, as they don’t have to be anywhere near the collection to examine its contents.
  2. 3D models give students unlimited time with a specimen
    • If you have a biology lab, and the students are looking at skull morphology, there’s a distinct possibility that you would have a skull on hand to examine. If there are 30 students in the course, each student will have only a short amount of time to examine the specimen. If that same skull was scanned and made into a 3D model, each student could examine it simultaneously, for as long as they need.
  3. 3D models are easily shared
    • Many schools and universities around the world are digitizing their collections and sharing them. There is a fair amount of overlap in the models being created, but the ability to add regionally exclusive content to a global repository would be an amazing benefit to science at large. Smaller schools can have access to a greater pool of materials, and that is good for everyone.
  4. 3D models have presence
    • A 3D model is a media object. That means it can be examined, but it’s special in the way that it can be interacted with. Functionality can be built on and around a 3D model. Models can be manipulated, animated, and scaled. A photograph captures the light bouncing off of an object, that is closer to a description of the object.  A 3D model is a representation of the actual physical properties of the object, and that strikes at the nature of the object itself. This means that a 3D model can “stand in” for a real object in simulations, and the laws of physics can be applied accurately. This realistic depth and spatial presence can be very impactful to students. Much more so than a simple photograph.
  5. 3D models can be analyzed
    • Because 3D models are accurate, and because they occupy no physical space, they lend themselves to analysis techniques unavailable to the physical world. Two models can be literally laid on top of one another to highlight any differences. Measurements of structures can be taken with a few clicks. In the case of a machined part, material stress tests can be run over and over without the need to replace the part.

These are only a few of the ways that an educator could leverage 3D models. There are many more. So, if you still find 3D models interesting, you’re probably wondering how to get them, or where to look. There are a lot of places to find them, and a lot of techniques to build them yourself. I’ll outline a few.

Where do I get them?

3D models are available all over the internet, but there are a few reputable sources that you should definitely try first. Some will allow you to download models, and some will allow you to link to models on their site. Some will allow you to use the models for free, while others will require a fee. Some will have options for all of the aforementioned things.

How do I create them?

The two main ways to create 3D models are scanning and modeling.

Scanning can be prohibitively expensive, as the hardware can run from a few hundred dollars, to many thousands of dollars. But, like anything else technological, you get what you pay for. The quality is substantially better with higher-end scanners.

For something a little more consumer-grade, a technique called photogrammetry can be employed. This is a software solution that only requires you to take a large series of photographs. There is some nuance to the technique, but it can work well for those unable to spend thousands of dollars on a 3D scanner. Some examples of photogrammetry software include PhotoScan and COLMAP.

Modeling has a steep learning curve. There are many different software packages that allow you to create 3D models, and depending on your application, some will be better suited than others. If you are looking to create industrial schematics or architectural models, something likeFusion 360, AutoCad, or Solidworks might be a good choice. If you’re trying to sculpt an artistic vision, where the precise dimensions are less important, Maya, Blender, Mudbox or Zbrush may be your choice.

How to use them in your class:

There are a number of ways to use 3D models in your class. The simplest way is to link to the object on the website in which it resides. At OSU Ecampus, we use the site, SketchFab, to house our 3D scans. The source files stay with us as we create them, but we can easily upload them to SketchFab, brand them, and direct students to view them. SketchFab also allows us to add data to the model by way of written descriptions andannotations anchored to specific structures in the model.

The models hosted on SketchFab behave similarly to YouTube videos. You can embed them in your own site, and they are cross-platform compatible. They are even mobile-friendly.

As you can see, there is a lot to learn about 3D models and their application. Hopefully, I’ve broken it down into some smaller pieces that you can reasonably pursue on your own. At the very least, I hope that you have a better understanding of how powerful 3D models can be.

A big THANK YOU to Nick Harper, Multimedia Developer, Oregon State University Ecampus