EXCLUSIVE: Chinese scientists are creating CRISPR babies — from technologyreview.com by Antonio Regalado
A daring effort is under way to create the first children whose DNA has been tailored using gene editing.

Excerpt:

When Chinese researchers first edited the genes of a human embryo in a lab dish in 2015, it sparked global outcry and pleas from scientists not to make a baby using the technology, at least for the present.

It was the invention of a powerful gene-editing tool, CRISPR, which is cheap and easy to deploy, that made the birth of humans genetically modified in an in vitro fertilization (IVF) center a theoretical possibility.

Now, it appears it may already be happening.

 

Where some see a new form of medicine that eliminates genetic disease, others see a slippery slope to enhancements, designer babies, and a new form of eugenics. 

 

 

Combining retrieval, spacing, and feedback boosts STEM learning — from retrievalpractice.org

Punchline:
Scientists demonstrated that when college students used a quizzing program that combined retrieval practice, spacing, and feedback, exam performance increased by nearly a letter grade.

—-

Abstract
The most effective educational interventions often face significant barriers to widespread implementation because they are highly specific, resource intense, and/or comprehensive. We argue for an alternative approach to improving education: leveraging technology and cognitive science to develop interventions that generalize, scale, and can be easily implemented within any curriculum. In a classroom experiment, we investigated whether three simple, but powerful principles from cognitive science could be combined to improve learning. Although implementation of these principles only required a few small changes to standard practice in a college engineering course, it significantly increased student performance on exams. Our findings highlight the potential for developing inexpensive, yet effective educational interventions that can be implemented worldwide.

In summary, the combination of spaced retrieval practice and required feedback viewing had a powerful effect on student learning of complex engineering material. Of course, the principles from cognitive science could have been applied without the use of technology. However, our belief is that advances in technology and ideas from machine learning have the potential to exponentially increase the effectiveness and impact of these principles. Automation is an important benefit, but technology also can provide a personalized learning experience for a rapidly growing, diverse body of students who have different knowledge and academic backgrounds. Through the use of data mining, algorithms, and experimentation, technology can help us understand how best to implement these principles for individual learners while also producing new discoveries about how people learn. Finally, technology facilitates access. Even if an intervention has a small effect size, it can still have a substantial impact if broadly implemented. For example, aspirin has a small effect on preventing heart attacks and strokes when taken regularly, but its impact is large because it is cheap and widely available. The synergy of cognitive science, machine learning, and technology has the potential to produce inexpensive, but powerful learning tools that generalize, scale, and can be easily implemented worldwide.

Keywords: Education. Technology. Retrieval practice. Spacing. Feedback. Transfer of learning.

 

 

A Space for Learning: A review of research on active learning spaces — from by Robert Talbert and Anat Mor-Avi

Abstract:
Active Learning Classrooms (ALCs) are learning spaces specially designed to optimize the practice of active learning and amplify its positive effects in learners from young children through university-level learners. As interest in and adoption of ALCs has increased rapidly over the last decade, the need for grounded research in their effects on learners and schools has grown proportionately. In this paper, we review the peer-reviewed published research on ALCs, dating back to the introduction of “studio” classrooms and the SCALE-UP program up to the present day. We investigate the literature and summarize findings on the effects of ALCs on learning outcomes, student engagement, and the behaviors and practices of instructors as well as the specific elements of ALC design that seem to contribute the most to these effects. We also look at the emerging cultural impact of ALCs on institutions of learning, and we examine the drawbacks of the published research as well as avenues for potential future research in this area.

 

1: Introduction
1.1: What is active learning, and what is an active learning classroom?
Active learning is defined broadly to include any pedagogical method that involves students actively working on learning tasks and reflecting on their work, apart from watching, listening, and taking notes (Bonwell & Eison, 1991). Active learning has taken hold as a normative instructional practice in K12 and higher education institutions worldwide. Recent studies, such as the 2014 meta-analysis linking active learning pedagogies with dramatically reduced failure rates in university-level STEM courses (Freeman et al., 2014) have established that active learning drives increased student learning and engagement across disciplines, grade levels, and demographics.

As schools, colleges, and universities increasingly seek to implement active learning, concerns about the learning spaces used for active learning have naturally arisen. Attempts to implement active learning pedagogies in spaces that are not attuned to the particular needs of active learning — for example, large lecture halls with fixed seating — have resulted in suboptimal results and often frustration among instructors and students alike. In an effort to link architectural design to best practices in active learning pedagogy, numerous instructors, school leaders, and architects have explored how learning spaces can be differently designed to support active learning and amplify its positive effects on student learning. The result is a category of learning spaces known as Active Learning Classrooms (ALCs).

While there is no universally accepted definition of an ALC, the spaces often described by this term have several common characteristics:

  • ALCs are classrooms, that is, formal spaces in which learners convene for educational activities. We do not include less-formal learning spaces such as faculty offices, library study spaces, or “in-between” spaces located in hallways or foyers.
  • ALCs include deliberate architectural and design attributes that are specifically intended to promote active learning. These typically include moveable furniture that can be reconfigured into a variety of different setups with ease, seating that places students in small groups, plentiful horizontal and/or vertical writing surfaces such as whiteboards, and easy access to learning
    technologies (including technological infrastructure such as power outlets).
  • In particular, most ALCs have a “polycentric” or “acentric” design in which there is no clearly-defined front of the room by default. Rather, the instructor has a station which is either
    movable or located in an inconspicuous location so as not to attract attention; or perhaps there is no specific location for the instructor.
  • Finally, ALCs typically provide easy access to digital and analog tools for learning , such as multiple digital projectors, tablet or laptop computers, wall-mounted and personal whiteboards, or classroom response systems.

2.1: Research questions
The main question that this study intends to investigate is: What are the effects of the use of ALCs on student learning, faculty teaching, and institutional cultures? Within this broad overall question, we will focus on four research questions:

  1. What effects do ALCs have on measurable metrics of student academic achievement? Included in such metrics are measures such as exam scores, course grades, and learning gains on pre/post-test measures, along with data on the acquisition of “21st Century Skills”, which we will define using a framework (OCDE, 2009) which groups “21st Century Skills” into skills pertaining to information, communication, and ethical/social impact.
  2. What effects do ALCs have on student engagement? Specifically, we examine results pertaining to affective, behavioral, and cognitive elements of the idea of “engagement” as well as results that cut across these categories.
  3. What effect do ALCs have on the pedagogical practices and behaviors of instructors? In addition to their effects on students, we are also interested the effects of ALCs on the instructors who use them. Specifically, we are interested in how ALCs affect instructor attitudes toward and implementations of active learning, how ALCs influence faculty adoption of active learning pedagogies, and how the use of ALCs affects instructors’ general and environmental behavior.
  4. What specific design elements of ALCs contribute significantly to the above effects? Finally, we seek to identify the critical elements of ALCs that contribute the most to their effects on student learning and instructor performance, including affordances and elements of design, architecture, and technology integration.

 

Active Learning Classrooms (ALCs)

 

 

The common denominator in the larger cultural effects of ALCs and active learning on students and instructors is the notion of connectedness, a concept we have already introduced in discussions of specific ALC design elements. By being freer to move and have physical and visual contact with each other in a class meeting, students feel more connected to each other and more connected to their instructor. By having an architectural design that facilitates not only movement but choice and agency — for example, through the use of polycentric layouts and reconfigurable furniture — the line between instructor and students is erased, turning the ALC into a vessel in which an authentic community of learners can take form.

 

 

 

 

2018 Students and Technology Research Study — from library.educause.edu

Topics Covered

  • Device access, use, and importance to academic success
  • Campus Wi-Fi experiences
  • Learning management system use and satisfaction
  • Student learning environment preferences
  • Experiences with instructors and technology
  • Commuter students and internet access
  • Student online activities
  • Institutional awareness of student disability and accessibility
  • Student use and assessment of success tools

 

MIT plans $1B computing college, AI research effort — from educationdive.com by James Paterson

Dive Brief (emphasis DSC):

  • The Massachusetts Institute of Technology is creating a College of Computing with the help of a $350 million gift from billionaire investor Stephen A. Schwarzman, who is the CEO and co-founder of the private equity firm Blackstone, in a move the university said is its “most significant reshaping” since 1950.
  • Featuring 50 new faculty positions and a new headquarters building, the $1 billion interdisciplinary initiative will bring together computer science, artificial intelligence (AI), data science and related programs across the institution. MIT will establish a new deanship for the college.
  • The new college…will explore and promote AI’s use in non-technology disciplines with a focus on ethical considerations, which are a growing concern as the technology becomes embedded in many fields.

 

Also see:

Alexa Sessions You Won’t Want to Miss at AWS re:Invent 2018 — from developer.amazon.com

Excerpts — with an eye towards where this might be leading in terms of learning spaces:

Alexa and AWS IoT — Voice is a natural interface to interact not just with the world around us, but also with physical assets and things, such as connected home devices, including lights, thermostats, or TVs. Learn how you can connect and control devices in your home using the AWS IoT platform and Alexa Skills Kit.

Connect Any Device to Alexa and Control Any Feature with the Updated Smart Home Skill API — Learn about the latest update to the Smart Home Skill API, featuring new capability interfaces you can use as building blocks to connect any device to Alexa, including those that fall outside of the traditional smart home categories of lighting, locks, thermostats, sensors, cameras, and audio/video gear. Start learning about how you can create a smarter home with Alexa.

Workshop: Build an Alexa Skill with Multiple Models — Learn how to build an Alexa skill that utilizes multiple interaction models and combines functionality into a single skill. Build an Alexa smart home skill from scratch that implements both custom interactions and smart home functionality within a single skill. Check out these resources to start learning:

 

Multitasking is actually kind of a problem — for kids and adults — from washingtonpost.com by Hayley Tsukayama

Excerpt:

Multitasking is a problem in a couple of ways, Robb said, citing recent neuroscience research on the practice. “Many people think multitasking does not hamper your ability to get things done,” he said. “But multitasking can decrease your ability to get things done well, because you have to reorient. That causes a certain level of cognitive fatigue, which can slow the rate of work.”

 

But Michael Robb, the group’s director of research, said multitasking should no longer be seen as “some desirable trait that makes you the best 21st-century worker.”

 

 

 

 

From DSC to teachers and professors:
Should these posters be in your classroom? The posters each have a different practice such as:

  • Spaced practice
  • Retrieval practice
  • Elaboration
  • Interleaving
  • Concrete examples
  • Dual coding

That said, I could see how all of that information could/would be overwhelming to some students and/or the more technical terms could bore them or fly over their heads. So perhaps you could boil down the information to feature excerpts from the top sections only that put the concepts into easier to digest words such as:

  • Practice bringing information to mind
  • Switch between ideas while you study
  • Combine words and visuals
  • Etc. 

 

Learn how to study using these practices

 

 

How much research has been done on flipped learning? Annual update for 2018 –from rtalbert-org.cdn.ampproject.org by Robert Talbert

Excerpt:

It’s now a tradition here at my blog to do an annual update of my answer to the common question, How much research is out there about flipped learning? I first posted about this two years ago after my book was published, and updated it last June to include info on 2016 and make some predictions about 2017. I’ve gone through and done it again this year, and I’d like to share the results of publication on flipped learning in 2017 and make some more predictions.

 

The amount of research on flipped learning is mainly since 2014

 

Taking the mid-2018 numbers into account, which bring the publication grand total up to 271, this means that over half the research that has ever been published on flipped learning has been published in the last 18 months (i.e. in 2017 and 2018); over two-thirds of it in the last two and a half years; and almost 90% of it in the last three and a half years.

 

 

 

 

How artificial intelligence is transforming legal research — from abovethelaw.com by David Lat

Excerpt:

Technology and innovation are transforming the legal profession in manifold ways. According to Professor Richard Susskind, author of The Future of Law, “Looking 30 years ahead, I think it unimaginable that our legal systems will not undergo vast change.” Indeed, this revolution is already underway – and to serve their clients effectively and ethically, law firms must adapt to these changing realities.

One thing that remains unchanged, however, is the importance of legal research. In the words of Don MacLeod, Manager of Knowledge Management at Debevoise & Plimpton and author of How to Find Out Anything and The Internet Guide for the Legal Researcher:

As lawyers, you need to be on top of the current legal landscape. Legal research will allow you to advise your client on the standards of the law at this moment, whether they come from case law, statutes, or regulations.

The importance of legal research persists, but how it’s conducted is constantly advancing and evolving. Just as attorneys who used hard-copy books for all of their legal research would be amazed by online legal research services like Westlaw, attorneys using current services will be amazed by the research tools of tomorrow, powered by artificial intelligence and analytics.

 

 

 

 

From DSC:
I just found out about the work going out at LearningScientists.org.

I was very impressed after my initial review of their materials! What I really appreciate about their work is that they are serious in identifying some highly effective means of how we learn best — pouring over a great deal of research in order to do so. But they don’t leave things there. They help translate that research into things that teachers can then try out in the classroom. This type of practical, concrete help is excellent and needed!

  • Daniel Willingham and some of his colleagues take research and help teachers apply it as well
  • Another person who does this quite well is Pooja Agarwal, an Assistant Professor, Cognitive Scientist, & former K-12 Teacher. Pooja is teaming up with Patrice Bain to write a forthcoming book entitled, Powerful Teaching: Unleash the Science of Learning!  She founded and operates the RetrievalPractice.org site.)

From the LearningScientists.org website (emphasis DSC):

We are cognitive psychological scientists interested in research on education. Our main research focus is on the science of learning. (Hence, “The Learning Scientists”!)

Our Vision is to make scientific research on learning more accessible to students, teachers, and other educators.

Click the button below to learn more about us. You can also check out our social media pages: FacebookTwitterInstagram, & Tumblr.

 

They have a solid blog, podcast, and some valuable downloadable content.

 

 

 

In the downloadable content area, the posters that they’ve created (or ones like them) should be posted at every single facility where learning occurs — K-12 schools, community colleges, colleges, universities, libraries of all kinds, tutoring centers, etc. It may be that such posters — and others like them that encourage the development of metacognitive skills of our students — are out there. I just haven’t run into them.

For example, here’s a poster on learning how to study using spaced practice:

 

 

 

 

Anyway, there’s some great work out there at LearningScientists.org!

 

 


Also relevant here, see:

 

 

 

 

 

 

Below are some excerpted slides from her presentation…

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Also see:

  • 20 important takeaways for learning world from Mary Meeker’s brilliant tech trends – from donaldclarkplanb.blogspot.com by Donald Clark
    Excerpt:
    Mary Meeker’s slide deck has a reputation of being the Delphic Oracle of tech. But, at 294 slides it’s a lot to take in. Don’t worry, I’ve been through them all. It has tons on economic stuff that is of marginal interest to education and training but there’s plenty to to get our teeth into. We’re not immune to tech trends, indeed we tend to follow in lock-step, just a bit later than everyone else. Among the data are lots of fascinating insights that point the way forward in terms of what we’re likely to be doing over the next decade. So here’s a really quick, top-end summary for folk in the learning game.

 

“Educational content usage online is ramping fast” with over 1 billion daily educational videos watched. There is evidence that use of the Internet for informal and formal learning is taking off.

 

 

 

 

 

 

10 Big Takeaways From Mary Meeker’s Widely-Read Internet Report — from fortune.com by  Leena Rao

 

 

 

 

 

“Retrieval practice” is a learning strategy where we focus on getting information out. Through the act of retrieval, or calling information to mind, our memory for that information is strengthened and forgetting is less likely to occur. Retrieval practice is a powerful tool for improving learning without more technology, money, or class time.

On this website (and in our free Retrieval Practice Guide), we discuss how to use retrieval practice to improve learning. Established by nearly 100 years of research, retrieval practice is a simple and powerful technique to transform teaching and learning.

In order to improve learning, we must approach it through a new lens – let’s focus not on getting information “in,” but on getting information “out.”

 

 

What is retrieval practice?
Retrieval practice is a strategy in which bringing information to mind enhances and boosts learning. Deliberately recalling information forces us to pull our knowledge “out” and examine what we know.

For instance, recalling an answer to a science question improves learning to a greater extent than looking up the answer in a textbook. And having to actually recall and write down an answer to a flashcard improves learning more than thinking that you know the answer and flipping the card over prematurely.

Often, we think we’ve learned some piece of information, but we come to realize we struggle when we try to recall the answer. It’s precisely this “struggle” or challenge that improves our memory and learning – by trying to recall information, we exercise or strengthen our memory, and we can also identify gaps in our learning.

Note that cognitive scientists used to refer to retrieval practice as “the testing effect.” Prior research examined the fascinating finding that tests (or short quizzes) dramatically improve learning. More recently, researchers have demonstrated that more than simply tests and quizzes improve learning: flashcards, practice problems, writing prompts, etc. are also powerful tools for improving learning. 

Whether this powerful strategy is called retrieval practice or the testing effect, it is important to keep in mind that the act of pulling information “out” from our minds dramatically improves learning, not the tests themselves. In other words retrieval is the active process we engage in to boost learning; tests and quizzes are merely methods to promote retrieval.

 

 

Also on that site:

 

 

Learn more about this valuable book with our:

 

 

Also on that site:

 

 

Excerpt from the Interleaved Mathematics Practice guide (on page 8 of 13):

Interleaved practice gives students a chance to choose a strategy.
When practice problems are arranged so that consecutive problems cannot be solved by the same strategy, students are forced to choose a strategy on the basis of the problem itself. This gives students a chance to both choose and use a strategy.

Interleaved practice works.
In several randomized control studies, students who received mostly interleaved practice scored higher on a final test than did students who received mostly blocked practice.

 

 

 



From DSC:
Speaking of resources regarding learning…why don’t we have posters in all of our schools, colleges, community colleges, universities, vocational training centers, etc. that talk about the most effective strategies to learn about new things?



 

 

 

Research roundup: 4 new reports on what’s working for blended-learning practitioners — from christenseninstitute.org by Luis Flores

Excerpt:

At the start of the year, we published a blog post on interesting research from 2017 related to innovative approaches to school design. Even though we aren’t even half-way through 2018, there are already several insightful reports on blended and personalized learning from this year that are worth highlighting.

These reports examined various tools and approaches to implement blended and personalized learning models, as well as the potential impact these models could have on students and teachers. From examining how schools implemented their models sustainably to recommending methods to best support teachers, these are informative reports for anyone interested in implementing blended and personalized learning models in their schools.

1. Digital math tool produces gains in student achievement
2. Personalized learning can be implemented sustainably
3. PD-rich blended-learning plans increase chances of success
4. Ensure that teachers create, and design strategies for, their goals

 

 

 

 

Make it Stick: The Science of Successful Learning— by Peter C. Brown, Henry L Roediger III, and Mark A. McDaniel

Some of the key points and learning strategies they mention in the preface:

  • The most effective learning strategies are not intuitive
  • Spaced repetition of key ideas and the interleaving of different but related topics are two excellent teaching/learning strategies

 

 

Some the key points and learning strategies they mention in the first chapter:

  • When they talk about learning they mean acquiring knowledge and skills and having them readily available from memory so you can make sense of future problems and opportunities.
  • There are some immutable aspects of learning that we can probably all agree on:
    1. To be useful, learning requires memory, so what we’ve learned is till there later when we need it.
    2. We need to keep learning and remembering all our lives.
    3. Learning is an acquired skill and most effective strategies are counterintuitive
  • Learning is deeper and more durable when it’s effortful
  • We are poor judges of when we are learning well and when we’re not
  • Rereading text and massed practice (i.e., cramming) of a skill or new knowledge are by far the preferred study strategies of learners of all stripes, but they”re also among the least productive. Rereading and cramming give rise to feeling of fluency that are taken to be signs of mastery, but for true mastery or durability these strategies are largely a waste of time.
  • Retrieval practice — recalling facts or concepts or events from memory — is a more effective learning strategy than reviewing by rereading
    • Flashcards are a simple example
    • Retrieval strengthens the memory and interrupts forgetting
    • A single simple quiz after reading a text or hearing a lecture produces better learning and remembering that rereading the text of reviewing lecture notes.
  • Periodic practice arrest forgetting, strengthens retrieval routes, and is essential for hanging onto the knowledge you want to gain.
  • Space out practice and interleave the practice of 2 or more subjects, retrieval is harder and feels less productive, but the effort produces longer lasting learning and enables more versatile application of it in later settings.
  • Trying to solve a problem before being taught the solution leads to better learning, even when errors are made in the attempt.
  • Learning styles are not supported by the empirical research.
  • When you’re adept at extracting the underlying principles or “rules” that differentiate types of problems, you’re more successful at picking the right solutions in unfamiliar situations. This skill is better acquired through interleaved and varied practice than massed practice.
  • In virtually all areas of learning, you build better mastery when you use testing as a tool to identify and bring up your areas of weakness.
  • All learning requires a foundation of prior knowledge.

 

If you practice elaboration, there’s no known limit to how much you can learn. Elaboration is the process of giving new material meaning by expressing it in your own words and connecting it with what you already know. The more you can explain about the way your new learning relates to your prior knowledge, the stronger your grasp of the new learning will be, and the more connections you create that will help you remember it later.***

 

“When learning is hard, you’re doing important work.”

 

“Making mistakes and correcting them builds the bridges to advanced learning.”

 

Learning is stronger when it matters.^^^

 

  • One of the most striking research findings is the power of active retrieval — testing — to strengthen memory, and the more effortful the retrieval, the stronger the benefit.
    .
  • The act of retrieving learning from memory has 2 profound benefits:
    1. It tells you what you know and don’t know, and therefore where to focus further study
    2. Recalling what you have learned causes your bring to reconsolidate the memory
      .
  • To learn better and remember longer, [use]:
    • various forms of retrieval practice, such as low-stakes quizzing and self-testing
    • spacing out practice
    • interleaving the practice of different but related topics or skills
    • trying to solve a problem before being taught the solution
    • and distilling the underlying principles or rules that differentiate types of problems

 

One of the best habits a learner can instill in herself is regular self-quizzing to recalibrate her understanding of what she does and does not know. 

 

Brown, P. C., Roediger III, H. L., & McDaniel, M. A. (2014).
Make It Stick: The Science of Successful Learning.
Cambridge, MA: The Belknap Press of Harvard University Press.
Retrieved from https://www.amazon.com/Make-Stick-Science-Successful-Learning/dp/0674729013

 

 

*** This quote reminds me of what turned Quin Schultze’ learning around. With Quin’s permission, the following excerpt is from Quentin Schultze’s solid book, Communicate like a True Leader (pages 35 & 36)

 

 

 

During the beginning of my sophomore year, I started reviewing each day’s class notes after classes were over. I soon realized how little I recalled even of that day’s lectures and discussions. It dawned on me that normal note-taking merely gave me the impression that I was learning. I implemented a strategy that revolutionized my learning, launched me successfully into graduate school, helped me become a solid teacher, equipped me to be a productive researcher-writer, and made it possible for me to be an engaging speaker.

I not only reviewed my notes daily. I rewrote them from scratch within a couple of hours of each class meeting. I used my actual course notes as prompts to recall more of the lecture and to help me organize my own reactions to the material. My notes expanded. My retention swelled.

My revised notes became a kind of journal of my dialogue with the instructor and the readings. I integrated into my revised course notes my daily reading notes, reworking them into language that was meaningful to me and preparing to ask the instructor at the next class anything that I was uncertain about. From then on I earned nearly straight A’s with far less cramming for exams.

Moreover, I had begun journaling about my learning — one of the most important communication skills. I became a real learner by discovering how to pay attention to others and myself.

In a broad sense, I learned how to listen.

 

^^^ This quote explains why it is so important to answer the first question a learner asks when approaching a new lesson/topic/lecture/etc.:

  • Why is this topic relevant?
    i.e., why is this topic important and worthy of my time to learn it?

 

 

Why Professors Doubt Education Research — from edsurge.com by Jeff Young

Excerpts:

You found that professors really care about their teaching, and yet they are skeptical of education research. It sounds like a lot of people ended up teaching the way that they had been taught, or the way that they felt good as a student in classes they had had.

That’s right. People sometimes ignore the research precisely because they care about teaching. Different faculty arrive at the point where they’re teaching college students from wildly different experiences of their own. Some have wanted since they were small children to be professors at a university, and some fell into it later in a career.

For faculty who think that research is a good way to learn how to teach, they will devour the literature on learning sciences. They’ll reach out to experts across a number of disciplines and within their own discipline to try and learn what the best way to teach is

For faculty who believe that teaching is an art, that it is just something that you develop with experience and time, that you can’t learn from a book, you need to learn by doing more or learn from your students, no amount of exposure to learning science research is going to disrupt their sense that this is something they learn by doing, or that they need to follow their gut on.

Do you have any advice for someone who wants to change someone’s mind to either adopt or consider more of this evidence-based research?

People can always change their perspective. If you’re trying to communicate the value of a technology or an approach, or even of learning science or education research as a field, you have to start with the person you’re speaking to. They may come to that conversation with a sense of, “I know that people get PhDs in education. People get PhDs in curriculum design, and I’ve never even taken a class where we’ve talked about curriculum design. I would like to know what they know.”

Then there are people who will say, “I’ve been teaching since I was a graduate student. My students are very happy with the teaching. I feel pretty good about my teaching. I understand that you have a PhD in curriculum design, but I don’t really need that.”

You need to approach those two different faculty members differently, understanding that there are some people who are interested in hearing about evidence-based practices, and just pointing them towards the resources is great.

Excerpt from the question:
What about your own teaching? I’m curious. Are you someone that tries different techniques that are based on research?

There is so much literature, and there are so many right ways, and there are so many recommendations that incorporating all of them into your practice at the same time is literally impossible. Many of them are contradictory. You have to choose a suite that you’re adhering to, because you can’t do the others if you’re doing these. Trying to embody best practices while teaching is really complex. It’s a skillset that you develop. You develop with time, and instruction, and you can master, but you’re always going to have to continue to perfect it.

 

 

Also see:

Personalized Faculty Development: Engaging Networks, Empowering Individuals — from er.educause.edu by Jill Leafstedt

Excerpts:

During the meeting, I chose to spend my time focused solely on sessions in the Faculty Development and Engagement track. My goal: return to my home campus energized and ready to tackle the age-old problem of how to move faculty from being content experts into dynamic educators.

Luckily for me, I was not the only one looking for this inspiration. The faculty development sessions were packed with people trying to answer questions such as, “Why don’t faculty want help?” or “Why don’t faculty attend my workshops?” On the whole, the sessions reaffirmed my belief that faculty development does not happen in a workshop, nor does it happen through training. Improving teaching is a long, messy, reflective process that must be approached from multiple angles with many entry points.

Sound challenging? It is, but there is reason to be hopeful; our colleagues are working hard to find and share answers. Two themes came through loud and clear from the sessions I attended. First, meet faculty where they are. Don’t expect them to come to you ready to learn; go to them and start where they are. Second, build networks for ongoing learning.

 

From DSC:
Both of the above articles present a HUGE issue in terms of improving the level of teaching and learning. Both articles seem to be saying that anyone interested in really improving the teaching and learning that’s going on needs to meet with each individual faculty member in order to meet them where they are at. When you have hundreds of faculty members plus an over-flowing job plate that’s asking you to wear numerous hats, that’s a very tall order indeed.

 

 

 

 

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