This webinar for all 2018 LITA Forum presenters was a conversation about creating accessible presentations! Our speaker, Carli Spina, presented and offered guidance on accessibility and design. She explained how to design presentation materials that are accessible, including providing demonstrations of the accessibility features of popular presentation softwares, and how to ensure that your presentation is accessible for all of your audience members.
Carli Spina is an Associate Professor and the Head of Research & Instructional Services at the Fashion Institute of Technology. She holds a J.D. from the University of Chicago Law School, an MLIS from Simmons GSLIS, and an M.Ed. from the Harvard Graduate School of Education. She has extensive experience working, writing, and presenting on topics related to accessibility and Universal Design and has served as a coordinator for services to patrons with disabilities. She was the inaugural chair of LITA’s Diversity and Inclusion Committee and has also served as the leader of the ASCLA Library Services to People with Visual or Physical Disabilities that Prevent Them from Reading Standard Print Interest Group. She regularly teaches courses, workshops, and webinars on topics related to accessibility, Universal Design and technology. You can contact her on Twitter where she is @CarliSpina.
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Kelly Hermann, VP, Accessibility Strategy, U of Phoenix
Around the turn of the millennium, American society realized a looming crisis: the lack of female representation in STEM fields. But today we are witnessing a crisis of male leadership in a variety of workplaces. From the president to CEOs of major companies to actors and power players in Hollywood, the past several months have exposed the toxic work environments they preside over or worsen in scandal after scandal. Though different in nature, this crisis is of equal importance as the STEM shortage. Yet, to date, no prominent solutions or interventions have been seriously proposed. In contrast, a quick Google search brings up dozens of programs for girls in STEM, but not one national program appears for boys in the arts and humanities.
latest indicators of the demographics and earnings of public school humanities teachers — most of whom are women and many of whom aren’t paid well — underscore that we need more men in the arts and humanities.
The Humanities Indicators report that, “As of 2015, women earned 61 percent of all master’s and professional-practice degrees in the humanities and 54 percent of the doctoral degrees in the field.” And the latest report on public school teachers found that “76 percent of humanities teachers were women, the largest share among subject specialists.” When male K-12 role models barely exist in these disciplines, what message does that send to our young boys and men?
But our society suffers when boys and men are actively discouraged from pursuing their interests in the arts and humanities. The cycle of toxic masculinity starts early. Boys are often told not to cry or show emotion. They are socially trained to repress it, and they take pride in this false resilience.
the Rhode Island School of Design Museum. In an annual event called “Cops and Docs,” accomplished medical professionals and highly trained police officers take a group trip to the museum. Over the course of the evening, mixed groups of cops and docs look at paintings, sculptures and other works of art, and they then share their answers to a pretty basic question: What do you see?
Another program, “The Art of Perception,” takes police detectives, FBI agents and high-ranking Secret Service and CIA executives to well-known museums and galleries like the Metropolitan Museum of Art and the Frick Collection to observe works by Picasso, Caravaggio, Edward Hopper and other masters. Program creator Amy E. Herman says the exercise is “not about looking at art. It’s about talking about what you see.”
Hahn, J. (2018). Virtual reality learning environments | Development of multi-user reference support experiences | Information and Learning Science | Ahead of Print. EmeraldInsight. Retrieved from https://www.emeraldinsight.com/eprint/AU2Q4SJGYQG5YTQ5A9RU/full
case study: an undergraduate senior projects computer science course collaboration whose aim was to develop textual browsing experiences, among other library reference functionality, within the HTC Vive virtual reality (VR) headset. In this case study, readers are introduced to applied uses of VR in service to library-based learning through the research and development of a VR reading room app with multi-user support. Within the VR reading room prototype, users are able to collaboratively explore the digital collections of HathiTrust, highlight text for further searching and discovery and receive consultative research support from a reference specialist through VR.
Library staff met with the project team weekly over the 16 weeks of both semesters to first scope out the functionality of the system and vet requirements.
The library research team further hypothesized that incorporating reference-like support in the VR environment can support library learning. There is ample evidence in the library literature which underscores the importance of reference interactions as learning and instructional experiences for university students
Educational benefits to immersive worlds include offering a deeper presence in engagement with rare or non-accessible artifacts. Sequeira and Morgado (2013, p. 2) describe their Virtual Archeology project as using “a blend of techniques and methods employed by historians and archaeologists using computer models for visualizing cultural artefacts and heritage sites”.
The higher-end graphics cards include devices such as the NVIDIA GeForceTM GTX 1060 or AMD RadeonTM RX 480, equivalent or better. The desktop system that was built for this project used the GeForce GTX 1070, which was slightly above the required minimum specifications.
Collaboration: Library as client.
Specific to this course collaboration, computer science students in their final year of study are given the option of several client projects on which to work. The Undergraduate Library has been a collaborator with senior computer science course projects for several years, beginning in 2012-2013 with mobile application design and chat reference software re-engineering (Hahn, 2015). (My note: Mark Gill, this is where and how Mehdi Mekni, you and I can collaborate)
The hurdles the students had the most trouble with was code integration – e.g. combining various individual software parts towards the end of the semester. The students also were challenged by the public HathiTrust APIs, as the system was developed to call the HathiTrust APIs from within the Unity programming environment and developing API calls in C#. This was a novel use of the HathiTrust search APIs for the students and a new area for the research team as well.
There are alternatives to Unity C# programming, notably WebVR, an open source specification for VR programming on the open web.
A-Frame has seen maturation as a platform agnostic and device agnostic software programming environment. The WebVR webpage notes that the specification supports HTC Vive, Oculus Rift, Samsung Gear VR, Google Daydream and Google Cardboard (WebVR Rocks, 2018). Open web platforms are consistent with library values and educational goals of sharing work that can be foundational in implementing VR learning experience both in VR environments and shareable on the web, too.
College students’ perceptions of pleasure in learning – Designing gameful gamification in education
investigate behavioral and psychological metrics that could affect learner perceptions of technology
today’s learners spend extensive time and effort posting and commenting in social media and playing video games
Creating pleasurable learning experiences for learners can improve learner engagement.
uses game-design elements in non-gaming environments with the purpose of motivating users to behave in a certain direction (Deterding et al., 2011)
How can we facilitate the gamefulness of gamification?
Most gamified activities include three basic parts: “goal-focused activity, reward mechanisms, and progress tracking” (Glover, 2013, p. 2000).
gamification works similarly to the instructional methods in education – clear learning and teaching objectives, meaningful learning activities, and assessment methods that are aligned with the objectives
the design of seven game elements:
Storytelling: It provides the rules of the gamified activities. A good gamified activity should have a clear and simple storyboard to direct learners to achieve the goals. This game-design element works like the guidelines and directions of an instructional activity in class.
Levels: A gamified activity usually consists of different levels for learners to advance through. At each level, learners will face different challenges. These levels and challenges can be viewed as the specific learning objectives/competencies for learners to accomplish.
Points: Points pertain to the progress-tracking element because learners can gain points when they complete the quests.
Leaderboard: This element provides a reward mechanism that shows which learners are leading in the gamified activities. This element is very controversial when gamification is used in educational contexts because some empirical evidence shows that a leaderboard is effective only for users who are aggressive and hardcore players (Hamari, Koivisto, & Sarsa, 2014).
Badges: These serve as milestones to resemble the rewards that learners have achieved when they complete certain quests. This element works as the extrinsic motivation for learners (Kapp, 2012).
Feedback: A well-designed gamification interface should provide learners with timely feedback in order to help them to stay on the right track.
Progress: A progress-tracking bar should appear in the learner profile to remind learners of how many quests remain and how many quests they have completed.
Dominguez et al. (2013) suggested that gamification fosters high-order thinking, such as problem-solving skills, rather than factual knowledge. Critical thinking, which is commonly assessed in social science majors, is also a form of higher-order thinking.
Davis (1989) developed technology acceptance model (TAM) to help people understand how users perceive technologies. Pleasure, arousal, and dominance (PAD) emotional-state model that developed by Mehrabian (1995) is one of the fundamental design frameworks for scale development in understanding user perceptions of user-system interactions.
Van der Heijdedn (2004) asserted that pleasurable experiences encouraged users to use the system for a longer period of time Self-determination theory (Deci & Ryan, 1985) has been integrated into the design of gamification and addressed the balance between learners’ extrinsic and intrinsic motivation.
Ryan and Deci (2000) concluded that extrinsic rewards might suppress learners’ intrinsic motivation. Exploiting the playfulness and gamefulness in gamification, therefore, becomes extremely important, as it would employ the most effective approaches to engage learners.
Sweetser and Wyeth (2005) developed GameFlow as an evaluation model to measure player enjoyment in games
Fu, Su, and Yu (2009) adapted this scale to EGameFlow in order to measure college students’ enjoyment of e-learning games. EGameFlow is a multidimensional scale that consists of self-evaluated emotions.
Eppmann, Bekk, and Klein (2018) developed gameful experience scale (GAMEX) to measure gameful experiences for gamification contexts. one of the limitations of GAMEX to be used in education is that its effects on learning outcome has not been studied
the Big Five Model, which has been proposed as trait theory by McCrae & Costa (1989) and is widely accepted in the field, to measure the linkages between the game mechanics in gamification and the influences of different personality traits.
Storytelling in the subscale of Preferences for Instruction emphasizes the rules of the gamified learning environments, such as the syllabus of the course, the rubrics for the assignments, and the directions for tasks. Storytelling in the subscale of Preferences for Instructors’ Teaching Style focuses on the ways in which instructors present the content. For example, instructors could use multimedia resources to present their instructional materials. Storytelling in the subscale of Preferences for Learning Effectiveness emphasizes scaffolding materials for the learners, such as providing background information for newly introduced topics.
The effective use of badges would include three main elements: signifier, completion logic, and rewards (Hamari & Eranti, 2011). A useful badge needs clear goal-setting and prompt feedback. Therefore, badges correlate closely with the design of storytelling (rules) and feedback, which are the key game design elements in the subscale of Preferences for Instruction.
Students can use Google to search on their laptops or tablets in class when instructors introduce new concepts. By reading the reviews and viewing the numbers of “thumbs-up” (agreements by other users), students are able to select the best answers. Today’s learners also “tweet” on social media to share educational videos and news with their classmates and instructors. Well-designed gamified learning environments could increase pleasure in learning by allowing students to use familiar computing experiences in learning environments.
Ubiquitous social media platforms—including Facebook, Twitter and Instagram—have created a venue for people to share and connect with others. We use these services by clicking “I Agree” on Terms of Service screens, trading off some of our private and personal data for seemingly free services. While these services say data collection helps create a better user experience, that data is also potentially exploitable.
The news about how third parties obtain and use Facebook users’ data to wage political campaigns and the mounting evidence of election interference have shined a spotlight on just how secure our data is when we share online. Educating youth about data security can fall under the larger umbrella of digital citizenship, such as social media uses and misuses and learning how not to embarrass or endanger oneself while using the internet.
Darvasi’s students in Toronto can pool together 55 faux bitcoins to purchase and launch the BOTTING protocol against an opponent. The student targeted at Fallon’s school in Connecticut would then have 48 hours to record audio of 10 words of Darvasi’s students choosing and send it back to them through an intermediary (Darvasi or Fallon). For a higher price of 65 faux bitcoins, students can launch MORPHLING, which would give the opponent 48 hours to record a one-minute video explaining three ways to stay safe while using Facebook, while making their school mascot (or a close approximation of) appear in the video in some way during the entire minute.
Thirty students registered for Arizona State University Online’s general biology course are using ASU-supplied virtual reality (VR) headsets for a variety of required lab exercises
The VR equipment, which costs ASU $399 per student, allows learners to complete lab assignments in virtual space using goggles and a controller to maneuver around a simulated lab. Content for the online course was developed and assessed by ASU biology professors and was evaluated this summer. Students also can use their own VR headsets and access the content on their laptops, as 370 other students are doing.
A university official told Campus Technology the initiative will help online students have the experiences provided in brick-and-mortar labs as well as new ones that were impossible previously. The effort also will ease a problem on campus with limited lab space.
Similar labs are planned for the University of Texas at San Antonio and McMaster University in Canada, according to a blog post from Google, which partnered with the ed-tech company Labster to create the virtual labs. In addition, virtual labs also are available at eight community colleges in California, offering IT and cybersecurity skills instruction.
About half of colleges have space dedicated to VR, with adoption expected to increase as technology costs go down, according to a recent survey by nonprofit consortium Internet2. The survey found that 18% of institutions have “fully deployed” VR and are increasingly making it available to online students, while half are testing or have not yet deployed the technology.
Colleges are using VR for a variety of purposes, from classroom instruction to admissions recruiting to career training.
In addition, because the use of VR is growing in K–12 education, students will expect to use it in college.
breakdown of IoT functionality, from Deloitte. They give 5 general types of services that IoT “things” can do:
Internal state: Heartbeat- and ping-like broadcasts of health, potentially including diagnostics and additional status reporting (for example, battery level, CPU/memory utilization, strength of network signal, up-time or software/platform version).
Location: Communication of physical location via GPS, GSM, triangulation or proximity techniques
Physical attributes: Monitoring the world surrounding the device, including altitude, orientation, temperature, humidity, radiation, air quality, noise and vibration
Functional attributes: Higher-level intelligence rooted in the device’s purpose for describing business process or workload attributes
Actuation services: Ability to remotely trigger, change or stop physical properties or actions on the device.
Examples of IoT in action
There are some pretty well-known IoT products that some of you already use, including:
Nest Thermostat (and others). These allow you to control your AC from your phone, anywhere that you can connect to the Internet.
Smart lights: Same concept, but for lights. You can turn lights on/off from your phone. Phillips Hue is an example of this
Bluetooth Trackers – Tile (https://www.thetileapp.com/) is an example of a Bluetooth Tracker. Put one on that thing you always lose (i.e., car keys). The next time you lose those keys, you can find them again via an app on your phone.
Smart Home appliances – things like Google Home, Amazon Echo, and Apple HomeKit.
Smart power switches – Belkin’s Wemo Insight Wi-Fi Smart Plug is an example. They let you turn the plug (and therefore anything connected to it) on and off, set schedules for the plug, monitor energy consumption and use, etc. You can also connect it to Amazon Alexa and Google Home for hands-free voice control
Health and exercise trackers – Fitbits “fit” into this category, too.
How does IoT affect libraries?
Here are some ways libraries are already incorporating IoT technology into their libraries:
Smart Building Technology: As libraries retrofit their buildings with newer technology (or build new buildings/branches), they are starting to see more IoT-based technology. For example, some libraries can can adjust heating, cooling and lights from a smartphone app. Some newer building monitoring and security systems can be monitored via mobile apps.
RFID: RFID technology (sensors in books) is a type of IoT technology, and has been around for awhile.
Beacon Technology: There are at least two library-focused companies experimenting with Beacon technology (Capira Technologies and Bluubeam).
People counters: Check out Jason Griffey’s Measure the Future project. Here’s what he says about Measure the Future: “Imagine having a Google-Analytics-style dashboard for your library building: number of visits, what patrons browsed, what parts of the library were busy during which parts of the day, and more. Measure the Future is working to make that happen by using open-hardware based sensors that can collect data about building usage that is now invisible. Making these invisible occurrences explicit will allow librarians to make strategic decisions that create more efficient and effective experiences for their patrons.”
Library classes! Libraries are also teaching classes about the Internet of Things. These include classes focused on introducing patrons to IoT technology, and classes that focus on an aspect of IoT, like a class on making things with Arduinos or how to use your new Fitbit.
the trending but undefined concepts of digital storytelling and immersive learning
definition
Storytelling is a logical form of thought. It is an analytical process including perception, labeling, organizing, categorizing real and imaginary objects and their real and imaginary relations in speech.
Q: What do you think immersive documentation technologies such as 360 images and videos can bring to this process?
V: 360 degree media and virtual reality are cultural-historically developed tools that mediate our relationship to the world in a new way. They expand the possible fields of perception transcending space and time. Perception precedes other psychological functions.
Definition
Immersive storytelling can be understood as an activity through which students use language to visualize relations and meaning in 360 degree digital environments. Naming or describing relations between objects in our field of perception using verbal or visual language awakens intellectual processes fundamental to learning.
Q: Would you say immersive storytelling is a form of creative play?
V: That is a possible interpretation. Play is a psychological process through which we create an imaginary situation or place, reflecting or separating objects and their actual meaning, or creating new meanings. The ability to digitally create and modify situations and environments can be understood as a form of play, opening a realm of spontaneity and freedom, connected with pleasure.
Q: Can robots help us learn? Is AI already the More Knowledgeable Other?
V: The More Knowledgeable Other (MKO) refers to anyone or anything who has a better understanding or a higher ability level than the learner, with respect to a particular task, process, or concept. If a robot with artificial intelligence can function as an MKO and support our problem solving, it can expand our Zone of Proximal Development.
Pearson’s digital textbook transformation will likely face stiff competition. Earlier this month, McGraw-Hill, Barnes & Noble Education and Chegg teamed up for a new digital textbook rental program that the trio claims can help students save as much as 70 percent from buying print copies. In August, Cengage will launch a buffet-style offering where students pay $119.99 a semester to access all of the company’s digital higher-ed materials.
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more on OER in this IMS blog https://blog.stcloudstate.edu/ims?s=oer
The European Union‘s General Data Protection Regulation, or GDPR, goes into effect on May 25
The objective of the regulation, which passed in 2016, is to simplify and consolidate rules that companies need to follow in order to protect their data and to return control to EU citizens and residents over their personal information.
Individuals in the EU will have the right to access or request that companies erase or migrate their data elsewhere. When asked, companies must prove to authorities that they have satisfactory policies and procedures in place to protect their data, or they will face huge fines. How huge? If your company’s not compliant, the fines could be as large as 20 million Euros (about $24 million) or four percent of your annual global revenue, whichever is higher.
“A U.S. tourist who visits Germany for one day and returns to the U.S. has rights under the law if that person used [a service like] Facebook while on the trip,” Alex Stern, an attorney wrote on his firm’s blog.