by Eli Collins-Brown | Sep 25, 2018 | Blog, Educational Technology, Panopto
How to install an additional monitor:
- To add a second monitor to your computer, you’ll need to make sure that you either have a video card that supports multiple monitors, or that your computer has more than one video card.
- Once you have made sure that your video card can support a second monitor, turn off your computer and monitor. Next, locate the video ports on your computer.
- Connect the second monitor to the unused video port. Plug the second monitor into an electrical power source and turn it on.
- Turn on your original monitor. Next, turn on your computer. Windows should recognize the monitor once the computer has started. If you are prompted to install driver software, see the instructions that came with the monitor. When you have confirmed the second monitor is functioning properly, you are now ready to begin screen capturing with multiple monitors.
Capturing on multiple monitors
- Open the Panopto recorder. In the secondary sources area of the recorder screen, click the checkbox next to capture second screen and/or capture third screen.
- A new tab labelled second screen will appear, displaying the output of the second monitor.
- If you only want to capture the output from the secondary monitor, be sure to uncheck capture primary screen. After naming your session and selecting a folder, hit the large record button to begin your recording.
(Source: https://spotlight.panopto.com/)
by Eli Collins-Brown | Sep 11, 2018 | Blog, Panopto
1.1 HDMI Connection
All cameras that output an HDMI stream can be captured by Panopto when using a capture card. Below are examples of different cameras that have been used with Panopto.
- Video Cameras – point-and-shoot
- Canon VIXIA HF R600
- Sony HDR-PJ540
- DSLR – high quality, interchangeable optics
- Panasonic Lumix GH4
- Nikon D800
- Sony A99
- Professional
- Canon XF200 HD
- Canon XA25
- Sony HXR-NX100
- Sony PXW-X70
- Sony PXW-X200
- Pan-Tilt-Zoom (PTZ)
- Sony SRG-120DH
- Sony SRG-300H
- Pan-Tilt-Zoom
- (PTZ) Sony SRG-120DH
- Sony SRG-300H
1.2 USB Connection
Most USB cameras work with Panopto and UVC (generic) webcams always work. Below are examples of different cameras that have been used with Panopto.
- Webcam
- Microsoft LifeCam Studio
- Microsoft LifeCam Cinema
- Logitech C920
- Logitech C930
- Pan-Tilt-Zoom
- HuddleCamHD 30X
- Vaddio ClearVIEW HD‑USB
- VDO VPTZH-01
- Panasonic HE-40
- Visualizer / Document camera
1.3 Lecturer Tracking Cameras
Face and motion detection tracking technology to precisely lock and track lecturer. Currently supported via SDI connection in combination with recommended SDI capture device below:
. iSmart LTC-A2001N
. iSmart LTC-S2007N
3.1 USB Connection
* Blue Microphones Yeti
* Blue Microphones Snowball USB
* HuddlePod Air
* CAD U37 USB Studio Condenser Recording Microphone
* MXL AC-404
* Revolabs xTag Wireless Microphone System
* Samson Meteor Mic
3.2 Audio Mixers
* FOCUSRITE SCARLETT 2I2
3.3 Analog Microphones
* 8 RODELINK WIRELESS LAVALIER
Equipment that is not recommended by Panopto:
- BlackMagic capture cards: Customers have reported these devices to be unstable and unreliable.
- BlackMagic capture cards: Customers have reported these devices to be unstable and unreliable.
- Microsoft Lifecam HD-3000: Customers have reported these devices to be unstable and unreliable with the current driver.
- Razer Kiyo: These devices have proven to be unstable and unreliable at some quality levels.
- Logitech C615 USB webcam – Unstable and unreliable with the current driver
by Terry Pollard | Sep 8, 2018 | Active Learning, Blog, Cooperative Learning, Help Your Students, Learn, Student Engagement
A summer 2018 volume of New Directions for Teaching and Learning focuses on student engagement. Ten chapters worth!
One interesting chapter, Students Engaged in Learning, is worth a close read. (the link to the full article can be found at the bottom of this post). The authors, Emad Ismail and James Groccia, provide a compelling structure for the chapter.
The article is presented in this fashion—research findings related to engagement in the cognitive domain, followed by research on engagement in the psychomotor domain, and finally, of research literature pertaining to engagement in the affective domain. Several meta-analyses are cited. Rather than delve deeply into any single research article, I thought it might be more interesting to talk about the research he cites as part of each section (after all, you can read the full article yourself). The remainder of this post presents a short summary of the research he cites related to cognitive engagement:
Discipline: Biology
Title:Teaching More by Lecturing Less
Findings Snippet: “The results we present here indicate that even a moderate shift toward more interactive and cooperative learning in class can result in significantly higher student learning gains than achieved using a standard lecture format.”
Authors: Knight and Wood
Year: 2005
Discipline: Biology
Title:Cooperative and Active Learning in Undergraduate Biological Laboratories at FIU– Implications to TA Teaching and Training
Findings Snippet: Teaching assistants underwent a 2-day training workshop to implement cooperative learning and active learning techniques for Biology courses, and the results were very positive. Responses from instructors indicate “an increase in the cognitive level of the material communicated, learned, and assessed”, in addition to “an increase in their [students’] ability to devise and practice scientific experimentation.”|
Authors: Penwell, Elsawa, and Pitzer
Year: 2004
Discipline: Physics
Title: Interactive-Engagement vs. Traditional Methods: A Six-Thousand-Student Survey of Mechanics Test Data for Introductory Physics Courses
Findings Snippet: “The conceptual and problem-solving test results strongly suggest that the classroom use of interactive-engagement methods can increase mechanics-course effectiveness well beyond that obtained in traditional practice.”
Authors: Hake
Year: 1992
Discipline: Physics
Title: Can Students Learn from Lecture Demonstrations?
Findings Snippet: “Students who had a chance to predict an outcome of a demonstration prior to seeing the demonstration achieved a significantly higher success rate of 25% to 35%.”
Authors: Milner-Bolton, Kotlicki, Rieger
Year: 2007
Discipline: Psychology
Title:Keeping it Short and Sweet: Brief, Ungraded Writing Assignments Facilitate Learning
Findings Snippet: “These results suggest that in-class writing and discussion improved performance on factual and conceptual multiple-choice exam questions, beyond any gain from time for in-class thinking and discussion.”
Authors: Drabick, Weisberg, Paul, and Bubier
Year: 2007
Discipline: Physical Chemistry
Title:“I Believe I Will Go Out of This Class Actually Knowing Something”: Cooperative Learning Activities in Physical Chemistry
Findings Snippet: “We found that cooperative learning activities move students away from rote learning strategies and toward more meaningful strategies which allowed them to integrate concepts over the entire semester.”
Authors: Towns, Grant
Year: 1997
Discipline: Human Resource Management
Title:The Immediate Feedback Assessment Technique (IF-AT): An Innovative Teaching Technique for Human Resource Management Students
Findings Snippet: “…through the use of Team Based Learning and the incorporation of the IF-AT students’ skills in the areas of communication, overall learning, cognitive and interpersonal skills through the use of teams or groups of students was enhanced. Authors: Blackman, Michaelsen, Knight, and Fink
Year: 2004
Discipline: Statistics
Title:Evaluating an Active Learning Approach to Teaching Introductory Statistics: A classroom workbook approach
Findings Snippet: “The activity based curriculum evaluated here produced significant positive changes in students’ attitudes toward statistics. Specifically, after experiencing the workbook curriculum students liked statistics more and were more confident in their ability to perform and understand statistics.”
Authors: Carlson and Winquist
Year: 2011
Discipline: STEM
Title:Effects of Small-Group Learning on Undergraduates in Science, Mathematics, Engineering, and Technology: A Meta-Analysis
Findings Snippet: “The meta-analysis demonstrates that various forms of small-group learning are effective in promoting greater academic achievement, more favorable attitudes towards learning, and increased persistence….”
Authors: Springer, Stanne, and Donovan
Year: 1999
Discipline: STEM
Title:Active Learning Increases Student Performance In Science, Engineering, And Mathematics
Findings Snippet: A meta-analysis of 225 studies discovers that (on average, based on effect size) student performance on exams and concept inventories increased by .47 SDs when faculty utilized active learning strategies and methods (n=158 studies).
Authors: Freeman et al.
Year:2014
Discipline: Human Physiology
Title: The Effect of Active Learning on Student Characteristics in a Human Physiology Course for Nonmajors
Findings Snippet: “Students in a treatment group [taught using a continuum-based, actdive-learning model] acquired significantly more content knowledge and were significantly more efficacious than students in the control groups [taught using traditional didactic lecture methods].”
Author: Wilke
Year: 2003
William Buskist, a co-editor in this volume, presents in a most familiar way the issue of student engagement that many of us are struggling with:
Are there universal principles of instilling student engagement that apply across students, disciplines, and institutional settings, and if so, what are they? Do these principles similarly or differentially affect the domains of doing, feeling, and thinking? Once students become engaged, what are the most effective methods of keeping them engaged throughout the remainder of their college careers in terms of doing, feeling, and thinking?
Thankfully, the research provided in this chapter illustrates that yes, universal principles do exist.
The full article is available here.
Icons courtesy of icons8.
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