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Process Oriented Guided Inquiry Learning POGIL originated in college chemistry departments in 1994; there are now well over 1,000 implementers in a wide range of disciplines in high schools and colleges around the country.POGIL uses guided inquiry - a learning cycle of exploration, concept invention and application is the basis for many of the carefully designed materials that students use to guide them to construct new knowledge. POGIL is a student-centered strategy; students work in small groups with individual roles to ensure that all students are fully engaged in the learning process.POGIL activities focus on core concepts and encourage a deep understanding of the course material while developing higher-order thinking skills. POGIL develops process skills such as critical thinking, problem solving, and communication through cooperation and reflection, helping students become lifelong learners and preparing them to be more competitive in a global market.POGIL is a classroom and laboratory technique that seeks to simultaneously teach content and key process skills such as the ability to think analytically and work effectively as part of a collaborative team. A POGIL classroom or lab consists of any number of students working in small groups on specially designed guided inquiry materials. These materials supply students with data or information followed by leading questions designed to guide them toward formulation of their own valid conclusions-essentially a recapitulation of the scientific method. The instructor serves as facilitator, observing and periodically addressing individual and classroom-wide needs.POGIL is based on research indicating that a) teaching by telling does not work for most students, b) students who are part of an interactive community are more likely to be successful, and c) knowledge is personal; students enjoy themselves more and develop greater ownership over the material when they are given an opportunity to construct their own und

Stanford Teaching Commons "Modes of Teaching, Modes of Learning:  Created by CTL and VPOL, our course profiles describe Stanford examples of great teaching and learning in different modes, including candid reflections on lessons learned. The definitions give a wealth of information on learning activities, learning objectives, and assessments for these different teaching and learning environments."

AUGMENTED REALITY FOR INTERPRETIVE AND EXPERIENTIAL LEARNING The goal of the ARIEL project is the creation of an exhibit platform that uses scientific visualization techniques to transform modern visitor interaction with traditional hands-on exhibits. The project will ultimately demonstrate an innovative solution to a key problem faced by science centers: the reinvention of the exhibit experience for visitors with changing 21st century learning expectations. The project has three main goals: to increase awareness of STEM content; improve 21st century learning skills; produce an evidence-based model for use of augmented reality activities within science museum settings. The project combines technological and pedagogical components in the AR fixed-station activities and the VR environment that exhibit multiple characteristics and constraints to engagement.

The primary benefits of GBL [game-based learning] are that it is engaging, user-centered, authentic, inspires creativity, and promotes literacy in many different ways. When considering the Maker Movement and GBL the most natural alignment is to have students designing or making games. ...it has the potential to engage students in a wide variety of activities that can support the development of many valuable skills. Designing and developing a game requires planning and research, teamwork, technical skills, computer literacy, imagination, and creativity. A well-supported design project can help students develop all of these skills will simultaneously enhancing knowledge of any subject. The Maker Movement already supports interactions that would meet these objectives.