Time: 1500-1700
Purpose: Scientists through video analysis
Venue: RGS
Meeting Room: Photonics Lab
Agenda:
- Budget discussion (TK) https://docs.google.com/spreadsheet/ccc?key=0AhNfT5mxycVjdEtNZGw3dF9yZU9OSnlFQXg1cFcxVnc&usp=drive_web#gid=0
- Lessons Implementation plans, put in dropbox folder? (LK)
- lookang's tracker files TRK required tracker 4.80 and above version
- design principles to guide teachers to support the 8 practices of scientists
- ActivityDesign IBL tasks which:Participation StructuresEnable collaboration through:Social SurroundDevelop socio-scientific values by:Ask question:Question by student need to be on real-world problems.Student check if they can use-learn physics concepts and develop intrinsic motivation and natural curiosities.It involves cognitive apprenticeships, close mentoring by teachers.Post their questions up for peer reciprocity and feedback or cooperation.Teachers and peers provide rich, timely feedback.Teacher communicates high expectations, performance contribute a sizable portion to mid-year gradeTeacher creates high-challenge, low-threat environments.Use Models:Students check their existing knowledge to judge if the new question knowledge can be integrated.Identify suitable equation-models that can be used to connect and sharpen the questionPost their models up for peer reciprocity and feedback or cooperation.Teacher may choose to direct students to sources of these science models-knowledge etc. if student need help to progress when success.Teacher allows time for reflection and feedbackPlan and carrying out investigation:Student design the plan, teacher mentor closelyConduct an initial testImprove planStudent take control of their own learning: noting failures, planning ahead apportioning time and memory to tasksStudent sharpens plan with peersTeacher may choose to share plans from which student continue to shape their own plan etc. if student need help to progress when success.Teacher emphasizes time on task to mentor studentsTeacher promotes reciprocity and cooperation among students.Teacher may need to mentor through cognitive apprenticeships for more challenging investigationsAnalyse data:Students determine what evidences to collect and analyseStudent need to engage in active video analysis, teacher as guide, not the demonstrator.Teacher need to encourages contact between students and them to support their analysis, if need be, re-collect more appropriate dataTeacher respects diverse talents and ways of learning.Teacher offers prompt feedback.Mathematical thinking:Student determines what mathematics can yield results that aims to answer questionKnowledge is applied by the learnerTeacher may need to provide suitable mathematical thinking to answer questionPractice and reinforcement are emphasized.Explanation:Students formulate explanation based on evidencesNew knowledge is integrated into the learner’s world.Teacher guide students in process of formulating explanation from evidencesArgumentation:Student argue and discuss from evidences foundTeacher guide students to select which evidences to sharpen their own argumentDraft of arguments made online for participation by public and studentsRich and timely feedback by peers and teachersFormation of peer critiques organization and rolesCommunication:Students formulate reasonable and logical argument and communicate explanation through report writing and oral presentation.Students organize knowledge in ways that facilitate retrieval and application.Students demonstrate higher-order thinking (synthesis and reflection)Teacher and peer use rubrics to improve the communication of scientific question and its evidence based answer(s).promotes reciprocity and cooperation among students.
- Research
- a. Scientists Pre-post survey (LK)
- b. https://www.dropbox.com/s/xhqtggu2je43ucu/Edulab%20-%20Video%20Analysis.pdf assessment matrix (TL) postpone to next meeting
- AOB
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