A three-year project, Science Experiences and Resources for Informal Education Settings (SERIES), involves collaboration between the 4-H Youth Development Program, practicing scientists, science education centers, and community service agencies to provide community-based science experiences for youth. Goals for national dissemination of the SERIES project are: 1) Increase the quality and quantity of science experiences for youth as leaders and as learners; 2) For youth to actively experience how science concepts and processes relate to their everyday lives; 3) Provide opportunities for youth to take positive leadership roles in their homes and communities; and 4) Provide opportunities for youth to investigate educational and career possibilities in science and technology through a scientist mentor relationship. SERIES builds upon the materials, and instructional/coaching model successfully developed and tested during the Califronia SERIES Project. National dissemination by 4-H assures SERIES availability to the 5,100,000 youth currently enrolled in 4-H. Expected outcomes of SERIES are: 1) Refine and produce final versions in English and Spanish of four SERIES community service science units; 2) Develop two new units; 3) Development of an "inquiry coaching" module for adult volunteers; 4) Develop and asses apprentice-like mentoring experiences for SERIES teens to work directly with scientists; and 5) Establish four SERIES regional dissemination centers, working collaboratively with 4-H, science centers and other youth serving agencies to provide national dissemination of the SERIES program model to 28 states.
DATE:
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TEAM MEMBERS:
Richard PonzioLaurel DeanHerbert Thier
Through the proposed project, approximately 555,000 youth and adults will improve their knowledge of the basic sciences and mathematics, and learn to integrate and apply these disciplines, by analyzing local environmental problems using remote sensing imagery and maps. Faculty from the Cornell laboratory for Environmental Applications of Remote Sensing (CLEARS) and Cornell Department of Natural Resources will train county teams of teachers, museum and nature center educators, community leaders, and Cooperative Extension agents from throughout New York State to conduct educational programs with youth and adults in their communities. Previously developed CLEARS educator enrichment workshops and training materials will be enhanced and revised based on the interactions among Cornell Faculty, informal and formal science educators, and students during this program. A facultative evaluation focusing on the workshops, training materials, and educator teaching skills, and a summative evaluation focusing on student learning and attitudes, program delivery in the various community education settings, and the effectiveness of the county educator teams will be conducted. The results of the evaluation will be incorporated into a program handbook and used in nationwide dissemination of the program.
Ornithology is one of the few scientific disciplines to which amateurs can still make significant contributions. Whether they observe birds at a feeder, count birds for a national census, or conduct a simple experiment, their activities contribute greatly to our knowledge of birds. Furthermore, participants in bird study programs not only learn about birds, they also become more aware of environmental problems. The Cornell Laboratory of Ornithology exists to facilitate such amateur involvement and education. This proposal is aimed at strengthening our education programs and expanding them to include under-served audiences in the inner city. We propose to evaluate the extent to which our radio program, magazine, and Project FeederWatch appeal to various audiences and how effective these programs are at communicating information about birds and in stimulating involvement. Based on this evaluation, we will modify our programs, then evaluate them again. We are also proposing a brand-new volunteer-assisted data gathering program, which we call the National Science Experiment. In cooperation with other organizations, volunteers will look at the biology of pigeons in our cities, food preferences of winter birds across the United States, and the habitat requirements of neotropical migrant tanagers. The results of these studies will be of interest to both ornithologists and birders; furthermore, participants in the project will gain first-hand involvement with the process of science.
Science-By-Mail is a mentorship program between scientists and youth whereby youth have a subscription for three scientific challenge packets each year, create solutions, and receive responses from a personal scientist. Science-By-Mail brings the excitement of science discovery into classrooms and homes of children around the country and provides them with positive, approachable role models of professional scientists. A grant of $622,088 over three years will allow us to strengthen and expand this program nationally, focusing especially on increasing participation by minority youth and scientists. Specifically, support is requested for the design and development of 12 new challenge packets; to increase participation to 47,900 youth, 4,500 scientists, and 26 regional chapters; promote increased corporate and other private-sector involvement in the program; and to conduct an annual evaluation. The AAAS will aid in the recruitment of volunteer scientists. In addition, we will work together with the National 4-H Council to pilot the program within that organization (with a membership of 5.4 million), focusing particularly on minority youth. Anticipated income form the expansion of Science-By-Mail will make the program self-sufficient at the end of the grant period.//
The videodisc-based exhibit, the Powers of Ten in Time, will allow museum visitors to explore the unseen world of natural change - events that occur too quickly or too slowly to be perceived. Through the use of a touch screen and interactive software, users will be able to, in effect, speed up or slow down timeto witness changes that lie outside of the limits of human time perception. Visitors will see scenes such as a forest recovering after a fire, a wall of earth crumbling from erosion, tides coming in and out, the intricate motions of complex machinery and molecules colliding and reacting to produce fire. The videodiscs will contain more than 100 short video segments depicting a wide range of phenomena. We will use time-lapse footage, slow-motion clips and animations to show changes occurring over time periods form 300,000,000 to femtoseconds. Not only will museum visitors be able to watch these video segments at their own pace and in order they choose, they will also be able to learn more about such phenomena through on- screen textual and graphical explanations. The goal of the project is to engage museum visitors with captivating photographic segments, explain the phenomena shown with supplemental text and graphics, and stimulate them to look at the world in a new way - not just with their eyes, but with their minds and imaginations.
In every drop of water, down at the scale of atoms and molecules, there is a world that can fascinate anyone - ranging from a non-verbal young science student to an ardent science-phobe. The objective of Learning Science Through Guided Discovery: Liquid Water & Molecular Networks is to use advanced technology to provide a window into this submicroscopic world, and thereby allow students to discover by themselves a new world. We are developing a coordinated two-fold approach in which a cycle of hands-on activities, games, and experimentation is followed by a cycle of computer simulations employing the full power of computer animation to "ZOOM" into the depths of his or her newly- discovered world, an interactive experience surpassing that of an OMNIMAX theater. Pairing laboratory experiments with corresponding simulations challenges students to understand multiple representations of concepts. Answers to student questions, resolution of student misconceptions, and eventual personalized student discoveries are all guided by a clear set of "cues" which we build into the computer display. Moreover, the ability to visualize "real-time" dynamic motions allows for student-controlled animated graphic simulations on the molecular scale and interactive guided lessons superior to those afforded by even the most artful of existing texts. While our general approach could be applied to a variety of topics, we have chosen to focus first on water; later we will test the generality of the approach by exploring macromolecules such as proteins and DNA. The simulation sofware we have been developing embodies a simple molecular interaction model but requires leading edge computing in order to (1) apply the model to large enough systems to yield simple and realistic behavior, and (2) animate the result in real time with advanced graphics. Our ultimate goal in this project is not only to help students learn science, but also to help them learn to think like research scientists. By looking at scientific knowledge as a set of useful models - models that are essentially temporary and will inevitably lead to better ones - they can see that science is not a set of facts, but a method for discovering patterns and predictability in an otherwise disordered and unpredictable world. Through mastery of the simulation software, students will gain the self-confidence to embark on their own missions of discovery.