STS "TEKS"-NIQUES (DREME)

Wednesday, July 19, 2006

Science Camp Learning Units


Welcome to STS TEKS-NIQUES: Our TEKS-Aligned Blog For Creating Interdisciplinary Science, Math and History Units for K-12 Students. We are a consortium of teachers participating in the DREME Foundation Summer Science Camp. To know more about DREME, go to http://www.dremefoundation.org/.

Our STS TEKSNIQUES: For History, Ms. Linda Scroggins, Alief ISD
For Science, Mr. Thomas Williams, Alief ISD
For Science, Mr. Kregg Quarles and
For Science, Ms. Kenyatta Ohuonu, Alief ISD
For Math, Ms. Camille Jones, Houston ISD

Tuesday, July 18, 2006

Math TEKS-Aligned Activities for All



Our Unit Aims to Maximize Ways To Mesh Math and Science Activities For Our Summer Science Camp. Math Activities are Hands-On (Students Build Models) and offer TEKS-Aligned, Open-Ended Inquiry. Students can choose at least 1 to 2 TEKS-based questions per each colored objective to answer about their models. Their math work product becomes TEKS-aligned yet customized as it covers the Big Math Ideas for their grade. The Chart Sets Forth Math TEKS For Sixth Grade.

Monday, July 17, 2006

TEKS-Aligned Unit Activities (STS-TEKSNIQUES)

For Week Two of the D.R.E.M.E. Summer Science Camp, we have the following TEKS-Aligned Actitivies planned for our students:

1. Lunar & Meteorite Activities (TEKS 6.13(A); 7.13(A)(B); 8.13(A)-(C))
a. Impact Craters/Exploring the Moon (Tools needed: aluminum rectangular pan
b. Distance to the Moon - Exploring the Moon (Tools needed: plastic globe, 5 balls of different sizes, large rectangular paper with hole punch, string sufficient to wrap Earth's diameter 9 times)
c. Romancing the Moon Video (CD from NASA)
d. Space Paper Models (Simulating an Eclipse: 14 copies of tagboard, flashlights with working batteries, scissors, tape, colors and glue)

2. Living & Working in A Microgravity Environment (6.13(B), 8.13(A)(C)
a. Puffy Head Bird Legs Activity (Tools needed: tape measure, tape, colored markers, recording sheet, stool, timer)
b. Ballanaut - Design Challenge (Tools needed: aluminum foil, duct tape, newspaper, cardboard tube, sharp ended object, embroidery circle or border - 14 count)
3. Space Shuttle Paper Model (14 copies of tagboard, scissors, tape, colors and glue, copies of the Math and Science Charts from the TEA TAKS test administration)

Experimental Design & 5Es in Our Unit

Our Unit employs the 5Es of Lesson Design: 1) Engage; 2) Explore; 3) Explain; 4) Extend; and 5) Evaluate.

Further description of the Five Es follows:

1. Engage: In the stage Engage, the students first encounter and identify the instructional task. Here they make connections between past and present learning experiences, lay the organizational groundwork for the activities ahead and stimulate their involvement in the anticipation of these activities. Asking a question, defining a problem, showing a surprising event and acting out a problematic situation are all ways to engage the students and focus them on the instructional tasks. If we were to make an analogy to the world of marketing a product, at first we need to grab the customer's attention. We won't have their attention unless they have a need to buy the product. They may be unaware of a need, and in this case we are motivated to create a need.

2. Explore: In the Exploration stage the students have the opportunity to get directly involved with phenomena and materials. Involving themselves in these activities they develop a grounding of experience with the phenomenon. As they work together in teams, students build a base of common experience which assists them in the process of sharing and communicating. The teacher acts as a facilitator, providing materials and guiding the students' focus. The students' inquiry process drives the instruction during an exploration.

3. Explain: Explain is the point at which the learner begins to put the abstract experience through which she/he has gone /into a communicable form. Language provides motivation for sequencing events into a logical format. Communication occurs between peers, the facilitator, or within the learner himself. Working in groups, learners support each other's understanding as they articulate their observations, ideas, questions and hypotheses. Language provides a tool of communicable labels. These labels, applied to elements of abstract exploration, give the learner a means of sharing these explorations. Explanations from the facilitator can provide names that correspond to historical and standard language, for student findings and events. For example a child, through her exploration, may state they have noticed that a magnet has a tendency to "stick" to a certain metallic object. The facilitator, in her discussion with the child, might at this stage introduce terminology referring to "an attracting force". Introducing labels, after the child has had a direct experience, is far more meaningful than before that experience. The experiential base she has built offers the student an attachment place for the label. Common language enhances the sharing and communication between facilitator and students. The facilitator can determine levels of understanding and possible misconceptions. Created works such as writing, drawing, video, or tape recordings are communications that provide recorded evidence of the learner's development, progress and growth.

4. Extend: In Extend, the students expand on the concepts they have learned, make connections to other related concepts, and apply their understandings to the world around them. For example, while exploring light phenomena, a learner constructs an understanding of the path light travels through space. Examining a lamp post, she may notice that the shadow of the post changes its location as the day grows later. This observation can lead to further inquiry as to possible connections between the shadow's changing location and the changes in direction of the light source, the Sun. Applications to real world events, such as where to plant flowers so that they receive sunlight most of the day, or how to prop up a beach umbrella for shade from the Sun, are both extensions and applications of the concept that light travels in a straight path. These connections often lead to further inquiry and new understandings.

5. Evaluate: Evaluate, the fifth "E", is an on-going diagnostic process that allows the teacher to determine if the learner has attained understanding of concepts and knowledge. Evaluation and assessment can occur at all points along the continuum of the instructional process. Some of the tools that assist in this diagnostic process are: rubrics (quantified and prioritized outcome expectations) determined hand-in-hand with the lesson design, teacher observation structured by checklists, student interviews, portfolios designed with specific purposes, project and problem-based learning products, and embedded assessments. Concrete evidence of the learning proceed is most valuable in communications between students, teachers, parents and administrators. Displays of attainment and progress enhance understanding for all parties involved in the educational process, and can become jumping off points for further enrichment of the students' education. These evidences of learning serve to guide the teacher in further lesson planning and may signal the need for modification and change of direction. For example, if a teacher perceives clear evidence of misconception, then he/she can revisit the concept to enhance clearer understanding. If the students show profound interest in a branching direction of inquiry, the teacher can consider refocusing the investigation to take advantage of this high level of interest.

The site that follows provides a chart of 5E-aligned science activities:

http://www.mcps.k12.md.us/curriculum/science/instr/5Esactivities.htm

Science TEKS For Grades 6, 7 and 8

Our Team has selected two key Texas Essential Knowledge and Skills (TEKS) per grade to vertically align with lessons and activities. For 6th Grade Science, our key TEKS are:
(13) Science concepts. The student knows components of our solar system. The student is expected to:
(A) identify characteristics of objects in our solar system including the Sun, planets, meteorites, comets, asteroids, and moons; and
(B) describe types of equipment and transportation needed for space travel.
For 7th Grade Science, our key TEKS are:

13) Science concepts. The student knows components of our solar system. The student is expected to:
(A) identify and illustrate how the tilt of the Earth on its axis as it rotates and revolves around the Sun causes changes in seasons and the length of a day; and
(B) relate the Earth's movement and the moon's orbit to the observed cyclical phases of the moon.
Finally, for 8th Grade Science, our key TEKS are: (12) Science concepts. The student knows that cycles exist in Earth systems. The student is expected to:
(A) analyze and predict the sequence of events in the lunar and rock cycles;
(B) relate the role of oceans to climatic changes; and
(C) predict the results of modifying the Earth's nitrogen, water, and carbon cycles.
(13) Science concepts. The student knows characteristics of the universe. The student is expected to:
(A) describe characteristics of the universe such as stars and galaxies;
(B) explain the use of light years to describe distances in the universe; and
(C) research and describe historical scientific theories of the origin of the universe.
These TEKS will be integrated into the 5E method of instruction and into the key concepts of (Scientific) Experimental Design.

Sunday, July 16, 2006

Meteorite & Rock Resources



Meteorites are mostly pieces of rock, though a few are metal, that fall to Earth from space. Most meteorites come from the break-up of small asteroids that never accreted to form a planet....but not all! Meteorites tell us the story of solar system history from the formation of the planets to catastrophic impacts on Earth.

To access a great lesson on meteorites:


http://www.spacegrant.hawaii.edu/class_acts/Meteor.html

What types of rocks can be found on the moon and/or beyond? To view a lunar sample, go to:
http://www-curator.jsc.nasa.gov/lunar/compendium.cfm.



Edible Rock lessons also are available.

Solar System Resources



http://space.jpl.nasa.gov/

Our NASA Resources offer two solar system models of relative distances between planets.


1. A Linear Model of the Solar System

2. A Radial Model of the Solar System. Our Radial Model Resources include an activity for students using string and models of planets to see heliocentric longitudes.

Resources that chart these longitudes can be found here.
http://www.as.wvu.edu/~planet/planetary_heliocentric_longitude_2006.htm

Big Ideas Underlying Our Unit

Big Idea 1: What scientific tools and processes do space scientists like Dr. McNair use to meet and master the specific expectations of our science TEKS?

Big Idea 2: What mathematical tools, processes and formulas do space scientists like Dr. McNair use to meet and master the specific expectations of our math TEKS?

Big Idea 3: What historical tools (who, what, when, where, how and why of space science) would Dr. McNair be familiar with and/or master to meet the specific expectations of our history TEKS?

Big Idea 4: What types of technological tools might Dr. McNair use and master to help share mastery of these ideas and expectations with others?