Sixth Grade

Want a free lesson plan? Email me the name and grade of the one you are interested in and I will send you a personal copy. Need it specifically tailored for your class? Feel free to ask! rosenvall@gmail.com.  All lessons are based on the SEEd core curriculum.
Lesson Plans:    
Synopsis:
Strand:
Sun-Earth-Moon 
System
Students create a model to show the 
cyclic Sun-Earth-Moon system.
6.1.1
Lunar Phases
A chart to record the phases of the moon.
6.1.1

Pattern of a solar and lunar eclipse, penumbra, umbra
6.1.1
Seasons
Graphs of seasonal temperatures with which kids can 
determine spring/summer/fall/winter.
6.1.1
Planetary Orbits
Develop and use a model to describe the role 
of gravity and inertia in orbital motions of objects 
in our solar system.
6.1.2
Inertia vs. Gravity
Students complete a lab to explore inertia 
and gravity.
6.1.2
Scale of the Planets

6.1.3
Use computational thinking to analyze data 
and determine the scaleand properties of objects 
in the solar system. Examples of scale could include 
size and distance. Examples of properties could 
include layers, temperature, surface features, 
and orbital radius. Data sources could include 
Earth and space-based instruments such as telescopes
 and satellites. Types of data could include graphs, 
data tables, drawings, photographs, and models.
Distance of the planets
Students measure yarn to come up with the distance of 
planets from the sun, they tie the yarn to a pole and 
rotate around it
6.1.3

Planet layers
Students draw the layers of a rocky planet 
vs a gas giant vs an ice planets
6.1.3
Kings and Beggars

6.2.1
Develop models to show that molecules are made
 of different kinds, proportions and quantities of atoms. 
Emphasize understanding that there are differences
 between atoms and molecules, and that certain
 combinations of atoms form specific molecules.
 Examples of simple molecules could include water
 (H2O), atmospheric oxygen (O2), and carbon dioxide (CO2).
Atoms and Molecules
Short packet that teaches the difference between 
atoms and molecules
6.2.1

Melt my Ice
Students record changes in temperature in a cup 
of melting ice.
6.2.2
Move it Move it
Students draw the states of matter
6.2.2




Students hypothesis and investigate how to 
melt an ice cube the fastest.
6.2.3: Plan and carry out an investigation 
to determine the relationship between temperature,
 the amount of heat transferred, and the change 
of average particle motion in various types or 
amounts of matter. Emphasize recording and 
evaluating data, and communicating the
 results of the investigation.
I’m melting
Students design and build a box meant to 
keep an ice cube frozen
6.2.4
Design an object, tool, or process that minimizes
 or maximizes heat energy transfer. Identify criteria 
and constraints, develop a prototype for iterative
 testing, analyze data from testing, and propose
 modifications for optimizing the design solution. 
Emphasize demonstrating how the structure of 
differing materials allows them to function 
 as either conductors or insulators.
Conduction
Students investigate conduction
6.2.4


6.3.1
Develop a model to describe how the cycling of
 water through Earth's systems is driven by
 energy from the Sun, gravitational forces, and density.


6.3.2
Investigate the interactions between air masses 
that cause changes in weather conditions. Collect
 and analyze weather data to provide evidence for
 how air masses flow from regions of high pressure
 to low pressure causing a change in weather. 
Examples of data collection could include field 
observations, laboratory experiments, weather
 maps, or diagrams.


6.3.3
Develop and use a model to show how unequal 
heating of Earth's systems cause patterns of 
atmospheric and oceanic circulation that 
determine regional climates. Emphasize how
 warm water and air move from the equator
 toward the poles. Examples of models could
 include Utah regional patterns such as lake-effect 
and wintertime temperature inversions.


6.3.3
Develop and use a model to show how unequal
 heating of Earth's systems cause patterns of 
atmospheric and oceanic circulation that determine
 regional climates. Emphasize how warm water and
 air move from the equator toward the poles.
 Examples of models could include Utah regional
 patterns such as lake-effect and wintertime
 temperature inversions.


6.3.4
Construct an explanation supported by evidence 
for the role of the natural greenhouse effect in Earth’s 
 energy balance, and how it enables life to exist on 
Earth. Examples could include comparisons between
 Earth and other planets such as Venus and Mars.

Oh Deer!

6.4.1
Analyze data to provide evidence for the effects of 
resource availability on organisms and populations
 in an ecosystem. Ask questions to predict how
 changes in resource availability affects organisms
 in those ecosystems. Examples could include water,
 food, and living space in Utah environments.


6.4.2
Construct an explanation that predicts 
 patterns of interactions among organisms 
across multiple ecosystems. Emphasize
 consistent interactions in different 
environments such as competition, 
predation, and mutualism.


6.4.3
Develop a model to describe the cycling of  
matter and flow of energyamong living and
 nonliving parts of an ecosystem. Emphasize
 food webs and the role of producers,
 consumers, and decomposers in various 
ecosystems. Examples could include Utah 
ecosystems such as mountains, Great 
Salt Lake, wetlands, and deserts.


6.4.4
Construct an argument supported by evidence
 that the stability of populations is affected by
 changes to an ecosystem. Emphasize how 
changes to living and nonliving components
 in an ecosystem affect populations in that 
ecosystem. Examples could include Utah 
ecosystems such as mountains, Great
 Salt Lake, wetlands, and deserts.


6.4.5
Evaluate competing design solutions for
 preserving ecosystem resources and
 biodiversity based on how well the 
solutions maintain stability within the 
ecosystem. Emphasize obtaining,
evaluating and communicating information
 of differing design solutions. Examples 
could include policies affecting
 ecosystems, responding to invasive 
species or solutions for the preservation
 of ecosystem resources specific to Utah,
 such as air and water quality and prevention of soil erosion.

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