Science as Inquiry:
· Abilities necessary to do scientific inquiry.
·
Understanding about scientific inquiry.
Physical Science:
Grades 5-8
· Properties and changes of properties in matter
· Motions and forces
· Transfer of energy
Grades 9-12
· Structure of atoms
· Structure and properties of matter
· Chemical reactions
· Motions and forces
· Conservation of energy and increase in disorder
· Interactions of energy and matter
Life Science Standards
Grades 5-8
· Structure and function in living systems
· Reproduction and heredity
· Regulation and behavior
· Populations and ecosystems
· Diversity and adaptations of organisms
Grades 9-12
· The cell
· Molecular basis of heredity
· Biological evolution
· Interdependence of organisms
· Matter, energy, and organization in living systems
·
Behavior of organisms
Earth and Space Science Standards
Grades 5-8
· Structure of the earth system
· Earth’s history
· Earth in the solar system
Grades 9-12
· Energy in the earth system
· Geochemical cycles
· Origin and evolution of the earth system
· Origin and evolution of the universe
Science and Technology Standards
Grades 5-8
· Abilities of technological design
· Understanding about science and technology
Grades 9-12
· Abilities of technological design
· Understanding about science and technology
Science in Personal and Social Perspectives
Grades 5-8
· Personal health
· Populations, resources, and environments
· Natural hazards
· Risks and benefits
· Science and technology in society
Grades 9-12
· Personal and community health
· Population growth
· Natural resources
· Environmental quality
· Natural and human-induced hazards
· Science and technology in local, national, and global challenges
History and Nature of Science Standards
Grades 5-8
· Science as a human endeavor
· Nature of science
· History of science
Grades 9-12
· Science as a human endeavor
· Nature of scientific knowledge
· Historical perspectives
Performance Indicators: Description of the levels of student achievement pertaining to standard.
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Use and understand scientific terminology and vocabulary
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Use appropriate mathematical formulas and equations to pose and answer scientific questions.
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Recognize mathematical relationships when presented in a graphic model.
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Understand the concept of density as a ratio of mass to volume as well as how that ratio is related to observations of floating and sinking.
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Understand and be able to show evidence for the size and shape of planet Earth.
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Be able explain how to determine one’s location on planet Earth using the coordinate system of latitude and longitude.
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Be able to read a contour map and determine various features on said map.
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Be able to identify various minerals using common tests such as streak, hardness, cleavage and luster.
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Be able to identify igneous, metamorphic and sedimentary rock by the physical features of each.
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Explain how different rock types were formed and a probable environment of formation for each.
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Be able to explain and use in a practical manor the rock cycle as printed in the Earth Science Reference tables provided by New York State.
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Understand and explain the theories of “plate tectonics†and “continental drift†as they relate to geographic features visible at the surface of the Earth. (ie. mountains, fault lines volcanoes etc…)
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Be able to explain how a seismograph works and be able to use the information given by a seismograph to determine the distance to the earthquake, the origin time of the earthquake, and the location of the epicenter of the earthquake.
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Understand and describe the similarities and differences of surface materials based on their porosity, permeability and capillarity.
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Be able to describe the processes involved in the water cycle.
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Be able to name and explain the different types of physical and chemical weathering that act on Earth materials.
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Understand and explain how climate affects weathering and weathering rates.
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Be able to name agents of erosion, areas where each is most prevalent, and the driving force behind them.
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Be able to describe the forces involved in an erosional-depositional system.
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Be able to explain the energy relationships in an erosional-depositional system.
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Be able to identify the dominant force in an erosional-depositional system that is not in equilibrium.
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Describe the physical appearance of a stream at various stages in its life cycle.
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Describe the formation growth and recession of a glacier.
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Be able to identify glacially deposited material and eroded areas.
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Be able to explain how glaciers impacted the geographical features in and around New York State.
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Be able to describe the forces involved in landscape development.
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Be able to explain the effects of local bedrock on regional landscape.
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Demonstrate an understanding of the difference between relative and absolute time.
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Be able to interpret a geological sequence of event given a diagram, photo, or other visual evidence.
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Be able to state theories relevant to determining a geologic sequence of events and be able to explain said theories.
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Be able to explain and use techniques for the correlation of rock strata at various locations given a diagram, photo, or other visual media.
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Be aware of information related to the geologic history of Earth as presented in the New York State Earth Science Reference tables.
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Understand the concept of evolution and the evidence supporter’s use in support of the theory.
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Understand the concept of radioactive decay (radioactivity).
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Recognize that the electromagnetic spectrum consists of several types of energies each with its own wavelength and frequency.
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Understand the relationship between the frequency and wavelength of the energies that make up the electromagnetic spectrum.
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Understand and be able to define the three types of energy transfer.
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Be able to write and understand the theory of conservation of energy, the theory of conservation of mass and the differences and relationships between kinetic and potential energy.
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Grasp the concept of energy transformation and the reradiation of energy by the Earth.
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Be able to convert temperatures between the three common temperature scales using the reference tables.
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Be able to determine energy gained or lost, with the aide of the reference tables, as a result of heating, cooling, or the change of phase of several known Earth materials.
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Understand and be able to describe all energy relationships that exist in the atmosphere.
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Understand and be able to describe the relationships between several of the atmospheric variables.
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Be able to describe the processes by which clouds are formed.
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Be able to take information from and apply information to a station model and or a full weather map.
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Be able to explain the difference between a hurricane and a tornado.
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Be able to explain how adiabatic temperature changes occur and why.
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Show on a world map source regions for air masses that effect our area.
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Be able to describe a mid-latitude cyclone in terms of temperature, pressure, precipitation, dew point and various other weather variables at given points around the Low.
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Explain weather conditions associated with the four basic types of fronts.
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Be able to list the different factors that affect insolation.
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Be able to describe the affect each factor has on insolation.
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Describe the affects insolation has on climate.
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Using the reference tables be, able to describe certain characteristics of the atmosphere.
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Explain in detail what the Greenhouse effect is and what causes it.
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Define radiative balance and graph it over time.
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Be able to connect a water budget with a climate ratio and a given climate.
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Compare a water budget with stream discharge information.
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Explain how various geographic features affect climate.
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Explain what a sunspot is.
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Explain the difference between Jovian and terrestrial planets.
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List and describe various celestial bodies in our solar system.
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Explain and give examples of the Doppler effect.
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Understand the significance of the celestial sphere, star paths and other celestial observations.
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Explain the difference and similarities between the geo-centric and helio-centric models of the solar system.
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Explain orbital geometry and gravitation.
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List evidences of the Earth’s elliptical orbit and rotation on its axis.
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Describe the difference between apparent solar day and mean solar day.
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Describe the relationships between the Sun, Earth and Moon as it relates to Tides, phases and eclipses.
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Compare types of pollution as well as sources of pollution and the affects of pollution.
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Explain possible solutions to pollution problems as well as why those solutions may or may not work.
Assessment : | Acceptable Performance Level |
New York State Regents Exam | Minimum Passing = 65%
Goal = 85% for 100% of students who regularly attend class |
Various in class unit tests, vocabulary quizzes, notes quizzes and laboratory reports. | Minimum Passing = 70%
Expectation = 85% for 100% of students |