Science KS3 Grade Descriptors

Similar documents
Year 11 GCSE Information Evening

LOUISIANA HIGH SCHOOL RALLY ASSOCIATION

How to Read the Next Generation Science Standards (NGSS)

Biology and Microbiology

Course outline. Code: ENS281 Title: Introduction to Sustainable Energy Systems

All Systems Go! Using a Systems Approach in Elementary Science

Abc Of Science 8th Grade

Rendezvous with Comet Halley Next Generation of Science Standards

Maryland Science Voluntary State Curriculum Grades K-6

EGRHS Course Fair. Science & Math AP & IB Courses

Biology 10 - Introduction to the Principles of Biology Spring 2017

Physical Features of Humans

GUIDE CURRICULUM. Science 10

Biome I Can Statements

Biology 1 General Biology, Lecture Sections: 47231, and Fall 2017

Fourth Grade. Reporting Student Progress. Libertyville School District 70. Fourth Grade

Lesson 1 Taking chances with the Sun

Pre-Health Sciences Pathway to Advanced Diplomas and Degrees Program Standard

This Performance Standards include four major components. They are

Teaching NGSS in Elementary School Third Grade

KS1 Transport Objectives

MISSISSIPPI STATE UNIVERSITY SUG FACULTY SALARY DATA BY COLLEGE BY DISCIPLINE 12 month salaries converted to 9 month

Bachelor of Science in Mechanical Engineering with Co-op

Natural Sciences, B.S.

The Ontario Curriculum

For information only, correct responses are listed in the chart below. Question Number. Correct Response

INSTRUCTIONAL FOCUS DOCUMENT Grade 5/Science

CEE 2050: Introduction to Green Engineering

Planting Seeds, Part 1: Can You Design a Fair Test?

Text: envisionmath by Scott Foresman Addison Wesley. Course Description

SCORING KEY AND RATING GUIDE

YEAR 7 TRINITY TERM EXAMINATIONS 2015

THE UNITED REPUBLIC OF TANZANIA MINISTRY OF EDUCATION SCIENCE AND TECHNOLOGY SOCIAL STUDIES SYLLABUS FOR BASIC EDUCATION STANDARD III-VI

Ocean Exploration: Diving Deep into Ocean Science. Developed by: Sierra Tobiason, Lynn Fujii and Noe Taum

LITERACY ACROSS THE CURRICULUM POLICY

Food Chain Cut And Paste Activities

University of Alabama in Huntsville

Indiana University Northwest Chemistry C110 Chemistry of Life

Stacks Teacher notes. Activity description. Suitability. Time. AMP resources. Equipment. Key mathematical language. Key processes

CHEM 101 General Descriptive Chemistry I

Biological Sciences, BS and BA

Implementing Inquiry- Based Science Education

MISSISSIPPI STATE UNIVERSITY SUG FACULTY SALARY DATA BY COLLEGE BY DISCIPLINE

BIOS 104 Biology for Non-Science Majors Spring 2016 CRN Course Syllabus

Fairfield Methodist School (Secondary) Topics for End of Year Examination Term

Table of Contents. This descriptive guide will assist you in integrating the DVD science and education content into your instructional program.

4th Grade Science Test Ecosystems

CENTENNIAL SCHOOL DISTRICT

Stakeholder Debate: Wind Energy

The Day of a 4th Grade Student

Standards Alignment... 5 Safe Science... 9 Scientific Inquiry Assembling Rubber Band Books... 15

Lesson Plan Title Aquatic Ecology

General Microbiology (BIOL ) Course Syllabus

Scientific Inquiry Test Questions

level 5 (6 SCQF credit points)

GENERAL CHEMISTRY I, CHEM 1100 SPRING 2014

Program Alignment Worksheet High School

Graphic Imaging Technology II - Part two of a two-year program designed to offer students skills in typesetting, art and pasteup,

Heredity In Plants For 2nd Grade

Lego Science Lesson Plans

SCHOOL ASSESSED COURSEWORK SCHEDULE UNIT 1 SEMESTER ONE 2017

DISV IB DIPLOMA HANDBOOK striving for excellence by engaging minds, exciting learners, acting ethically and showing empathy

Syllabus Fall 2014 Earth Science 130: Introduction to Oceanography

ENVR 205 Engineering Tools for Environmental Problem Solving Spring 2017

5.1 Sound & Light Unit Overview

English. 1 of 18. Year: Year 10. Mrs Jamila / Mr Zaman

Biology Keystone Questions And Answers

Year 4 Curriculum Overview September 2017 July 2018

Evolution in Paradise

Answers To Gradpoint Review Test

Proposal of Pattern Recognition as a necessary and sufficient principle to Cognitive Science

ENERGY WORLD: Electricity aro

Curriculum for the Academy Profession Degree Programme in Energy Technology

Scott Foresman Science Grade 4

PROJECT LEARNING TREE 4 th grade Language Arts Correlation to the Texas Essential Knowledge and Skills

English. summarising the main ideas drawn from more than one paragraph, identifying key details that support the main ideas

Exploring Energy Program Quiz Answer Document

Simulation of Multi-stage Flash (MSF) Desalination Process

Pearson Baccalaureate Higher Level Mathematics Worked Solutions

TOURISM ECONOMICS AND POLICY (ASPECTS OF TOURISM) BY LARRY DWYER, PETER FORSYTH, WAYNE DWYER

Prentice Hall Chemistry Test Answer Key

Scientific Method Investigation of Plant Seed Germination

Inquiry Learning Methodologies and the Disposition to Energy Systems Problem Solving

The International Baccalaureate (IB) Diploma Programme. Repton School

TIEE Teaching Issues and Experiments in Ecology - Volume 1, January 2004

faculty of science and engineering Appendices for the Bachelor s degree programme(s) in Astronomy

Medium Term Plan English Year

Unit 1: Scientific Investigation-Asking Questions

Organising ROSE (The Relevance of Science Education) survey in Finland

Sugar And Salt Solutions Phet Simulation Packet

EVERYBODY TOGETHER WITH ENERGY WE ARE PART OF THE EARTH

Timeline. Recommendations

CHEM 1105: SURVEY OF GENERAL CHEMISTRY LABORATORY COURSE INFORMATION

Peterborough Eco Framework

Prentice Hall Outline Map 1914 With Answers

General Admission Requirements for Ontario Secondary School Applicants presenting the Ontario High School Curriculum

Evolution of Symbolisation in Chimpanzees and Neural Nets

Bachelor of Engineering in Biotechnology

Lab 1 - The Scientific Method

AGN 331 Soil Science Lecture & Laboratory Face to Face Version, Spring, 2012 Syllabus

Transcription:

B 1 2 KS3 Physics Chemistry Biology knowledge related to energy, forces and space to identify materials, their properties and the Earth, some changes in light, sound or to recognise, and describe some common movement, that result from actions. They materials. They communicate their can identify that light and sound come observations in terms of these properties. from a variety of sources, such as the Sun or a musical instrument. Knowledge to recognise forces, some common materials and organisms. They are able to describe some observations. Knowledge to recognise forces, some common materials and organisms. They are able to describe their observations. knowledge to recognise and describe energy, forces, range of organisms. They are able to describe similarities and differences and can suggest simple explanations. knowledge related to energy, forces and space to describe some changes in light, sound or movement, that result from actions. They recognise that light and sound come from a variety of sources, such as the Sun or a musical instrument. knowledge related to energy, forces and space to recognise, describe and compare a range of properties and effects of light, sound, forces, and electricity. They suggest answers to questions such as which sound is loudest based on their own ideas and evidence. materials, their properties and the Earth, to recognise, and describe some common materials, and their sensory properties. They communicate their descriptions and observations in terms of these properties. materials, their properties and the Earth to identify a range of common materials and some of their properties. They recognise, and describe similarities and differences between the materials they observe, using these to sort them into groups. They recognise and describe ways in which some materials are changed by heating or cooling or by processes such as bending or stretching. They suggest answers to questions, based on their own ideas and evidence. recognise, identify a range of common plants, animals and natural events. They name external parts or features of plants and animals. recognise, identify and describe a range of common plants, animals and natural events. They name and describe external parts or features of plants and animals. They use that evidence to identify plants or animals. describe plants and animals, the places they are found and the basic conditions they need in order to survive. They recognise and describe similarities and differences between the plants, humans and other animals they observe, using these to sort them into groups. They use questions based on their own ideas and evidence such as finding different types of plants and animals in different places.

3 Pupils can apply their range of organisms to a new situation. They are able to link different aspects of knowledge together. knowledge and understanding of energy, forces and space to link cause and effect in their observations of the properties and effects of light, sound, forces, and electricity. Pupils can make generalisations such as sounds getting fainter the further the listener is from the source. They use simple scientific ideas with evidence they have collected to give explanations of their observations, linking cause and effect, for example using a switch to turn off a light bulb in an electrical circuit. Pupils use knowledge and understanding of materials, their properties and the Earth to sort materials into groups in a variety of ways, according to their properties. They explain the ways in which some materials are suited to specific purposes. They classify changes in materials as reversible. They use simple scientific ideas with evidence they have collected to give explanations of their observations, linking cause and effect, for example the evaporation of water. Pupils use knowledge and understanding of organisms, their behaviour and the environment, such as the basic life processes of growth and reproduction, to describe similarities, differences and changes in the plants, animals, and non-living things they observe. They use simple scientific ideas with evidence they have collected to give explanations of their observations, linking cause and effect, for example lack of light or water affecting plant growth and the ways in which animals or plants are suited to their environments. 4 range of organisms to compare, evaluate and make predictions. They are able to evaluate different scientific theories and draw their own conclusions. Pupils can describe some processes and phenomena related to energy, forces and space, drawing on scientific knowledge and understanding and using appropriate terminology. They recognise that evidence can support or refute scientific ideas, such as sounds being heard through a variety of materials. They recognise some applications and implications of science, such as the use of electrical components to make electrical devices. Pupils describe some processes and properties and the Earth, drawing on scientific knowledge and understanding and using appropriate terminology. They recognise that evidence can support or refute scientific ideas, such as the classification of reactions as reversible and irreversible. Pupils describe some processes and phenomena environment, drawing on scientific knowledge and understanding and using appropriate terminology. They recognise that evidence can support or refute scientific ideas, such as in the identification and grouping of living things. 5 Pupils can apply their range of organisms to compare, evaluate, model and make predictions. They are able to evaluate different scientific theories and draw their own conclusions. Pupils can describe processes and phenomena related to energy, forces and space, drawing on abstract ideas and using appropriate terminology. They explain processes and phenomena, in more than one step or using a model. They apply and use knowledge and understanding in familiar contexts. Pupils can recognise that both evidence and creative thinking contribute to the development of scientific ideas. They describe applications and implications of science, such as the ways sound can be produced and controlled. Pupils can describe processes and properties and the Earth, drawing on abstract ideas and using appropriate terminology. They explain processes and phenomena, in more than one step or using a model. They apply and use knowledge and understanding in familiar contexts, such as identifying changes of state. They recognise that both evidence and creative thinking contribute to the development of scientific ideas. They describe applications and implications of science. Pupils can describe processes and phenomena environment, drawing on abstract ideas and using appropriate terminology. They explain processes and phenomena, in more than one step or using a model, such as the main stages of the life cycles of humans and flowering plants. They apply and use knowledge and understanding in familiar contexts, such as different organisms being found in different habitats because of differences in environmental factors. They recognise that both evidence and creative thinking contribute to the development of scientific ideas, such as the classification of living things.

6 Pupils describe processes and phenomena related to energy, forces and space, using abstract ideas and appropriate terminology. They take account of a number of factors in their explanations of processes and phenomena. They can also use abstract ideas or models. They apply and use knowledge and understanding in unfamiliar contexts. They describe some evidence for some accepted scientific ideas. They explain the importance of some applications and implications of science, such as the responsible use of unsustainable sources of energy. Pupils describe processes and properties and the Earth, using abstract ideas and appropriate terminology, for example the particle model applied to solids, liquids and gases. They take account of a number of factors or use abstract ideas or models in their explanations of processes and phenomena. They apply and use knowledge and understanding in unfamiliar contexts. They describe some evidence for some accepted scientific ideas. Pupils describe processes and phenomena environment, using abstract ideas and appropriate terminology. They take account of a number of factors or use abstract ideas or models in their explanations of processes and phenomena, such as environmental factors affecting the distribution of organisms in habitats. They apply and use knowledge and understanding in unfamiliar contexts, such as a food web in a habitat. They describe some evidence for some accepted scientific ideas, such as the causes of variation between living things. 7 Pupils describe a wide range of processes and phenomena related to energy, forces and space, using abstract ideas and appropriate terminology and sequencing a number of points. They make links between different areas of science in their explanations. They apply and use more abstract knowledge and understanding in a range of contexts. They explain how evidence supports some accepted scientific ideas and can explain, using abstract ideas where appropriate, the importance of some applications and implications of science. Pupils describe a wide range of processes and properties and the Earth. They make links between different areas of science in their explanations, such as between the nature and behaviour of materials and their particles. They apply and use more abstract knowledge and understanding, in a range of contexts, such as the particle model of matter, and symbols and formulae for elements and compounds. They explain how evidence supports some accepted scientific ideas, such as the reactivity series of metals. They explain, using abstract ideas where appropriate, the importance of some applications and implications of science in the production of energy and materials. Pupils describe a wide range of processes and phenomena related to organisms, their behaviour and the environment, using abstract ideas and appropriate terminology and sequencing a number of points, for example respiration and photosynthesis, or pyramids of biomass. They make links between different areas of science in their explanations. They apply and use more abstract knowledge and understanding, in a range of contexts, such as inherited and environmental variation. They explain how evidence supports some accepted scientific ideas, such as the structure and function of cells. They explain, using abstract ideas where appropriate, the importance of some applications and implications of science.

8 Pupils demonstrate extensive knowledge and understanding related to energy, forces and space, for example the passage of sound waves through a medium. They use and apply this effectively in their descriptions and explanations, identifying links between topics. They interpret, evaluate and synthesise data from a range of sources and in a range of contexts. They show they understand the relationship between evidence and scientific ideas, and why scientific ideas may need to be changed, such as the developing understanding of the structure of the solar system. They describe and explain the importance of a wide range of applications and implications of science, such as relating the dissipation of energy during energy transfer to the need to conserve limited energy resources. Pupils demonstrate extensive knowledge and understanding related to materials, their properties and the Earth. They use and apply this effectively in their descriptions and explanations, identifying links between topics. They represent common compounds by chemical formulae and use these formulae to form balanced symbol equations for reactions. They interpret, evaluate and synthesise data from a range of sources and in a range of contexts. They show they understand the relationship between evidence and scientific ideas, and why scientific ideas may need to be changed. They describe and explain the importance of a wide range of applications and implications of science. Pupils demonstrate extensive knowledge and understanding related to organisms, their behaviour and the environment. They use and apply this effectively in their descriptions and explanations, identifying links between topic. They interpret, evaluate and synthesise data from a range of sources and in a range of contexts, for example environmental data from fieldwork. They show they understand the relationship between evidence and scientific ideas, and why scientific ideas may need to be changed, for example the short-term and long-term effects of environmental change on ecosystems. They describe and explain the importance of a wide range of applications and implications of science.

9 Pupils can demonstrate both breadth and depth of knowledge and understanding of energy, forces and space. They apply this effectively in their descriptions and explanations, identifying links and patterns within and between topics. They interpret, evaluate and synthesise data from a range of sources in a range of contexts and apply their understanding to a wide range of data on energy efficient physical systems. They demonstrate an understanding of how scientific knowledge and understanding changes, building on processes such as questioning, investigating and evidence gathering, for example through the role of artificial satellites and probes in communications and space exploration. They describe and explain the importance of a wide range of applications and implications of science in familiar and unfamiliar contexts. Pupils can demonstrate both breadth and depth of knowledge and understanding of materials, their properties and the Earth. They apply this effectively in their descriptions and explanations, identifying links and patterns within and between topics. They interpret, evaluate and synthesise data from a range of sources in a range of contexts, and apply their understanding to a wide range of chemical systems. They demonstrate an understanding of how scientific knowledge and understanding changes, building on processes such as questioning, investigating and evidence-gathering. They describe and explain the importance of a wide range of applications and implications of science in familiar and unfamiliar contexts. Pupils can demonstrate both breadth and depth of knowledge and understanding of organisms, their behaviour and the environment. They apply this effectively in their descriptions and explanations, identifying links and patterns within and between topics. They interpret, evaluate and synthesise data, from a range of sources in a range of contexts, and apply their understanding to a wide range of biological systems. They demonstrate an understanding of how scientific knowledge and understanding changes, building on processes such as questioning, investigating and evidencegathering, for example in the study of global climate change. They describe and explain the importance of a wide range of applications and implications of science in familiar and unfamiliar contexts.