British Columbia Standards (IRPs)

BC has a well articulated curriculum ("Integrated Resource Packages") for all curricular areas, but I will link only to math and science here.  (Follow the links to other areas if you are interested.)  I learned to teach in BC at Yale Secondary in Abbotsford and was very fond of the degree of clarity that BC provides their teachers about what to teach.

BC grade 10 IRP Science 1

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• evaluate dangers in particular procedures and 

equipment, taking responsibility for safety 

• relate the limitations of techniques and 

instruments to the accuracy and reliability 

of an investigation 

• describe some important scientific discoveries 

that resulted from scientists applying their 

knowledge and creativity to explore 

unexpected events 

• devise appropriate methods of presenting 

information 

• analyse data and conclusions that may be 

subject to bias 

• describe the interactions between scientific 

developments and the beliefs and values 

of society 

• identify and consider ethical implications 

of scientific investigations 

• analyse costs and benefits of alternatives 

in resolving socioscientific issues 


 

BC grade 10 IRP Science 2

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• relate organelles to their function within 

the cell 

• distinguish between cells based on their 

different structures and functions 

• describe factors that limit cell size 

• compare the changes that occur during 

the stages of a cell’s development 

• describe the ways in which viruses and 

bacteria can affect cell functioning 

• assess the factors that can affect fetal 

development 

• compare and contrast asexual and sexual 

reproductionfunction and their interrelationships as the basis of 

living things. They compare and contrast asexual and 

sexual reproduction. Microscope work and other 

activities are used to increase students’ understanding. 

• Have students make three-dimensional models 

of plant or animal cells that include appropriate 

structures and organelles (e.g., nucleus, 

mitochondria, chloroplasts, cell wall, vacuole, 

cell membrane). 

• To understand the limits to cell size, have students 

calculate surface-to-volume ratios for different sizes 

of cubes. Cardboard boxes may be used as models. 

• Have students examine cells and cell life stages 


BC grade 10 IRP Science 3

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• relate the genetic code to the assembly 

of different proteins 

• apply the principles that govern the 

inheritance of traits to solve problems 

involving simple Mendelian genetics 

• summarize factors that may lead to different 

types of mutations 

• distinguish among positive, neutral, and 

negative effects of various mutations 

• analyse implications of current and emerging 

biomedical, genetic, and reproductive 

technologies current technologies is emphasized. Through models, 

field trips, and laboratory activities, students gain an 

understanding of basic genetic principles and their 

applications. 

• Ask students to research the positive, neutral, and 

negative effects of mutations. Examples include 

bacteria and antibiotics, insects and pesticides, 

plants and herbicides, and natural variation. 

• Use the phrase the dog saw the cat eat the rat to 

illustrate the triplet nature of the base-paired coding 

in the production of protein from amino acids. Each 

letter represents one base pair. Each word has three 


BC grade 10 IRP Science 4

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• research and illustrate the development of our 

understanding of the structure of matter from 

early times to the present 

• describe the arrangement of subatomic 

particles (electrons, protons, neutrons) in 

elements 

• distinguish among atoms, isotopes, and ions 

• explain how chemical and physical 

characteristics of substances are due to 

differences in the bonding of their constituent 

parts 

• demonstrate a knowledge of chemical 

formulae and balanced chemical equations 

• give evidence for and classify the following 

chemical reactions: synthesis, decomposition, 

replacement, and acid-baseHistorical perspectives and a review of concepts 

developed in earlier grades are used to initiate more 

detailed study of atomic theory, the periodic table, 

characteristics of chemical reactions, and chemical 

bonding. Proper representation (Bohr models) of atoms 

and ions is important for a greater understanding of 

chemical formulae. Students classify chemical reactions 

and describe them using balanced chemical equations. 

• Provide students with collections of elements and 

have them observe similarities in properties within 

families of elements. 

• Have each student complete a table that lists element 

name, symbol, atomic number, number of protons, 

number of electrons, mass number, and number of 

neutrons for the first 20 elements. Students can then 

use these tables to construct Bohr diagrams of those 

elements, which they draw in the correct position on 


BC grade 10 IRP Science 5

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• state the relationships between charged 

objects 

• demonstrate how electricity results from 

the movement of charged particles such as 

electrons and ions 

• describe the interactions between magnetism 

and electricity and relate these to common 

devices 

• use apparatus to determine the relationships 

between current, voltage, and resistance in 

different types of circuits 

• relate power and energy to common electrical 

devices 

• describe the distribution and safety 

considerations of electricity from its generated 

source to its use within the home 

• apply knowledge and data to make 

recommendations for reducing energy wasteSimple electrostatic experiments give students an 

understanding of the basic laws of electrostatics. These 

form a basis for learning about the principles of current 

electricity. Students construct simple electrical circuits 

and measure basic electrical quantities to understand 

the interrelationships. They observe and use magnetic 

and electrical interactions to learn about practical 

applications of electromagnetism. Safety and energy 

efficiency are included throughout these topics. 

• Use a Van de Graaff generator or charged balloons 

to demonstrate the effects of static charges. Through 

manipulation of charged objects, students explore 

attraction and repulsion of charges. Reinforce the 

idea that negative charges result from the gain of 

electrons and positive charges from the loss of 

electrons. 

• Have students connect a 50 cm piece of thick copper 

wire to one terminal of a galvanometer and ground 

the other terminal. A charged object is touched to the 


BC grade 10 IRP Science 6

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• summarize the characteristics of the major 

components of the electromagnetic spectrum 

• differentiate among the following major decay 

products: alpha and beta particles, gamma 

rays 

• compare and contrast fusion and fission 

reactions and their use in energy production 

• describe technological applications of 

radiation 

• evaluate the effects of radiation on living 

organisms The electromagnetic spectrum is reviewed with 

emphasis on X-rays and gamma rays. The sources, 

properties, and effects of radioactive decay products 

are described. Students research the uses of fission 

and fusion technology and the effects of radiation. 

• Have students research the properties and uses of 

major decay products and present their research in 

a variety of forms (e.g., oral reports, videos, comic 

strips). 

• Ask students to calculate their radiation dosage by 

examining their lifestyle over the past year, and to 

suggest lifestyle changes they can make to reduce 


BC grade 10 IRP Science 7

These are "prescribed learning outcomes" for BCs integrated science 10 course.


IIt is expected that students will: 

• compare a variety of techniques used to learn 

about the earth 

• use fossil evidence to illustrate how life forms 

change over time 

• compare techniques used for establishing 

geological time scales 

• identify major factors responsible for 

earthquakes, volcanic eruptions, mountain 

building, and formation of ocean ridges 

• identify evidence that supports the theory 

of plate tectonics 

• assess impacts of volcanoes and earthquakes 

on the environment 

develop our understanding of the earth. Emphasis is 

placed on plate tectonics, mountain building, fossil 

evidence, earthquakes, and volcanoes. 

• Provide students with a world map on which they 

can identify major volcanoes, earthquakes, mountain 

ranges, ocean ridges, and subduction zones. 

From the location of these, students can infer the 

boundaries of the major plates and mark them on the 

map. Ask students to indicate the direction of plate 

movement. This activity can be done throughout the 

organizer. 

• Have students make models of different kinds 

of plate boundaries. 


BC grade 10 IRP Science 8

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• evaluate dangers in particular procedures and 

equipment, taking responsibility for safety 

• relate the limitations of techniques and 

instruments to the accuracy and reliability 

of an investigation 

• describe some important scientific discoveries 

that resulted from scientists applying their 

knowledge and creativity to explore 

unexpected events 

• devise appropriate methods of presenting 

information 

• analyse data and conclusions that may be 

subject to bias 

• describe the interactions between scientific 

developments and the beliefs and values 

of society 

• identify and consider ethical implications 

of scientific investigations 

• analyse costs and benefits of alternatives 

in resolving socioscientific issues Applications of Science is the framework 

through which students learn about the 

three content organizers: Life Science, 

Physical Science, and Earth and Space 

Science. Students benefit from a program 

that addresses the Applications of Science 

learning outcomes in each content 

organizer and from the assessment of their 

progress throughout the course.


 

BC grade 10 IRP Science 9

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• evaluate dangers in particular procedures and 

equipment, taking responsibility for safety 

• relate the limitations of techniques and 

instruments to the accuracy and reliability 

of an investigation 

• describe some important scientific discoveries 

that resulted from scientists applying their 

knowledge and creativity to explore 

unexpected events 

• devise appropriate methods of presenting 

information 

• analyse data and conclusions that may be 

subject to bias 

• describe the interactions between scientific 

developments and the beliefs and values 

of society 

• identify and consider ethical implications 

of scientific investigations 

• analyse costs and benefits of alternatives 

in resolving socioscientific issues Applications of Science is the framework 

through which students learn about the 

three content organizers: Life Science, 

Physical Science, and Earth and Space 

Science. Students benefit from a program 

that addresses the Applications of Science 

learning outcomes in each content 

organizer and from the assessment of their 

progress throughout the course.


 

BC grade 10 IRP Science 10

These are "prescribed learning outcomes" for BCs integrated science 10 course.


It is expected that students will: 

• evaluate dangers in particular procedures and 

equipment, taking responsibility for safety 

• relate the limitations of techniques and 

instruments to the accuracy and reliability 

of an investigation 

• describe some important scientific discoveries 

that resulted from scientists applying their 

knowledge and creativity to explore 

unexpected events 

• devise appropriate methods of presenting 

information 

• analyse data and conclusions that may be 

subject to bias 

• describe the interactions between scientific 

developments and the beliefs and values 

of society 

• identify and consider ethical implications 

of scientific investigations 

• analyse costs and benefits of alternatives 

in resolving socioscientific issues Applications of Science is the framework 

through which students learn about the 

three content organizers: Life Science, 

Physical Science, and Earth and Space 

Science. Students benefit from a program 

that addresses the Applications of Science 

learning outcomes in each content 

organizer and from the assessment of their 

progress throughout the course.


 

Copyright 2008 Jay Reimer    (You can email me at jay.reimer@gmail.com)  The site map is here.