Hero image

HB science resources

Average Rating3.38
(based on 30 reviews)

A Science teacher since 2016 creating and sharing resources he uses with his own classes.

566Uploads

92k+Views

49k+Downloads

A Science teacher since 2016 creating and sharing resources he uses with his own classes.
Efficient transport and Exchange
hbscienceresourceshbscienceresources

Efficient transport and Exchange

(0)
By the end of the lesson learners should be able to: Identify substances excreted and absorbed by the body. Describe how the capillaries are effective for exchanging substances. Describe how to calculate surface area and volume. Explain how organisms compensate for a small surface area: Volume ratio.
Type 2 diabetes, BMI and waist:hip ratio.
hbscienceresourceshbscienceresources

Type 2 diabetes, BMI and waist:hip ratio.

(0)
By the end of the lesson learners should be able to: Identify the factor that increases risk of developing type 2 diabetes. Describe how a person can be tested to be at risk of developing type 2 diabetes. Explain the importance of controlling and reversing diabetes type 2.
Growth in plants
hbscienceresourceshbscienceresources

Growth in plants

(0)
By the end of the lesson learners should be able to: Identify the zones of development in a plant. Identify the key parts of plant growth. Describe the roles of the zones of: Division: Elongation: Differentiation: Explain why meristems are important to a plant. Suitable for KS4
Growth in animals and percentile charts
hbscienceresourceshbscienceresources

Growth in animals and percentile charts

(0)
By the end of this lesson learners should be able to: Identify the characteristics of growth. Describe the role of differentiation Describe how to read a percentile graph. Explain the uses of a percentile graph. Suitable for KS4.
DNA Structure
hbscienceresourceshbscienceresources

DNA Structure

(0)
By the end of the lesson learners should be able to: Identify the location and structure of DNA. Describe how the bases in a molecule of DNA are bonded together. Explain the importance of this genetic code.
Competition and adaptation.
hbscienceresourceshbscienceresources

Competition and adaptation.

(0)
A lesson covering competition and adaptation. After delivering this lesson learners should be able to: Identify what animals compete for, Identify different adaptations of different animals / plants, Describe how these adaptations are advantageous, Explain the link between the animal population and which animal outcompetes the other. Explain the necessity of adaptations and how they mould different species.
Meiosis
hbscienceresourceshbscienceresources

Meiosis

(0)
By the end of this lesson learners should be able to: Identify the key stages of meiosis. Describe the process of fertilisation. Explain the importance of meiosis.
Find the letter game biology
hbscienceresourceshbscienceresources

Find the letter game biology

(0)
A settler activity where students need to read and cross out incorrect statements in order to find the hidden letter. Includes 3 biology topics: Cells, Genetics Health and disease. Food chains, Food tests, Specialised cells.
Science snap game including 46 keywords.
hbscienceresourceshbscienceresources

Science snap game including 46 keywords.

(0)
A simple and fun competitive snap game using scientific terminology matched with pictures. PPT can be presented to the entire class for a whole class session, or can be printed and cut for team games - there will always be a snap between 2 cards but the students need to find and identify the correct scientific key word. The students who calls out the key word first wins the round. Key words included are: Units, DNA, Bunsen burner, Tripod, Beaker, Gauze, Heat mat, Measuring cylinder, Safety glasses, Repeatability, Dissolving, Melt, Solidify, Evaporate, forceps, solid, Liquid, gas, reaction, reproductive system, microscope, pH, Periodic table, pipette, carbohydrate, fat, protein, test tube, lab coat, kinetic energy, sound energy, gravitational potential energy, atom, thermometer, cell, digestive, system, Electrical energy, circulatory system, electron, respiratory system, nervous system, litmus paper, skeleton, photosynthesis, light energy. Excellent as a settling activity or starter / interim activity.
Variation
hbscienceresourceshbscienceresources

Variation

(0)
By the end of the lesson learners should be able to: Identify variation between organisms. Compare continuous and discontinuous variation. Explain the link between continuous variation and environmental factors. Explain the link between discontinuous variation and genetic factors.
Gene mutations.
hbscienceresourceshbscienceresources

Gene mutations.

(0)
By the end of the lesson learners should be able to: Create a drawing of DNA labelling: sugar, phosphate and base. Pair correct bases together Describe how DNA bases are read in the body Explain what’s meant by mutation and the effects of this.
Light intensity and photosynthesis
hbscienceresourceshbscienceresources

Light intensity and photosynthesis

(0)
By the end of the lesson learners should be able to: Identify variables that will affect the rate of photosynthesis. Describe how light intensity can affect the rate of photosynthesis. Explain the inverse square law for intensity.
Inheritance
hbscienceresourceshbscienceresources

Inheritance

(0)
By the end of the lesson learners should be able to: Identify the sex chromosomes of a human Recall the effects of genotype on phenotype. Describe how to complete a Punnett square Explain the genotypes of individuals in family trees.
Alleles and inheritance
hbscienceresourceshbscienceresources

Alleles and inheritance

(0)
By the end of the lesson learners should be able to: Identify genes and alleles. Compare heterozygous and homozygous. Explain how the genotype is linked to the phenotype.
Extracting DNA
hbscienceresourceshbscienceresources

Extracting DNA

(0)
By the end of the lesson learners should be able to: Identify the key ingredients used during DNA extraction. Describe the uses of: Salt, Detergent, Protease, Ethanol, Explain why scientists need to extract DNA.
Viruses HIV and ELISA tests A level biology
hbscienceresourceshbscienceresources

Viruses HIV and ELISA tests A level biology

(0)
This is a lesson I used myself to teach the HIV virus, AIDS and ELISA test concept of unit 2 cells - a level biology, AQA specification. Learning objective: Evaluate the process of viral replication and justify why the diagnosis of being HIV positive does not always result in death. By the end of the lesson learners should be able to: Success criteria: SC1: Identify the structure of HIV. SC2: Describe retroviral replication and explain the need for reverse transcriptase. SC3: Justify how AIDs causes death in an individual without being directly responsible. 2nd lesson Learning objective: To evaluate the steps involved in an ELISA test. SC3: Explain why an ELISA test can be used to test for the presence of HIV. Contains past paper questions that target this topic, some questions require knowledge from prior lessons. Powerpoint contains 16 slides and 9 past paper questions. A lesson plan is also attached outlining how I would teach the lesson for the viruses part.
Biological Molecules ATP Adenosine Triphosphate
hbscienceresourceshbscienceresources

Biological Molecules ATP Adenosine Triphosphate

(0)
A comprehensive lesson which teaches students about the role of ATP in the body. This lesson was designed to fit needs of the AQA a-level biology course Tasks are differentiated to suit the needs of each learner. Learning objective: To investigate the mechanism of ATP as a mode of energy delivery. By the end of the lesson learners should be able to: Success criteria: SC1: I can describe the structure of ATP. SC2: I can explain the use of ATP as an energy source. SC3: I can justify the need for ATP in the body. Powerpoint contains 16 slides. Contains past paper questions that target this topic, some questions require knowledge from prior lessons.
Inhibitors and enzymes Biological Molecules.
hbscienceresourceshbscienceresources

Inhibitors and enzymes Biological Molecules.

(0)
A comprehensive lesson which teaches students about the induced fit model for enzymes and how temperature, pH, substrate concentration and enzyme concentration affect the activity. This lesson was designed to fit needs of the AQA a-level biology course Tasks are differentiated to suit the needs of each learner. Learning objective: To evaluate how temperature, pH and inhibitors affect the activity of the induced fit model of enzymes. By the end of the lesson learners should be able to: Success criteria: SC1: To describe the induced fit model for enzymes. SC2: To explain why temperature and pH affect enzyme action. SC3: To compare the effect of competitive and non-competitive inhibitors on enzyme action. Powerpoint contains 15 slides. Contains past paper questions that target this topic, some questions require knowledge from prior lessons.
Cells arise from cell division A level biology
hbscienceresourceshbscienceresources

Cells arise from cell division A level biology

(0)
This is a lesson I used myself to teach the cells arise from other cells concept of unit 2 cells - a level biology, AQA specification. Learning objective: Evaluate the process of cell division, chromosomal behaviour during mitosis and fission in prokaryotes. By the end of the lesson learners should be able to: Success criteria: SC1: Describe the sections of the cell cycle. SC2: Explain chromosomal behaviour during mitosis. SC3: Compare binary fission to eukaryotic cell division. Contains past paper questions that target this topic, some questions require knowledge from prior lessons. Powerpoint contains 14 slides and 6 past paper questions.
Studying Cells A level biology
hbscienceresourceshbscienceresources

Studying Cells A level biology

(0)
This is a lesson I used myself to teach the studying cells concept of unit 2 cells - a level biology, AQA specification. Learning objective: Compare microscopes, calculate magnification, calibrate eyepiece graticules and evaluate cell fractionation. By the end of the lesson learners should be able to: Success criteria: SC1: I can calculate magnification and compare this to resolution. SC2: I can compare transmission, scanning electron microscopes and optical microscopes. SC3: I can explain the process of ultracentrifugation and cell fractionation. Contains past paper questions that target this topic, some questions require knowledge from prior lessons. Powerpoint contains 14 slides and 7 past paper questions.