Students learn the connection between DNA, chromosomes and genes. There is an activity where students explain the connection. Mark scheme for self assessment included. Students learn the structure of DNA. Key terms are included on a slide which students link together to write an extended answer describing the structure of DNA. A mark scheme is included for students to self assess their answer. There is a co operative learning activity called Sage and Scribe and a slide with instructions on how to carry it out. All worksheets included.

The lesson begins with the reminder that genes give us our characteristics. Recall of cell, nucleus, genes and alleles using images. Explanation of alleles for a transmembrane protein and if these are faulty person has CF. Video clip link included to show students the severity of CF and impact it has on a sufferers life. Following slides recall the structure of the respiratory system and are animated to show ciliated cells and mucus accumulating. Students then complete a worksheet of recall questions. The following slides are used to teach the inheritance of CF with genetic diagrams including Punnett squares. Students then complete worksheets of diagrams and self assess their answers. All answers are included.

Students are asked to recall the number of chromosomes in images of different human cells. Answers are animated to appear. Lesson then shows a baby just after birth and the following slides show different stages of development and arrive at a slide of the gametes showing fertilization. The next slide is animated to zoom into the nucleus and 23 chromosomes appear. The next image shows the ovum and the 23 chromosomes animate in. This is used to focus on why the gametes are special and therefore have special adaptations. The following slides are used to teach the adaptation of the gametes. Students are provided with key terms to use to write the adapations of the gametes. A slide of answers for self assessment is included.

Students recall the parts of a microscope and link key terms together to describe how to use it to view a specimen. Students self assess their extended description using a mark scheme. Students learn how to prepare a slide to view cheek cells. Students calculate total magnification and focus on the names of the lenses to use and their magnifications. All answers are included.

Slides teach students step by step how to write units in standard form linking to cells. This lesson would be used after students have been taught and practiced IAM calculations. All answers are included. There is a co operative learning activity called ‘Sage and Scribe’ . Instruction slide is included plus all worksheets and answers for self

Students learn how to prepare a slide to view onion cells. Key terms are displayed and students write their own method and self assess. Answers included. Students use key terms to verbally recall how to use a microscope. Clear instructions with images are included to show how to prepare a slide and use a

Students learn about mitosis in context of how a single fertilised egg becomes a newborn baby. I created animated slides which teach students the stages of mitosis and the key events occurring at each stage. Students are give a diagram and key terms to use to describe each stage. They then self assess their answers. After years of improving my lesson on mitosis - this is the most effective lesson I have created. The animations make mitosis easy and the context in which the lesson is set allows students to understand the importance of the process in

Lesson introduces how children look like their biological parents. Slides recall cheek cells and focuses on the nucleus. Recall of chromosomes and genes and alleles. Mendel is introduced and to help students understand his experiments with pea plants, plant reproduction is re-visited. Students describe the steps in plant reproduction. The lesson focuses on the genes and alleles inside the pollen and ovule. Lesson 2 then looks at genetic crosses involving pea plants. Punnett squares are used in addition to other diagrams. Students complete worksheets of genetic crosses and all answers are included in the PowerPoint for self assessment.

The lesson has a recall starter of stages of mitosis. It then shows an images of a newborn going back to an early embryo and fertilised egg. Students are then given a diagram (which is also on the slide) and asked to identify cells undergoing mitosis, cells which are all the same and cells which can become any cell in the human body. Answers are provided. IVF is then taught to explain how scientists can obtain embryonic stem cells for research. Students are taught how the properties of embryonic stem cells make these cells special. Students complete a worksheet where they use key terms to describe the stages in IVF

This lesson starts with recall of cells needed to make a baby then revisits the number of chromosomes in these cells. We question ‘how’ do these cells get made with a haploid number of chromosomes. We teach meiosis with a focus on the number of chromosomes. I have created animated slides with step by step questions that are posed which we answer as we teach the lesson. Students complete a set of recall questions and self assess their answers. All answers are included. They then complete a table comparing mitosis and meiosis. Students also self assess their answers. All worksheets and answers included.

The lesson begins with recall of the function of haemoglobin and introduces sickle cell red blood cells and their effect on the delivery of oxygen to body cells. The link is made between a mutation in a gene created the sickle cell allele using clear images. The following slides teach the inheritance of sickle cell disease. Students then complete a co operative learning activity called Sage and Scribe - instructions included on a slide. All worksheets and answers included for self assessment. At the end, students introduce key terms and their meanings. There is an activity assessing students recall of these key terms

The lesson begins with a recall activity of the key terms used in genetics. Answers are included. Images of Polydactyl are shown. the lesson recalls cells, chromosomes, genes and alleles and then genetic diagrams are used to show inheritance of the condition. Students complete genetic crosses independently and self assess against answers displayed. Students complete a co operative learning activity called Sage and Scribe - instructions and sheets included. Students self assess their responses. The lesson then moves on to why it is a 50% chance of having a boy or a girl and uses genetic diagram to explain inheritance. Students then complete a worksheet and self assess their

This resources consists of 2 lessons worth of learning. It enables students to ‘see’ what is happening in enzyme reactions where substrate concentration is increased and then temperature is increased. Students will relate the graphs to what is happening at the enzyme level. There are lots of resources and activities in this pair of lessons. Enjoy!

Three invaluable resources. Double sided sheet of key biological terms from the course and their definitions which relate to the article. I have predicted questions and written a markscheme for each question. I have identified the sentence in the article and the paragraph this content relates to. A set of past exam questions and markschemes covering the topics which are covered in the article.

Three invaluable resources. Double sided sheet of key biological terms from the course and their definitions which relate to the article. I have predicted questions and written a markscheme for each question. I have identified the sentence in the article and the paragraph this content relates to. A set of past exam questions and markschemes covering the topics which are covered in the article.

Single sided sheet of key biological terms from the course and their definitions which relate to the article. I have predicted questions and written a markscheme for each question. I have identified the sentence in the article and the paragraph this content relates to. There are 9 pages of possible questions and detailed answers. There are 3 sets of exam questions and markschemes along with examiners comments relating to Classification and phylogeny, natural selection and Hardy Weinberg. Students can mark responses in the examiners comments paper and develop their exam technique by comparing their marking to the examiners.