This is a PowerPoint presentation that details about ultrasound and echolocation. The presentation introduces what ultrasound is and an explanation of what frequency is. There are clearly explained examples such as bat echolocation, SONAR and medical uses. There are learning checks within the PowerPoint, these being opportunities for students to write down information. The main purpose of this presentation is to explain the difficult topic of ultrasound in a clear and easy to understand manner. This is particularly aimed towards KS3 or SEN students. There is a final slide with the option for a research task based on the information in the slide, or access to ICT facilities.

A PowerPoint with worksheets that covers the concepts of redox chemistry. Half-equations are introduced, including combining of half-equations. Oxidation states (oxidation numbers) are covered, with reference as to how this can be used to identify oxidation and reduction processes. Construction of and balancing of complex half-equations is also covered, using the KOHES method. In total, five worksheets with solutions, and an 80 slide PowerPoint that will give students the fundamental rules and skills required for tackling more complex redox and electrochemistry topics.

A differentiated resource for producing a labelled diagram of the digestive system. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets.

A 93 slide PowerPoint presentation with worksheets that covers the following areas: SI Units SI Derived Units SI Prefixes SI Prefix Conversions Depending on class ability and how tasks are used, this should be 1-2 lessons, or 1.5-2 hours of teaching. Included are six different worksheets/activities. There is a comprehension task based on when unit measurements goes wrong. There is a worksheet to fill in for collating information based on SI units. There is an optional graphing task that allows students to determine absolute zero. There are two information hunt tasks, with associated information cards, based on SI Derived Units and SI Prefixes. There is also a task on conversion of SI Prefixes.

A differentiated resource for producing a labelled diagram of the eye. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets. The PowerPoint features an example for students to follow (for the cut and stick). It also has the diagram for you to project and annotate on a white board if necessary.

A differentiated resource for producing a labelled diagram of the kidney. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets. The PowerPoint features an example for students to follow (for the cut and stick). It also has the diagram for you to project and annotate on a white board if necessary.

A differentiated resource for producing a labelled diagram of the endocrine system. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets. The PowerPoint features an example for students to follow (for the cut and stick). It also has the system diagram for you to project and annotate on a white board if necessary.

A differentiated resource for producing a labelled diagram of a bacterium. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets. The PowerPoint features an example for students to follow (for the cut and stick). It also has the diagram for you to project and annotate on a white board if necessary.

A differentiated resource for producing a labelled diagram of a flowering plant. There are two main versions of this activity, but both of them require the information cards. These can be printed out and placed around the room. The first version is an all in one A4 sheet that has the diagram and labels that can be cut out and stuck on. This is better suited to lower ability students, they can find out where the parts are by looking at the information around the room. The second version requires the diagram with no labels. Students have to collect the information from around the room and write it on their diagram. I run this as a memory game, giving students two rules: they can only write on their diagram at their desk, and they cannot move the information sheets.

This PowerPoint introduces the concept of radiation. It starts off by recapping and explaining the structure of an atom, leading on to the gold foil experiment, sources of background radiation, and the three types of radiation. There are information cards for the three types of radiation, which students should use to annotate their diagrams.

An 80+ slide PowerPoint presentation about Galvanic cells. Features quick questions as you go along, full printable notes, and a summary worksheet. Areas covered include analysis of galvanic cells to determine the location of the anode and cathode, plus electrode polarity, electron flow direction. Information is given about salt bridges. Furthermore, explanations about conventional cell representations and calculating overall cell voltage are given. This is the ideal resource to cover galvanic cells. Prerequisite knowledge will include redox, see my other resource that covers this information here.

Tutor quiz boards that are presented in a PowerPoint format for easy projection or printing. Ideal as a quick 10 minute activity to engage students and get them thinking and discussing.

This resource features a 35 slide PowerPoint and two worksheets with answer sets for the naming of geometric isomers of alkenes. The PowerPoint gives a step-by-step approach to IUPAC nomenclature for geomtric isomers of alkenes with a worksheet consolidating these ideas. Our aim for teaching resources is to make them clear and logical. We follow an ethos of keeping PowerPoint designs simple, with small chunks of information, that ensures students are not overwhelmed with information.

This resource features a 40 slide PowerPoint and two worksheets with answer sets for the naming of alkenes and alkynes. The PowerPoint gives a step-by-step approach to IUPAC nomenclature for alkenes and alkynes with worksheets consolidating these ideas. Note, this resouce does not cover isomerism. Our aim for teaching resources is to make them clear and logical. We follow an ethos of keeping PowerPoint designs simple, with small chunks of information, that ensures students are not overwhelmed with information.

Two PowerPoint presentations (100 slides and 25 slides) that explain the following concepts: naming of straight chain alkanes naming of branched alkanes (naming rules for alkyl groups) naming of cyclic alkanes with and without branches explanation of structural isomerism (positional and chain) PowerPoints feature clear and logical steps and explanations, with embedded learning check point questions and discussion prompts. Naming rules follow the IUPAC system and should be applicable to most syllabi. Include are three different worksheets that give students the opportunity to practice the concepts covered. Each worksheet has a solution set, and also a PowerPoint version of the solution set, ideal for going through with a class. Our aim for teaching resources is to make them clear and logical. We follow an ethos of keeping PowerPoint designs simple, with small chunks of information, that ensures students are not overwhelmed with information.