Complete Pearson Education Ltd QCF Applied Science specification revision resources. Tailored syllabus coverage with topic breakdowns, quizzes, and practice questions.
Specification Topics
- Analysing laboratory samples using Gas Chromatography-Mass Spectrometry _GCMS_
- Principles and Applications of Biology
- Understand how to develop your own resources and protect the interests of others in archaeological operations
- Practical Scientific Project
- Maintaining cell lines for laboratory activities using cryogenic storage
- Working in a Science-Based Organisation
- Apply preventative care procedures to items
- Understand how to transfer archaeological items
- Science in the World
- Maintaining health and safety in a laboratory environment
- Applications of Chemical Substances
- Contribute to non intrusive investigations in archaeological operations
- Analysing DNA/RNA samples using Polymerase Chain Reaction _PCR_ and Quantitative PCR _QPCR_
- Separating samples for laboratory activities using centrifugation
- Transfer items
- The Living Body
- Investigating Human Behaviour
- Implement routine interventive conservation procedures
- Analysing laboratory samples using Fourier-transform infrared _FT-IR_ spectroscopy
- Biology and Our Environment
- Using statistical process control _SPC_ for laboratory measurement processes
- Using Mathematical Tools in Science
- Managing budgets for laboratory projects
- Maintaining effective and efficient working relationships in the laboratory
- Chemical Analysis and Detection
- Applications of Physical Science
- Analysing laboratory samples using light microscopy
- Analysing laboratory samples using Chromatography
- Monitoring the Environment
- Identify and control the environment for the safe storage of items
- Principles and Applications of Chemistry
- Maintaining cell lines for laboratory activities using sub-culture
- Electronics in Action
- Exploring Our Universe
- Analysing laboratory samples using High Performance Liquid Chromatography _HPLC_
- Health Applications of Life Sciences
- Analysing laboratory samples using ultraviolet-visible spectrophotometer _UV-Vis_
- Using and communicating laboratory information to authorised personnel
- Growing Plants for Food
- Analysing laboratory samples using Gas Chromatography _GC_
- Culturing/fermenting cells for laboratory activities using controlled fed batch or continuous culture fermentation
- Principles and Applications of Physics
- Encouraging problem solving and innovation in a laboratory team
- Investigating a Crime Scene
- Provide information on the material remains of past communities to others
- Analysing DNA using gel electrophoresis
- Prepare the accommodation of items in archaeological operations
- Science and the World of Work
- Research and analyse information to achieve objectives in archaeological operations
- Biotechnology Procedures and Applications
- Analysing laboratory samples using Gas Chromatography-Thermal Conductivity _GCTC_
- Develop your own resources and protect the interests of others
- Chemistry and Our Earth
- Measuring, weighing and preparing compounds and solutions for laboratory use
- Energy and Our Universe
- Classify, compile and maintain data on the material remains of past communities
- Analysing laboratory samples using Circular Dichroism _CD_
- Providing leadership for a laboratory team
- Contribute to intrusive investigations in archaeological operations
- Science in Medicine
- Amplifying DNA samples using Polymerase Chain Reaction _PCR_
- Designing and Making Useful Devices in Science
- Contribute to health and safety when conducting archaeological operations
Top Exam Board Tips
- For the observation assessment, clearly narrate your actions to the assessor, explaining why you are performing each step, from instrument startup to shutdown, to demonstrate understanding.
- In your portfolio, include annotated chromatograms and spectra, with notes on how you confirmed peak identity and dealt with any anomalies.
- Practice running a known standard mixture and comparing your results to expected values; document the % recovery and relative standard deviation as evidence of method precision.
- Familiarise yourself with the instrument's software shortcuts and macros to work efficiently, but ensure you can also explain the underlying principles verbally.
- Pay close attention to command words: ‘describe’ requires factual recall, while ‘explain’ demands application of biological reasoning to a given scenario.
- Where appropriate, strengthen your answers by referencing specific vocational examples, such as the use of PCR in disease diagnosis or the role of enzymes in biofuel production.
- For analysis tasks, always state what the data shows before suggesting reasons, and explicitly link back to the biological principle being assessed.
- Practise converting between different measurement units and presenting results with correct significant figures, as these skills are frequently tested in practical-based questions.
- Structure your portfolio to map directly to the learning outcomes: include a dated self-assessment using CIfA or similar standards, feedback forms with reflective commentary, and a log of managerial tasks undertaken.
- When discussing feedback, don't just present it—analyse it: explain what you learned, how it challenged your assumptions, and the specific changes you made as a result.
Common Mistakes to Avoid
- Mistaking column bleed peaks for analyte peaks, particularly when analysing at high temperatures without blank subtraction.
- Incorrectly integrating peaks due to poor baseline placement or co-eluting compounds, leading to inaccurate quantification.
- Failing to perform routine maintenance such as replacing septa, liners, or trimming the column, which causes injection problems and ghost peaks.
- Misidentifying compounds by relying solely on library match score without considering retention time or expected fragmentation patterns.
- Not verifying instrument performance with a known standard before running samples, resulting in unreliable data.
- Confusing mitosis with meiosis, particularly the outcomes in terms of chromosome number and genetic variation.
- Misinterpreting graphical data by failing to distinguish between correlation and causation, or ignoring anomalies when drawing conclusions.
- Inaccurately applying the formula for dilutions, leading to errors in concentration calculations and subsequent analysis.
Key Terminology & Definitions
- 1a. Analyse laboratory samples using Gas Chromatography-Mass Spectrometry, 1b. Analyse laboratory samples using Gas Chromatography-Mass Spectrometry (continued), 2a. Know how to analyse laboratory samples using Gas Chromatography-Mass Spectrometry, 2b. Know how to analyse laboratory samples using Gas Chromatography-Mass Spectrometry (continued)
- 1. Demonstrate knowledge and understanding of scientific concepts and theories, terminology, definitions and scientific formulae used in Biology.2. Apply knowledge and understanding of scientific concepts and theories, procedures, processes and techniques in Biology.3. Analyse and interpret scientific information in Biology.
- Know how to make judgements about their own level of competence, Know how to gain feedback from colleagues to support personal development, Know the key competences needed by managers working in archaeological operations, Know how personal development can contribute to the success of the organisation
- be able to plan a practical scientific project, be able to use appropriate practical skills, be able to analyse and present results
- 1a. Maintain cell lines for laboratory activities using cryogenic storage, 1b. Maintain cell lines for laboratory activities using cryogenic storage (continued), 2a. Know how to maintain cell lines for laboratory activities using cryogenic storage, 2b. Know how to maintain cell lines for laboratory activities using cryogenic storage (continued)
- Role and responsibilities of junior technicians
- Health and safety compliance
- Effective communication in science
- ICT skills for data management
- Professional conduct and teamwork
- Standard operating procedures
- Be able to control the environment to preserve and protect items, Be able to monitor and modify the environment and the condition of an item, Know how to develop a framework for the protection of an item, Know how to apply methods for the protection of an item
- Know how to identify the handling requirements of an archaeological item, Know how to pack an archaeological item for transportation to a new location, Know how to monitor the transportation of items, Know how to monitor the installation of items within a new location
- understand some of the factors that can influence scientific progress, understand how science can be represented in the media, know how some scientific discoveries have been used in society, know some of the consequences associated with scientific discoveries/advances
- 1a. Maintain health and safety in a laboratory environment, 1b. Maintain health and safety in a laboratory environment (continued), 2a. Know how to maintain health and safety in a laboratory environment, 2b. Know how to maintain health and safety in a laboratory environment (continued)