GCE A/L Science for Technology study plan
GCE A/L Science for Technology · Give each week a clear focus.
8 weeks · About 6 hours per week
Electricity, magnetism and electronics & Mechanics and properties of matter
Define and state SI units for charge, current, potential difference, resistance and power, and convert between prefixes from pico to giga without reference notes
Apply Ohm's law and series/parallel resistor combinations to solve at least 15 numerical problems, showing the full working for each
Draw and interpret circuit diagrams containing cells, resistors, ammeters and voltmeters, and state where each meter is connected and why
Derive and use the equations for uniformly accelerated motion and resolve a force into perpendicular components in five applied contexts
Your checkpoint
A handwritten formula sheet plus 20 worked numerical solutions covering circuits and kinematics, self-marked with errors annotated
Electricity, magnetism and electronics & Atomic structure, bonding and chemical reactions
Explain the behaviour of p-n junction diodes and transistors in simple switching and rectifier circuits, and sketch the output waveform for a half-wave rectifier
Apply logic gate truth tables to build and simplify two-input combinational expressions
Describe the structure of the atom in terms of protons, neutrons and electron configuration, and write configurations for the first 20 elements
Distinguish ionic, covalent and metallic bonding and predict the type of bonding from a given pair of elements
Your checkpoint
One-page summary per topic: rectifier waveforms, a solved logic-gate simplification, electron configurations table and a bonding classification table
Atomic structure, bonding and chemical reactions & Mechanics and properties of matter
Balance at least 15 chemical equations including redox reactions, and identify the oxidising and reducing agent in each
Calculate moles, molar mass, concentration and reacting masses from balanced equations in 10 stoichiometry problems
State and apply the gas laws and the ideal gas equation to numerical problems
Define density, pressure, stress, strain and Young's modulus and calculate each from given data
Your checkpoint
A worked problem set of 15 stoichiometry and 10 mechanics-of-matter calculations with units checked on every answer
Cell biology, genetics and microbiology & Organic chemistry and polymer materials
Label a hand-drawn diagram of a plant and an animal cell with at least 10 organelles and state one function for each
Describe the stages of mitosis and meiosis and state the chromosome number at each stage for a named organism
Explain the structure of DNA and carry out a monohybrid and a dihybrid cross, giving phenotype ratios
Classify the main classes of polymers as addition or condensation and name two industrial uses of each
Your checkpoint
A timed 45-minute mock section on cells, genetics and polymers, scored and reviewed against notes
Cell biology, genetics and microbiology & Applied biology, agriculture and biotechnology & Thermal physics and energy transfer
Describe the growth curve of a bacterial culture and the conditions needed for microbial growth, and outline one industrial fermentation process
Explain the role of microorganisms in nitrogen fixation, decomposition and disease, giving one named example of each
Apply the principles of crop and livestock improvement, including selection and hybridisation, to a described agricultural scenario
State and apply the laws of thermodynamics to heat transfer by conduction, convection and radiation, and calculate heat energy using specific heat capacity
Your checkpoint
A 400-word written answer on an applied biology scenario plus 10 solved thermal physics calculations
Thermal physics and energy transfer & Waves, optics and sound
Calculate heat transfer by conduction through a composite layer and by radiation using the Stefan-Boltzmann relationship
Explain latent heat and solve change-of-state problems involving mixtures
Apply the laws of reflection and refraction, calculate refractive index and critical angle, and trace ray diagrams for a converging lens
Describe wave properties including wavelength, frequency, amplitude and superposition, and solve problems using v = fλ
Your checkpoint
A ray-diagram portfolio of six lens and mirror cases plus 12 solved problems on heat and waves
Waves, optics and sound & Technology, instrumentation and engineering applications & Measurement, units and the scientific method
Explain resonance, beats and the Doppler effect qualitatively and calculate beat frequency and observed frequency in two cases
Describe the use of at least four instruments (multimeter, oscilloscope, vernier caliper, micrometer) and state the reading resolution of each
Estimate and combine uncertainties in a measurement, and express an answer to the correct number of significant figures
Explain the stages of a design process from specification to evaluation using one engineering example
Your checkpoint
A practical-skills report describing four instruments, with uncertainty calculations and a worked design-process case study
Measurement, units and the scientific method & Mechanics and properties of matter & Thermal physics and energy transfer & Waves, optics and sound & Electricity, magnetism and electronics & Atomic structure, bonding and chemical reactions & Organic chemistry and polymer materials & Cell biology, genetics and microbiology & Applied biology, agriculture and biotechnology & Technology, instrumentation and engineering applications
Complete two full timed papers under exam conditions and mark them against the specification
Identify the three weakest domains from mock results and rework at least 20 questions in those areas
Recite the key formulas and definitions for all ten domains from memory within 30 minutes
Write a one-page exam-day strategy covering time allocation, question order and unit checks
Your checkpoint
Two completed timed mock papers with a scored error log and a one-page revision and exam-day strategy sheet
Milestones
Week 2: Can solve a mixed circuit and kinematics problem set at 70% or better without notes, and correctly classify bonding for 10 given compounds
Week 4: Scores at least 60% on the timed mock section covering cells, genetics and polymers, with all genetic crosses correctly worked
Week 6: Correctly answers 8 of 10 ray-diagram and lens problems and 8 of 10 heat-transfer calculations, showing units throughout
Week 8: Achieves at least 65% on both full timed mock papers, with no domain scoring below 50%