Advanced Amateur Radio (Canada) study materials
Advanced Amateur Radio (Canada) study resources

Advanced Amateur Radio (Canada) study plan

Advanced Amateur Radio (Canada) · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Regulations and Operating Procedures & Radio Theory and Practice

  • Map every sub-topic in the official Advanced qualification syllabus to one of the four domains and build a personal checklist file that tracks confidence from 1 to 5 per sub-topic

  • Recite the Canadian frequency allocations and privilege boundaries that separate Basic, Advanced, and Advanced-with-morse operation, writing them from memory without notes

  • Explain the three-part structure of station identification (callsign, location, and the requirement to identify at the end of a contact and every 30 minutes during one) in your own words

  • Solve fifteen Ohm's-law and power-formula problems covering series, parallel, and series-parallel resistor networks, showing each step

Your checkpoint

A completed domain-mapping checklist with all sub-topics classified and a scored 15-question self-quiz on Ohm's law and station identification, with every wrong answer annotated

Week 2

Regulations and Operating Procedures & Radio Theory and Practice

  • State the licence classes, examination structure, and renewal rules for Canadian amateur operators, and distinguish what an Advanced certificate additionally authorises (higher power, repeater and satellite operation, remote control)

  • Calculate resonant frequency, reactance, and impedance for series and parallel RLC circuits at given component values

  • Apply the rules on third-party traffic, emergency communications, and interference resolution to five written scenarios

  • Convert between peak, peak-to-peak, RMS, and average values for sine and non-sine waveforms

Your checkpoint

A one-page reference sheet of licence privileges and a worked set of twenty RLC and waveform-conversion calculations checked against the answer key

Week 3

Radio Theory and Practice & Antennas and Transmission Lines

  • Derive the characteristic impedance and velocity factor of coaxial and ladder line from physical dimensions, and explain what happens at mismatches

  • Calculate VSWR, reflection coefficient, return loss, and forward versus reflected power for given load impedances

  • Describe how a half-wave dipole and a quarter-wave vertical behave, including feed-point impedance and radiation pattern shape

  • Explain the relationship between wavelength, frequency, and physical antenna length for a given band, including end and velocity-factor corrections

Your checkpoint

A transmission-line worksheet with ten VSWR and reflection-coefficient problems solved and a hand-drawn dipole and vertical pattern sketch labelled with feed-point impedance and take-off angle

Week 4

Antennas and Transmission Lines & Electronic Fundamentals and Equipment

  • Design and document a simple antenna tuner or balun matching arrangement for a specified load and feed line, stating component values and expected loss

  • Explain how a Smith chart represents impedance, admittance, and matching paths, and plot three example loads

  • Describe the operating principles and typical failure modes of common RF components: transformers, chokes, capacitors, and relays

  • Identify the safety hazards of RF exposure and high voltage in transmitting equipment and state the applicable exposure limits in general terms

Your checkpoint

A written antenna-system design note (load, feed line, matching method, expected VSWR across the band) plus a completed Smith-chart plot for three loads, reviewed against a model answer

Week 5

Electronic Fundamentals and Equipment & Radio Theory and Practice

  • Explain the operation of bipolar and field-effect transistors in amplifier, oscillator, and switching roles, and calculate bias points for a simple class-A stage

  • Compare class A, AB, B, and C amplifier efficiency and distortion trade-offs and select an appropriate class for a stated use

  • Describe the function and typical values of components in a power supply: rectifiers, filter capacitors, regulators, and protection

  • Troubleshoot five described receiver or transmitter faults by reasoning from symptoms to likely stage

Your checkpoint

A bias-calculation and amplifier-class comparison table for four scenarios, plus written fault-diagnosis chains for all five troubleshooting cases

Week 6

Radio Theory and Practice & Electronic Fundamentals and Equipment

  • Explain the principles of modulation and demodulation for AM, SSB, FM, and digital modes, and state the bandwidth each occupies

  • Calculate frequency stability, mixer products, and image frequencies for a described superheterodyne receiver

  • Describe the role of filters, oscillators, and frequency synthesizers in modern transceivers

  • Interpret a block diagram of a transceiver and trace a signal from microphone to antenna and back

Your checkpoint

An annotated transceiver block diagram with every stage labelled by function and a set of ten mixer, image, and bandwidth calculations solved

Week 7

Regulations and Operating Procedures & Antennas and Transmission Lines

  • Apply the regulations on antenna height, structure, and installation to three site scenarios, including shared-antenna and landlord situations

  • Explain the rules governing remote-controlled and automatically controlled stations and what the control operator is responsible for

  • Calculate feed-line loss for given cable types and lengths and select a cable for a stated loss budget

  • Describe grounding and lightning-protection practice for an amateur station and justify each measure

Your checkpoint

A station-planning document for a described home installation covering antenna placement, feed line, grounding, and regulatory compliance, with loss calculations shown

Week 8

Regulations and Operating Procedures & Radio Theory and Practice & Antennas and Transmission Lines & Electronic Fundamentals and Equipment

  • Take three full-length timed practice examinations under exam conditions and score each by domain

  • Re-study only the sub-topics scoring below 3 on the week-1 checklist, targeting the weakest two domains

  • Recite from memory the key formulas for impedance, resonance, VSWR, power, and wavelength, and verify each against a worked example

  • Rehearse the regulatory rules most often confused: identification timing, third-party traffic, power limits, and control-operator duties

Your checkpoint

Three scored practice exams with a per-domain error log, plus a final one-page formula and rules sheet written entirely from memory and checked for accuracy

Milestones

Week 2: Score at least 70% on a self-made 25-question quiz covering regulations and basic circuit theory, and explain every missed item aloud without notes

Week 4: Complete the transmission-line and antenna worksheet with at least 80% accuracy and correctly plot three loads on a Smith chart

Week 6: Explain a full transceiver signal path from memory and score at least 75% on a 30-question mixed-domain practice set

Week 8: Achieve at least 80% overall on each of the last two timed practice exams, with no single domain below 70%