Advanced Amateur Radio (Canada) study plan
Advanced Amateur Radio (Canada) · Give each week a clear focus.
8 weeks · About 6 hours per week
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
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
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
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
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
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
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
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%