Greece AM Theory study plan
Greece AM Theory · Give each week a clear focus.
8 weeks · About 6 hours per week
National and international radio regulations (ITU Radio Regulations, Greek amateur radio law, licence conditions, frequencies, power limits, call signs, operating procedures) & Electrical and electronic fundamentals (units, Ohm's law, AC/DC circuits, components, power)
Map the Greek amateur radio licence structure (class categories, examination requirements, issue and renewal of the licence) and write a one-page summary from official sources
List the IARU Region 1 band plan segments for the HF bands you are most likely to use, and mark which modes and bandwidths are permitted in each segment
State the permitted transmitter power limits and the conditions under which power may be reduced, in your own words
Solve 20 Ohm's law and DC power problems (E = IR, P = EI, series and parallel resistors) with correct SI prefixes and units
Explain the difference between PEP, average and carrier power and where each is used in licence conditions
Your checkpoint
A single reference sheet (two sides maximum) covering Greek licence classes, HF/VHF band edges, power limits and the Ohm's law/power formulas, checked against official documentation
National and international radio regulations (ITU Radio Regulations, Greek amateur radio law, licence conditions, frequencies, power limits, call signs, operating procedures) & Radio theory (waves, propagation, antennas, feed lines, resonance, modulation)
Decode the structure of an amateur call sign (Greek prefix, district digit, suffix) and explain what each part identifies
Describe the correct procedure for identifying your station at the start, during and end of a contact, and for third-party and emergency traffic
Explain the purpose of CEPT and reciprocal licensing and state what a Greek licensee needs to operate abroad
Define wavelength, frequency and the relationship lambda = c/f, and convert between HF/VHF frequencies and wavelengths without a calculator
Classify the ITU radio spectrum regions and identify which region Greece belongs to and why that matters for band edges
Your checkpoint
A written log of 15 solved frequency-to-wavelength conversions plus a 300-word summary of call sign structure and station identification rules
Radio theory (waves, propagation, antennas, feed lines, resonance, modulation) & Electrical and electronic fundamentals (units, Ohm's law, AC/DC circuits, components, power)
Describe ionospheric layers (D, E, F1, F2) and explain which layer supports which HF propagation path at day and night
Explain critical frequency, MUF, LUF and skip distance and how each affects band choice for a given path
Calculate the resonant frequency of LC circuits and the reactance of inductors and capacitors at a given frequency
Distinguish series and parallel resonance and explain the role of Q in selectivity and bandwidth
Compare half-wave dipole, quarter-wave vertical and Yagi antennas in terms of gain, take-off angle and radiation pattern
Your checkpoint
A one-page propagation and antenna comparison table plus 10 worked LC resonance and reactance calculations
Measurements and test equipment (multimeter, oscilloscope, SWR/power meters, frequency counters) & Radio transmitters and receivers (block diagrams, oscillators, mixers, amplifiers, filters)
Draw and label the block diagram of a superheterodyne receiver and a simple CW/SSB transmitter from memory
Explain the role of the mixer, local oscillator, IF filter and detector, and how image frequency arises
Describe how to measure DC voltage, current and resistance with a multimeter, including range selection and lead placement
Explain what an SWR meter and a directional power meter actually measure, and interpret readings of 1:1, 2:1 and 3:1
State the purpose and basic use of an oscilloscope (time base, vertical scale, triggering) and a frequency counter for transmitter checks
Your checkpoint
A hand-drawn, fully labelled superheterodyne receiver block diagram with a written explanation of each stage, plus a table of instrument-to-measurement pairings
Radio transmitters and receivers (block diagrams, oscillators, mixers, amplifiers, filters) & Measurements and test equipment (multimeter, oscilloscope, SWR/power meters, frequency counters)
Compare AM, FM, SSB and CW in terms of bandwidth, signal-to-noise performance and typical transmitter stages
Explain the function of oscillators, buffer amplifiers, drivers and PA stages, and why frequency stability matters
Describe how filters (LC, crystal, ceramic) shape receiver selectivity and where each is used
Carry out a practical SWR measurement on a dummy load and on an antenna, and record the readings
Interpret a frequency counter reading and explain how to avoid errors from harmonics and over-driving
Your checkpoint
A measurement report with recorded SWR, forward and reflected power, and frequency readings, plus a short explanation of any reading that differed from expectation
Interference, EMC and safety (causes of interference, suppression, RF exposure, electrical safety) & Electrical and electronic fundamentals (units, Ohm's law, AC/DC circuits, components, power)
Identify the common causes of TVI, RF feedback and interference to consumer equipment, and match each to a suppression method
Explain the role of common-mode chokes, ferrite beads, good earthing and shielded enclosures in reducing interference
State the RF exposure limits that apply to amateur stations and describe how distance, frequency and duty cycle change exposure
Explain the principles of electrical safety: protective earthing, RCDs, fusing and safe working around high voltages in valve or high-power equipment
Describe how to investigate and resolve a neighbour's interference complaint in a way consistent with licence conditions
Your checkpoint
An interference and safety checklist covering five interference scenarios with a suppression measure for each, plus a written RF exposure assessment for your own station
National and international radio regulations (ITU Radio Regulations, Greek amateur radio law, licence conditions, frequencies, power limits, call signs, operating procedures) & Radio theory (waves, propagation, antennas, feed lines, resonance, modulation)
State the classes of emission and the necessary bandwidth designators used in licence documents, and decode three example designators
Explain the rules on unattended operation, remote stations, beacons and repeaters as they apply to Greek licensees
Describe correct operating procedures for calling CQ, replying, and handling a pile-up on HF and VHF
Explain the ITU Radio Regulations provisions on interference, distress traffic and the priority of safety communications
List the prohibited practices (e.g. transmitting music, unidentified transmissions, deliberate interference) and the consequences of breaching licence conditions
Your checkpoint
A set of 40 written practice questions you author yourself on regulations and operating procedure, with model answers and the source rule cited for each
National and international radio regulations (ITU Radio Regulations, Greek amateur radio law, licence conditions, frequencies, power limits, call signs, operating procedures) & Interference, EMC and safety (causes of interference, suppression, RF exposure, electrical safety) & Radio transmitters and receivers (block diagrams, oscillators, mixers, amplifiers, filters)
Complete two full timed mock examinations under exam conditions and score them against the syllabus weighting
Review every incorrect answer and trace it back to the specific rule, formula or block diagram you need to relearn
Re-derive the ten formulas you are most likely to be asked to apply, from memory
Recite the band edges, power limits and call sign rules without reference material
Confirm exam-day logistics: venue, identification documents, permitted materials and calculator rules
Your checkpoint
Two completed mock exams with a written error log and a final one-page 'weak spots' sheet that you have re-tested yourself on
Milestones
Week 2: Score at least 80% on a self-made 25-question quiz on call signs, station identification and frequency/wavelength conversion, without notes
Week 4: Reproduce the superheterodyne receiver block diagram from memory with every stage correctly labelled, and explain the function of each stage aloud in under five minutes
Week 6: Produce a complete RF exposure assessment and interference checklist for your own station, and correctly answer 15 of 20 mixed questions on EMC and electrical safety
Week 8: Achieve at least 75% on both full timed mock exams, with no domain scoring below 60%, and have every error logged and re-tested