Questions: Common Chord Progression Patterns by Ear
5 questions to test your understanding
Score: 0 / 5
Question 1 Multiple Choice
A pop song loops the I-vi-IV-V progression indefinitely without any clear harmonic arrival point. How does this differ from a I-IV-V-I progression structurally?
AI-vi-IV-V sounds sadder because it includes the minor vi chord
BI-vi-IV-V lacks a dominant chord and therefore has no harmonic tension
CI-vi-IV-V is circular and non-cadential — the progression never fully resolves, creating a looping feeling; I-IV-V-I has a clear beginning, middle, and end with a definitive return home
DI-IV-V-I is used only in classical music and cannot loop effectively in pop
The structural difference is about cadential closure. I-IV-V-I ends by moving from the dominant (V) back to the tonic (I), creating a sense of completion — a full cadence. I-vi-IV-V never lands definitively on I before cycling again; V leads back to I only to continue the loop. The vi chord acts as a tonic substitute, giving the illusion of departing from home without fully leaving. This is why so many pop songs use I-vi-IV-V to sustain energy indefinitely, while I-IV-V-I feels conclusive.
Question 2 Multiple Choice
Which best describes how an experienced listener recognizes chord progressions by ear?
AThey identify each chord's quality in isolation, then assemble the Roman numerals sequentially
BThey match the harmonic rhythm (rate of chord changes) to known templates
CThey track the functional relationships between successive chords — departure, tension, resolution — using internalized schemas to predict what comes next and confirm or note deviations
DThey hear each bass note and calculate the Roman numeral from the key
Harmonic ear training is schema-based: you internalize characteristic harmonic gestures through repeated exposure, then use those schemas to predict the next chord in real time. Recognition happens when the expected harmony arrives (confirmation) or when it diverges from expectation (substitution). This is fundamentally different from chord-quality recognition (option A), which identifies isolated chords rather than their functional relationships to surrounding harmonies.
Question 3 True / False
Recognizing chord progressions by ear involves predicting what comes next and noting when expectations are confirmed or violated.
TTrue
FFalse
Answer: True
This is the core mechanism of schema-based harmonic recognition. Listeners who have internalized common progressions (I-IV-V-I, I-vi-IV-V, 12-bar blues) develop strong expectations about what harmony follows another. Recognition is not passive identification but active prediction — when V arrives and resolves to I, the confirmation of the expectation is itself the recognition event. When a chord substitution occurs (e.g., ♭VI instead of V), the violation of expectation is equally informative.
Question 4 True / False
Recognizing chord progressions by ear works the same way as recognizing intervals — both involve identifying relationships between two consecutive pitches.
TTrue
FFalse
Answer: False
Interval recognition compares two individual pitches and identifies the distance between them. Chord progression recognition is fundamentally different: you are tracking harmonic function across a sequence of chords, not comparing individual pitches. A chord's identity is not just its quality but its function within the key — whether it sounds like departure (IV), tension (V), or return (I). The functional relationships between chords are what you hear, and those relationships unfold over time in a way that single interval comparisons do not.
Question 5 Short Answer
Why does the sense of 'departure' at IV and 'pull' at V matter for recognizing progressions by ear, rather than just identifying each chord's quality in isolation?
Think about your answer, then reveal below.
Model answer: The functional identity of a chord is relational — a chord's meaning depends on where it comes from and where it's going. The IV chord feels like 'departure from home' because it follows I and moves away from tonic stability. The V chord feels like 'tension demanding resolution' because its dominant function points back toward I. Recognizing these functional gestures lets you predict the progression in real time and detect substitutions. Identifying chord quality alone gives you a label but not the harmonic logic that makes progressions recognizable.
This is why ear training for progressions requires understanding functional harmony, not just chord spelling. When you hear the characteristic 'pull' of a dominant chord, you know V has arrived before you consciously analyze the pitches. Schema-based recognition works at the level of function, not just sound quality — the I-IV-V-I schema is a felt pattern of departure and return, not just a sequence of major and minor chords.