Symbols In Music: Master Notation & Theory Guide

You’re probably here because you heard a sound in a track and couldn’t name it precisely.

Maybe it’s a clipped guitar scratch before the snare. Maybe it’s a soft harmony tucked behind the lead vocal. Maybe it’s that short brass hit that feels obvious when you hear it, but turns vague the moment you try to describe it to a collaborator, a notation app, or an audio tool.

That frustration isn’t about your ears. It’s about language.

Symbols in music give names to sounds, timing, shape, force, direction, and structure. They tell a performer what to play, but they also help producers, editors, arrangers, and remixers identify what they’re hearing. If you can recognize the symbol for a staccato note, a slur, a crescendo, or a repeat jump, you stop talking in blurry terms like “that thing in the middle” and start working with musical intent.

I’ve taught notation to conservatory students and used the same ideas in studios where nobody had sheet music on the stand. The lesson is the same in both places. When you understand the symbols, you hear more clearly, communicate faster, and make better decisions.

Why Musical Symbols Matter More Than Ever

A modern creator often works backward from sound.

You hear a recording and want only one layer: the high violin line, the muted guitar rhythm, the crowd noise, the breath before the chorus. The problem is that vague requests produce vague results. “Get the strings” isn’t the same as “get the sustained upper string line.” “Remove the percussion” isn’t the same as “remove the short accented snare attacks.”

That’s where musical symbols become practical. They’re not museum pieces from theory class. They’re compact instructions for real sound.

A dot over a note suggests shortness. A slur suggests connection. A dynamic mark suggests pressure and volume. A rest tells you that silence is intentional, not empty space. Once you know those meanings, you can hear recordings with better resolution.

Practical rule: If you can name a musical behavior, you can usually edit, perform, arrange, or isolate it more accurately.

This matters even if you never plan to sight-read a sonata. Producers use notation concepts when programming MIDI. Film composers use them when shaping cues. Editors use them when syncing cuts to hits and pauses. Musicians building stems for practice or remixing run into the same issue every day, especially in workflows like those described for musicians using AI audio separation.

The big shift is simple. Musical notation used to be viewed mainly as a performer’s skill. Today, it’s also a creator’s labeling system. It helps you identify what a sound is doing, why it feels the way it does, and how to ask for it with precision.

The Foundation The Staff and Clefs

You open a piano roll, a printed chart, or a vocal score while trying to isolate parts from a full mix. The notes are sitting in clear vertical positions, but without the staff and clef, those positions do not tell you which sounds belong to the high melody, the inner harmony, or the bass movement. For creators working with stems, MIDI, and AI separation tools, that missing layer matters.

The staff is the coordinate grid of written music. It gives pitch a fixed location, so a note is not just “high” or “low” in a vague sense. It has an address.

Around 650 A.D., early medieval Europe used neumes to show the contour of Gregorian chant, and around 1000 A.D. Guido d’Arezzo introduced the four-line staff, which later developed into the modern five-line staff. That change made pitch placement far more precise and helped establish the notation system still used across much of Western music study and production work.

What the staff actually does

The modern staff has five lines and four spaces. Notes sit on those lines and spaces to show pitch. Higher placement means higher pitch. Lower placement means lower pitch.

Beginners often pause here and ask a smart question. Higher than what?

The answer is the clef. A staff by itself is a set of lanes. The clef assigns pitch names to those lanes, which is what makes the page readable to a performer, arranger, or producer cleaning up MIDI after transcription.

Clefs set the reference point

A clef appears at the beginning of the staff and anchors the reading system. Once that symbol is in place, every line and space gains a specific meaning. Without it, the page shows relative motion but not exact pitch.

The three most common clefs are these:

• Treble clef marks a higher register. You see it in vocal melodies, violin parts, flute lines, and the right hand of piano music.
• Bass clef marks a lower register. It is common in bass guitar, cello, trombone, tuba, and left-hand piano parts.
• Alto clef centers the middle range and is most closely associated with viola.

A point that confuses many students is this: the clef does not change the sounding note on an instrument or recording. It changes the label attached to each position on the staff. One written line can mean one pitch in treble clef and a different pitch in bass clef. The staff stays the same. The reading key changes.

A map comparison helps here. The streets do not move when you switch from a road map to a subway map, but the symbols tell you how to interpret the same space. Clefs do that job for pitch.

Why producers should care

Clefs are not only for performers reading from a stand. They help you connect notation to register, which is useful in arranging, editing, and source separation.

If a transcribed part sits in treble clef, you are usually dealing with material in the upper range: lead vocal lines, synth hooks, guitar melodies, string tops. If a part sits in bass clef, you are more likely handling low-end information: bass notes, left-hand piano patterns, low brass, or cello foundation. That knowledge helps when you are checking whether an AI tool pulled the right layer, or when a MIDI transcription places notes in the wrong octave and the result sounds unnatural.

A short reference helps:

Clef	Typical range	Common use
Treble	Higher pitches	Melody, lead lines, upper keyboard
Bass	Lower pitches	Bass lines, low accompaniment
Alto	Middle register	Viola, midrange reading

The staff gives pitch a place. The clef tells you what place you are looking at. Once those two symbols are clear, the rest of notation becomes much easier to read, hear, and use in modern audio work.

Decoding Pitch Notes and Key Signatures

A producer loads a vocal stem into an AI separation tool, hears one note rub against the chords, and assumes the software made a mistake. Sometimes the software is fine. The underlying issue is pitch spelling. One written sharp, flat, or natural can explain why a note feels settled, tense, or plainly wrong.

Once you know how pitch symbols work, notation becomes more than a page for performers. It becomes a guide for editing, tuning, arranging, and checking whether an extracted melody matches the harmony around it.

Notes on the staff

Pitch in notation follows a simple cycle: A, B, C, D, E, F, G, then back to A again. That loop is the backbone of note reading. You are learning a repeating alphabet, not a giant catalog of unrelated symbols.

On the page, higher notes are written higher and lower notes are written lower. That visual layout is one reason notation remains useful even in a DAW-based workflow. It gives you a picture of contour. You can often spot whether a melody rises, falls, or stays centered before you play a single note.

Notes sometimes extend beyond the five staff lines. In that case, composers add ledger lines, short helper lines above or below the staff. They work like extra rungs on a ladder. The ladder is still the same system. It just reaches farther.

A note symbol also carries duration, but pitch is the first job many readers need to solve when they are transcribing a hook, correcting MIDI, or checking an automatic notation result from audio software.

Accidentals change the pitch

The letter names alone are not enough because music also uses pitches in between them. Accidentals handle those small adjustments.

Common accidentals include:

• Sharp raises a note by a half step
• Flat lowers a note by a half step
• Natural cancels an earlier sharp or flat
• Double sharp raises by two half steps
• Double flat lowers by two half steps

An accidental works like a precise edit note written directly into the score. The letter stays the same, but its exact pitch changes. If you record a melody and then correct one note with pitch editing software, you are doing by ear and by waveform what notation does with a symbol.

That matters in production. A sung F-sharp against a chord built around F-natural can create friction that sounds expressive or out of place, depending on the style. If an AI transcription labels that pitch incorrectly, the resulting MIDI may look close while sounding wrong in a very noticeable way.

Key signatures set the default pitch system

A key signature appears near the beginning of the staff and tells you which notes are normally sharpened or flattened throughout the piece. It is the score’s way of setting default behavior.

This saves the reader from seeing the same accidental repeated over and over. More important, it tells you how the music is organized. A key signature points to the pitch collection the piece uses most often, which helps explain why certain melodies feel stable while others create pull and release.

A practical studio example makes this clearer. If a song is in a key that regularly uses F-sharp, then every written F is assumed to be sharp unless a natural sign overrides it. That single rule affects melody, chords, countermelodies, and even tuning decisions when layering instruments. If your separated guitar stem keeps clashing with a keyboard part, the conflict may come from reading one pitch outside the key rather than from timing or tone.

Why creators working with audio should care

Key signatures are useful long before anyone prints a score.

They help you predict likely notes in a vocal line, identify wrong notes in generated MIDI, and judge whether an AI-separated part belongs to the harmonic center of the song. They also speed up arrangement work. If you know the key, you can test harmonies more intelligently instead of hunting through all twelve pitches.

Pitch symbols are the written version of melodic identity. Read them well, and you can hear problems faster, edit with more confidence, and translate between notation and audio tools with much less guesswork.

Mastering Rhythm Time Signatures and Note Values

You load a drum stem into your DAW, line it up to the grid, and something still feels wrong. The hits are clean. The tempo is close. But the groove keeps fighting the edit. In many cases, the problem is not pitch or tone. It is rhythm notation, the written system that explains how musical time is divided, grouped, and felt.

Note values are the measuring cups of musical time

Rhythm symbols work like a set of nested measuring cups. A whole note fills the largest space in a basic 4/4 measure. Half notes divide that space into two equal parts. Quarter notes divide it into four. Eighth and sixteenth notes keep splitting the beat into smaller, more precise units.

That hierarchy matters because performers do not read duration as isolated facts. They read relationships. A quarter note means something because of the beat around it. An eighth note means something because it moves faster than the quarter. Once you see those relationships, dense rhythmic notation stops looking like a code wall and starts looking like a grid.

That is also why piano-roll divisions in music software feel so familiar to trained readers. The DAW grid is doing on screen what note values do on paper.

• Whole note = fills the measure in 4/4
• Half note = two equal beats in 4/4
• Quarter note = one beat in 4/4
• Eighth note = half of a quarter-note beat
• Sixteenth note = half of an eighth note

Rests shape groove as much as notes

Silence is written with the same precision as sound.

Students often count notes carefully and treat rests as dead space. That habit causes messy entrances, weak backbeats, and vocal phrases that drag. A rest is a timed action. It tells the player or editor exactly how long not to sound, and that silence creates tension, clarity, and punch.

In production, rests affect perception more than many beginners expect. A clipped synth stab followed by a clean rest feels tighter than a sustained pad, even at the same tempo. In beat-making and mixing, that contrast often works together with music compression settings that shape attack and sustain.

Dots and ties extend sound in different ways

These two symbols confuse readers because both make notes last longer, but they do it for different musical reasons.

A dot adds half of the note’s original value. A dotted quarter note lasts for a quarter note plus an eighth note. The result has a built-in proportion, which is why dotted rhythms often produce a lilt or bounce.

A tie connects two notes of the same pitch so they sound as one continuous note. Composers use ties when a duration needs to cross a beat boundary or a barline, or when they want the notation to show the underlying pulse clearly. For a performer, that changes counting. For an editor working from notation or MIDI, it changes where accents should and should not happen.

For a quick demonstration of how note lengths are counted and felt, this video is useful:

Time signatures tell you where the beat lives

The time signature is the piece’s traffic pattern. It tells you how beats are grouped and which pulses usually carry the most weight.

In 4/4, four quarter-note beats fill the bar, and listeners often feel the strongest grounding on beat one. In 3/4, the bar still has a clear first beat, but the cycle turns in groups of three, which creates the rolling feel heard in waltzes and many ballads. In 2/2, also called cut time, the notation points to two broader beats instead of four smaller ones, so the music often feels more forward and less step-by-step.

Time signature	What it suggests	Common feel
4/4	Four quarter-note beats	Balanced, driving, common in pop
3/4	Three quarter-note beats	Circular, dance-like, waltz feel
2/2 or cut time	Two larger beats	Brisk, broad pulse

This matters far beyond the page. A drummer uses time signature to place accents. A singer uses it to phrase lyrics naturally. A producer uses it to set edit points, warp markers, and loop lengths that match the music instead of forcing the music to fit the software.

Why creators working with audio should care

Rhythm symbols give names to patterns you already hear in stems and mixes. Short repeated values can signal hi-hat motion, string ostinatos, or fast-picked guitar. Longer held values often point to pads, bass support, or sustained vocal lines. Those differences help both human editors and machine systems separate one layer from another.

That connection matters for AI sound separation. Models do not hear notation symbols on a page, but they do respond to the timing patterns those symbols represent. If you understand note values, ties, rests, and meter, you can make better decisions when cleaning a stem, checking a transcription, or spotting why an extracted part sounds chopped, rushed, or rhythmically misread.

Rhythm notation is written timing. Learn the symbols, and you hear structure inside the waveform, not just events on a grid.

Expressive Markings Dynamics and Articulation

Two players can perform the same notes and rhythm and still sound completely different.

That difference usually comes from dynamics and articulation. These symbols answer the most human question in notation: not just what to play, but how to shape it.

Dynamics control intensity

Dynamic markings tell performers how loud or soft to play. You’ll often see p for soft, f for loud, and combinations such as pp or ff for more extreme levels. You may also see m in markings such as mezzo, meaning moderate.

In practical listening, dynamics aren’t only about volume meters. They affect tone, tension, and emotional weight.

A soft piano phrase can sound intimate. The same phrase played loudly can sound urgent or aggressive. In recorded music, these differences also affect compression, saturation, and perceived depth.

Articulation controls texture

Articulation symbols tell you how a note begins, how long it lasts relative to its written value, and how it connects to nearby notes.

Some of the most important are these:

• Staccato means short and detached.
• Legato means smooth and connected.
• Slur groups notes into a connected phrase.
• Accent adds emphasis to the attack.
• Tenuto suggests full value, often with gentle stress.

Here’s the listening test I give students. Don’t look at the page first. Listen and ask: does the line bounce, glide, punch, or lean? Those behaviors often point directly to articulation symbols.

When an engineer says a part sounds “spiky,” they’re often hearing articulation before they’re hearing EQ.

What these markings sound like in a mix

A few practical examples make this easier:

• Staccato strings create separation. You hear distinct attacks with little sustain.
• Legato vocals flow from note to note with little edge between syllables or pitches.
• Accented brass cuts through because the front of the note carries extra force.
• Crescendo increases energy gradually, even before the arrangement gets denser.

For creators mixing modern tracks, these markings often overlap with processing decisions. A compressor reacts differently to accented notes than to legato phrases. If you want a clean explanation of that relationship, this guide on using a compressor for music is a useful companion to notation study.

Why expression symbols matter beyond performance

Notation students sometimes assume expression marks are optional decoration. They aren’t. They’re part of the sound design.

If a piano part is marked staccato and you sustain every note with pedal, you haven’t merely changed style. You’ve changed the musical identity. The same thing happens in production when MIDI notes are quantized and lengthened without regard for articulation.

A score without expressive markings is like dialogue without punctuation. The words remain, but the meaning gets flattened.

Navigating the Score Form and Repeat Symbols

A score doesn’t always move from left to right in a straight line. It often loops, jumps, skips, and lands in a different ending.

That’s why form symbols matter. They act like road signs inside the piece.

Basic repeats

The most familiar repeat sign is the pair of repeat barlines. You play the enclosed section, then go back and play it again.

If the score includes first and second endings, the route changes on the second pass. You play the first ending the first time through, return to the repeat, then skip that ending and continue into the second ending.

This system saves space and keeps the page readable. It also shows you something musically important: the form contains both sameness and variation.

Jump signs and navigation markers

Larger navigation symbols control bigger moves:

• D.C. means go back to the beginning.
• D.S. means go back to the sign called the Segno.
• Coda marks a separate ending section.
• Fine marks the end point when an instruction says to stop there.

A performer learns to read these almost like a conductor’s cue list. Miss one, and you can land in the wrong section instantly.

On paper, navigation symbols save ink. In rehearsal, they save everyone from arguing about where the chorus actually starts.

Why arrangers and remixers should care

These symbols map structure.

If you’re cutting a rehearsal track, building stems, or reworking a cue, repeat and jump symbols tell you where the music intentionally returns, where it avoids repetition, and where a final extension begins. That makes them useful even if your source is audio rather than paper.

A coda often functions like a tagged ending in modern songwriting. A repeat with alternate endings often resembles a repeated verse pattern with a changed turnaround. Form symbols don’t just help performers avoid getting lost. They help producers see the architecture of the piece.

Advanced and Instrument-Specific Symbols

You open a score hoping to isolate the violin line for a remix, and suddenly the page stops looking familiar. There is a tiny squiggle above one note, diamond noteheads in another measure, slashes on a stem, and a text instruction that seems to describe a texture more than a melody. At this level, symbols stop being simple labels. They become performance instructions, tone-shaping tools, and clues about what an audio system should listen for.

Ornaments and special gestures

Ornaments are shorthand for motion packed into a very small space.

A trill asks for rapid alternation between nearby pitches. A mordent gives a quick dip away from the main note and back. A turn wraps around the written pitch in a small looping pattern. A grace note adds a fast note before the main event, almost like a quick intake of breath before a phrase.

These signs matter because they change both meaning and sound. A written quarter note and a quarter note with a trill are not the same musical object. One is stable. The other vibrates with tension. In production terms, the symbol changes the note’s surface detail, much like adding modulation to a plain synth tone changes how the ear locks onto it.

That difference matters if you are editing, transcribing, or separating audio. A trill can blur pitch tracking. A grace note can be mistaken for a stray note or edit artifact. AI powered transcription services perform better when the user understands that these brief events are intentional musical gestures, not noise around the note.

Instrument-specific notation

Music notation also changes to match the physical behavior of each instrument.

A guitarist may read tablature with fret numbers that show where the hand goes, not just what pitch sounds. A percussionist may use a percussion clef and a staff where each line or space stands for a drum or cymbal. String players read bowing marks that shape attack and phrasing. Pianists see arpeggiation signs that tell them to roll a chord from bottom to top instead of striking everything together.

These are not small details. They affect the waveform.

Bow direction can change the front edge of a note. An arpeggiated chord spreads energy across time instead of concentrating it in one vertical hit. Harmonics reduce the fundamental and bring upper partials forward, which gives the sound its glassy quality. Palm mute, rimshot, flutter tonguing, pedal markings, and stickings all tell you something about envelope, brightness, sustain, or noise content.

For creators using stem separation software for complex mixes, this is practical information. If the score shows harmonics, you should expect a thinner fundamental and more overtone emphasis. If the drummer is marked to play brushes, the transient profile will be softer and noisier than sticks on a snare. The notation points to the acoustic fingerprint.

Graphic notation and modern sound

Some music goes beyond the standard staff because the sound itself goes beyond standard categories.

Graphic notation uses shapes, lines, spacing, text, and visual cues to describe events that traditional noteheads cannot capture cleanly. Composers such as John Cage, Karlheinz Stockhausen, and Krzysztof Penderecki used these approaches, as described in Britannica’s overview of 20th-century notation. Instead of specifying every pitch with old-style precision, the page may describe density, direction, register, texture, or freedom of timing.

That matters in modern production because many sounds behave more like textures than like discrete notes. A scrape, breath tone, cluster, whisper, air noise, or mass glissando often needs a visual instruction system that says how the sound should evolve, not just which pitch to hit.

Graphic notation works like a sound design map. Traditional notation often says, “play this exact object at this exact time.” Graphic notation often says, “create this kind of sonic behavior across this span.” For composers, performers, editors, and producers, that shift is useful. It connects the old discipline of reading symbols with the current reality of shaping layered, unstable, and hybrid sounds.

Using Notation Knowledge for Audio Separation

You open a session, run source separation, and get four stems that are close but not usable. The hi-hat bleed is still living inside the piano stem. The soft pickup note you need is missing. The AI heard "strings" but missed that the line was in fact a sustained viola pad with a swell. That is the moment notation knowledge stops being academic and starts saving time.

A score trains you to hear sound as a set of jobs. One symbol tells you about length. Another tells you about attack. Another tells you whether a note should connect, pop out, fade in, or sit in the background. AI separation tools respond better when your request reflects those jobs instead of broad labels.

Turn symbols into prompt language

Notation works like a production shorthand for behavior. If you can read the symbol, you can often describe the sound in a way a separation model can use.

A few practical translations:

• Staccato piano becomes “short detached piano notes”
• Legato violin line becomes “smooth sustained upper violin melody”
• Accent marks on brass becomes “sharp emphasized brass hits”
• Crescendo pad becomes “synth swell increasing in volume”
• Ghost note percussion becomes “soft barely pitched percussive taps between main beats”

Those descriptions are stronger because they narrow the target by attack, duration, register, and musical role. “Find the instrument” is broad. “Isolate the short muted offbeat guitar chucks” gives the model a much cleaner target.

Symbols help you describe what waveforms alone do not

Creators often hit a wall with sounds that sit between pitch and noise. Breaths, stick clicks, scrapes, ghost notes, release tails, crowd sounds, and room details can be hard to name if you only describe what instrument made them.

Notation teaches a better habit. You stop asking, “What is that sound called?” and start asking, “What is that sound doing?” Is it an upbeat cue, a grace-note gesture, a soft articulation before the main hit, or a sustained texture under the melody? That shift matters in separation work because many audio models sort material by pattern and function as much as by timbre.

A ghost note on snare is a good example. In performance, it is a low-level event that shapes groove without taking center stage. In editing, that tells you to listen for a quieter transient between stronger backbeats. In prompting, it tells you to ask for subtle percussive taps between main snare accents, not just “more drums.”

This skill carries into speech and mixed media

The same listening habit helps in podcasts, film dialogue, and documentary editing.

An experienced music reader tends to hear layers. One layer sustains. One interrupts. One marks time. One creates emphasis. That vocabulary pairs well with text-first tools such as AI powered transcription services, especially when you need labels, timestamps, and searchable moments before detailed cleanup. If a spoken line is covered by a chair squeak, breath burst, or page turn, notation-style listening gives you better language for tagging and removing the problem sound.

Better notation knowledge leads to cleaner separation decisions

Strong prompts are only part of the benefit. Notation also helps you judge whether the result is musically correct.

If the score suggests a tied note, you know the separated audio should feel continuous across the barline. If the part is marked marcato, you expect a firmer transient and stronger front edge. If the phrase is slurred, a chopped or overly gated stem is probably wrong, even if the software claims high confidence.

That is why creators comparing stem separation software built for detailed audio editing often get better results when they listen with notation in mind. The symbols sharpen your instructions, but they also sharpen your quality control.

Notation does not replace your ears. It trains them to notice the features that matter most when you are pulling complex audio apart and putting it back together with intention.

Quick Reference Symbol Chart

When you’re mid-project, you don’t always need a lecture. Sometimes you just need the symbol, the name, and the meaning.

If you want a second visual glossary to keep alongside this page, MakerSilo has a helpful music symbols reference for quick comparison.

Common Music Symbol Reference

Symbol (Image)	Name	Category	Definition
𝄞	Treble clef	Pitch	Sets the staff to a higher pitch range and anchors note reading in the upper register.
𝄢	Bass clef	Pitch	Sets the staff to a lower pitch range and anchors note reading in the lower register.
♩	Quarter note	Rhythm	A basic note value commonly counted as one beat in 4/4 time.
𝅗𝅥	Half note	Rhythm	A note lasting twice as long as a quarter note in common counting.
𝅝	Whole note	Rhythm	A long note value that fills the full measure in 4/4 time.
𝄽	Quarter rest	Rhythm	A symbol showing one beat of silence in common counting.
♯	Sharp	Pitch	Raises a written note by a half step.
♭	Flat	Pitch	Lowers a written note by a half step.
♮	Natural	Pitch	Cancels a previous sharp or flat and restores the natural pitch.
p	Piano	Dynamic	Indicates soft playing.
f	Forte	Dynamic	Indicates loud playing.
•	Staccato	Articulation	Tells the performer to play the note short and detached.
⌒	Slur	Articulation	Connects a phrase of notes smoothly.
>	Accent	Articulation	Gives a note extra emphasis at the start.
𝄇	Repeat sign	Form	Sends the performer back to repeat a marked section.
𝄌	Coda	Form	Marks a separate ending section reached by a navigation instruction.

A chart like this works best when you pair it with listening. See the symbol, then find an example in a score or recording. Recognition becomes much faster once the eye and ear connect.

Frequently Asked Questions About Music Symbols

Are musical symbols universal across all cultures and genres

No. Many core symbols in staff notation are widely used, but they aren’t universal in every tradition. Western staff notation is extremely influential, yet other systems exist, and some styles rely more on oral practice, chord charts, tablature, cipher notation, or customized symbols. Even within staff notation, contemporary composers sometimes add new symbols or text instructions.

What’s the best software for writing music notation

That depends on your job. If you need full score preparation, dedicated notation software is usually the right choice. If you mainly sequence in a DAW, piano roll plus light notation may be enough. The best choice is the one that lets you enter music clearly, edit quickly, and export parts without confusion.

Can AI read and interpret sheet music directly

Some AI tools can process sheet music images or symbolic files, but “read” can mean several different things. One tool may detect notes from a scanned page. Another may interpret MIDI. Another may respond better to descriptive language than to notation files. For creators, the practical question is less about whether AI reads paper and more about whether you can describe the musical event precisely enough for the tool you’re using.

Do I need to read music fluently to benefit from these symbols

No. You can get real value from partial literacy. If you understand clefs, note values, accidentals, articulations, and repeat signs, you already have a much better vocabulary for rehearsing, producing, editing, and separating audio.

What symbol should I learn first

Start with the staff, one clef, basic note values, rests, sharps, flats, naturals, and common dynamics. Those symbols appear constantly. Once those are comfortable, articulation and navigation symbols become much easier to absorb.

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If you want to put this knowledge to work immediately, try Isolate Audio. It lets you describe sounds in plain English, so the more precisely you can hear and name a musical event, the easier it becomes to isolate vocals, instruments, effects, and unusual background elements from real recordings.