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Computational Organology: Building & Analyzing Digital String Models

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Delivery Mode
Virtual / Online
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Level
Moderate
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Duration
3 Days (60-90 Minutes each Day)
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Certificate
Mentor Based
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Language
English
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Rating
4 Stars
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About Workshop

Computational Organology: Building & Analyzing Digital String Models is about using physics-based computing to simulate how strings vibrate in instruments (pluck/bow/strike), then analyzing the resulting soundโ€”harmonics, resonance, damping, and timbreโ€”to build realistic digital string instrument models for research and virtual instrument design.
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Aim

To develop accurate physics-based digital models of vibrating strings and use them to analyze how instrument parameters and playing techniques shape soundโ€”so we can better understand real string instruments and create realistic, controllable virtual string synthesis models.
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What Participants Will Learn

  • Study how string parameters (tension, length, stiffness, damping) shape vibration and timbre.
  • Build and simulate digital string models for pluck/bow/strike excitation.
  • Analyze outputs (harmonics, resonance, sustain, transients) using signal processing.
  • Validate and tune models against real recordings/measurements for realism.
  • Prepare models for practical use in research and virtual instrument synthesis.
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Structure

๐Ÿ“… Day 1 โ€” Fundamentals & Model Setup

  • Computational organology overview + goals of digital string modeling
  • String vibration basics: tension, length, stiffness, damping, boundary conditions
  • Excitation types (pluck/bow/strike) and how they affect the model
  • Selecting an approach: modal / finite-difference / digital waveguides
  • Quick demo: basic simulation + waveform/spectrum interpretation

Hands-on

  • Run a baseline digital string simulation and interpret waveform + spectrum outputs.

๐Ÿ“… Day 2 โ€” Implementation & Sound Analysis (Hands-on)

  • Build a working digital string model step-by-step
  • Add realism: losses, damping profiles, stiffness/inharmonicity
  • Generate outputs for different parameters and excitations
  • Analyze: harmonics, resonance, decay, transients + stability checks

Hands-on

  • Implement the model, run parameter sweeps, and extract key spectral + decay metrics.

๐Ÿ“… Day 3 โ€” Validation, Tuning & Deliverable

  • Tune parameters using reference recordings/measurements
  • Compare targets: fundamentals/partials, decay times, spectral balance
  • Finalize a reusable workflow (notebook/scripts)
  • Deliverable: tuned digital string model + concise analysis summary

Hands-on

  • Calibrate the model to a reference sample and export a final notebook + summary results.

Important Dates

Registration Ends

04:30 PM

Workshop Dates

2026-02-12
05:30PM
05:30PM
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What You Will Gain

Sample Certificate
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Outcomes

  • Develop and implement physics-based digital string models for plucked, bowed, and struck excitations.
  • Run stable simulations and interpret model behavior through time- and frequency-domain analysis.
  • Quantify key acoustic attributes, including harmonic structure, resonance, decay characteristics, and timbre.
  • Calibrate and validate model parameters using reference recordings and/or measurement data.
  • Produce a reusable digital string modeling workflow suitable for research studies and virtual instrument synthesis.
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Who Should Attend

  • UG/PG students (music tech, acoustics, physics, engineering, CS, or related)
  • PhD scholars & researchers (audio DSP, computational/musical acoustics)
  • Academicians/faculty (instrument science, modeling, simulation-based teaching)
  • Industry professionals (audio engineering, virtual instruments, game audio, sound design)
  • Musicians/composers with technical interest in synthesis (basic programming preferred)
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