Music Intelligence Lab

The Music Intelligence Lab (or μLab) brings together engineers, musicians, and researchers to explore the relationship between music, technology, and intelligence. We combine science, mathematics, and machine learning with cultural traditions to design new instruments, analyze structures, and create generative systems. Our mission is to make music more accessible, more expressive, and more deeply understood, while training the next generation of creative innovators.

You can join the lab as a MS or PhD student at AUB, or through the Vertically Integrated Project Program (VIPP) as an undergraduate. Read more about it here.
More about the mission and motivation of the lab here. Subscribe to our mailing list here.

A FEW PAST AND ONGOING PROJECTS

Music
Machine Learning
Human-Computer Interface
Mechatronics
Design
Intelligent Musical Interfaces
Music technology revolves around creating tools that enhance musical expression, focusing mainly on two areas: 1) designing novel musical instruments, both electronic and acoustic, and 2) developing algorithms that automatically generate music, particularly using modern generative machine learning algorithms.
Our lab aims to intersect these two domains by creating interfaces that are intuitive and highly conducive to musical expression. These interfaces are used to control parameters within generative AI algorithms, enabling a seamless blend of human creativity and machine-generated music. Our vision is to offer a spectrum of expression: from triggering and controlling individual notes to navigating the general features of a piece through gestures and other sensor-based inputs. We develop these interfaces with Arabic music primarily in mind, which has distinct features compared to Western music, such as unique scales, rhythms, and nonstandard tuning systems.
Music
Machine Learning
Generative AI
Algorithmic and Data-Driven Composition
Courtesy of Google Magenta
Generative AI is taking the world by storm, and music is no exception. Recent models are capable of generating realistic music by learning from text-to-audio data, opening up new horizons for musical creation. This development poses intriguing questions: what does this mean for musicians and the way we create music in the future?
Our lab explores these questions in the context of various tuning systems, focusing on real-time generation for improvisation. We aim to understand how generative AI can be integrated into musical practices to enhance creativity while expanding upon the Arabic music tradition with its unique scales and non-standard tuning systems.
Music
Machine Learning
Musicology
Alternate Tuning
Digital Signal Processing
Data Analysis and Machine Learning for Arabic Music
Machine learning can uncover patterns in large datasets, and reveal insights that may not be apparent through human analysis alone. In this project, we develop tools to enhance the musicological understanding of Arabic music within its cultural, geographical, and historical contexts. We focus on music information retrieval (MIR) algorithms that address the unique challenges of Arabic music, such as accounting for quarter tones and complex modal structures. We aim to shed new light on the rich traditions of Arabic music and facilitate further research that is data-driven rather than starting from assumed theoretical frameworks.
Music
Musicology
Alternate Tuning
Graph Theory
Web Development
Arabic Maqam Archive
The Arabic Maqām Archive is a comprehensive web-based open-source and open-access platform for the interactive exploration of Arabic maqām theory. The application integrates historical tanāghīm (tuning systems), ajnās (tetrachords), maqāmāt (melodic modes), suyūr (melodic performance pathways), and intiqālāt (modulation practices) within a unified digital framework for the first time in Arabic music history. Through the platform’s comprehensive export capabilities and API, we are now able to utilise this previously unavailable musicological data to analyse the mathematics and the theory of Arabic maqām in novel ways. Of primary interest is unveiling the networked connections of ajnās that are the foundations of maqāmic theory and practice through contemporary methods for network analysis.

The Team

Khyam Allami
Postdoctoral Fellow
ka109@aub.edu.lb
Roni Trad
MS in Computational Science
rbt04@mail.aub.edu

Our Partners

Center for Advanced Mathematical Sciences 
Artificial Intelligence Hub