Winter Conference
Observables in Quantum Gravity: From Theory to Experiment
January 12–17, 2025
Organizers:
**Daniel Carney, LBNL
**Tom Faulkner, UIUC
Cynthia Keeler, Arizona State University
Nima Lashkari, Purdue University
*Allic Sivaramakrishnan, Caltech
Antony Speranza, UIUC
*organizer responsible for participant diversity
**scientific advisor
Progress on quantum gravity observables has accelerated in recent years. However, the subject is interdisciplinary, and the expertise landscape is highly fragmented. Subfields range from algebraic quantum field theory to experiments, and few connections have been made between areas even though many ideas appear to overlap. This conference seeks to change this situation by convening members of many different communities, identifying pipelines between formal ideas and experiments, and critically assessing long standing proposals.
We aim to incorporate diverse approaches, from algebras of observables, dressing, and relational observables to measurable systems, including gravitational wave memory, cosmology, black holes, quantum simulation, and tabletop tests. At this conference, we will compare and contrast approaches to observables in quantum gravity, connect researchers working on the same topics but in disparate communities, and galvanize progress by spelling out concrete problems for experimentalists and theorists to study in a language widely understood across communities.
Learn more on the conference website here: https://indico.cern.ch/e/aspen-QG-observables
Winter Conferences
From December through April each year, the Aspen Center for Physics hosts between six and eight one-week winter conferences. These single-session meetings, with typical attendance of about 80, are focused on the latest developments in the core physics areas of the Center. The details of the format vary, but most have a set of invited speakers, additional speakers drawn from the conference participants, and poster sessions that give an opportunity for all participants to present and discuss their work.