Description: This training was developed by the Center for the Improvement of Mentored Experiences in Research (CIMER) at University of Wisconsin Madison and provides evidence-based, interactive mentor training curricula that engages mentors in collective problem solving and connects them with resources to optimize their mentoring practices. Mentors engage in activities, assignments, case studies, and facilitated discussions to solve mentoring dilemmas and share successful mentorship strategies.

Learning Objectives:

Gain leadership competencies in aligning expectations, effective communication, communication, assessing mentee understanding, and fostering independence.
Create a strong research mentorship plan that can be used with undergraduate and graduate student mentees and in research proposals.
Training Length: 5 hours

Instructors: Dr. Ellen Keister & Dr. Sarah Schreiner

https://jila.colorado.edu/workcollaborate/jila-research-professional-development

Please let Lauren Mason (lauren.mason@colorado.edu) know if you would like to attend and have not yet registered.

Abstract: It is well-known that interacting fermions are difficult to simulate on quantum computers because of the sign problem. It is less widely appreciated that simulations of models containing bosons can also be difficult—unless the hardware contains native bosonic degrees of freedom. The ability of superconducting quantum processors to control and make quantum non-demolition (QND) measurements of individual microwave photons is a powerful resource for quantum simulation, especially for simulation of condensed matter models and lattice gauge theories containing bosons. I will illustrate these capabilities with recent experiments on a programmable quantum simulator that uses efficient boson sampling of microwave photons to predict the Franck-Condon vibrational spectra of various small molecules. I will also explore possible future directions for simulation of many-body quantum problems such as the fractional quantum Hall effect, and Z2 lattice gauge theories

Description: This training was developed by the Center for the Improvement of Mentored Experiences in Research (CIMER) at University of Wisconsin Madison and provides evidence-based, interactive mentor training curricula that engages mentors in collective problem solving and connects them with resources to optimize their mentoring practices. Mentors engage in activities, assignments, case studies, and facilitated discussions to solve mentoring dilemmas and share successful mentorship strategies.

Learning Objectives:

Gain leadership competencies in aligning expectations, effective communication, communication, assessing mentee understanding, and fostering independence.
Create a strong research mentorship plan that can be used with undergraduate and graduate student mentees and in research proposals.
Training Length: 5 hours

Instructors: Dr. Ellen Keister & Dr. Sarah Schreiner

https://jila.colorado.edu/workcollaborate/jila-research-professional-development

Please let Lauren Mason (lauren.mason@colorado.edu) know if you would like to attend and have not yet registered.

Natural History Museum of LA County Tour at JILA

Date: April 30, 2025

• 10:00 AM – Arrival at JILA
• 10:00 – 11:30 AM – Lab Tours (Attendees will split into three groups and rotate every 30 minutes):
  
  • Jun Ye’s Atomic Clock
  • Thompson Lab (X1B21): Entangled Matterwave Interferometers and Superradiant Lasers
  • Kaufman Lab (S105): “Quantum simulation of the Hubbard model with ultracold atoms

Abstract: The Schrödinger Cat idea was an early thought experiment intended to point out the weirdness of quantum mechanics. It is a paradigmatic example of the quantum principles of superposition and entanglement. With the vast experimental progress in the last two decades, we can now routinely carry out this experiment in the laboratory. In this pedagogical talk, I will present a ‘quantum signal processing’ recipe for how to create a Schrödinger Cat in a system consisting of a superconducting microwave resonator (a harmonic oscillator) and a superconducting qubit (a two-level artificial atom).  Extensions of this recipe now allow us to create even more exotic states of microwaves that can be used as quantum error correction codes.

Dear JILAns,

With everything happening in the world, building a strong scientific community seems more important than ever. Posterfest is a chance to come together, celebrate JILA’s research, and support each other’s work.

We hope you’ll join us for JILA Posterfest 2025, happening at 3 pm on Thursday, May 1, in the X-Wing.

Posterfest is a fantastic opportunity to share your research, connect with fellow JILAns, and learn about the amazing science happening across our community—all while enjoying delicious pizza (including veggie, vegan, and gluten-free options) and your choice of alcoholic or non-alcoholic beverages.

For those new to Posterfest or who may not remember, this event brings together graduate students, postdocs, and researchers to present their work in a casual, interactive setting.

Last year, we saw presentations on everything from high harmonic generation to ultrafast electron dynamics, squeezed-light optical imaging, and fundamental symmetry violations in the universe. This is a great time to highlight your research, get feedback, and engage with the JILA community.

This year, we're making a few changes to enhance the experience:

Instead of three short sessions, we'll have two 45-minute presentation slots, giving you more time to listen, ask questions, and discuss science.

We’re looking for volunteers to help with setup, IDing, and cleanup—if you’re interested, please email kenna.castleberry@colorado.edu or hannah.douglas@colorado.edu.

Want to present your research? Sign up at this link (the deadline to apply is Monday, April 14th)

We hope to see you there!

Best,
Kenna Hughes-Castleberry, Hannah Douglas, and Krista Beck

Abstract forthcoming

Abstract forthcoming