The ATLAS detector is being built to study proton-proton collisions at a center of mass energy of 14 TeV. It will provide an excellent chance of discovering the source of electroweak symmetry breaking (the Higgs boson) and possibly new forms of matter such as supersymmetric states. The lightest supersymmetric state is a prime candidate for the dark matter in the universe.

UChicago ATLAS Site

The Collider Detector at Fermilab (CDF) experimental collaboration is committed to studying high energy particle collisions at the world's highest energy particle accelerator. The goal is to discover the identity and properties of the particles that make up the universe and to understand the forces and interactions between those particles.

UChicago CDF Site
Fermilab CDF Site

Double Chooz
The Double Chooz experiment, which will be performed at a commercial nuclear power station near the border between France and Belgium, will search for the last unmeasured angle of the neutrino mixing matrix with an order-of-magnitude better precision than previous experiments. A nonzero value for this mixing angle would open the possibility of searching for CP violation in neutrino oscillations.

UChicago Double Chooz Site
Main Double Chooz Site

E14 at JPARC
This group primarily focuses on the measurement of the branching ratio of a very special rare kaon decay, a k-long particle decays into a neutral pion and two neutrinos (so called the "golden" mode). This decay mode provides the cleanest and best answer to the question of CP violation in elementary particle physics that the theoretical calculation (prediction) within the so called Standard Model is unambiguous and precise. Therefore no matter what the measurement result is, standard or non-standard; it will be most fascinating.

UChicago E14 Site
KEK e391 Site

mu cooling
Future Accelerator Research and Development
Several faculty and students are studying new methods of particle accelerator and how to measure beam properties.

Muon Collider

Large-Area Picosecond Photo-Detectors
We have proposed using micro-channel plates (MCP-PMTs) with a novel equal-time anode and with capacitive-return-path coupling to measure the time-of-flight of relativistic particles with 1 psec resolution. The proposed readout electronics for each MCP-PMT unit consists of 4 identical front-end ASICs and one DAQ ASIC that digitizes the front-end outputs, distributes the system clock, and handles all digital traffic. The front-end ASIC chip is a `time stretcher', converting the difference in times between start and stop pulses into a digital pulse with width proportional to the input time interval but stretched by a factor of 200. We are designing in the IBM 0.13um SiGe BiCMOS 8HP process, The circuitry includes a limiting amplifier and a constant-fraction discriminator. The DAQ chip then digitizes the stretched time interval. The preliminary design and detailed simulations of the front-end ASIC chip will be presented.

UChicago LAPPD Site