SHEDDING LIGHT ON SCIENCE

The Biology Imaging and Computational Center (BICC) serves as a premier interdisciplinary hub, merging high-resolution microscopy with high-performance computing. We support hands-on learning and student-led research across the Biology department, as well as Chemistry, Cognitive Science, Kinesiology, and Computer Science.

By bridging the gap between observation and analysis, the BICC allows Oxy researchers to go beyond a first glimpse. From tracking the rhythmic heartbeat of a transparent fish to modeling the intricate glassy spicules of sea sponges, we provide the tools to capture—and compute—the complex dynamics of the natural world.

BICC brings together high-performance imaging computers and state-of-the-art microscopes, creating a powerful hub for discovery. In our teaching labs, stereomicroscopes give Oxy researchers a clear view of remarkable biological phenomena, from the movement of bacteria to the rhythmic beat of a transparent fish’s heart to the intricate glassy spicules that cover sea sponges. BICC adds several dimensions to this first glimpse at the structure and dynamics of plants and organisms. 

See Biology Unfold In Time
Our advanced light microscopes let our researchers watch life in motion. Track host–pathogen encounters, follow migrating cells as they assemble muscle during development, and observe how neurons respond to cone snail venom. These tools open a window into fast, fleeting biological events once impossible to see.

Explore Living Systems In Space
From remote cameras positioned in the Angeles National Forest to AI-driven models that map large-scale movement patterns, the center is set up to capture nature across wide landscapes. Back in the lab, our light and electron microscopes reveal entire insects, leaves, and brains through automated stage control, precision rotation, and joystick-guided imaging.

Reveal Hidden Worlds In Color
Modern fluorescent labels have transformed how scientists understand interactions within and between organisms. The BICC brings these techniques to life, highlighting partnerships between bacteria and sea sponges, marking protein activity in developing tissues, and uncovering vibrant cellular conversations in real time.

Get Exceptionally Close
Our Stellaris confocal microscope uses finely tuned lasers to scan through tissues and produce crisp, high-resolution views of life inside cells. The scanning electron microscope magnifies surface structures with remarkable detail, from the intricate hairs on sea spider legs to the textures of a single grain of pollen.