Roded Sharan

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.

Krill Prize Laureate 2019

for his research into advanced computational
imaging combining light and sound.

Katz’s research focuses on developing novel opticaland
ultrasound-based techniques that will allow to
look deeper and with higher resolution through
complex samples. This is an important goal in many
fields, from imaging through dense fog to looking
deeper inside our body. The challenge lies in the
strong scattering light and ultrasound waves in such
samples. This limits the penetration depth of even
the most advanced microscopes, requiring invasive
procedures such as biopsy.
He address this challenge using a multi-disciplinary
approach that combines not only optics and acoustics,
but also insights from related fields such as astronomy
and seismology, together with novel computational
tools. This allowed Katz to demonstrate some surprising
results, such as looking around corners, and imaging
miniature blood vessels using the natural fluctuations
of blood-flow.