Biography

Description of the video:

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i was born in a pretty normal soviet
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family in southeast ukraine donetsk when
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i was
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six if you would ask me what i want to
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do i would tell that
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i want to be a rock star
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i wanted to sing and i still haven't
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given up this dream
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the pathway towards being a rockstar is
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a little bit cumbersome by the age of 17
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i decided that it would be a good idea
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to continue my education in israel
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from there it's history it took me eight
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years to get my phd after getting a phd
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i i've got a scholarship and found a
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position at mit
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where i was studying
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one of the topics that i right now apply
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in my lab here
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it was material science of
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multi-material fiber devices
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we built our lab from scratch there was
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literally no building that you
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see
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there right now
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so
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we started designing the lab in 2016
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when i when i just came to iu
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it took us about
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a year to finalize the design and to
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choose all the equipment for the lab
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so it took more than three years to
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construct the space
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create the infrastructure
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gases
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compressed air air handling humidity
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handling ending point commissioning when
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i got the key to the lab
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is end of october 2019
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just a couple months before covet hit
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fame's lab is an acronym it stands for
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fibers and additive manufacturing
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enabled systems laboratory to simplify
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that
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i'm making fibers
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with complex internal structures
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which have
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active functions so for instance it is
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common to wear clothing everyone wears
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that or the type of clothing for
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instance a t-shirt the t-shirt that i
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wear
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protects me from scratches and warms me
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up makes my appearance socially
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appropriate so imagine how attractive it
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would be to have a t-shirt
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that is for instance capable of
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sensing your
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emotional state and
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giving you a massage if you're stressed
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in order to achieve that in a t-shirt
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the t-shirt textile that is comprised of
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fibers needs to be imparted with active
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sensing and transduction capabilities
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the fibers inside the textile have to
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sense that you're stressed
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and should be able
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upon sensing that to
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contract and expand periodically in
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order to massage
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our lab is a small you can say it's a
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small factory it has
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every component of the process of design
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material processing fiber manufacturing
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and fiber characterization
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in one research space two staffers two
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postdocs
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five phds
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one master
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and three
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undergrads so
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currently 13 not including myself
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the central and the biggest ticket item
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is definitely the fiber draw tower
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so the fiber draw tower is first of all
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it's expensive just that setup costs
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about a million dollars raw tower is
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very non-standard in its dimensions it's
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uh 27 feet high
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and
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you have to specifically build a room
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for that setup around that set the fiber
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draw tower is a setup that is making
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fiber optics
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okay
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the normal fiber optics that you see in
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long-haul communication for
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telecommunication and internet
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the cables
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under the
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atlantic ocean that
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connect continents
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for the exchange of data
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[Music]
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and the process starts from taking a
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glass rod
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on the top of the tower you have a
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handle that you attach that glass rod to
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and that handle automatically slowly
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moves the glass rod into the
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tube furnace
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below that handle
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and inside the tube furnace which heats
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up to
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2000
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degrees celsius
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where glass
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becomes soft
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and starts glowing white
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that glass rod
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softens to the state of viscous liquid
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and then
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you can draw it as a taffy candy from
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the bottom of the furnace and usually
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from a
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centimeter thick
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meter long rod you can get
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multiple kilometers of
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hair thin
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fiber
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fiber devices is
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is technological area in its infancy
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even the most advanced
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fiber device that we have now
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available commercially which is the
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fiber optic is
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just a
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piece of glass that transmits
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a blink of light we
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target our efforts towards two sets of
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applications one in biomedical devices
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and another one in communication related
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devices
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in biomedical devices we are developing
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fibers that are capable of sensing
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physiological parameters of human in
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order to provide them better
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treatments
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fibers that can sense
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micro level
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metabolism in
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3d printed tissues in order to engineer
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tissues for wound regeneration
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on the communication front we are
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developing
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fibers that would help integrating novel
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computing technologies into the internet
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common computer is
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based on transistors
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there are other emerging technologies
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that based on quantum effects quantum
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computers
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that lab is quite unique
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so
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in united states in academic environment
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i would say it's one of the kind
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so that's not something you would find
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in purdue for instance
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not something you would find in chicago
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university not someone it's not
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something that you would find in
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urbana-champaign not even at mit
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actually
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my hope is that my work will one day
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merge with my desire to become a rock
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star so i want to
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make fibers and textiles that would
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sense
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compose and emit music
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you
English (auto-generated)

Research Interests

  • Fibers for biomedical applications
  • Fibers for long-haul quantum interconnects
  • Integrated microelectronics and photonics in fibers
  • Fibers with data processing capabilities
  • Pervasive sensing for Internet of Things
  • Environmental monitoring and surveillance
  • Bioprinting and additive manufacturing
  • Fabrics with active functionalities

Awards, Honors, and Fellowships

2022 - 2027 : National Science Foundation CAREER Award

2010 - 2011 : Rothschild post-doctoral fellowship of Yad Hanadiv

2007 - 2010 : Eshkol scholarship of the Israel Ministry of Science

2007 - 2008 : Intel award for outstanding Ph.D. students

2006 - 2007 : Wolf foundation doctoral excellence scholarship

2006 - 2007 : Fulbright doctoral dissertation fellowship

Highlights

  • Designer, Project Manager (during the construction phase), and Director of Fibers and Additive Manufacturing Enabled Systems Laboratory at the Department of Intelligent System Engineering (ISE FAMES Lab).
  • Co-developer of the new Intelligent Systems Engineering curriculum at Indiana University, beginning its launch in 2016.
  • Founding member of IU Quantum Science and Engineering Center, Engineering Health, and Health@Luddy.
  • Extensive experience in 3D printing, bioprinting, electrooptic materials, semiconductor device physics, integrated photonic circuits, and functional fibers, leading to eighteen peer-reviewed journal articles, four patents granted, five patent applications, and twenty seven international conference talks, including invited, keynote, plenary, and tutorials.
  • Invented and tested novel fabrication techniques, including generic methodologies for fabrication of photonic and electronic integrated circuitry in electrooptic substrates, fiberembedded arrays of integrated devices, biosynthetic 3D printed tissue integrating fiber devices into bioink constructs for biosensing and metabolic stimulation with microscale precision.
  • Designed and assembled measurement and processing setups such as: 3D printing setups, multi-axial prism couplers for characterization of waveguide-embedded photonic structures, birefringence-measurement setups for characterization of magneto- and electrooptical properties of ferroelectrics, and high-throughput high-temperature tapering and breakup setups for silica-based fiber processing.
  • Developed and investigated novel prototype devices such as electrooptically-tunable photonic structures, photo detecting fibers, and fiber-based chemical sensors.