E N G I N E E R I N G M 1 3 BAC T E R I O P H AGE N I R - I I P L AT F O R M S F O R T U M O R I M A G I N G A P P L I C AT I O N S

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E N G I N E E R I N G M 1 3 BAC T E R I O P H AGE N I R - I I P L AT F O R M S F O R T U M O R I M A G I N G A P P L I C AT I O N S U Y A N G A T S E D E V B I O M O L E C U L A R M A T E R I A L S G R O U P P I : A N G E L A B E L C H E R G I R L S W H O B U I L D M I T L I N C O L N L A B O R A T O R Y J U N E 4, 2 0 1 6 1

Finding Tumors 2

Our Tools SWNT M13 virus NIR-II imaging agent Custom-built NIR-II imager Imaging Applications 3

Probe: M13 Bacteriophage Figure. Structure of the M13 bacteriophage Figure. AFM Image of M13 bacteriophage ~ 880 nm ~ 6.5 nm p7 & p9 ~2700 p8 p3 & p6 Figure. Schematic of phage replication cycle 4

Probe: Second Window Near-Infrared NanoTube Figure. Schematic of SWNT fluorescence through brain tissue Our wavelengths of interest 5

Probe: M13 Bacteriophage Figure. M13 bacteriophage designs. i). Tumor targeting at p3 end, fluorescent imaging agent at p9, and doxorubicin/drug release sites at p8. ii). Tumor targeting at p3 end and single walled carbon nanotube (SWNT a deep tissue, near infrared imaging agent) binding at p8. i). Streptavidin Conjugated Fluorophore Therapy Molecules p9: Biotin Acceptor Peptide p8: Cathepsin B Cleavage Site p3: Targeting Ligands SWNT ii). p8: SWNT Binding Peptide p3: SPARC Binding Peptide Biocompatibility Extended blood circulation time, accumulation in diseased tissue Successful targeting to sites of biomedical interest i) ii) iii) iv) 6

Real Time Intraoperative NIR-II Imaging System Ovarian Cancer Model ~225,000 women diagnosed annually ~140,000 death toll Early diagnosis is key, before metastatic stage Thorough therapy, small tumor detection prolong survival

Gen-1 Application: Image-Guided Surgical Planning SWNT NIR-II image guidance (pre-surgical planning): helps in better excision of sub-mm tumors Randomize tumor cohort Image-guided surgery Measure tumor nodules < 1 mm Unguided surgery 1.3 3.0 3.3 9.0 9.3 or larger 8

Gen-2 Application: Real Time Intraoperative NIR-II Imaging System In collaboration with MIT Lincoln Laboratory Image courtesy of Dr. Andrew Siegel, Lincoln Lab Figure. Serial cytoreduction of ovarian tumor at sub-millimeter resolution (scale 1cm) i) Pre-injection ii) Re-surgery iii) Post unguided surgery iv) Post SWNT-M13 guided surgery 1cm Massachusetts General Hospital surgeon, Dr. Na, demonstrates the NIR-II imaging system, where camera detects probes attached to tumors, and displays their "glow" on a monitor as he performs surgery. 9

Reach Hard-to-Detect Tumors Project 1. Small {Inho} Phage Construction of smaller phage to improve on the blood trafficking of our M13 probe systems while retaining its multi-functionality which allows us to simultaneously target, detect, and deliver various agents to cancer masses. Project 2. Glioma Phage Cloning for peptide display on the tail p3 capsid protein of M13 to allow for passage across the blood-brain barrier and targeting to glioma cells. 10

M13 Small {Inho} Phage Figure. Atomic force microscopy inho1960, 475, 285 images A) Inho1960 B) Inho475 C) Inho285 Inho285 BASE SIZE ~100nm D) BASE SIZE ~50nm 880nm 280nm BASE SIZE ~280nm 11

M13 Small {Inho} Phage Figure. Atomic force microscopy inho1960, 475, 285 images A) Inho1960 B) Inho475 C) Inho285 Inho285 BASE SIZE ~100nm BASE SIZE ~50nm D) BASE SIZE ~280nm 12

Glioma Targeted Phage Project Functionalization of M13 phage to cross the blood-brain barrier Expand phage probes for usage with our NIR-II deep imager (10cm depths) Utilize the internalization of phage and localization near the nucleus to consider gene therapies (sirna) Figure. M13 phage shuttles localizes to the brain tumor mass. Phage shuttles (carrying red dye) have selectively gathered at the brain tumor site (expressing green dye). GFP Tumor Cy3 Phage Figure. Phage Internalization. Internal cellular localization of glioma targeting phage (red) in relation to Golgin-97 (green) and the nucleus (blue) in human glioma cell line U87MG 6hrs post incubation 24hrs post incubation 13

In Summary Demonstrated the medical impact of tumor de-bulking surgery guided by NIR-II imaging and targeted M13-CNT probes Two new platforms for early detection and treatment of hard-to-reach tumors 1. Inho-phage retains the multi-functional structure of M13 bacteriophage and will allow us to explore the benefits of new smaller geometries in trafficking to and extravasation into tumors as well as various other materials applications. 2. Glioma targeted phage can induce passage across the blood-brain barrier, target brain tumor cells, and internalize to the golgi region of cancerous cells. 14

Acknowledgments Professor Angela Belcher Collaborators Xiangnan Dang Neel Bardhan Dr. Gaelen Hess Dr. Briana Dun Professor Scott Floyd Dr. Fred Lam (Floyd/Yaffe) Dr. Tae-Gon Cha (Voigt) Lincoln Labs Dr. Andrew Siegel Dr. Nandini Rajan Funding Bridge Project Fund in collaboration between the Koch Institute and Dana- Farber/Harvard Cancer Center The Hope Babette Tang (1983) Student Research Fund The Charles S. Krakauer Fund Pearl Staller Graduate Student Fund Mary and Chen (1926) Salmon Fund 15

? 16

Commonly Used Imaging Modalities Adapted from Weissleder and Pittet, Nature 452 (2008) 17

MIT OpenCourseWare https://ocw.mit.edu Resource: Girls Who Build Cameras Kristen Railey, Bob Schulein, Olivia Glennon, Leslie Watkins, Alex Lorman, Carol Carveth, Sara James The following may not correspond to a particular course on MIT OpenCourseWare, but has been provided by the author as an individual learning resource. For information about citing these materials or our Terms of Use, visit: https://ocw.mit.edu/terms.