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Nanomedicines to Improve the Therapeutic Index of Precision Medicines Daniel A. Heller, PhD Head, Cancer Nanomedicine Laboratory Bristol-Myers Squibb/James D. Robinson III Junior Faculty Chair Associate Member, Memorial Sloan Kettering Cancer


  1. Nanomedicines to Improve the Therapeutic Index of Precision Medicines Daniel A. Heller, PhD Head, Cancer Nanomedicine Laboratory Bristol-Myers Squibb/James D. Robinson III Junior Faculty Chair Associate Member, Memorial Sloan Kettering Cancer Center Associate Professor, Weill Cornell Graduate School of Medical Sciences 16 th US-Korea Forum September 23, 2019

  2. Nanotechnologies at Memorial Sloan Kettering Cancer Center and Weill Cornell Medicine

  3. Nanotechnologies to Address Disease Biomedical Research Tools Drug Discovery Tools Drug Delivery Imaging/Diagnostics

  4. Targeting Targeted Therapies Targeting the Pathway Targeting the Location X X Avoiding Problem Tissues

  5. P-selectin is Released to the Surface of Activated Endothelial Cells Habertheuer, BioMed Research International 2014:325725

  6. P-selectin is Expressed in Human Cancers on Blood Vessels, Stroma, and Cancer Cells Shamay, et al. Science Translational Medicine 2016 Yosi Shamay

  7. Fucoidan, a Fucosylated, Sulfated Polysaccharide Binds P-Selectin MW: 20kd-300kd -High affinity to P-selectin (~20nM) -Structural element for building nanoparticles Rouzet, Journal of Nuclear Medicine (2011) Cho, Carbohydrate Polymers (2012)

  8. Nanoparticle Synthesis Drug compound Fi-(Drug) (wide range of drug classes): + Paclitaxel - FiPAX MEK 162 – FiMEK Trametinib -- FiTRAM Sorafenib – FiSOR BYL719 – FiBYL719 Dex-(Drug) Others… Shamay, et al. Science Translational Medicine 2016

  9. Machine Learning and QSAR Facilitate Nanoparticle Synthesis with Diverse Drugs Nanoparticle self-assembly Quantitative Structure-Nanoparticle Assembly Prediction (QSNAP) Shamay, et. al., Nature Materials , 2018

  10. Radiotherapy Induces P-selectin Expression in Vasculature 24h 1h 6h No Irradiation RT 6Gy Lewis Lung Carcinoma s.c Hallahan D et al. Cancer Res (1999)

  11. Nanoparticles Bind to Irradiated Endothelial Cells

  12. Nanotechnologies to Address Disease Biomedical Research Tools Drug Discovery Tools Drug Delivery Imaging/Diagnostics

  13. Fluorescent Reporters from Carbon Nanotubes Tissue-Penetrating Signal Near-IR Emission Excitation: Visible Near-IR Respond to Local Solvent Environment DNA/Polymer-Encapsulated Carbon Nanotube

  14. Carbon Nanotube Near-Infrared Fluorescence is Structure-Dependent Semiconducting Nanotubes: Near-Infrared Emission (9,4) 900-1600 nm (7,5) Narrow Band Emission Structure/Diameter- (8,6) Dependent (9,5) (6,5) (8,3) (9,1)

  15. Tools for Research, Drug Discovery, and Diagnosis Sensor Implant to Measure Drug PK Live Cell Reporter of Endolysosomal Lipids NPC1 Inhibitor Jena, ACS Nano (2017) Harvey, Nano Lett (2019) Nanosensor Implant for Non- Invasive Detection of miRNA Detection of HE4 in Ovarian Cancer Williams, Sci Adv (2018) Harvey, Nat Biomed Eng (2017)

  16. Harvey, et. al., Nature Biomedical Engineering 2017 Williams et al. Science Advances , 2018

  17. CNTs: Optical Materials in Need of Outreach 7,5 10,2 9,4 8,3 6,5 7,6 8,4 8,6 12,1 11,3 10,5 8,7 9,5 10,3 Ao, et. al., J. Am. Chem. Soc. , 2016, 138 (51), pp 16677–16685

  18. Br Bring i in t the A Artists? Joseph Cohen

  19. NanoArt Out of the Lab w/ Bruce Weisman, Photon Etc.

  20. The Mind’s Eye Joseph Cohen (American, b.1982) MSP-001 (Multi-Spectrum Painting), 2019 Enriched carbon nanotubes, separated carbon nanotubes, sodium deoxycholate, WBV tm , tracer dyes and phosphorescent pigments on linen 24 x 24 inches

  21. SWIR (Excitation: 590 nm 3 x 30 w LED) InGaAs Array Camera

  22. SWIR (Excitation: 630 nm 3 x 30 w LED) InGaAs Array Camera

  23. The Mind’s Eye Joseph Cohen (American, b.1982) MSP-001 (Multi-Spectrum Painting), 2019 Enriched carbon nanotubes, separated carbon nanotubes, sodium deoxycholate, WBV tm , tracer dyes and phosphorescent pigments on linen 24 x 24 inches

  24. Na Nanos osensor or Pa Paint Applied on glass surface Free-standing film Budhathoki-Uprety, Nat Commun (2019)

  25. Na Nanos osensor or Paint for or Microa oalbuminuria Budhathoki-Uprety, Nat Commun (2019)

  26. Acknowledgements Cancer Nanomedicine Lab Rachel Langenbacher Hanan Baker Mandana Manzari Ron Feiner Merav Passig-Antman Emma Grabarnik Janki Shah Christopher Horoszko Ramya Sridharan Prakrit Jena Ryan Williams Jackie Kubala Laura Wilson Mijin Kim Zvi Yaari Daniel Tylawsky Alumni: Yosi Shamay, Januka Budhathoki, Jackson Harvey, Tom Galassi, Dan Roxbury, Hiroto Kiguchi Collaborators Anand Jagota Praveen Raju John Chodera Yoona Yang Charles Rudin Moshe Elkabets Jeetain Mittal Neal Rosen John Humm Gül Zerze Charles Sawyers Mehtap Icik Ming Zheng David Spriggs Hongyan Li Ao Geyou Maurizio Scaltriti Scott Lowe Jeff Fagan Raj Vinagolu Aviram Mizrachi Richard Martel Leila Akkari Carles Monterrubio Slava Rotkin Johanna Joyce Metastasis and Tumor Ecosystems Center, JT Poirier YuHuang Wang Fred Maxfield Center for Mol. Imaging and Nanotechnology, Matthew Greenblatt Daniel Ory Douglas Levine Experimental Therapeutics Center, MSKCC Adriana Haimovitz-Friedman Robert Schwartz

  27. Thank You Daniel A. Heller, PhD Memorial Sloan-Kettering Cancer Center Weill Cornell Medical College hellerd@mskcc.org www.mskcc.org/research-areas/labs/daniel-heller @HellerLab Jena, et. al., ACS Nano , 2017 @ Nanocarbons Harvey et al., Nat Biomed Eng , 2017 Shamay, et al. Sci Transl Med, 2016 Williams, et al., Sci Adv , 2018 Mizrachi, et. al., Nat Comms , 2017 Galassi, et al., Sci Transl Med , 2018 Shamay, et. al., Nat Mater , 2018 Budhathoki-Uprety, et al., Nat Commun, 2019

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