Cancer Radio Luminescence Therapy Unlocking the Potential of Photodynamic/Ultraviolet Light Therapy (PDT/UV-A) in Deep Tumor Treatment Confidential and Proprietary The Team Founders You-Yeon Won - Purdue Professor of Chemical Engineering Rachel Kim - 10+ years in Corporate Finance Management Team Wade Lange - 30 yrs. experience in Healthcare (Big Pharma, CRO, Biotech Start-Up) Scott Clark - 3 yrs. experience in Healthcare (CRO) 50 years of cumulative experience in healthcare and business management The Problem X-Ray therapy: standard treatment for almost half of cancer patients Limitations: o o o o Tissue burn, cell damage Multiple costly hospital visits Not for frail patients Radio resistant tumors Solution – The Lodos Technology RLNPs 1) Inject RLNPs directly into the tumor CaWO4 UV 3) Activated RLNPs emit UV light and destroy tumor 2) EBR (X-Ray) activates RLNPs Combination of X-Ray and UV light destroy Tumor Without Deep Penetration Into Surrounding Tissue Market & Lodos Potential Cancer Incidence by Major Region Cancer Incidence by Tumor Type - 5.28M New Cases 2017 - > 90% are Solid Tumors - Addressable Patient Population - 2.5M Patients 0 13% Breast 1.69M 11% US 2.61M Japan ESTIMATED NEW CANCER CASES 4 5.28 M Prostate Colo-rectal 51% EU 12% Lung Other 0.98M 2 13% PATIENTS RECEIVING EXTERNAL BEAM RADIATION (EBR OR X-RAY) 2.5 M Source: ACS, EUCAN, Ministry of Health in Japan Lodos Revenue Potential - If 10% of the EBR population were treated with Lodos technology, at an average price range of $4000 -$5,000, the potential sales would be between $1.0B - $1.3B/yr. 6 Competition: Current and Future Radiation Approaches Mechanism of Action Current Form Radiation Chemotherapy X-rays Future Nanobiotix Limitations X-rays alone Systemic side effects X-rays plus chemotherapy drugs Additive x-ray and chemo side effects Enhances radiation within tumor Damages healthy tissue near tumor (Nanoparticles release free electrons when x-ray activated) Less effective against radio-resistant tumors Heavy Metal Nanoparticles Magnetism Magforce Magnetically-generated heat (Alternating magnetic current heats nanoparticles, killing nearby cells) Damages healthy tissue near tumor Business Model – Develop and Partner IND Inflection: Preferred Time to Partner Development Stage Preclinical Phase I Phase II Development Cost $3M $11 M Development Time 2 Years 3 Years Phase III Commercialization Cost effective regulatory pathway with clear value inflection point Marketing – Already Ahead Limited number of radiation oncologists (~5000 each in US and Europe) Allows for sales coverage with a small sales force Attractive to potential partner organizations Does not require purchase of new capital Does not require changes to practice patterns 3-Year Milestones Complete In-Progress Proof-of-Concept Studies (<12 months) Clinical Protocol Development (12-18 months) Formulation Optimization (12-18 months) GLP/GMP Manufacturing Capability (18-24 months) GLP/GMP Preclinical Trials (24-36 months) IND Application for Human Clinical Testing (36 months) Use of Funds Patent and Licensing Upkeep (~$10K) Laboratory Studies (~$10K) Proof-of-Concept Completion Formula Optimization Development of Manufacturing Capability