Core Insights - Akari Therapeutics is focused on developing novel immuno-oncology payload antibody drug conjugates (ADCs) for cancer treatment [2][4] - The company’s lead candidate, AKTX-101, utilizes a novel spliceosome modulator payload, PH1, which has shown significant preclinical activity [4] Company Overview - Akari Therapeutics is an oncology biotechnology company that has developed PH1, a spliceosome modulator designed to disrupt RNA splicing within cancer cells [4] - PH1 is differentiated from traditional ADC payloads that typically use Topoisomerase1 inhibitors or tubulin inhibitors, and it has demonstrated the ability to induce cancer cell death while activating immune cells [4] - AKTX-101 targets the Trop2 receptor on cancer cells, delivering the PH1 payload directly into tumors, and has shown prolonged survival in preclinical studies compared to traditional ADCs [4] Research and Development - The company is conducting ongoing research to further understand the effects of PH1 and its potential to disrupt key drivers of cancer cell growth [3][4] - Akari is generating validating data on PH1 to advance its lead asset and explore other undisclosed targets [4]

Core Insights - Akari Therapeutics is advancing its research on PH1, a novel spliceosome modulator that induces cancer cell death and activates the immune system to combat cancer [1][4] - The company is focused on developing antibody drug conjugates (ADCs) utilizing the PH1 payload, with ongoing preclinical studies expected to yield new data by year-end [1][3] Company Overview - Akari Therapeutics specializes in oncology biotechnology, developing innovative ADCs with a unique mechanism of action through the PH1 payload, which disrupts RNA splicing [4] - The lead candidate, AKTX-101, targets the Trop2 receptor and has shown significant activity and prolonged survival in preclinical studies compared to traditional ADCs [4] Research and Development - Ongoing research aims to explore the effects of PH1 on key oncogenic drivers such as KRAS, BRAF, and FGFR3, with preliminary data anticipated soon [2][3] - The PH1 payload has demonstrated the ability to induce cytotoxicity in cancer cells and activate immune responses, potentially leading to improved therapeutic outcomes [2][6]