in how it may address significant unmet medical need across these patient populations suffering from devastating malignant disease.
that has a unique mechanism of action, sphingolipid metabolism modulation, thereby providing the potential for anti-tumor efficacy across a variety of advanced solid tumors paired with anti-neuropathy effect in patients suffering from CIPN (chemotherapy induced peripheral neuropathy).
In mCRC, mPFS (median Progression Free Survival) is 6-12 months and mOS (median Overall Survival) is 24-32 months with SOC.
FOLFOX is a highly toxic chemotherapeutic regimen based on an Oxaliplatin backbone and forms part of SOC in mCRC. Oxaliplatin is commonly associated with Chemotherapy Induced Peripheral Neuropathy (CIPN), a major dose-limiting toxicity (DLT) which interrupts treatment via reduction in dose, skipping a dose or removal of Oxaliplatin in these patients.
that has the potential to address unmet medical needs in terms of anti-tumor efficacy but also in terms of anti-neuropathy effect
While BXQ-350 was developed to target mCRC specifically, other potential indications have emerged through research, primarily for CIPN
Chemotherapy-induced peripheral neuropathy (CIPN) afflicts between 30% and 40% of patients undergoing chemotherapy1. Recent studies put the prevalence of CIPN at approximately 68% when measured in the first month after chemotherapy, 60% at 3 months, and 30% at and after 6 months4. Symptoms persist for months to several years after treatment for many of those patients.
BXQ-350 has shown the potential for meaningful reduction of CIPN in a POC (Proof of Concept) study involving cancer patients who are post-chemotherapy Oxaliplatin (n=10) and Taxanes (n=10) in two separate arms.
BXQ-350 has also shown the potential for reduction in CIPN while co-administered with FOLFOX + Bevacizumab SOC in mCRC patients.
This may result in improved QoL (Quality of Life) and improved ability to stay on and sustain chemotoxic therapy in these patients.
BXQ-350 has potentially unprecedented anti-tumor, anti-neuropathy effects that show promise in treating cancer patients whose options for new therapies have historically been limited.