Our science

Reshaping the standard of care for inflammatory and immune diseases

Our goal is to discover and develop novel therapies for a range of I&I diseases. We aim to accomplish this goal by focusing on known biologic drivers of disease and utilizing advanced antibody engineering to develop product candidates with optimized properties that have the potential to overcome limitations of existing therapies. We believe our approach will enable us to develop a portfolio of therapies that are potentially differentiated compared to the currently available standards of care and address unmet medical needs for I&I diseases.
A 3D visualization of IL-13 molecule approaching IL13 receptor alpha 1 and IL4 receptor alpha subunits integrated in the cellular membrane.
Our science

Novel antibodies engineered against validated targets

At Apogee, we are advancing both monotherapies and rational combinations of therapeutic antibody product candidates. Our ongoing and planned clinical studies aim to study the safety and efficacy of our next generation product candidates to target I&I diseases. While traditional antibodies are broken down quickly within the body and have limited circulation time in the blood stream, Apogee’s antibodies are engineered to bind better to FcRn, which spares them from being broken down, allowing them to work for a longer amount of time.

Our antibody programs are designed to overcome limitations of existing therapies by leveraging well-established mechanisms and incorporating advanced antibody engineering to optimize half-life and other properties. Our ongoing study is testing APG777 dosed either every three or six months in maintenance, which, if our clinical trials are successful, would represent a significant improvement compared to currently available antibodies that are dosed every two to four weeks. We believe each of our programs has potential for broad application across multiple I&I indications.

Therapeutic targets

Apogee is progressing a pipeline of novel antibodies engineered against validated targets in some of the largest I&I markets.

A 3D visualization of an IL-13 cytokine molecule
IL-13

A clinically validated target in atopic dermatitis and eosinophilic esophagitis. It is a critical cytokine in inflammation and a primary driver of AD. In our head-to-head preclinical studies, APG777 demonstrated equivalent or better potency to lebrikizumab in the inhibition of IL-13 signaling.

A 3D visualization of the IL4 receptor alpha molecule inside the cellular membrane.
IL-4Rα

A target with clinical validation across eight Type 2 allergic diseases.

A 3D visualization of the OX40L molecule inside the cellular membrane.
OX40L

A clinically validated target in atopic dermatitis, located further upstream in the inflammatory pathway than IL-13 or IL-4Rα. Targeting OX40L could have broader impact on Type 1, 2, and 3 inflammation that is optimally positioned for combination with deep Type 2 inhibition provided by IL-13 targeting.

A 3D visualization of an TSLP cytokine molecule
TSLP

A clinically validated target in asthma and COPD. It is an epithelial cell-derived cytokine that has emerged as an attractive validated target for the treatment of I&I diseases, with the potential to be used in combination with other mAbs for potentially greater efficacy in broader populations. TSLP provides a robust inhibition of central inflammation, which is optimally suited for combination with IL-13, which primarily addresses local airway responses in asthma and COPD.