HMGB1 has sparked a lot of attention as a model DAMP molecule involved in inflammation, inflammatory diseases, and cancer.
Moataz Dowaidar
Abstract
Moataz Dowaidar
Abstract
HMGB1, the second most prevalent protein inside the nucleus after histone, has sparked a lot of attention as a model DAMP molecule involved in inflammation, inflammatory diseases, and cancer. Building on the fundamental knowledge of HMGB1 as a cytokine/chemoattractant, several in vivo and in vitro studies have indicated therapeutic potential for targeting HMGB1 and lowering tissue damage once inflammation has gone awry. A few hurdles must be cleared before HMGB1 treatment may progress further into clinical trials. The exact mechanism by which HMGB1 travels from the nucleus to the cytoplasm and then to the ECM is unclear. Different HMGB1 redox states can generate in situ modulations, making it difficult to determine the specific function of HMGB1 isoforms. Furthermore, the investigation of HMGB1 and its antagonists in disease situations is complicated by various HMGB1 receptors with various degrees of cell selectivity for a certain HMGB1 isoform or HMGB1 cofactor complex. HMGB1 targeting has been found to be beneficial in the treatment of inflammation and inflammatory diseases, notably in sepsis, sterile inflammation, autoimmune diseases, and cancer, despite the difficulties. Continued HMGB1 research might help fill in the gaps in knowledge and push HMGB1 antagonists closer to the next step of clinical testing.
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HMGB1, the second most prevalent protein inside the nucleus after histone, has sparked a lot of attention as a model DAMP molecule involved in inflammation, inflammatory diseases, and cancer. Building on the fundamental knowledge of HMGB1 as a cytokine/chemoattractant, several in vivo and in vitro studies have indicated therapeutic potential for targeting HMGB1 and lowering tissue damage once inflammation has gone awry. A few hurdles must be cleared before HMGB1 treatment may progress further into clinical trials. The exact mechanism by which HMGB1 travels from the nucleus to the cytoplasm and then to the ECM is unclear. Different HMGB1 redox states can generate in situ modulations, making it difficult to determine the specific function of HMGB1 isoforms. Furthermore, the investigation of HMGB1 and its antagonists in disease situations is complicated by various HMGB1 receptors with various degrees of cell selectivity for a certain HMGB1 isoform or HMGB1 cofactor complex. HMGB1 targeting has been found to be beneficial in the treatment of inflammation and inflammatory diseases, notably in sepsis, sterile inflammation, autoimmune diseases, and cancer, despite the difficulties. Continued HMGB1 research might help fill in the gaps in knowledge and push HMGB1 antagonists closer to the next step of clinical testing.
Key concepts: HMGB1, Damp, Inflammation, Cancer, Immunology, Disease, Medicine, Biology