Bisphosphonates Trigger Anti-Ageing Effects Across Multiple Cell Types and Protect Against Senescence
Lu, J.; Rao, S. R.; Knowles, H.; Zhan, H.; Gamez, B.; Platt, E.; Frost, L. R.; Allen, T. J.; Marshall, G.; Huber, K. V. M.; Bauer, L. G.; Vendrell, I.; Kessler, B. M.; Horne, A.; Reid, I. R.; Bountra, C.; Kirkland, J. L.; Khosla, S.; Ebetino, F. H.; Roldan, E.; Russell, R. G. G.; Edwards, J. R.
Show abstract
Bisphosphonates (BPs) have been the major class of medicines used to treat disorders of excessive bone loss for over five decades. Recently it has been recognized that BPs may also have additional significant beneficial extra-skeletal effects. These include a reduction of all-cause mortality and of conditions commonly linked to ageing, such as cancer and cardiovascular disease. Here we show that bisphosphonates co-localize with lysosomal and endosomal organelles in non-skeletal cells and stimulate cell growth at low doses. In vivo spatial transcriptomic analysis revealed differentially expressed senescence markers in multiple organs of aged BP-treated mice, and a shift in cellular composition toward those of young counterparts. Similarly, a 5000-plex plasma proteome analysis from osteopenic patients before and after BP-treatment showed significant alterations in [~]400 proteins including GTPase regulators and markers of senescence, autophagy, apoptosis, and inflammatory responses. Furthermore, treatment with BPs protected against the onset of senescence in vitro. Proteome-wide target deconvolution using 2D thermal profiling revealed novel BP-binding targets (PHB2, ASAH1), and combined with RNA- and ATAC-seq of BP-treated cells and patient data, suggests downstream regulation of the MEF2A transcription factor within the heart. Collectively, these results indicate how BPs may beneficially modify the human plasma proteome, and directly impact multiple non-skeletal cell types through previously unidentified proteins, thereby influencing a range of pathways related to senescence and ageing.
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