Leptospira interrogans are pathogenic bacteria responsible for leptospirosis, a worldwide neglected zoonosis affecting yearly 1 million people. All vertebrates can be infected by leptospires. Some species like humans are susceptible to the disease whereas rodents such as mice are resistant and can even become asymptomatic renal carriers. Leptospires have been shown to avoid the activation of some innate immune receptors of the Toll-like receptors (TLRs) and NOD-like receptors families through their atypical microbe associated molecular patterns, and to escape some phagocyte functions. Autophagy is an essential nutrient-recycling cellular mechanism that is also crucial to clear invasive pathogens and is one of the many antimicrobial mechanisms that may be subverted upon bacterial infection. Here we showed that leptospires reduced the quantity of autophagosomes in murine and human macrophages. Moreover, leptospires infection induced a time-dependent specific accumulation of the autophagy adaptor p62 in puncta-like structures. Interestingly, we showed that these effects were not associated with an active leptospiral mechanism but were mediated by the recognition of the atypical leptospiral lipopolysaccharide (LPS) through TLR4 and TLR2. Moreover, we demonstrate in murine macrophages that leptospires induced, via p62 accumulation, the nuclear translocation of transcription factor NRF2, consequently triggering the retro-amplification of the p62/NRF2 axis. Finally, inhibition of p62/NRF2 signaling led to increased cytokines transcription and secretion. Overall, this suggests that the p62/NRF2 axis induced by leptospires contributes to dampening inflammation. These findings highlight a novel escape mechanism of leptospires, potentially participating in the stealthiness of the infection.