The appropriate orchestration of different arms of the immune response is critical during viral infection to promote efficient viral clearance while limiting immunopathology. However, the signals and mechanisms that guide this coordination are not fully understood. Interferons are produced at high levels during viral infection and have convergent signaling through signal transducer and activator of transcription 1 (STAT1). We hypothesized that STAT1 signaling during viral infection would regulate the balance of innate lymphoid cells (ILC), a diverse class of lymphocytes that are poised to respond to environmental insults including viral infections with the potential for both anti-viral or immunopathologic functions. During infection with respiratory syncytial virus (RSV), STAT1-deficient mice had reduced numbers of anti-viral IFNγ+ ILC1 and increased numbers of immunopathologic IL-5+ and IL-13+ ILC2 and IL-17A+ ILC3 compared to RSV-infected WT mice. Using bone marrow chimeric mice, we found that both ILC-intrinsic and ILC-extrinsic factors were responsible for this ILC dysregulation during viral infection in STAT1-deficient mice. Regarding ILC-extrinsic mechanisms, we found that STAT1-deficient mice had significantly increased expression of IL-33 and IL-23, cytokines that promote ILC2 and ILC3 respectively, compared to WT mice during RSV infection. Moreover, disruption of IL-33 or IL-23 signaling attenuated cytokine-producing ILC2 and ILC3 responses in STAT1-deficient mice during RSV-infection. Collectively, these data demonstrate that STAT1 is a key orchestrator of cytokine-producing ILC responses during viral infection via ILC-extrinsic regulation of IL-33 and IL-23.