Gluteus Maximus

Clinical Notes

• Central to conditions/lower-crossed-syndrome — in Janda's lower crossed pattern, gluteals are inhibited and weak while hip flexors and erector spinae are tight. Gluteus maximus inhibition forces the hamstrings and erector spinae to compensate for hip extension, leading to overuse of both.
• Contributes to conditions/sacroiliac-joint-dysfunction — gluteus maximus provides posterior stabilization of the SI joint through its attachment to the sacrotuberous ligament. Weakness or inhibition reduces SI joint stability, allowing excessive nutation or counternutation.
• Relevant to conditions/iliotibial-band-syndrome — the upper fibers insert into the IT band. Hypertonic or shortened upper fibers increase IT band tension, contributing to lateral knee pain at Gerdy's tubercle.
• Can contribute to conditions/coccydynia — the inferior medial fibers attach near the coccyx. TrPs in this region produce coccygeal pain that mimics coccyx fracture or ligamentous injury.

• In clients who sit for prolonged periods, gluteus maximus is often inhibited rather than hypertonic — the muscle is compressed and neurologically downregulated. The client may present with poor gluteal tone, difficulty activating the glutes during hip extension, and compensatory hamstring or erector spinae overactivity.
• When the muscle is genuinely hypertonic, it usually presents in athletes or clients with excessive hip extension demand. The tissue feels dense and resistant to compression, with tender spots concentrated along the sacral attachment.
• Bilateral involvement is typical but often asymmetric, correlating with leg dominance or habitual postures.

• Responds well to broad, deep effleurage and myofascial techniques because of its size and superficial position. It tolerates deep pressure well — most clients prefer firm work here.
• The coccygeal TrPs require careful, sustained compression near the coccyx. Communicate clearly with the client about the location of your work and obtain explicit consent before treating this area, as it is near sensitive anatomy.
• Post-treatment activation is essential — if you release gluteus maximus without reactivating it, the inhibition pattern returns. Bridge exercises or prone hip extension against resistance after treatment helps "wake up" the muscle.

• The inferior gluteal neurovascular bundle exits the pelvis inferior to piriformis through the greater sciatic foramen and enters the deep surface of gluteus maximus. Avoid sustained deep compression directly over the greater sciatic notch.
• The sciatic nerve runs deep to gluteus maximus (between it and the deep six rotators). During deep work through the gluteal mass, you are pressing toward the sciatic nerve. If the client reports radiating symptoms down the posterior leg during treatment, lighten your pressure — you may be compressing the sciatic nerve against the deep rotators.

• Gluteus maximus is the primary counter to anterior pelvic tilt. When it is weak or inhibited, the pelvis tilts anteriorly under the pull of the hip flexors and erector spinae, increasing lumbar lordosis. Strengthening gluteus maximus is a cornerstone of lower crossed syndrome correction.
• During gait, gluteus maximus controls hip flexion eccentrically during swing phase and produces hip extension during push-off. Inhibited gluteals produce a characteristic "gluteal lurch" — the trunk shifts posteriorly over the stance leg to compensate for weak hip extension.

• If gluteus maximus consistently tests weak on MMT but the tissue does not feel atonic, check the ipsilateral hip flexors — specifically anatomy/muscles/iliopsoas. Reciprocal inhibition from a hypertonic iliopsoas is the most common cause of gluteal inhibition. Release the hip flexors first, then retest the glutes — you will often see immediate improvement in gluteal activation without any direct gluteal treatment.