Gong & Henge - Sounds of the Cosmos Tour

Brighton is set for a unique double bill this spring when the Sounds of the Cosmos Tour lands at Chalk on Thursday, March 19, 2026. The event brings together two acts known for pushing musical boundaries: Gong and Henge. They are performing as joint headliners, which means this isn't a typical support/main act setup. The bands have confirmed that their performance order will alternate each night of the tour, and they won't reveal who goes on first in advance. If you plan to attend, arriving for the announced start time is the best way to ensure you catch the full experience.

The pairing itself is fascinating because of the different eras and styles they represent. Gong is often described as being more of a mythology than just a band, tracing its roots back to 1969 with founder Daevid Allen, who was also a founding member of Soft Machine. Their sound is a deep dive into psychedelic rock, jazz, and surrealism. The current lineup has been together for eight years and is committed to carrying that exploratory spirit forward without relying solely on nostalgia. On the other side, Henge brings a completely different energy. They are known as "extra-terrestrial joymongers" and have built a strong reputation over the last decade, even winning the 'Best Live Act' award at the Independent Festival Awards. Their music is hard to pin down, occupying a space somewhere between rave and progressive rock—energetic, vigorously playful, and focused on a message of hope.

For those planning to go, the venue is Chalk, located around the Pool Valley area. There is a slight variation in the advertised start time: some sources list 18:30 (6:30 PM), while others mention 7:30 PM GMT. Given the alternating headliner structure, aiming for the earlier time seems sensible. Tickets are priced at £27.50 and are available through platforms like See Tickets and DICE. It looks like a night aimed at adults and young adults interested in experimental and progressive music, offering a blend of historical depth and modern, high-energy performance.