Tadelakt Plaster in Los Angeles

Tadelakt is a traditional Moroccan lime plaster, hand-applied and burnished with a smooth stone, then sealed with soap to create a naturally water-resistant, almost silky surface. Historically used to line hammams and water cisterns, it's become one of the most sought-after finishes for modern walk-in showers and spa-style bathrooms — a seamless, grout-free alternative to tile that only gets more beautiful with use.

Where Tadelakt Works Best

  • Walk-in and steam showers
  • Bathtub surrounds
  • Spa and wellness spaces
  • Powder rooms and sinks
  • Any high-moisture area where a seamless, tile-free finish is desired

Why Choose Tadelakt

  • Naturally water-resistant when properly sealed — no grout to mold or crack
  • Seamless, tile-free look for a cleaner, more spa-like bathroom
  • Soft, tactile texture unlike any other wall finish
  • Ages beautifully — develops a subtle patina over time rather than wearing out

Our Process

  1. Consultation to assess your bathroom or wet area and discuss color options
  2. Surface preparation
  3. Hand application and burnishing in multiple layers
  4. Soap-based sealing for water resistance
  5. Care guidance for long-term maintenance

Serving Los Angeles, Westlake Village, Agoura Hills, Malibu, Calabasas, Thousand Oaks, Woodland Hills, and Simi Valley.

Frequently Asked Questions

Is tadelakt actually waterproof?

Properly applied and sealed tadelakt is highly water-resistant and specifically suited to showers, though like any natural finish it requires occasional resealing to maintain performance over time.

How is tadelakt different from Venetian plaster?

Both are lime-based, hand-applied finishes, but tadelakt is burnished and sealed specifically for water resistance, making it the better choice for showers and wet areas, while Venetian plaster is typically used in dry living spaces.

Does tadelakt need special maintenance?

It benefits from periodic resealing and should be cleaned with gentle, non-abrasive products to preserve its surface.