Purus 650mm Wooden Wall Mounted Bathroom Furniture Set with 2 Doors in White

Create a bright, clean, and contemporary bathroom with the Purus 650mm Wooden Wall Mounted Bathroom Furniture Set with 2 Doors in White. Designed to combine modern aesthetics with practical functionality, this elegant bathroom furniture set features a crisp white finish that enhances the sense of space and light in any bathroom. Complete with a wall-mounted vanity unit, premium ceramic sink, and matching mirror, it offers a coordinated solution for stylish and organised living. Manufactured from 100% melamine-coated particle board with a durable 18 mm thickness, the Purus bathroom furniture set is built to withstand everyday use while maintaining its attractive appearance. The wall-mounted design creates a sleek floating effect that maximises floor space, while soft-close doors provide smooth and quiet operation. With ample internal storage and a high-quality ceramic sink, this set delivers both convenience and contemporary appeal. The Purus 650mm Wooden Wall Mounted Bathroom Furniture Set with 2 Doors in White combines contemporary design, durable materials, and practical storage to create a complete bathroom solution. Featuring a premium ceramic sink, spacious vanity unit, matching mirror, soft-close doors, and a clean white finish, this wall-mounted furniture set is an excellent choice for creating a stylish, organised, and functional bathroom. FEATURES: Material: 100% Melamine Coated Particle Board, 100% Ceramic Finish: White Sink included Tap not included Set Include: 1 x Wall Mirror, 1 x Vanity Unit with Sink Crafted from 100% melamine-coated particle board with an 18 mm thickness for excellent strength, durability, and long-lasting performance Includes a 100% ceramic sink that offers superior durability, easy maintenance, and resistance to everyday wear The stylish white finish creates a bright, fresh appearance that complements modern, minimalist, and contemporary bathroom interiors Featuring two soft-close doors for smooth, quiet operation while reducing we