Sminkspegel fristående Adler AD 2159

The Adler AD 2159 is a freestanding chrome makeup mirror with a 15 cm diameter that combines LED illumination and 3x magnification to simplify makeup application and home beauty treatments. Battery-powered LED lighting ensures consistent brightness for face and neck, while a lightweight, portable design makes the mirror suitable for use at home or on the go. The chrome housing provides a clean, modern look for bathrooms and dressing tables.

Advantages

The mirror provides all-round LED lighting powered by four AAA (LR03) batteries, delivering even illumination for the face and neck. A 3x magnifying surface helps achieve precise makeup application, and the freely adjustable angle lets you position the mirror for comfortable use. The 15 cm diameter offers a generous viewing area while the chrome housing keeps the device compact and visually unobtrusive. At approximately 725 g it remains easy to transport.

Suitable for

• Applying detailed makeup (eyebrows, eyeliner, precision tasks)
• Home beauty treatments such as facial care and grooming
• Use during travel or in locations without convenient mains power

Key specifications

• Model: Adler AD 2159
• Diameter: 15 cm
• Magnification: 3x
• Lighting: LED (powered by 4 × AAA / LR03 batteries)
• Housing: chrome finish
• Weight: approx. 725 g
• MPN: AD 2159
• EAN: 5908256835818

How to use

Insert four AAA (LR03) batteries into the battery compartment according to the polarity markings. Position the mirror on a stable, flat surface and adjust the angle to your preferred viewing position. Turn on the LED lighting to illuminate face and neck while performing makeup or beauty treatments. Use the 3x magnified side for close-up tasks and the regular side for a wider view.

Recommendations

For best results, replace all batteries at the same time with fresh AAA (LR03) cells and avoid exposing the chrome housing to abrasive cleaners. Store the mirror in a dry place when travelling and carry it in protective packaging to prevent scratches on the reflective surface.