2-cestný samolepiaci filter na ochranu súkromia KAPSOLO HP Elite x2 1011 G1

The KAPSOLO 2-Way Adhesive Privacy KAPSOLO HP Elite x2 1011 G1 is a privacy filter designed for the HP Elite x2 1011 G1. It fits displays up to 30.5 cm (12") and limits the viewing angle to approximately 30° to protect sensitive on-screen information while maintaining usable screen clarity. The filter has a hardness rating of 3H, 63% light transmission and weighs 21 g, making it a lightweight and durable solution for mobile use.

Advantages

This privacy filter provides two-way privacy protection that reduces side viewing, combines a 3H surface hardness for scratch resistance with a 63% light transmission to retain readable brightness, and uses an adhesive mounting system for a secure, low-profile fit. At 21 g it adds minimal weight and is sized for 12" displays, matching the HP Elite x2 1011 G1 form factor.

Suitable for

• Professionals using HP Elite x2 1011 G1 tablets or compatible 12" convertible devices
• Working with confidential or sensitive information in public places
• Travel and mobile work where screen privacy is required

Key specifications

• Model: KAPSOLO 2-Way Adhesive Privacy filter for HP Elite x2 1011 G1
• Maximum screen size: 30.5 cm (12")
• Viewing angle limit: ~30° (two-way)
• Light transmission: 63%
• Surface hardness: 3H
• Weight: 0.021 kg
• Mounting: adhesive
• Brand: Kapsolo
• MPN: KAP10178
• EAN: 5714681001786

How to use

Clean the display surface thoroughly before application. Peel the adhesive backing and align the privacy filter with the screen edges of the HP Elite x2 1011 G1. Press gently from the center outward to secure the filter and remove any air bubbles. For best results, follow any included manufacturer instructions for placement and curing time.

Recommendations

For optimal privacy and longevity, avoid abrasive cleaners on the 3H surface and use a soft, lint-free cloth for routine cleaning. Check compatibility with the HP Elite x2 1011 G1 before installation and store removed filters flat to prevent deformation.