Ugreen CY016 Non-Slip Rubber Mouse Pad 240x200mm

Ugreen CY016 Mouse Pad

The Ugreen CY016 Mouse Pad provides a high-precision tracking surface engineered specifically for professional environments using optical and laser mouse sensors. This peripheral accessory utilizes a micro-textured cloth weave to minimize sensor jitter and ensure consistent cursor movement across the X and Y axes. The architecture of the surface material balances static and dynamic friction, allowing for granular control during detailed technical tasks such as CAD drafting, graphic design, or data entry. Consequently, users experience improved accuracy compared to standard desk surfaces or lower-grade nylon pads.

Key Features

• High-Density Textile Surface
  The silk-processed cloth construction reduces surface resistance to facilitate rapid sensor response times.
• Anti-Slip Rubber Base
  The underside features a natural foam rubber layer that creates high-friction contact with wooden, glass, and laminate desktops to prevent unwanted displacement.
• Thermal Bonded Construction
  • Heat-treated layering prevents the textile surface from peeling away from the rubber core.
  • The 3mm thickness provides sufficient compression for wrist comfort without sacrificing surface rigidity.
• Universal Sensor Compatibility
  This tracking medium supports high-DPI settings for modern gaming and workstation mice without causing signal loss.

Specifications

What’s in the Box

• Ugreen CY016 Non-Slip Mouse Pad

Why Choose Ugreen CY016

• The micro-textured weave enhances tracking reliability for IT professionals who operate high-resolution multi-monitor setups.
• The natural rubber base resists chemical degradation and maintains its adhesive properties over extended deployment cycles.
• The compact 240x200mm footprint optimizes desk space in high-density server rooms or network operations centers.
• Low-profile design minimizes physical interference with keyboard positioning or other desktop hardware.
• The black matte finish reduces ambient light reflection which can sometimes interfere with specific sensitive optical sensors.