HappyTrends Kitchen Mat Cushioned Anti-Fatigue Kitchen Rug 17.3 x 28 Thick Waterproof Non-Slip Kitchen Mats and Rugs Heavy Duty PVC Ergonomic Comfort Rug for Kitchen Floor Office Sink Laundry Black

【EXTRA SOFT】Extra thick (0.47inch) kitchen mats are ergonomically designed for your comfort and are perfect choice for for people who spends a lot of time on their feet at work or at home.Cushioned support help improve circulation and posture while maintaining the firmness needed to keep a steady footing.The pattern and color compliment kitchen / room nicely and make the foam mats perfect for home or commercial use in areas such as hair salons restaurants. 【 WATER RESISTANT & CONVENIENCE】Our anti-fatigue gel mats are made of premium quality PVC material making it convenient to clean up and will not collect dirt. The material repels water liquids oils or stains and if anything spills it makes an effortless clean up.Simply wipe them off with a damp cloth and a hand-held vacuum can be used if needed.Grid pattern surface never wrinkles and gives a premium texture without collecting debris. 【NO TRIPPING & NON-SLIP】The non skid washable kitchen mats and rugs are designed with advanced beveled edge and non-slip backing helpful to protect you from slippage and tripping.Beveled edge with anti-curl prevents tripping and you can rely on to keep your family safe.Nonslip PVC Bottom is manufactured so that they do not move around like other mats while a slight texture on the top makes them slip resistant. 【SAFEST MATERIAL】The HappyTrends kitchen mats are made of premium PVC material that is phathalate-free latex-free and odor-free and very eco-friendly to your family.【VERSATILITY】The memory foam kitchen floor mats are measured as 17.3” (W) x 28” (L) x0.47”(H) and provide extra large areas for standing in laundry room kitchen office farmhouse in front of sink or any other high-traffic indoor or outdoor space. [WARNING!!] Open rug fully and place on even flat dry floor. Water under rug may result in slippage. Rug must be placed on dry surface during use.