S925 Emerald Green Moissanite Square Halo Earrings with Pavé-Set Halo & Hoop, 1ct D-Grade VVS1 Round Moissanite with GAR certification, Sterling Silver Earrings
✨ High-Quality Materials
Glow with elegance in the S925 Emerald Green Moissanite Square Halo Earrings! Featuring a stunning 1-carat emerald green square moissanite, these S925 sterling silver earrings boast a 5.2g weight for a bold yet comfortable fit. Certified with D-Grade VVS1 Round Moissanite and GAR certification, they’re a luxurious choice.
✨ Elegant Design & Comfort
The S925 Emerald Green Moissanite Square Halo Earrings showcase a radiant 1-carat emerald green square moissanite, framed by a dazzling pavé-set halo and elegant hoop. At 5.2g, their unisex design ensures all-day comfort, perfect for any occasion from daily wear to special events.
✨ Exceptional Sparkle
The 1-carat emerald green square moissanite, enhanced by the D-Grade VVS1 Round Moissanite with GAR certification, offers unmatched brilliance. The pavé-set halo and hoop design amplify its green glow, making these sterling silver earrings a standout piece.
✨ Perfect Gift for Any Occasion
Each pair of S925 Emerald Green Moissanite Square Halo Earrings arrives in an Luxury Gift Box, ideal for birthdays, anniversaries, or Valentine’s Day. Their unique emerald green hue and unisex style make them a thoughtful gift for any jewelry lover.
✨ Why Choose These Earrings?
The S925 Emerald Green Moissanite Square Halo Earrings combine luxury and versatility with a 1-carat emerald green square moissanite, pavé-set halo, and hoop design. The 5.2g S925 sterling silver construction with GAR certification ensures lasting shine and comfort.
✨ Add to your collection today and sparkle with every moment! ✨
✨ Key Parameters
- Material: S925 Sterling Silver
- Stone Size: 1ct Emerald Green Square Moissanite (D-Grade VVS1 Round with GAR Certification)
- Design Features: Pavé-Set Halo & Hoop
- Weight: 5.2g (pair)
- Design: Unisex, Hypoallergenic
- Packaging: Elegant Standard Box
- Safety Note: Keep away from young children due to small components.