The Arkemia tiles are a porcelain stoneware collection created by Spanish manufacturer Cristacer as part of its Tech Surface range. The design process begins with paper pulp that is air-dried and manually pressed, creating surfaces marked by natural fragments and pigments that make each tile visually distinct.
The resulting finish resembles concrete or natural stone, combining a mineral appearance with subtle flecked inclusions distributed throughout the surface. Designed for a variety of architectural applications, the collection offers a contemporary material aesthetic while maintaining the durability associated with porcelain stoneware.
The tiles are engineered for residential, commercial, and industrial environments where performance and ease of maintenance are important considerations. Arkemia features high slip resistance, making it suitable for wet areas such as kitchens and bathrooms
Flecked Porcelain Tiles
Arkemia Tiles Transform Paper Pulp into Stone-Like Surfaces
Trend Themes
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Paper-pulp Surfaces — Paper-derived texture systems suggest new premium finishes where low-cost fibrous inputs create distinctive mineral-like aesthetics for architectural products.
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Flecked Stone-look Finishes — Fragmented pigment patterns are turning standardized hard surfaces into visually unique materials that balance industrial durability with artisanal variation.
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High-performance Wet-area Tiles — Slip-resistant porcelain formats with elevated design value are expanding the market for surfaces that serve bathrooms, kitchens, hospitality spaces, and industrial interiors.
Industry Implications
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Building Materials — Manufacturers in this sector can differentiate commodity tile categories through hybrid production methods that merge engineered performance with nature-inspired surface irregularity.
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Interior Design — Design studios are gaining access to durable finishes that deliver the visual depth of concrete or stone without the maintenance constraints of more porous materials.
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Sustainable Architecture — Material innovation rooted in pulp-based visual processes points to lower-impact aesthetic development for projects seeking expressive surfaces with long lifecycle performance.