Penrose-Tiled Rhombus Solar Panels: A Novel Approach for Optimizing Rooftop Utilization and Aesthetic Integration

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Authors: Dhvanil Patel, Kajal Sheth
Cited by: 0

Abstract

Penrose tiling, a mathematical non-periodic tessellation formed using two distinct rhombus shapes, introduces a novel approach to solar photovoltaic (PV) system design by enabling flexible and efficient panel placement. In this study, we present a rhombus-shaped solar module whose larger tile is dimensioned to match the area of a standard rectangular solar panel. This ensures that energy yield per unit area remains consistent with industry standards while offering enhanced adaptability for irregular and obstructed roof surfaces. Through comparative layout analyses on residential rooftops, we demonstrate that Penrose-based configurations can significantly reduce unused roof space and enable optimized coverage in areas that would otherwise remain unutilized with conventional rectangular modules. The non-periodic nature of the tiling allows for fine-grained adjustment around obstructions such as chimneys, vents, and complex roof geometries, offering greater installation efficiency and shading mitigation. In addition to performance-driven advantages, Penrose tiling opens new avenues for aesthetic solar integration in public spaces. The rhombus tiles can be arranged into visually compelling patterns such as stars and flowers, merging energy production with architectural design. These artistic configurations are particularly well-suited for open areas like solar farms, plazas, and building façades where visual impact and community engagement are valued. This paper presents the geometric rationale, design methodology, and real-world application potential of Penrose-tiled solar systems. By uniting efficiency and aesthetics, this approach represents a new paradigm in solar panel layout and renewable infrastructure design.

Fields of Study & Subjects

Photovoltaic Systems and Sustainability Photovoltaic System Optimization Techniques Solar Thermal and Photovoltaic Systems

Publication details

Publication date
11 February 2026
Language
EN
Document type
Preprint