Interlinked Desk Lamp

Lead Designers Maya Shor

Entry Description

Interlinked Desk Lamp explores the relationship between movement, balance, and visual perception. Developed within a Work Lamp Design course at Shenkar College, the project examines how a sequence of mechanical motions can create a changing visual performance. The lamp departs from traditional desk lamp archetypes, presenting a mechanical yet sculptural form that combines stability with a sense of continuous motion. Its slender proportions and dark matte finish maintain a clean, focused presence, keeping attention on movement and light rather than on materiality. The lamp features four interconnected axes, each influencing the others to create a subtle choreography of light and structure. Its main axis runs on a linear bearing integrated into a 3D-printed connector, where both the bearing and an embedded O-ring are precisely housed. The measured friction between these elements generates balance and defines its tactile quality of motion. Developed through iterative prototyping and material exploration, the mechanism transforms a simple joint into a refined kinetic system. Three axes provide practical adjustment, while the fourth adds an expressive dimension—each movement forming a new visual composition. Hand-machined aluminum and steel components, a dual base with a ball bearing, and the linear-bearing assembly emphasize precision, balance, and quiet presence in the workspace.

Sustainability Approach

The Interlinked Desk Lamp integrates sustainability through material reuse, energy efficiency, and long-term durability. The metal components are made from recycled aluminum and steel – robust, fully recyclable materials chosen for their long lifespan and structural integrity. All parts are mechanically connected with screws, allowing full disassembly, repair, and eventual recycling. The LED 3000K light source provides warm illumination while consuming minimal energy. The shade is 3D-printed from ABS, a petroleum-based but heat-resistant and long-lasting material, printed in a closed system to minimize emissions. Its precision fabrication ensures zero excess material. Together, these choices promote sustainability through efficiency, endurance, and intelligent material use – a design built to last, not to be replaced.