This is a meticulously reproduced 3D-printed replica of an exquisite Roman cast-bronze oil lamp dating to c. 50 BCE–50 CE, from the transitional period between the late Republic and early Empire. The original, now in the Cleveland Museum of Art, exemplifies high-end Roman metalwork: far larger and more elaborate than common clay lamps, it combines functional illumination with refined artistry and served as a luxurious decorative object in elite households.
The design features a rounded, lobed body shaped like overlapping petals, adorned with driven reliefs of acanthus leaves, vines, small flowers, and a prominent central rosette surrounding the filling hole. The single spout is simple and pointed for the wick. The elaborate handle rises in a curving, branched form inspired by acanthus or grapevines, terminating in both a suspension loop and a hook-like element. Measuring 28.7 cm in length and 17.8 cm in width in the original, this replica captures the intricate floral ornamentation characteristic of Augustan-era aesthetics—nature-inspired motifs of abundance and harmony seen in contemporary monuments such as the Ara Pacis.
Available materials:
– White Nylon — Polished finish for a smooth tactile surface; the most economical option.
– Black Nylon — Post-print Color Touch treatment provides resistance to scratching and external conditions, with uniform, consistent color across production batches and high surface quality.
– Bronze — Produced via lost-wax metal casting: a 3D-printed wax master is encased in a plaster mold, then replaced by molten metal for an elegant, historically resonant appearance.
– Gold-plated brass — Brass base with applied gold plating for a rich, luminous effect.
– White rhodium-plated brass — Brass base with bright white rhodium plating for a cool, silvery sheen.
For objects exceeding the maximum dimensions allowable in the production process for the selected material, the replica is offered at a reduced scale compared to the original. In such cases, internal hollowing may also be applied to reduce material usage and cost while preserving structural integrity and external detail.
