The NOVELTY DISPLAY PLATFORM discloses a display platform for illuminating a display chamber. The platform includes a base unit containing a light source. The base unit is configured with a stage to support a display chamber. The base unit further includes an opening configured to receive a light conduit. The light conduit is configured to redirect light from the light source contained in the base unit to illuminate the display chamber. The display chamber may contain a transparent sheet bearing an image and/or be filled with a suspension of reflective particles. The a light source may be color changing and/or support various display modes, and may be controlled by a remote.

The NOVELTY DISPLAY PLATFORM discloses a display platform for illuminating a display chamber. The platform includes a base unit containing a light source. The base unit is configured with a stage to support a display chamber. The base unit further includes an opening configured to receive a light conduit. The light conduit is configured to redirect light from the light source contained in the base unit to illuminate the display chamber. The display chamber may contain a transparent sheet bearing an image and/or be filled with a suspension of reflective particles. The a light source may be color changing and/or support various display modes, and may be controlled by a remote.

Transparent displays enable many useful applications, including heads-up displays for cars and aircraft as well as displays on eyeglasses and glass windows. Unfortunately, transparent displays made of organic light-emitting diodes are typically expensive and opaque. Heads-up displays often require fixed light sources and have limited viewing angles. And transparent displays that use frequency conversion are typically energy inefficient. Conversely, the present transparent displays operate by scattering visible light from resonant nanoparticles with narrowband scattering cross sections and small absorption cross sections. More specifically, projecting an image onto a transparent screen doped with nanoparticles that selectively scatter light at the image wavelength(s) yields an image on the screen visible to an observer. Because the nanoparticles scatter light at only certain wavelengths, the screen is practically transparent under ambient light. Exemplary transparent scattering displays can be simple, inexpensive, scalable to large sizes, viewable over wide angular ranges, energy efficient, and transparent simultaneously.

Transparent displays enable many useful applications, including heads-up displays for cars and aircraft as well as displays on eyeglasses and glass windows. Unfortunately, transparent displays made of organic light-emitting diodes are typically expensive and opaque. Heads-up displays often require fixed light sources and have limited viewing angles. And transparent displays that use frequency conversion are typically energy inefficient. Conversely, the present transparent displays operate by scattering visible light from resonant nanoparticles with narrowband scattering cross sections and small absorption cross sections. More specifically, projecting an image onto a transparent screen doped with nanoparticles that selectively scatter light at the image wavelength(s) yields an image on the screen visible to an observer. Because the nanoparticles scatter light at only certain wavelengths, the screen is practically transparent under ambient light. Exemplary transparent scattering displays can be simple, inexpensive, scalable to large sizes, viewable over wide angular ranges, energy efficient, and transparent simultaneously.

A novelty device comprising a vessel that includes a composition comprising water, oil, and particles (e.g., sand) that do not dissolve in either oil or water. When the contents of the novelty device are mixed (e.g., by manual manipulation or mechanical mixing) the water, oil, and particles form a column(s) of rising and descending material that forms various patterns. Various patterns may be produced depending on how the vessel and/or contents of the vessel are manipulated.

A novelty device comprising a vessel that includes a composition comprising water, oil, and particles (e.g., sand) that do not dissolve in either oil or water. When the contents of the novelty device are mixed (e.g., by manual manipulation or mechanical mixing) the water, oil, and particles form a column(s) of rising and descending material that forms various patterns. Various patterns may be produced depending on how the vessel and/or contents of the vessel are manipulated.

An apparatus that is part of a lampshade comprises a first film, a second film and a border seal forming a closed chamber that is laminar in shape and hermetically sealed. A fluid is disposed for fluid motion in the closed chamber.

An apparatus that is part of a lampshade comprises a first film, a second film and a border seal forming a closed chamber that is laminar in shape and hermetically sealed. A fluid is disposed for fluid motion in the closed chamber.

The present disclosure provides a wax pool and a candle thereof. The wax pool is located on the top of the candle, the candle has at least a candle simulator, the wax pool is a light-transparent member, a reflection member or a 3D decoration member, the wax pool encircles the candle flame simulator. The candles using such wax pool in the present disclosure show molten state and gorgeous colors that are generated by the burning of traditional candles.

The present disclosure provides a wax pool and a candle thereof. The wax pool is located on the top of the candle, the candle has at least a candle simulator, the wax pool is a light-transparent member, a reflection member or a 3D decoration member, the wax pool encircles the candle flame simulator. The candles using such wax pool in the present disclosure show molten state and gorgeous colors that are generated by the burning of traditional candles.