DE-112024002493-T5 - SYSTEM FOR ILLUMINATING AN AREA USING OPTICAL REFLECTORS

Abstract

The present disclosure relates to the system (600) comprising a plurality of optical reflectors (500), each optical reflector comprising a concave reflector (516) and a convex reflector (508). The plurality of optical reflectors (500) is configured diagonally to one another at a distance greater than the focal length of the concave reflector and less than or equal to twice the focal length of the concave reflector. The system may include a light source in which a small fraction of the light from a parallel beam is scattered by the convex reflector of the optical reflectors, and the remaining light is reflected by the concave reflector to the next optical reflector of the plurality of optical reflectors.

Inventors

• Ashutosh Rajput
• Tanvi Rajput

Assignees

• Ashutosh Rajput
• Tanvi Rajput

Dates

Publication Date

20260513

Application Date

20240622

Priority Date

20230705

Claims (8)

1. A system (600) for illuminating an area, wherein the system (600) is characterized in that: a plurality of optical reflectors (500), each optical reflector comprising a concave reflector (516) and a convex reflector (508), wherein the plurality of optical reflectors (500) are configured diagonally to one another at a distance which is greater than the focal length of the concave reflector and less than or equal to twice the focal length of the concave reflector, wherein a small fraction of the light from a parallel ray of a light source is scattered through the convex reflector (508) of the optical reflectors (500) and the remaining light is reflected through the concave reflector (516) to a next optical reflector of the plurality of optical reflectors.
2. System (600) according to Claim 1 , wherein the concave reflector (516) and the convex reflector (508) of the plurality of reflectors are connected to each other at an angle, the angle being in a range of 110 to 170 degrees.
3. System (600) according to Claim 1 , wherein the angle between the concave reflector (516) and the convex reflector (508) of the plurality of reflectors is determined by measuring the angle between a tangent of the concave and convex reflectors at their respective poles.
4. System (600) according to Claim 1 , wherein the multitude of optical reflectors forms a sequence, the parallel beam from the light source being directed onto the first optical reflector of the sequence to illuminate the area.
5. System (600) according to Claim 1 , wherein subsequent optical reflectors in sequence continue to illuminate the area with a small fraction of the light scattered by their convex parts, while the concave parts reflect the remaining part of the light onto the next optical reflector.
6. System (600) according to Claim 1 , wherein the parallel beam from the light source is triggered from one end or both ends of the sequence.
7. System (600) according to Claim 1 , wherein a front surface of the convex and concave reflectors is coated with an aluminum layer 106.
8. System (600) according to Claim 1 , wherein the front surfaces of the convex and concave reflectors are coated with a multilayer dielectric coating 108 comprising at least one of amorphous silicon dioxide and silicon nitride.

Description

AREA OF TECHNOLOGY The present disclosure relates to an illumination system. In particular, the present disclosure relates to a system for illuminating an area using optical reflectors, comprising a configuration of optical reflectors arranged in a sequence to efficiently scatter light from a parallel beam and reflect it onto subsequent optical reflectors, thereby effectively illuminating the specified area. TECHNICAL BACKGROUND Lighting systems play a crucial role in a range of applications, from illuminating buildings and outdoor areas to creating captivating stage lighting. However, the challenge of achieving efficient and uniform illumination of large areas remains. In modern lighting technology, the focus is not only on brightness but also on minimizing energy consumption and ensuring visual comfort for users. Conventional lighting systems rely on traditional light sources such as incandescent or fluorescent lamps, which emit light in various directions. While these sources have been effective for many years, they have some notable drawbacks. Among the biggest challenges is the significant energy loss due to power consumption, leading to inefficiencies and increased operating costs. Furthermore, conventional light sources emit light in multiple directions, resulting in inefficient light distribution, uneven illumination, glare, eye strain, light pollution, limited control, short lifespan, heat generation, and environmental impact. These inherent problems have driven the development of more efficient and targeted lighting solutions, such as LEDs and optical reflectors, which offer better energy efficiency, precise light control, longer lifespan, reduced environmental impact, and improved illumination performance. This overcomes the limitations of conventional lighting systems and paves the way for more sustainable and visually appealing lighting options across a range of applications. Moreover, the demand for effective and energy-efficient lighting solutions has increased due to the growing importance of sustainability and environmental awareness. As society continues to seek more environmentally friendly and ecological alternatives, the need for innovative lighting technologies is becoming increasingly apparent. Therefore, there is a need to overcome the limitations of conventional lighting systems and to provide a system for illuminating an area using optical reflectors that consumes less energy. SUBJECT OF THE PRESENT DISCLOSURE Some of the objectives of the present disclosure, which fulfills at least one embodiment described herein, are listed below. One objective of the present disclosure is to provide a system for illuminating an area using optical reflectors, which includes a configuration of optical reflectors arranged in a sequence to efficiently scatter light from a parallel beam and reflect it onto subsequent optical reflectors. Another objective of the present disclosure is to provide a system for illuminating an area that is effective and easy to install through the strategic use of optical reflectors. Another objective of the present disclosure is to provide a system that reduces electricity consumption. Another objective of the present disclosure is to provide a system that provides effective light distribution and uniform illumination of the entire area. Another objective of the present disclosure is to provide a system that is protected against short circuits, rain, electric shocks and other disasters that may be caused by the presence of electricity at any point in the configuration. Another objective of the present disclosure is to provide a cost-effective lighting system. SUMMARY The present disclosure relates to a lighting system. In particular, the present disclosure relates to a system for illuminating an area using optical reflectors, comprising a configuration of optical It includes reflectors arranged in a sequence to efficiently scatter light from a parallel beam and reflect it onto subsequent optical reflectors, thereby effectively illuminating the specific area. According to one aspect of the concepts, constructions and techniques described here, a system for illuminating an area using optical reflectors is revealed. In one aspect, the system contains a plurality of optical reflectors, each optical reflector comprising a concave reflector and a convex reflector. The plurality of optical reflectors is configured diagonally to one another at a distance greater than the focal length of the concave reflector and less than or equal to twice the focal length of the concave reflector. In one aspect, the system for illuminating an area includes a light source in which a small fraction of the light from a parallel beam is scattered through the convex reflector of the optical reflectors, and the remaining light is reflected through the concave reflector to the next optical reflector of the multitude of optical reflectors. In one aspect, the concave reflector and the convex reflector o