Learners Live

New LiDAR Laser for the Next Generation of Vehicles

Autonomous driving demands sensor technology that delivers precision, reliability, and long-range performance every second. LiDAR systems capture the environment in three dimensions, regardless of lighting conditions, and enable safe, real-time decision-making. With its new 5-junction edge-emitting laser, ams OSRAM introduces a key component that elevates these systems to a new level of performance. Compared to the previous 3-junction technology, the new laser offers significantly higher optical peak power while consuming less electrical current. LiDAR is no longer reserved for premium vehicles. Whether it’s robotaxis navigating urban environments, automated delivery vehicles, or highway-level driver assistance systems – the range of applications is expanding rapidly. The increased range and precision not only enhance object detection and classification – they also enable OEMs to increase the speed for autonomous driving. This opens up new possibilities for highway driving and advanced driver assistance systems, without compromising safety or system reliability. [News] New LiDAR Laser for the Next Generation of Vehicles – LEDinside

Nichia and ams OSRAM Sign Broad Patent Cross-License Agreement

Nichia and ams OSRAM have expanded their long-standing collaboration in the field of intellectual property (IP). The agreement grants both companies mutual access to each other’s patents for nitride LED and laser components and, for the first time, also covers sophisticated LED packages and LED modules, such as matrix headlamps. The move aims to strengthen the industry- leading IP protection both companies offer to their customers. [News] Nichia and ams OSRAM Sign Broad Patent Cross-License Agreement – LEDinside

ams OSRAM Sells Its Entertainment and Industry Lamps Business

ams OSRAM has signed an agreement with Ushio Inc. headquartered in Tokyo, Japan, for the sale of its Entertainment and Industry Lamps (ENI) business. The transaction is expected to close by the end of March 2026. The purchase price of EUR 114 million is on a cash-and-debt-free basis. ENI’s product portfolio ranges from specialty lamps for infrastructure and cinema applications to extremely sophisticated light sources for semiconductor wafer fabrication equipment (WFE). The profitable ENI business delivered revenues of approximately EUR 170 million in 2024. Ushio Inc. has approx. 6,000 employees and provides light units, equipment, systems, and services through developing new light sources and developing and applying proprietary optical technology, serving a multitude of industrial segments. ams OSRAM Sells Its Entertainment and Industry Lamps Business – tEDmag

NIGHT BREAKER® LED SMART ECE H11 – The First ECE Approved LED Retrofit Lamp from OSRAM

The NIGHT BREAKER® LED SMART ECE H11 is approved as a direct replacement for H11 halogen lamps. It delivers a modern bright white light with a color temperature of up to 6000 Kelvin. Its impressive light output ensures optimum visibility for the driver, while the glare seen by other road users is up to 50 percent less than the legally permissible maximum values. Compared to standard halogen lamps, these LED retrofit lamps consume up to 60 percent less energy and last up to six times longer thanks to LED technology and the specially developed vibration-resistant design. These characteristics make the NIGHT BREAKER® LED SMART ECE H11 a cost-effective and eco-friendly retrofit solution. For the first time there is no need for a compatibility list, no need to verify the headlamp approval number, no need to carry official approval documents, and no need to affix stickers. First ECE approved LED retrofit H11 | ams OSRAM

Ultra-efficient LEDs: Perfect for High-Performance Indoor Lighting Applications

High efficacy, deep dimming performance, reliability, robustness, and flexibility are crucial criteria for indoor lighting and applications. ams OSRAM is now presenting new mid-power LEDs that embody all these essential features. The OSCONIQ® S 3030 offers luminous efficacy ratings of up to 235 lm/W at 4000K (CRI 80) and advanced features such as deep-dimming capability and precise color control. The LED reduces maintenance cycles making it perfect for office panels, troffers, and continuous linear lighting. When integrated into high-bay and low-bay fixtures, it provides consistent illumination in warehouses and manufacturing spaces. With high color rendering options (CRI 80 and CRI 90) and a wide CCT range from 2700K to 6500K, the OSCONIQ® S 3030 also optimizes architectural accents and retail displays. Its superior hydrogen sulfide resistance and robust thermal cycling performance ensures long-term stability, even in harsh operating conditions. [News] Ultra-efficient LEDs: perfect for high-performance indoor lighting applications – LEDinside

The Statue of Liberty was made with copper but due to oxidation, it turned green.

When the “Lady in the Harbor” first arrived in New York in 1886, she didn’t look like the mint-green icon we know today. In fact, for the first twenty years of her life, she stood as a towering, metallic beacon of reddish-gold. Designed by French sculptor Frédéric Auguste Bartholdi and engineered by Alexandre Gustave Eiffel, the statue was a gift from France to America. To build her, Bartholdi chose copper for three practical reasons:

  • Malleability:It could be hammered into elaborate, thin sheets.
  • Weight:Copper is lighter than stone or bronze, making it easier to ship 350 individual pieces across the Atlantic.
  • Durability:It was strong enough to survive a 27-day ocean voyage and the harsh winds of the harbor.

When she was unveiled on October 28, 1886, her skin—made of 300 copper sheets roughly the thickness of two pennies—shone with a bright, metallic brown luster. The transformation from “penny-colored” to “patina-green” wasn’t planned. Bartholdi actually expected the statue to age into a deeper, darker red. However, the unique environment of New York Harbor—a mix of salt air, moisture, and industrial pollution—triggered a process called oxidation.

The Timeline of Change:

  1. 1886–1900:The bright copper dulled into a dark, muddy brown.
  2. 1903:The first hints of a light green crust, or “patina,” began to appear.
  3. 1906:The color change was so controversial that Congress nearly stepped in. They appropriated $62,000 to paint the statue back to its original color, but the public protested, calling the idea “sacrilege.”
  4. 1910–1920:The statue was a patchy mix of brown and green until 1920, when the oxidation was complete, leaving her entirely teal.

While we now view the green color as iconic, it actually serves a vital structural purpose. The layer of verdigris (the green patina) acts as a protective shield. It seals the copper underneath, preventing the metal from further corrosion and weathering.  By the time the color fully changed, a new generation of immigrants had arrived in America seeing a green statue.