Teledyne e2v's Emerald 67M CMOS Sensor Wins Vision Systems Design Innovators Award
June 16, 2020
Grenoble, France — Teledyne e2v, a subsidiary of Teledyne Technologies (NYSE: TDY), has announced that its Emerald™ 67M CMOS image sensor was recognized by the judges of the Vision Systems Design 2020 Innovators Awards program. The sensor stands out for its high resolution, fast speed, and low noise performance.
Sensor Highlights
- 📏 High Resolution & Speed: Delivers exceptional clarity with up to 65fps at full resolution.
- 🔇 Low Noise Performance: Achieves a readout noise of just 3e-, enhancing image quality.
- ✨ Compact Design: Utilizes an APS-C format, making it ideal for space-sensitive applications.
The sensor incorporates Tower’s smallest global shutter pixel (2.5µm) on its 65nm platform, manufactured in Japan. This breakthrough enables the Emerald 67M to handle demanding tasks such as:
- Flat-panel display and electronics inspection
- Sports broadcasting
- Advanced industrial imaging
Technical Specifications
Parameter | Value |
---|---|
Resolution | 67 Megapixels |
Frame Rate (Full Res) | Up to 65fps |
Readout Noise | 3e- |
Pixel Size | 2.5µm Global Shutter |
Recognition
“The Vision Systems Design team congratulates Teledyne e2v for this well-deserved recognition,” stated John Lewis, Editor-in-Chief. “This competitive program celebrates innovation in machine vision, and the Emerald 67M exemplifies that commitment.”
Marie-Charlotte Leclerc from Teledyne e2v emphasized:
“Our partnership with Tower has enabled us to deliver best-in-class solutions. This Silver Innovators Award reflects our dedication to customer needs.”
About Teledyne e2v
As part of the Teledyne Imaging Group, they specialize in imaging innovations for industries including healthcare, defense, space, and industrial applications. Their collaborative approach ensures tailored solutions that address unique market challenges.
Learn more about Emerald 67M here
Contact Information
For media inquiries:
[email protected]
This article was formatted to enhance readability while maintaining technical accuracy.
Last Updated: 2025-09-05 05:14:32