Introducing the
NewDEL™ Fiber-coupled LED
Meticulously engineered photonic tools built to advance the goals of our customers, whether they are forging new paths in scientific discovery or implementing an ongoing project.
Illuminating Innovation
The flexibility you want, the performance you need
When it comes to applications like spectroscopy, optogenetics, and photodynamic therapy, the quality of the light source directly impacts the value of the results. As users of photonic instrumentation increasingly switch to fiber-coupled LEDs, they look for sources that produce stable, high-power output, at a range of wavelengths. NewDEL™ fiber-coupled LEDs meet those performance goals while also empowering researchers and innovators to target operation to each project, whether that’s manual configuration or fully automated remote control. With being engineered for customization, they can also be tailored to meet specialty requirements upon request.
Meet the NewDEL™ fiber-coupled LED
The NewDEL™ product groups of fiber-coupled LEDs were designed to deliver high performance operation from a system tailored to the user.
- High output power – High-power LEDs selected to maximize fiber coupling efficiency, advanced thermal engineering to ensure stable output
- An integrated driver/controller – Ready to go, out of the box
- Configuration options – Through a feature-rich Windows-based GUI or programmed using distinct serial commands
- Choice of operating modes – PWM, pulsed, and trigger modes
NewDEL™ UV
Narrowband
(275 nm to 405 nm)
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NewDEL™ VIS
Narrowband
(455 nm to 680 nm)
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NewDEL™ NIR
Narrowband
(750 nm to 910 nm)
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NewDEL™ BB
Broadband
(330 nm – 1100 nm)
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Applications
LumeDEL’s NewDEL™ fiber-coupled LEDs target requirements for life sciences, medical, scientific, and industrial applications that require stable illumination at specific wavelengths and/or radiant powers to achieve success.
Spectroscopy
Optogenetics
Photodynamic Therapy (PDT)
Fluorescence-Guided Surgery
Why LumeDEL?
For LumeDEL, supporting the research and test community with the tools they need to succeed is more than just a product design objective – it’s at the core of our philosophy as an organization. We know that requirements and skills change from user to user and even project to project. That’s why we engineered the NewDEL to maximize both performance and flexibility. Want the advantages of fiber-coupled LEDs but lack the resources to work with the products currently on the market? The NewDEL is ready to go right out of the box. Have experience in programming and lab automation? You can set up hands-free and even remote operation.
We designed NewDEL fiber-coupled LEDs for ease of customization, which allows us to satisfy specialty requirements and support innovation. At LumeDEL, we don’t just sell you what we have, we build you what you need. And because we’re sized for collaboration, we’re ready to work together to help you realize your vision.
Latest News
High Radiant Power LEDs: Why Output Matters in Optical Systems
Introduction In optical systems, illumination quality is often judged by wavelength and stability. However, radiant power—the amount of optical energy delivered to a target—plays an equally critical role in determining system performance. High radiant power LEDs are essential in applications where signal strength, measurement accuracy, and detection sensitivity depend on sufficient optical intensity. From spectroscopy and fluorescence imaging to environmental sensing and analytical instrumentation, the ability to deliver consistent, high-output illumination can significantly improve system results. Understanding how radiant power impacts optical performance helps engineers and researchers select the right LED source for their application. What Is Radiant Power? Radiant power refers to the total optical energy emitted by a light source per unit time, typically measured in watts (W) or milliwatts (mW). In practical terms, radiant power determines: How much light reaches the sample The...
Fiberoptic Patch Cords and Accessories: Ensuring Efficient Light Delivery
Introduction In fiber-coupled optical systems, the performance of the light source is only part of the equation. The efficiency and reliability of light delivery depend heavily on the quality of the fiberoptic patch cords and accessories used within the system. Fiberoptic patch cords serve as the critical link between LED sources and optical instruments, guiding light with precision and consistency. Poor fiber selection or mismatched components can introduce losses, reduce signal strength, and impact measurement accuracy. Understanding how fiberoptic patch cords and accessories affect system performance is essential for achieving optimal results in spectroscopy, imaging, and sensing applications. What Are Fiberoptic Patch Cords? Fiberoptic patch cords are flexible optical cables designed to transmit light from one component to another. They typically consist of: A fiber core that carries the light Cladding that maintains internal reflection Protective outer jacketing Connector...
Understanding Fiber-Coupled LED Sources: Performance, Stability, and Integration
Introduction Fiber-coupled LED sources have become a preferred illumination solution for spectroscopy, imaging, sensing, and analytical instrumentation. By combining the efficiency and stability of modern LEDs with precision optical fiber delivery, these systems provide flexible, repeatable illumination for laboratory and OEM applications. Unlike free-space light sources, fiber-coupled LED sources allow the light engine to be physically separated from the application, improving system stability, reducing thermal influence, and simplifying integration. Understanding how fiber-coupled LED sources perform — and why they are increasingly specified in advanced optical systems — is critical when designing high-precision measurement platforms. What Is a Fiber-Coupled LED Source? A fiber-coupled LED source integrates: A high-performance LED emitter Precision coupling optics An optical fiber interface A stable electronic driver Light generated by the LED is efficiently focused into an optical...