Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

Skyrmions, recognized for their intricate spin configurations, have captivated researchers as topological quasiparticles with vast potential in data storage and information technology.

Wavelength Tunable Pulsed Lasers A 3D metafiber that simultaneously functions as a saturable absorber and a spectral filter is inserted into the laser cavity, enabling Q-switched pulse generation and wavelength-tunable operation. This structure avoids the structural complexity of traditional hybrid systems while ensuring stable laser operation, offering a promising route for high-performance wavelength-tunable pulsed lasers. More details can be found in the Research Article by Bo Fu, Lei Zhang, Min Qiu, and co-workers (DOI: 10.1002/advs.202511572 ).

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

IMDEA Nanociencia es un centro de investigación interdisciplinar dedicado a la exploración de la nanociencia y al desarrollo de aplicaciones de la nanotecnología en relación con industrias innovadoras.

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

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Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional syst...

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional systems that rely on bulky moving parts, the Metafiber uses a tiny 3D nanoprinted hologram on a dual-core fiber to steer light by adjusting power between its cores. This enables seamless, continuous focus shifts over microns with excellent beam quality.

The generation of complex light beams is central to many areas of science and technology. In this work, we introduce a novel metafiber capable of simultaneously generating multiple orbital angular…

The authors fabricate a 3D achromatic diffractive metalens on the end face of a single-mode fiber, useful for endoscopic applications. They demonstrate achromatic and polarization insensitive focusing...

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional systems that rely on bulky moving parts, the Metafiber uses a tiny 3D nanoprinted hologram on a dual-core fiber to steer light by adjusting power between its cores. This enables seamless, continuous focus shifts over microns with excellent beam quality.

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional…

Researchers in Germany have unveiled the Metafiber, a breakthrough device that allows ultra-precise, rapid, and compact control of light focus directly within an optical fiber. Unlike traditional systems that rely on bulky moving parts, the Metafiber uses a tiny 3D nanoprinted hologram on a dual-core fiber to steer light by adjusting power between its cores. This enables seamless, continuous focus shifts over microns with excellent beam quality.

**jakarta.jpnn.com** - mGanik Metafiber mengantongi bukti uji klinis yang membuktikan kemampuannya menurunkan lonjakan gula darah dua jam setelah makan hingga 34 persen pada penyandang diabetes melitus tipe 2.

Schematic diagram of wavelength-tunable pulsed laser based on metafiber-FP (Fabry-Perot). The alcohol solution is filled inside the FP cavity to simultaneously form a spectral filter and a saturable absorber. By adjusting the refractive index value and temperature inside the cavity, the tunable filtering effect is introduced to realize wavelength-tunable pulsed laser generation. Abstract Wavelength-tunable pulsed lasers have garnered significant research interest due to their critical role in applications requiring precise spectral matching, such as wavelength-division multiplexing and spectroscopic analysis. Although recent hybrid architectures integrating saturable absorbers with wavelength-selective components have enabled notable progress, these systems remain constrained by two fundamental challenges: excessive coupling losses and complex alignment procedures. Here, a compact wavelength-tunable pulsed laser configuration is presented that employs a monolithic fiber-based component, effectively addressing the complexity and alignment issues inherent in conventional hybrid systems. By leveraging advanced manufacturing techniques, a 2D metafiber is integrated with a 3D Fabry-Perot interferometer at the end facet of a single-mode optical fiber, forming a metafiber Fabry-Perot structure that simultaneously functions as both a saturable absorber and a tunable optical filter. Exploiting the versatile optical feedback provided by the Fabry-Perot cavity, our design achieves Q-switching operation in the telecommunication band and enables approximately 10 nm dynamic wavelength tuning through temperature/refractive index modulation. This work circumvents the structural complexity of traditional hybrid systems while ensuring stable laser operation, demonstrating a promising pathway for high-performance wavelength-tunable pulsed laser applications.