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Journals / Turkish Journal of Electrical Engineering and Computer Science / 2015 / Cilt: 23 - Sayı: 5

Semiconductor laser beam bending

REMZİ YILDIRIM
FATİH VEHBİ ÇELEBİ
Pages
1257–1262
Publication Date
2015-08-13
DOI
—
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

The dimensions of the captured images are 500 $\times $ 700 mm.

📌 3 Key Takeaways

🎯
Objective & Hypothesis:This study is about a single-component cylindrical structured lens with a gradient curve that was used for bending laser beams.
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Key Findings & Data:It operates under atmospheric conditions and bends the laser beam independently of temperature, pressure, polarity, polarization, magnetic field, electric field, radioactivity, and gravity.
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Conclusion & Impact:The dimensions of the captured images are 500 $\times $ 700 mm.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Laser · bending · lens

Abstract

This study is about a single-component cylindrical structured lens with a gradient curve that was used for bending laser beams. It operates under atmospheric conditions and bends the laser beam independently of temperature, pressure, polarity, polarization, magnetic field, electric field, radioactivity, and gravity. A single-piece cylindrical lens that can bend laser beams was developed. Lenses are made of transparent, tinted, or colored glass and are used to undermine or absorb the energy of laser beams. This study is not a work of a plasma filamentation, nor is related to a self-accelerating wave packet. Rather, it focuses on bending the laser beam as required. The dimensions of the light-bending curvatures vary depending on the source and the lens. This is an application of laser beam bending. The dimensions of the captured images are 500 $\times $ 700 mm.

Özet

This study is about a single-component cylindrical structured lens with a gradient curve that was used for bending laser beams. It operates under atmospheric conditions and bends the laser beam independently of temperature, pressure, polarity, polarization, magnetic field, electric field, radioactivity, and gravity. A single-piece cylindrical lens that can bend laser beams was developed. Lenses are made of transparent, tinted, or colored glass and are used to undermine or absorb the energy of laser beams. This study is not a work of a plasma filamentation, nor is related to a self-accelerating wave packet. Rather, it focuses on bending the laser beam as required. The dimensions of the light-bending curvatures vary depending on the source and the lens. This is an application of laser beam bending. The dimensions of the captured images are 500 $\times $ 700 mm.

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Cite This Article

YILDIRIM, R., ÇELEBİ, F. V. (2015). Semiconductor laser beam bending. Turkish Journal of Electrical Engineering and Computer Science, Cilt: 23 - Sayı: 5, 1257–1262. https://ajindex.com/articles/187492

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References (4)

  1. Figure 7. Bending of green laser light towards the left (dimensions of the photo: 500× 700 mm). 3. Conclusion In this experimental study, semiconductor laser diodes and LEDs were used as light sources. Specifications for the lens used are provided above. Apart from these components, there were no other parts made of special materials. While it is commonly assumed that a laser beam expands along its path, it is clearly shown in Figure 7 that, contrary to common assumptions, the beam contracts. Due to some technical reasons, we are unable provide other details of the experiment. Here we share the results with our colleagues. In the experiment, only the observed cases are discussed. The authors would like to discuss the findings of the experiment with other scientists interested in this issue and look forward to their support, suggestions, and criticism. 4. Acknowledgments This study is connected with TPE (T¨urkiye Patent Enstit¨us¨u-Turkish Patent Institute) 2011/00938 numbered patent. This study was supported by T ¨UB˙ITAK. Einstein A. On the influence of gravitation on the propagation of light. Annalen der Physik 1911; 35: 898–908 (in German). Frost CA, Shope SL, Miller RB, Leifeste GT, Crist CE, Reinstra WW. Magnetic bending of laser guided electron beams. IEEE T Nucl Sci 1985; 32: 2754–2756. Brown K. Relativity on Reflectivity. London, UK: Cambridge Press, 2009. Zhigang C. Light bends itself into an arc. Physics 2012; 5: 44–45.
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