Picture of blood cells

Open Access research which pushes advances in bionanotechnology

Strathprints makes available scholarly Open Access content by researchers in the Strathclyde Institute of Pharmacy & Biomedical Sciences (SIPBS) , based within the Faculty of Science.

SIPBS is a major research centre in Scotland focusing on 'new medicines', 'better medicines' and 'better use of medicines'. This includes the exploration of nanoparticles and nanomedicines within the wider research agenda of bionanotechnology, in which the tools of nanotechnology are applied to solve biological problems. At SIPBS multidisciplinary approaches are also pursued to improve bioscience understanding of novel therapeutic targets with the aim of developing therapeutic interventions and the investigation, development and manufacture of drug substances and products.

Explore the Open Access research of SIPBS. Or explore all of Strathclyde's Open Access research...

Visible light communication using InGaN optical sources with AlInGaP nanomembrane downconverters

Santos, J. M. M. and Rajbhandari, S. and Tsonev, D. and Chun, H. and Guilhabert, B. and Krysa, A. B. and Kelly, A. E. and Haas, H. and O'Brien, D. C. and Laurand, N. and Dawson, M. D. (2016) Visible light communication using InGaN optical sources with AlInGaP nanomembrane downconverters. Optics Express, 24 (9). pp. 10020-10029. ISSN 1094-4087

[img]
Preview
Text (Santos-etal-OE-2016-Visible-light-communication-using-InGaN-optical-sources)
Santos_etal_OE_2016_Visible_light_communication_using_InGaN_optical_sources.pdf
Accepted Author Manuscript

Download (604kB)| Preview

    Abstract

    We report free space visible light communication using InGaN sources, namely micro-LEDs and a laser diode, down-converted by a red emitting AlInGaP multi-quantum-well nanomembrane. In the case of micro-LEDs, the AlInGaP nanomembrane is capillary-bonded between the sapphire window of a micro-LED array and a hemispherical sapphire lens to provide an integrated optical source. The sapphire lens improves the extraction efficiency of the color-converted light. For the case of the downconverter laser diode, one side of the nanomembrane is bonded to a sapphire lens and the other side optionally onto a dielectric mirror; this nanomembrane-lens structure is remotely excited by the laser diode. Data transmission up to 870 Mb/s using pulse amplitude modulation (PAM) with fractionally spaced decision feedback equalizer is demonstrated for the micro-LED-integrated nanomembrane. A data rate of 1.2 Gb/s is achieved using orthogonal frequency division multiplexing (ODFM) with the laser