Research in materials science and engineering is progressing rapidly. The global emphasis, education and awareness have been focusing on the intensification of applications, recycling and reuse of materials for the benefit of humanity. This is leading to a new culture of enhanced creativity and increased respect for the world we live in. Thus, the gaps between fundamental research in materials science and engineering, research and development, and manufacturing are beginning to narrow.Due to the unique set of characteristics that include mechanical, optical, electronic and structural properties, scientists are exploring graphene for device applications. Researchers have shown that graphene can be used to improve the performance of a broad range of devices. By incorporating graphene into a silicone encapsulant, scientists have demonstrated increase in thermal conductivity, decrease in thermal expansion coefficient, improvement in chemical resistance and enhancement in the long-term stability of inorganic white light-emitting diodes (LEDs).1 Graphene has been a boon for applications in optoelectronics. The applications include polarizers, ultrafast lasers, transparent electrodes and photodetectors. However, a low absolute absorption observed in a single layer of graphene, ~2·3% of the incident photon, needs to addressed. In an attempt, Pirruccio et al.2 studied a multilayer structure of graphene in an attenuated total reflectance configuration. They found an enhanced absorption over the entire visible spectrum as a consequence of coherent absorption resulting from controllable interference and dissipation. Recent research has also shown that graphene materials are useful for capacitive energy storage. Yang et al.3 have integrated graphene sheets with a non-volatile liquid electrolyte forming an electrochemical capacitor (EC) with energy density of ~60 Wh/l, which is much greater than for most commercially available ECs (5-8 Wh/l). In a separate research, Mousavi et al. 4 has studied metamaterial tuning, a topic of extreme importance in modern science and technology, in which the resonance frequency of metamaterials shifts to blue -this has been made possible by coating them with a graphene layer. Now, with the help of both blue shifting and red shifting of the resonant frequency, the metamaterials working in the broader frequency range are discovered day by day, which has a wide range of applications from 'super lens' to cloaking devices.Research on biosensors has recently been updated with the discovery of a glass-based chip, instead of silicon-based electrochemical arrays.5 Limitations inherent in the complexity of the integrated circuit in the existing device have been addressed in this research by designing solution-based circuits. This not only enables highly multiplexed sensing but also provides rapid detection at lower cost. Similarly, a new probing device used in the fluorescence studies of biological system has been designed by Yang et al. 6 This device has an advantage over commonly used organic fluoro...