The failure strength of annealed float glass is difficult to predict accurately due to several factors that influence the glass' mechanical behavior, including stress rate, environmental conditions, fabrication process, glass thickness and the presence of surface flaws.
It becomes essential and very important to improve the DSSCs performance such as low production cost, low environmental impact during fabrication, and high energy conversion efficiency [1].
The actions of in-service loading and environmental effects, or fabrication errors make these joints semirigid, which ultimately reduces the structural reliability.
For the advantages of low cost, environmental friendliness, easy fabrication, and light-to-energy conversion with relatively high efficiency, dye-sensitized solar cells (DSSCs) are listed as one of the most promising photovoltaic devices [1 6].
Because, for all the clever construction, high-speed fabrication, model environmental performance and indisputable value, it's hard to escape the fact that everything that has come out of RS H+Ps Homeshell initiative to date looks a bit like something from an out-of-town business park.
Environmental impacts of different fabrication materials and electricity consumption were studied for the main turbine components.
Dye-sensitized solar cells (DSSCs) have attracted considerable attention as a viable alternative to conventional silicon-based photovoltaic cells [1] because of their low-production cost, high conversion efficiency, environmental friendliness, and easy fabrication procedure [2 5].
Inventories given in the Oekoinventare database or collected in the European REGENER project are considered to evaluate the environmental impacts of material fabrication and other processes (energy, transport, etc.).
Other properties having varying, though sometimes critical significance, include: stiffness; toughness; resistance to corrosion; fatigue and the effects of environmental heating; ease of fabrication; availability and consistency of supply; and the cost.
Fabrication of environmental friendly, compact and wearable electronic device using a flexible substrate that synchronously harvests and stores energy by the co-ordination of a conventional energy harvesting and storage mechanism in a single portable device is highly essential to design modern electronics.
