Energy Efficiency: Towards the End of Demand Growth. Edited by Fereidoon P. Sioshansi

Abstract

The control of inter‐lattice magnetic interactions is a crucial issue when long‐range ordered magnets that are based on low‐dimensional magnetic frameworks are designed. A “pillared layer framework (PLF)” model could be an efficient system for this purpose. In this report, A magnet based on a π‐stacked PLF with a phase transition temperature of 82 K, which can be increased to 107 K by applying a pressure of 12.5 kbar, is rationally constructed. Two types of low‐dimensional magnetic framework systems, an electron donor/acceptor magnetic layer and a charge transfer [FeCp*2]+TCNQ.− columnar magnet ([FeCp*2]+=decamethylferrocenium; TCNQ=7,7,8,8‐tetracyano‐p‐quinodimethane), are integrated to fabricate the magnet. This synthetic strategy employing a combination of layers and chains is widely useful not only for magnet design, but also for the creation of multifunctional materials with pores and anisotropic frameworks.

Design and Implementation of Low-Cost Real-Time Energy Logger for Industrial and Home Applications

“…In the past decade, there have been increase in energy demands due to the continuous development of new technologies, that contributed in making the human life easier. Electrical appliances and machines are an essential part of the day-to-day life of humans, and this leads to increase in the electricity usage [1]. Due to this, we have seen the rise of smart grid initiatives and smart metering that can monitor the power consumption and increase any electric grid's efficiency with the smart meter, which would reduce the environmental cost [2].…”