Online Prediction Mechanism For Personalizing A Query For User Privacy

We propose a customized web look (PWS) framework called UPS that can adaptively entirety up profiles by request while with respect to customer demonstrated assurance requirements. Our runtime hypothesis goes for striking a concordance between two farsighted estimations that evaluate the utility of personalization and the security threat of revealing the summed up profile. We indicate o avaricious calculations, to be particular GreedyDP and GreedyIL, for runtime theory. We furthermore give an online gauge framework to picking in the case of modifying a request is profitable. Expansive examinations demonstrate the reasonability of our framework

DC-DC Energy Conversion with Novel loaded Resonant Converter

This paper presents the direct current (dc)-to-dc energy conversion with novel loaded-resonant converter. Energy shortages and increasing oil prices have created the demand for a high energy conversion efficiency and performance. The growing electronic product market has increased the demand for high energy conversion efficiency and high power density of dc-to-dc energy power converters. The soft switching scheme is the most attractive dc-to-dc energy conversion topology in recent years. The soft-switching method can reduce switching losses and EMI of the switch-mode converter. Among the many advantages that resonant power conversion has over conventionally adopted pulse-width modulation include a low electromagnetic interference, low switching losses, small volume, and light weight of components due to a high switching frequency, high efficiency, and low reverse recovery losses in diodes owing to a low di/dt at switching instant. The proposed topology comprises a half-bridge inductor-capacitor inductor (L-C-L) resonant inverter and a bridge rectifier. Output stage of the proposed loaded-resonant converter is filtered by a low-pass filter. A prototype dc-to-dc energy converter circuit with the novel loaded-resonant converter designed for a load is developed and tested to verify its analytical predictions. The measured energy conversion efficiency of the proposed novel loaded-resonant topology reaches up to 88.3%. Moreover, test results demonstrate a satisfactory performance of the proposed topology. Furthermore, the proposed topology is highly promising for applications of switching power supplies, battery chargers, uninterruptible power systems, renewable energy generation systems, and telecom power supplies. The experimental results are clearly verified by simulation results