Search results for "lithium ion battery"

showing 7 items of 7 documents

Elettrodeposizione di leghe nanostrutturate a base di stagno

2010

Settore ING-IND/23 - Chimica Fisica Applicatatin tin alloy nanostructures anode lithium ion battery template electrosynthesis
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SnCo nanowire array as negative electrode for lithium-ion batteries

2011

Abstract Amorphous SnCo alloy nanowires (NWs) grown inside the channels of polycarbonate membranes by potentiostatic codeposition of the two metals (SnCo- PM ) were tested vs. Li by repeated galvanostatic cycles in ethylene carbonate-dimethylcarbonate – LiPF 6 for use as negative electrode in lithium ion batteries. These SnCo electrodes delivered an almost constant capacity value, near to the theoretical for an atomic ratio Li/Sn of 4.4 over more than 35 lithiation–delithiation cycles at 1 C. SEM images of fresh and cycled electrodes showed that nanowires remain partially intact after repeated lithiation–delithiation cycles; indeed, several wires expanded and became porous. Results of amorp…

Materials scienceTIN-COBALT ALLOYRenewable Energy Sustainability and the EnvironmentMetallurgyNanowireEnergy Engineering and Power Technologychemistry.chemical_elementTin Tin–cobalt alloy Nanowire Anode Lithium-ion batteryLithium batteryLithium-ion batteryAmorphous solidAnodeSettore ING-IND/23 - Chimica Fisica ApplicataChemical engineeringchemistryTINElectrodeLithiumElectrical and Electronic EngineeringPhysical and Theoretical ChemistryTinANODELITHIUM ION BATTERY.NANOWIRE
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Strategies and Techniques for Powering Wireless Sensor Nodes through Energy Harvesting and Wireless Power Transfer

2019

The continuous development of internet of things (IoT) infrastructure and applications is paving the way for advanced and innovative ideas and solutions, some of which are pushing the limits of state-of-the-art technology. The increasing demand for Wireless Sensor Nodes (WSNs) able to collect and transmit data through wireless communication channels, while often positioned in locations that are difficult to access, is driving research into innovative solutions involving energy harvesting (EH) and wireless power transfer (WPT) to eventually allow battery-free sensor nodes. Due to the pervasiveness of radio frequency (RF) energy, RF EH and WPT are key technologies with the potential to power …

Power managementenergy harvestingComputer science02 engineering and technologylithium-ion batterylcsh:Chemical technology01 natural sciencesBiochemistrySettore ING-INF/01 - ElettronicaEnergy harvesting; Internet of things; Lithium ion battery; Radio frequency; Wireless battery charger; Wireless sensor networks; WSNsLithium-ion batteryArticleAnalytical Chemistrywireless sensor network0202 electrical engineering electronic engineering information engineeringWirelessSystem on a chiplcsh:TP1-1185Wireless power transferElectrical and Electronic Engineeringwireless sensor networksInstrumentationwireless battery chargerbusiness.industry010401 analytical chemistryEnergy conversion efficiencyElectrical engineering020206 networking & telecommunicationsradio frequencyWSNinternet of thingsAtomic and Molecular Physics and Optics0104 chemical sciencesWSNsRadio frequencyEnergy sourcebusinesslithium ion batteryWireless sensor networkEnergy harvesting
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Advanced Techniques for Powering Wireless Sensor Nodes through Energy Harvesting and Wireless Power Transfer

2020

This paper presents three different techniques for efficiently powering an energy-autonomous wireless sensor (EAWS) through both energy harvesting (EH) and RF wireless power transfer (WPT). The aim of the paper is to provide effective strategies and techniques to reduce, as far as possible, the cost of wiring of the automotive production process due to the continuous and constant increase in the use of sensors. The techniques employ a highly integrated state-of-the-art, ultra-low power 2.5 mu W system-on-chip (SoC) system, designed for multi-source RF wireless energy harvesting and power transfer and are designed with the goal of minimizing and, where possible, eliminating the costly mainte…

energy harvestingbusiness.industryComputer science020209 energy020208 electrical & electronic engineeringElectrical engineeringwireless power transfer02 engineering and technologyradio frequencyMaintenance engineeringantennaPower (physics)0202 electrical engineering electronic engineering information engineeringMaximum power transfer theoremWirelessautomotiveRadio frequencyWireless power transferlithium ion batterywireless sensor networksbusinessEnergy harvestingWireless sensor networkwireless battery charger2020 AEIT International Conference of Electrical and Electronic Technologies for Automotive (AEIT AUTOMOTIVE)
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Nanostructured Material Fabrication for Energy Conversion

2010

tin alloy ruthenium oxide palladium cobalt alloy lithium ion battery electrolyzersSettore ING-IND/23 - Chimica Fisica Applicata
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Metodo di realizzazione di un elettrodo ad elevata densità energetica ed elettrodo ottenibile con tale metodo

2010

Tin Tin Alloys Nanostructures Template electrodeposition Anode Lithium ion batterySettore ING-IND/23 - Chimica Fisica Applicata
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Method for Producing an Electrode with Nanometric Structure and Electrode with Nanometric Stucture

2012

Settore ING-IND/23 - Chimica Fisica ApplicataNANOSTRUCTURES LITHIUM ION BATTERY ELECTRODEPOSITION TEMPLATE SYNTHESIS
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