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Energy harvesting is the conversion of unused or wasted energy in the ambient environment into useful electrical energy. It can be used to power small electronic systems such as wireless sensors and is beginning to enable the widespread and maintenance-free deployment of Internet of Things (IoT) technology. This Special Issue is a collection of the latest developments in both fundamental research and system-level integration. This Special Issue features two review papers, covering two of the hottest research topics in the area of energy harvesting: 3D-printed energy harvesting and triboelectric nanogenerators (TENGs). These papers provide a comprehensive survey of their respective research area, highlight the advantages of the technologies and point out challenges in future development. They are must-read papers for those who are active in these areas. This Special Issue also includes ten research papers covering a wide range of energy-harvesting techniques, including electromagnetic and piezoelectric wideband vibration, wind, current-carrying conductors, thermoelectric and solar energy harvesting, etc. Not only are the foundations of these novel energy-harvesting techniques investigated, but the numerical models, power-conditioning circuitry and real-world applications of these novel energy harvesting techniques are also presented.

Technology: general issues --- History of engineering & technology --- piezoelectric harvester --- orthoplanar spring --- trapezoidal leg --- vibration energy --- acoustic resonance --- closed side branch --- DDES --- wind energy harvester --- Autonomous Internet of Things --- vibration energy harvesting --- electromagnetic–mechanical modeling --- autonomous sensors --- self-powered device --- battery-less modules --- energy harvesting --- Wiegand sensor --- self-oscillating boost converter --- power management --- connected vehicles --- smart cities --- electric vehicle --- IoT --- Tesla --- triboelectric nanogenerators --- ocean wave --- artificial intelligence --- structural health monitoring --- TEG --- thermoelectricity --- thermal energy harvesting --- tracker --- wildlife --- animal --- ultra low power --- 3D printed --- vibration harvester --- electromagnetic --- hybrid --- photovoltaics --- solar panel --- highway --- urban street --- experimental investigation --- water --- solar still --- absorber --- silicon --- temperature --- dual resonance frequencies --- vibration electromagnetic energy harvester --- wide harvested frequency range --- enhanced “band-pass” harvested power --- independent resonant frequencies --- autonomous wireless sensor --- passive energy management --- weak vibration --- electromagnetic converter --- wideband --- planar spring --- voltage multiplier --- rectifier --- predictive maintenance --- failure detection --- WSN --- n/a --- electromagnetic-mechanical modeling --- enhanced "band-pass" harvested power

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

Energy harvesting is the conversion of unused or wasted energy in the ambient environment into useful electrical energy. It can be used to power small electronic systems such as wireless sensors and is beginning to enable the widespread and maintenance-free deployment of Internet of Things (IoT) technology. This Special Issue is a collection of the latest developments in both fundamental research and system-level integration. This Special Issue features two review papers, covering two of the hottest research topics in the area of energy harvesting: 3D-printed energy harvesting and triboelectric nanogenerators (TENGs). These papers provide a comprehensive survey of their respective research area, highlight the advantages of the technologies and point out challenges in future development. They are must-read papers for those who are active in these areas. This Special Issue also includes ten research papers covering a wide range of energy-harvesting techniques, including electromagnetic and piezoelectric wideband vibration, wind, current-carrying conductors, thermoelectric and solar energy harvesting, etc. Not only are the foundations of these novel energy-harvesting techniques investigated, but the numerical models, power-conditioning circuitry and real-world applications of these novel energy harvesting techniques are also presented.

piezoelectric harvester --- orthoplanar spring --- trapezoidal leg --- vibration energy --- acoustic resonance --- closed side branch --- DDES --- wind energy harvester --- Autonomous Internet of Things --- vibration energy harvesting --- electromagnetic–mechanical modeling --- autonomous sensors --- self-powered device --- battery-less modules --- energy harvesting --- Wiegand sensor --- self-oscillating boost converter --- power management --- connected vehicles --- smart cities --- electric vehicle --- IoT --- Tesla --- triboelectric nanogenerators --- ocean wave --- artificial intelligence --- structural health monitoring --- TEG --- thermoelectricity --- thermal energy harvesting --- tracker --- wildlife --- animal --- ultra low power --- 3D printed --- vibration harvester --- electromagnetic --- hybrid --- photovoltaics --- solar panel --- highway --- urban street --- experimental investigation --- water --- solar still --- absorber --- silicon --- temperature --- dual resonance frequencies --- vibration electromagnetic energy harvester --- wide harvested frequency range --- enhanced “band-pass” harvested power --- independent resonant frequencies --- autonomous wireless sensor --- passive energy management --- weak vibration --- electromagnetic converter --- wideband --- planar spring --- voltage multiplier --- rectifier --- predictive maintenance --- failure detection --- WSN --- n/a --- electromagnetic-mechanical modeling --- enhanced "band-pass" harvested power

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The numerical simulation of sheet metal forming processes has become an indispensable tool for the design of components and their forming processes. This role was attained due to the huge impact in reducing time to market and the cost of developing new components in industries ranging from automotive to packing, as well as enabling an improved understanding of the deformation mechanisms and their interaction with process parameters. Despite being a consolidated tool, its potential for application continues to be discovered with the continuous need to simulate more complex processes, including the integration of the various processes involved in the production of a sheet metal component and the analysis of in-service behavior. The quest for more robust and sustainable processes has also changed its deterministic character into stochastic to be able to consider the scatter in mechanical properties induced by previous manufacturing processes. Faced with these challenges, this Special Issue presents scientific advances in the development of numerical tools that improve the prediction results for conventional forming process, enable the development of new forming processes, or contribute to the integration of several manufacturing processes, highlighting the growing multidisciplinary characteristic of this field.

n/a --- hardening --- modeling --- direct forming --- forming limit curve --- depth-sensing indentation --- stamping --- finite element method --- similitude --- the bathtub model --- boron steel --- plastic anisotropy --- physical experiment --- robustness evaluation --- cold deep drawing --- hardening law --- formability --- magnetic-pulse forming --- hot deep drawing --- metallic bipolar plate --- parameters identification --- finite element simulation --- mechanical properties --- hardness --- deformation characteristics --- continuum damage mechanics --- yield function --- Knoop indenter --- Young’s modulus --- damage --- 3D adaptive remeshing --- springback --- bake hardening --- Johnson–Cook material model --- anisotropy --- indirect forming --- ductile damage --- steel sheet --- mechanical modeling --- fracture behavior --- fuel cells --- dent resistance --- numerical simulation --- mixed hardening --- M-K theory --- uniform deformation --- non-proportional loading paths --- high-frequency oscillation --- gas detonation forming --- yield locus --- sheet metal forming --- inhomogeneity --- TA32 titanium alloy --- aluminium alloy formability --- Young's modulus --- Johnson-Cook material model