In terms of energy storage, lignin-based MOFs and COFs, with their extremely high specific surface area and porosity, effectively enhance the storage capacity of energy
View moreThis paper reviews the recent progress of flexible skin-patchable and implantable energy storage devices, covering key considerations on the electrode materials in terms of
View moreIron oxide nanoarchitectures with distinct morphologies from 1D to 3D have been developed using various wet chemical methods. They have been employed for a wide range of applications, including energy storage, biomedical, and environmental applications. The functional properties of iron oxide nanoarchitectures depend on the size, shape, composition, magnetic properties,
View moreDue to their unusual features, aerogels could be used for biomedical, acoustic, food packaging, electrochemical energy storage, thermal insulation, environmental, water treatment, catalysis and aerospace applications [6, [10], [11], [12]].Specifically pertinent for biomedical and pharmaceutical applications are aerogels based on silica, polymers, and
View moreIn addition, the details on existing energy storage technologies and various wireless power transfer techniques incorporating external or internal energy sources and sensors have been discussed.
View moreSemantic Scholar extracted view of "Exploring the Versatility of Aerogels: Broad Applications in Biomedical Engineering, Astronautics, Energy Storage, Biosensing, and Current Progress" by Nazia Rodoshi Khan et al.
View moreWith the rapid development of biomedical and information technologies, the ever-increasing demands on energy storage devices are driving the development of skin-patchable
View moreThe future of MBenes appears incredibly promising across various fields, including energy storage and conversion, catalysis, water treatment/pollutant removal, and biomedical applications. As research continues to declare their unique properties, MBenes could play a pivotal role in advancing technologies that address some of the world''s most pressing challenges.
View moreBy dispersing nanoparticles into a matrix, the resulting nanocomposites exhibit tremendous potential in biomedical and energy storage fields. In biomedicine, these materials advance diagnostics, drug delivery, and tissue engineering through advanced materials and better biocompatibility. At the same time, the integration of materials such as
View moreExploring the Versatility of Aerogels: Broad Applications in Biomedical Engineering, Astronautics, Energy Storage, Biosensing, and Current Progress 探索气凝胶的多功能性:在生物医学工程、航天、储能、生物传感和当前进展中的广泛应用
View moreThere has been much progress in the MXene functional ink generation and its PE device applications since its discovery in 2011. This review summarises the MXene ink formulation for additive patterning and the development of PE devices enabled by them in healthcare, biomedical and related power provision applications.
View moreNanocomposite Materials for Biomedical and Energy Storage Applications presents an overview of various types of advanced nanostructured and nanocomposite materials. It discusses current research trends, problems, and applications of these nanomaterials in various biomedical, energy conversion, and storage applications. The book also
View moreIn contrast to the research efforts on the non-biomedical application of energy storage fields, investigations into new energy storage materials for biomedical applications is lacking and their biological features have yet to be explored. Examples include 2D nanomaterials such as MoS 2 [106], WS 2 [107], black phosphorus [108], and MXene [109
View more<i>Nanocomposite Materials for Biomedical and Energy Storage Applications</i> presents an overview of various types of advanced nanostructured and nanocomposite materials. It discusses current research
View moreFlexible supercapacitors are emerging as an effective solution for the energy storage demands of wearable and implantable biomedical devices. They offer superior
View moreIron oxide nanoarchitectures with distinct morphologies from 1D to 3D have been developed using various wet chemical methods. They have been employed for a wide range of applications, including energy storage, biomedical, and environmental applications. The functional properties of iron oxide nanoarchitectures depend on the size, shape, composition, magnetic properties,
View moreThis tutorial review aims to highlight the catalytic applications of POPs across multiple fields, namely environmental, energy (including water splitting and hydrogen production, fuel cells, metal-air batteries, electrochemical cells, and supercapacitors), and biomedical areas (such as drug delivery, biosensing, bioimaging, and bio-separation).
View moreThe recent advances in the preparation of various iron oxide nanoarchitectures are reviewed along with their functional applications in energy storage, biomedical, and environmental fields and the effects of various parameters on the functional performance of iron oxide nanostructures for these applications are summarized. Iron oxide nanoarchitectures with
View moreWe describe 3D graphene materials, classify them, briefly discuss their history, and cover this review''s basic synthesis chemical procedures. Special attention is given to their bibliometric analysis, advancement, synthesis, technical applications of energy storage devices, environmental applications, and supercapacitor-based applications.
View moreHydrogels, polymer networks with versatile applications in both energy-related devices and biomedicine, fall into three categories: natural, synthetic, and hybrid hydrogels. Natural variants like alginate and collagen boast biocompatibility,
View moreIn this thematic issue, ground-breaking and recent advances in the field of biomedical, energy and sensing are presented and discussed in detail. In addition, some other perspectives and
View moreUnderstand functional coatings and their role in three key industries of the future Functional coatings play a huge range of roles in industries from automotive to aerospace to electronic and beyond. They offer protection, performance enhancement, corrosion resistance, self-cleaning properties, and more. Recent developments in the field have allowed for ever
View moreIn this review, we summarize the IEHs and self-powered implantable medical electronics (SIMEs). The typical IEHs are nanogenerators, biofuel cells, electromagnetic generators, and transcutaneous energy
View moreA block of Silica Aerogel [].Due to their unusual features, aerogels could be used for biomedical, acoustic, food packaging, electrochemical energy storage, thermal insulation, environmental, water treatment, catalysis and aerospace applications [6,,, ].Specifically pertinent for biomedical and pharmaceutical applications are aerogels based on silica, polymers, and hybrids, all of
View moreSpecial attention is given to their bibliometric analysis, advancement, synthesis, technical applications of energy storage devices, environmental applications, and supercapacitor-based
View more12 小时之前· The introduction of energy storage projects provides greater supply security and helps mitigate the intermittency of renewable generation. Biomedical engineer''s innovative excellence acknowledged. February 5, 2025. Blokees exhibits Multiple IP Series Products at Spielwarenmesse 2025 in Nuremberg. February 5, 2025.
View more1 天前· Hydrogels offer promising avenues for developing advanced aqueous battery technology for sustainable energy storage and wearable electronic devices in future human/machine
View moreNanocomposite Materials for Biomedical and Energy Storage Applications presents an overview of various types of advanced nanostructured and nanocomposite materials. It discusses current research trends, problems,
View moreBiomedical energy storage devices have a unique interface between the material/device and human skin/tissue, which differs from the conventional interfaces applied to mobile, electrical vehicle, and renewable energy fields. According to regulating authorities such as the US FDA, biomedical devices should be classed into different criteria
View moreEngineered electroactive microbes could address many of the limitations of current energy storage technologies by enabling rewired carbon fixation, a process that spatially separates reactions that are normally carried
View moreFinally, aerogel''s utilizations in numerous disciplines, for instance, energy storage, thermal insulation, catalysis, environmental remedy, and biomedical applications, are summarized. This review paper provides a comprehensive understanding of aerogels and their prospective uses in diverse fields, highlighting their unique properties for future research and development.
View moreMXene materials based printed flexible devices for healthcare, biomedical and energy storage applications. February 2021; Materials Today 43(41) [521 – 524], and energy storage devices
View moreThese materials, characterized by their unique properties at the nanoscale, have shown great promise in energy storage, environmental remediation, and biomedical applications. The integrating nanostructures such as nanoparticles, nanofibers, and nanocomposites enhance performance metrics like energy density and charge-discharge efficiency in devices like
View moreThey have been employed for a wide range of applications, including energy storage, biomedical, and environmental applications. The functional properties of iron oxide nanoarchitectures depend on the size, shape, composition, magnetic properties, and surface modification.
View morebiomedical and energy storage mechanisms. The repeatability, reproducibility, sensitivity, and selectivity for a longer time are the major components of any sensor for their efficient
View moreAbundance combined with facile synthesis, easy accessibility to different oxidation states and polymorphs, variety of electronic and magnetic properties, low biotoxicity and natural elimination make of iron oxides a prototype of the ideal functional material. In this research news, we briefly describe some of the fundaments and perspectives of the use of iron oxides in biomedicine,
View moreTherefore, along with adequate energy storage capability and performance, energy storage materials for biomedical applications must also satisfy specific requirements such as miniaturization, bio-integration, biocompatibility, biodegradability, and functionality.
Biomedical energy storage devices have a unique interface between the material/device and human skin/tissue, which differs from the conventional interfaces applied to mobile, electrical vehicle, and renewable energy fields.
Considering that medical devices should not be toxic and injurious or cause any immunological responses, the energy storage materials used in a medical implant or device should be biocompatible, while satisfying the performances required for the specific medical application.
To date, most research into implantable energy storage devices focuses on the biocompatibility of the electrode material through in-vitro cytotoxicity assay or in-depth inflammation analysis.
The energy harvested from various sources needs to be stored for future use by wearable and implantable medical devices, which require energy storage solutions that are not only reliable and long-lasting, but also biocompatible and safe for on- or in-body use.
Flexible supercapacitors are emerging as an effective solution for the energy storage demands of wearable and implantable biomedical devices. They offer superior power densities compared to traditional batteries and excel in energy storage through mechanisms like ion adsorption and rapid surface redox reactions.
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