Nano-Micro Letters最新文献

Additive-assisted layer-by-layer (LBL) deposition enables organic solar cells to achieve an unprecedented power conversion efficiency of 20.8%, the highest efficiency to date.

The gradient fibrillar morphology enabled by additive-assisted LBL processing promotes the formation of bulk p-i-n structure, improving exciton and carrier diffusion, and reducing recombination losses.

The wrinkle pattern morphology achieved by additive-assisted LBL processing is constructed to enhance the light capture capability.

The introduction of MoS₂ generates a “kill three birds with one stone” effect to the original binary MXene/ANF system: lubrication toughening mechanical performance; reduction in secondary reflection pollution of electromagnetic wave; and improvement in the performance of photothermal conversion.

After the introduction of MoS₂ into MXene/ANF (60:40), the strain and toughness were increased by 53.5% (from 18.3% to 28.1%) and 61.7% (from 8.9 to 14.5 MJ m⁻³), respectively. Fortunately, the SE_R decreases by 22.4%, and the photothermal conversion performance was increased by 22.2% from ~ 45 to ~ 55 °C.

Organic spacers in Ruddlesden–Popper (RP) perovskites play a vital role in tuning crystallization, charge transport and photovoltaic performance for RP perovskite solar cells (PSCs).

Fundamental understanding of the functions of molecular structure of organic spacers is the prerequisite to design high-performance PSCs.

This review proposes practical design strategies in seeking RP molecular structure to maximize its photovoltaic performance for PSCs.

The review provides a brief overview of the basic structure, operating mechanism, and key performance indicators of flexible graphene field-effect transistors.

The review details the preparation strategy of flexible graphene field-effect transistors focusing on material selection and patterning techniques.

The review analyzes the latest strategies for developing wearable and implantable flexible biomedical sensors based on flexible graphene field-effect transistors.

Fe single-atom catalysts (h³-FNCs) with high loading, high catalytic activity and high stability were synthesized via a method capable of increasing both the metal loading and mass-specific activity by exchanging zinc with iron.

The “density effect,” derived from the sufficiently high density of active sites, has been discovered for the first time, leading to a significant alteration in the intrinsic activity of single-atom metal sites.

The superior oxidase-like catalytic performance of h³-FNCs ensures highly effective bacterial eradication.

Optimization strategies for high-performance Na₃V₂(PO₄)₃ (NVP) cathode material are well summarized and discussed, including carbon coating or modification, foreign-ion doping or substitution and nanostructure and morphology design.

The foreign-ion doping or substitution is highlighted, involving the Na, V, and PO₄³⁻ sites, which include single-site doping, multiple-site doping, single-ion doping and multiple-ion doping.

Challenges and future perspectives for high-performance NVP cathode material are presented.

Strategic materials design of polyrotaxane-based electrolytes was suggested by aligning the ion conduction pathways and dispersing hydrophobic chains for solid-state Li–O₂ batteries.

Owing to intentional design, solid-state Li–O₂ battery resulted in stable potential over 300 cycles at 25 °C.

We classified the carriers that built cancer nanovaccines, discussed their diversified applications and coincidently compared their advantages and disadvantages.

Various cellular targets that guide the design and engineering of cancer nanovaccines are categorized and their characteristics and benefits are highlighted.

The clinical cases and encountered challenges in cancer nanovaccines are discussed, during which reasonable solutions and future research direction are provided.