纳米复合材料是指具有纳米尺度结构的复合材料。 这种结构可能与颗粒大小、

Nanocomposite materials refer to composite materials with nanoscale structures. This structure may be related to particle size, filler size, pore size, etc. The pore size helps to increase the mechanical strength of porous materials. The small grain size is attractive because it can increase the yield strength of metals and the high toughness of ceramics. A small filler size provides a large filler-matrix interface area per unit volume. Large areas can be advantageous or disadvantageous, depending on the type of property. For example, due to the mechanical weakness of the interface, it may lead to low strength of the composite material (although the strength of a single nano-scale fiber unit may be very high, for example, the strength of a single nano-scale fiber unit), it may also lead to a high resistivity of the composite material ( Although the resistivity of a single nano-scale fiber unit may be very low, for example, the strength of a single nano-scale fiber unit), this is due to the resistance associated with the interface. On the other hand, the high interface area may be beneficial to the performance of the electrochemical electrode, because in fact, an electrochemical reaction occurs at the interface between the electrode and the electrolyte. High-frequency electromagnetic radiation can only penetrate the near surface area of ​​the conductor) and the conductivity (emi) that occurs in the near surface area of ​​the filler unit. Therefore, nanocomposites are not necessarily superior to traditional composites.

Nanocomposites are composite materials with nanoscale structures. This structure may be related to particle size, filler size, aperture size, etc. The size of the small hole helps to increase the mechanical strength of the porous material. Small grain sizes are attractive because they improve the yield strength of metals and the high toughness of ceramics. A small filler size provides a large filler-matrix interface area per unit volume. Large areas can be favorable or unfavourable, depending on the type of property. For example, due to the mechanical weakness of the interface, it can lead to low strength of composites (although the strength of a single nanoscale fiber unit may be high, for example, a single nanoscale fiber cell) and may also result in the high resistivity of the composite (although the resistivity of a single nanofiber unit may be low, for example, the strength of a single nanofiber unit), due to the resistance associated with the interface. On the other hand, a high interface area may be beneficial to the performance of electrochemical electrodes, as in fact, the interface between the electrode and the electrolyte is electrochemically chemicalreaction, and in batteries, it may also be beneficial to shield the conductivity (emi) of the near-surface area of the filler unit due to the skin effect (high-frequency electromagnetic radiation can only penetrate the near-surface area of the conductor). Therefore, nanocomposites are not necessarily superior to conventional composites.

Nanocomposites are composite materials with nanoscale structure. This structure may be related to particle size, filler size, pore size and so on. The size of the pores is helpful to improve the mechanical strength of porous materials. Small grain size is attractive because it can improve the yield strength of metals and the high toughness of ceramics. A small packing size provides a large packing matrix interface area per unit volume. Large areas can be favorable or unfavorable, depending on the type of property. For example, due to the mechanical weakness of the interface, it may lead to low strength of the composite (although the strength of a single nano fiber unit may be very high, for example, the strength of a single nano fiber unit) or high resistivity of the composite (although the resistivity of a single nano fiber unit may be very low, for example, the strength of a single nano fiber unit) This is due to the resistance associated with the interface. On the other hand, the high interface area may be conducive to the performance of the electrochemical electrode, because in fact, the interface between the electrode and the electrolyte has an electrochemical reaction. For example, in a battery, it may also be conducive to shielding the conductivity (EMI) in the near surface area of the packing unit due to the skin effect (the high-frequency electromagnetic radiation can only penetrate the near surface area of the conductor). Therefore, nanocomposites are not necessarily superior to traditional composites.