In a system designed to cool down a silicon electronic part, the coating almost tripled the temperature that the silicon could reach before critical heat flux occurred.
Due to their unique properties, nanomaterials are employed in electronic, optical, catalytic, coating, medical and sensor applications [1, 2, 3].
This chapter discusses that the main reason for coating electronic devices and assemblies is to safeguard the reliability of the system.
Aluminum oxide (Al2O3) thin films are used as gate dielectric films in electronic devices [1], protective coating layer in magnetic read heads [2], encapsulation layer in light emitting diodes [3], antireflection coating in solar thermal cells [4], and many other areas [5-7].
Returning three weeks later, he discovered four inches of standing water in the room and a thick layer of dust coating every electronic component.
This chapter focuses on the manufacturing steps involved in coating an electronic part or assembly.
Dow wanted to use that money to help finance its $15 billion purchase of Rohm and Haas, which makes coating and electronic materials.
As cathode material for lithium ion battery, the composite delivers a discharge capacity of 154 mAh g−1 at 1 C and exhibits good rate capability with a discharge capacity of 106 mAh g−1 at the rate of 10 C, which is ascribed to the small particle size and enhanced electronic conductivity using carbon coating technology.
It is demonstrated that B-dopant can efficiently improve the electronic conductivity of carbon-coating layer.
Electrochemical measurements demonstrate that Ti2Nb10O29/Ag composite shows good electrochemical performance than pure Ti2Nb10O29, mostly due to enhanced electronic conductivity after Ag-coating.
