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Proceedings ArticleDOI
25 Mar 2008
7 Citations
This allows a reduction on the number of needed transistors to implement a circuit.
The results demonstrate a new scheme of building nanometer-scale transistors.
The proposed structures reduce the number of the transistors considerably and have very high driving capability.
Consequently, their design is important for a good thermal behavior and reliability of the transistors.
A new cell composed of a pair of adjacent gates provides high utilization of input transistors.
Two transistors next to each other on the chip with exactly the same geometries and strain distributions may have characteristics from each end of a wide statistical distribution.
Here, we show that some of these transistors unfortunately may not have sufficient voltage and current gains for signal processing.
Our findings paint a picture of BTI and TDDB that in many respects is similar to that of Si transistors but with some unique characteristics.

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Transparent oxides can be utilized as gate dielectrics in various applications. For instance, in the study by Alshammari et al., a novel process was developed to fabricate thin film transistors (TFTs) using a binary oxide, Hf x Zn1- x O2- δ (HZO), for all transistor layers, including the gate and dielectric layers. This approach allowed for tuning the electronic properties of the oxide from conducting to insulating by adjusting the chemical precursors' flow ratio. Additionally, the work by ViolBarbosa et al. demonstrated that ionic liquid gating can induce a metallic phase in insulating films of WO3, altering the material's conductivity while maintaining transparency in the visible range. These studies highlight the versatility of transparent oxides in serving as gate dielectrics with tunable electronic properties for various electronic devices.
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LED arrays with individual addressable p and n contacts have been developed. These arrays feature a unique structure where each LED element has its own n-electrode while sharing a common p-electrode. This design minimizes series-resistance differences and enables compatibility with n-type metal-oxide-semiconductor (NMOS) transistor-based drivers for faster modulation. The individual addressability of the n-electrodes allows for precise control over each LED element in the array, enhancing performance characteristics such as optical power and modulation bandwidth. These advancements in LED array technology offer promising applications in areas like visible light communication, where high-speed data transmission without errors has been achieved using these individually addressable LED arrays.
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