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Issues of 3T tandem architecture 


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The 3T tandem architecture has been studied extensively in various fields. In the field of photovoltaic technology, the 3T architecture has been shown to deliver the highest energy yield (EY) compared to other architectures, such as 2T and 4T architectures. This is due to its ability to generate a larger photogenerated current density in the absorber layers and its higher robustness to spectral variations . In the field of photodetectors, the tandem architecture has been used to address the high dark current issue and has shown significant reduction in dark current along with elevated photocurrent. It has also been demonstrated that the tandem architecture can be applied to flexible substrates, offering high efficiency and detectivity . In the field of xerographic systems, the tandem architecture has been used to achieve excellent color-to-color registration and tighter control of tone reproduction curve, leading to gamut expansion and increased benefits . In the field of 3D integration, a redundant TSV architecture has been proposed to address the issue of failed TSVs, resulting in increased yield and recovery rates . In the field of ATM switches, the tandem-crosspoint (TDXP) switch architecture has been proposed to eliminate head-of-line blocking and achieve high throughput .

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The provided paper does not discuss the issues of the 3T tandem architecture.
The provided paper does not discuss the issues of 3T tandem architecture. The paper focuses on the design and analysis of a redundant TSV architecture in 3-D IC integration.
The provided paper does not mention any issues specifically related to a 3T tandem architecture. The paper focuses on the benefits and advantages of a tri-level tandem xerographic architecture using reduced strength toner.
The provided paper does not mention any issues specifically related to the 3T tandem architecture. The paper focuses on the development and performance of solution-processed photodetectors and the integration of flip-chip LEDs with current rectifying diodes.
The paper does not mention any issues with the 3T tandem architecture. The paper focuses on the advantages of the 3T architecture compared to 2T and 4T architectures.

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