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T-CIM

Semiconductor Leading In-Memory Computing Technology

What is CIM (Compute-In-Memory)?

CIM (Compute-In-Memory) refers to a semiconductor approach where computation and storage are performed within the same region, rather than being separated as in the von Neumann architecture. A similar concept is PIM (Processing-In-Memory), but while CIM is a broader concept, PIM refers to specific architectures such as placing the processor near the memory to achieve this integration.

What is CIM (Compute-In-Memory)?

Ternell’s Ternary-Based CIM: T-CIM

Ternell approaches CIM from the perspective of changing the memory cell structure itself, rather than simply adopting PIM. Leveraging ternary (three-valued) technology, Ternell offers a more compact and power-efficient ternary T-CIM (Ternary Compute-In-Memory) solution compared to conventional binary CIM. Additionally, through optimized analog-to-digital conversion and Multiply-Accumulate (MAC) operations, T-CIM supports optimal AI processing even in resource-constrained environments.

Key Advantages of Ternell T-CIM

  • Area-Efficient Design
    Area-Efficient Design

    World’s first silicon implementation of T-CIM : Achieves a compact and efficient design by minimizing macro area overhead.
    35% area reduction : Delivers excellent spatial efficiency through 1.5-bit ternary computing cells.

  • Highly Energy-Efficient AI Computation
    Highly Energy-Efficient AI Computation

    61% energy reduction : Dramatically reduces energy consumption compared to conventional binary systems through ternary input/weight-based zero-skip computation.
    Hybrid bitline MAC : Improves energy efficiency via Ternell’s unique analog MAC operation combination, optimized for applications with limited battery capacity.

  • High-Performance Architecture Utilizing Analog Technology
    High-Performance Architecture Utilizing Analog Technology

    Double sampling ternary ADC : Provides twice the analog-to-digital conversion throughput compared to conventional binary ADCs, greatly enhancing AI inference performance.
    Optimized signal margin : Ensures stable performance even in dense parallel operations through innovative analog CIM design.