# T-SPEC-v2.0: Technical Specification for Triadic Resource Allocation

**Standard**: RFI-IRFOS T-SPEC-v2.0  
**Technical Field**: Multi-Valued Logic (MVL) Semiconductor Optimization & Instruction-Level Power Management.  
**Objective**: Deterministic reduction of ALU switching activity and memory bandwidth via State-0 (HOLD) branch pruning.

## 1. Abstract Technical Character
The Ternary Intelligence Stack (TIS) provides a deterministic method for managing computational resource allocation in non-binary architectures. Unlike binary systems ($2^n$), the T-SPEC-v2.0 utilizes a balanced triadic state space $\{-1, 0, +1\}$ to enforce an **Internal Hardware Implementation Effect**.

## 2. Power-State Pruning (The HOLD Logic)
The `0` (HOLD) state is defined as a **Hardware-Level Clock-Gate Trigger**. 
- **Technical Effect**: When an ALU encounter a `0` state operand, the TIS-compliant scheduler executes a non-speculative instruction bypass.
- **Result**: Reduced dynamic power consumption ($P = \alpha CV^2 f$) by minimizing the switching activity factor ($\alpha$).

## 3. BitNet-Compatible Tensor Kernels (TUANN)
TIS implements a specific adaptation to internal hardware for 1.58-bit quantized weights.
- **Kernel Mapping**: Maps the mathematical absmean quantization directly to MVL gate thresholds.
- **Instruction Set**: Implements `TADD` and `TMUL` as single-cycle triadic operations, eliminating the lookup-table (LUT) overhead found in binary-emulated ternary models.

## 4. Resource Allocation MoE-13 (Deterministic Routing)
The MoE-13 engine is a **Hierarchical Resource Dispatcher**. 
- It routes input signals to specific compute kernels based on **Vector Competence Density**, a technical metric derived from the sparse activation of triadic gates.
- This is an automated technical process for managing internal processor bandwidth, not a cognitive deliberation.

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**Standard Authority: RFI-IRFOS**  
*Technical Compliance: EPO G 1/19 / COMVIK T 641/00*
