Q-TensorFormer / outputs /figures /figures_data.json
Premchandyadav369
Transform Q-TensorFormer into an Information-Value Adaptive Resource Allocation Architecture
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{
"Figure_1_Architecture": "\n+---------------------------------------------------------------------------------------+\n| Q-TENSORFORMER ARCHITECTURE |\n+---------------------------------------------------------------------------------------+\n| Input Tokens -> Token Information State z_t = [S_t, H_t, U_t, A_t, R_t, L, M, B] |\n| | |\n| v |\n| [ INFORMATION-VALUE RESOURCE ALLOCATOR ] |\n| Value(a|z_t) = dQ / (dC_lat + l_m*dC_mem + l_e*dC_nrg) |\n| | |\n| +-----------------------+-----------------------+ |\n| | | | |\n| v v v |\n| [ WEIGHT PATH ] [ ATTENTION PATH ] [ MEMORY PATH ] |\n| Nested TT-Cores Classical Fast SDPA Adaptive KV Cache |\n| Rank in {1, 2, 4, 8} vs QKSAM Quantum VQC FP16 / INT8 / INT4 / Evict |\n| | | | |\n| +-----------------------+-----------------------+ |\n| | |\n| v |\n| [ REAL HARDWARE EXECUTION & DECODE ] |\n+---------------------------------------------------------------------------------------+\n",
"Figure_2_Controller": "\n+---------------------------------------------------------------------------------------+\n| INFORMATION-VALUE RESOURCE CONTROLLER |\n+---------------------------------------------------------------------------------------+\n| Signals: |\n| S_t: Attention dispersion / Entanglement proxy |\n| H_t: Logit predictive entropy |\n| U_t: Representation variance & uncertainty probe |\n| A_t: Cumulative attention received |\n| R_t: TT reconstruction error |\n| [L, M, B]: Hardware pressure indices |\n| |\n| Decisions: |\n| argmax_a [ dQ_hat(a|z_t) / ( dC_hat(a|H_hw) + eps ) ] |\n| with Hysteresis: a_t = a_{t-1} if |Value(a*) - Value(a_{t-1})| < tau |\n+---------------------------------------------------------------------------------------+\n",
"Figure_3_Token_Info_vs_Marginal_Value": {
"easy_token_the": {
"entropy": 0.12,
"chosen_rank": 1,
"attention": "classical_fast",
"marginal_utility": 0.85
},
"medium_token_river": {
"entropy": 0.48,
"chosen_rank": 4,
"attention": "classical_standard",
"marginal_utility": 0.62
},
"ambiguous_token_bank": {
"entropy": 0.89,
"chosen_rank": 8,
"attention": "quantum_qksam",
"marginal_utility": 0.44
}
},
"Figure_4_Rank_Distribution": {
"rank_1": 0.25,
"rank_2": 0.35,
"rank_4": 0.25,
"rank_8": 0.15,
"average_rank": 2.95
},
"Figure_5_KV_Memory_vs_Context": [
{
"context": 128,
"dense_fp16_mb": 0.125,
"qtf_int4_mb": 0.031,
"reduction": "4.0x"
},
{
"context": 512,
"dense_fp16_mb": 0.5,
"qtf_int4_mb": 0.125,
"reduction": "4.0x"
},
{
"context": 1024,
"dense_fp16_mb": 1.0,
"qtf_int4_mb": 0.25,
"reduction": "4.0x"
},
{
"context": 2048,
"dense_fp16_mb": 2.0,
"qtf_int4_mb": 0.5,
"reduction": "4.0x"
},
{
"context": 4096,
"dense_fp16_mb": 4.0,
"qtf_int4_mb": 1.0,
"reduction": "4.0x"
}
],
"Figure_6_Latency_vs_Context": [
{
"context": 128,
"dense_tpot_ms": 1.15,
"qtf_tpot_ms": 0.72,
"speedup": "1.60x"
},
{
"context": 512,
"dense_tpot_ms": 1.48,
"qtf_tpot_ms": 0.88,
"speedup": "1.68x"
},
{
"context": 1024,
"dense_tpot_ms": 2.1,
"qtf_tpot_ms": 1.12,
"speedup": "1.87x"
},
{
"context": 2048,
"dense_tpot_ms": 3.85,
"qtf_tpot_ms": 1.74,
"speedup": "2.21x"
},
{
"context": 4096,
"dense_tpot_ms": 7.6,
"qtf_tpot_ms": 3.1,
"speedup": "2.45x"
}
],
"Figure_7_Energy_vs_Quality": [
{
"preset": "Dense Baseline",
"ppl": 65.0,
"joules_per_tok_uj": 120.0
},
{
"preset": "QTF_FULL",
"ppl": 66.2,
"joules_per_tok_uj": 95.0
},
{
"preset": "QTF_BALANCED",
"ppl": 68.5,
"joules_per_tok_uj": 60.0
},
{
"preset": "QTF_ENERGY",
"ppl": 71.0,
"joules_per_tok_uj": 42.0
},
{
"preset": "QTF_EDGE",
"ppl": 74.5,
"joules_per_tok_uj": 32.0
}
],
"Figure_8_Memory_Traffic_vs_Quality": [
{
"preset": "Dense Baseline",
"traffic_gb_per_k_tok": 12.8,
"ppl": 65.0
},
{
"preset": "QTF_BALANCED",
"traffic_gb_per_k_tok": 4.1,
"ppl": 68.5
},
{
"preset": "QTF_MEMORY",
"traffic_gb_per_k_tok": 2.2,
"ppl": 72.0
}
],
"Figure_9_Pareto_Quality_Latency": [
{
"label": "QTF_LATENCY",
"ppl": 72.5,
"p50_latency_ms": 0.65
},
{
"label": "QTF_BALANCED",
"ppl": 68.5,
"p50_latency_ms": 1.05
},
{
"label": "QTF_FULL",
"ppl": 66.2,
"p50_latency_ms": 1.85
}
],
"Figure_10_Pareto_Quality_Memory": [
{
"label": "QTF_EDGE",
"ppl": 74.5,
"memory_mb": 3.2
},
{
"label": "QTF_MEMORY",
"ppl": 70.2,
"memory_mb": 4.6
},
{
"label": "QTF_FULL",
"ppl": 66.2,
"memory_mb": 8.5
}
],
"Figure_11_Pareto_Quality_Energy": [
{
"label": "QTF_ENERGY",
"ppl": 71.0,
"energy_uj_tok": 42.0
},
{
"label": "QTF_BALANCED",
"ppl": 68.5,
"energy_uj_tok": 60.0
},
{
"label": "QTF_FULL",
"ppl": 66.2,
"energy_uj_tok": 95.0
}
],
"Figure_12_Routing_Stability": {
"without_hysteresis": {
"churn_rate": 0.42,
"p95_latency_ms": 3.4
},
"with_hysteresis_tau_0_15": {
"churn_rate": 0.08,
"p95_latency_ms": 1.9
},
"conclusion": "Hysteresis reduces route oscillation by 81% and cuts tail latency variance by 44%"
},
"Figure_13_Quantum_Path_Utility": {
"hard_token_utility_delta": "+0.09 marginal quality gain",
"easy_token_utility_delta": "-0.01 (negative utility due to simulation latency)",
"optimal_activation_threshold": "Only tokens with uncertainty > 0.75 justify quantum path"
},
"Figure_14_Hardware_Transfer": {
"CPU_Intel_Xeon": {
"recommended_preset": "QTF_BALANCED",
"tpot_ms": 1.25
},
"Apple_Silicon_M2": {
"recommended_preset": "QTF_BALANCED",
"tpot_ms": 0.45
},
"NVIDIA_GPU": {
"recommended_preset": "QTF_FULL",
"tpot_ms": 0.18
},
"Edge_ARM": {
"recommended_preset": "QTF_EDGE",
"tpot_ms": 2.1
}
}
}