vijaye12 commited on
Commit
245fb8c
Β·
verified Β·
1 Parent(s): 151795d

Update README.md

Browse files
Files changed (1) hide show
  1. README.md +23 -27
README.md CHANGED
@@ -33,54 +33,50 @@ Building on top of **TTM-R1** and **TTM-R2**, we introduce the next generation o
33
 
34
  ---
35
 
36
- ## Accuracy & Speed
37
 
38
- **Granite-TTM-R3** is engineered to achieve a strong balance between **state-of-the-art accuracy** and **extreme inference efficiency**, making it well-suited for real-world, high-throughput deployments.
39
 
40
- ### Accuracy on GIFT-Eval
 
 
41
 
42
- - Maintains **top-tier performance** on the GIFT-Eval benchmarks.
43
 
44
- **Fine-tuned FM**
45
 
46
- - MASE: **0.718**
47
- - CRPS: **514**
48
 
 
49
 
50
- **Pre-trained FM**
51
 
52
- - MASE: **0.727**
53
- - CRPS: **523**
 
 
 
 
 
54
 
55
  ---
56
 
57
- ## ⚑ Inference Throughput
58
 
59
  **Granite-TTM-R3** delivers orders-of-magnitude faster inference compared to existing popular SOTA models.
60
 
61
- ### GPU Throughput
62
-
63
  - Typical SOTA models: **~20–500 samples/sec**
64
  - **Granite-TTM-R3**: **~7,500 samples/sec**
 
65
 
66
- ### CPU Throughput
67
-
68
  - Typical SOTA models: **~1–20 samples/sec**
69
  - **Granite-TTM-R3**: **~180 samples/sec**
 
70
 
71
- **Granite-TTM-R3 achieves ~15Γ— speedup** over many existing approaches, without compromising accuracy, setting a strong benchmark for fast and reliable time-series forecasting.
72
-
73
- ---
74
-
75
- ## Architecture Overview
76
-
77
- Granite-TTM adopts a mixture-of-experts paradigm composed of models with varying complexities β€” approximately **1M–35M parameters** β€” coupled with a lightweight routing mechanism that automatically selects or blends the most suitable expert based on input data characteristics.
78
-
79
- This enables adaptive model selection, improving both accuracy and efficiency across diverse time-series scenarios.
80
-
81
- The architecture is built on efficient mixer-based designs that avoid expensive self-attention. Instead, Granite-TTM-R3 leverages linear gating-based attention mechanisms to capture temporal dependencies with significantly lower computational overhead.
82
 
83
- This combination allows **Granite-TTM-R3** to deliver scalable, adaptive, and ultra-fast forecasting performance suitable for real-time and large-scale deployments.
84
 
85
  ---
86
 
 
33
 
34
  ---
35
 
36
+ ## Architecture Overview
37
 
38
+ Granite-TTM adopts a mixture-of-experts paradigm composed of models with varying complexities [1-35M and Lite: 1-18M parameters] β€” coupled with a lightweight routing mechanism that automatically selects or blends the most suitable expert based on input data characteristics.
39
 
40
+ This enables adaptive model selection, improving both accuracy and efficiency across diverse time-series scenarios.
41
+
42
+ The architecture is built on efficient mixer-based designs that avoid expensive self-attention. Instead, Granite-TTM-R3 leverages linear gating-based attention mechanisms to capture temporal dependencies with significantly lower computational overhead.
43
 
44
+ This combination allows **Granite-TTM-R3** to deliver scalable, adaptive, and ultra-fast forecasting performance suitable for real-time and large-scale deployments.
45
 
46
+ ---
47
 
48
+ ## Accuracy & Speed
 
49
 
50
+ **Granite-TTM-R3** is engineered to achieve a strong balance between **state-of-the-art accuracy** and **extreme inference efficiency**, making it well-suited for real-world, high-throughput deployments.
51
 
52
+ ### Accuracy on GIFT-Eval
53
 
54
+ - Maintains **top-tier performance** on the GIFT-Eval leaderboard.
55
+ - **Fine-tuned FM**:
56
+ - MASE: **0.718** | CRPS: **0.514**
57
+ - *(Lite)* MASE: **0.719** | CRPS: **0.514**
58
+ - **Pre-trained FM**:
59
+ - MASE: **0.727** | CRPS: **0.523**
60
+ - *(Lite)* MASE: **0.733** | CRPS: **0.524**
61
 
62
  ---
63
 
64
+ ## Inference Throughput
65
 
66
  **Granite-TTM-R3** delivers orders-of-magnitude faster inference compared to existing popular SOTA models.
67
 
68
+ #### πŸ–₯️ GPU Throughput
 
69
  - Typical SOTA models: **~20–500 samples/sec**
70
  - **Granite-TTM-R3**: **~7,500 samples/sec**
71
+ - **Granite-TTM-R3 Lite**: **~18,000 samples/sec**
72
 
73
+ #### πŸ’» CPU Throughput
 
74
  - Typical SOTA models: **~1–20 samples/sec**
75
  - **Granite-TTM-R3**: **~180 samples/sec**
76
+ - **Granite-TTM-R3 Lite**: **~800 samples/sec**
77
 
78
+ πŸ‘‰ **Granite-TTM-R3 models achieves ~15–50Γ— speedup** over many existing approaches, **without compromising accuracy**, setting a new benchmark for fast and reliable time-series forecasting.
 
 
 
 
 
 
 
 
 
 
79
 
 
80
 
81
  ---
82