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README.md

@@ -37,8 +37,8 @@ More details on model performance across various devices, can be found
 
 | Device | Chipset | Target Runtime | Inference Time (ms) | Peak Memory Range (MB) | Precision | Primary Compute Unit | Target Model
 | ---|---|---|---|---|---|---|---|
-| Samsung Galaxy S23 Ultra (Android 13) | Snapdragon® 8 Gen 2 | TFLite | 162.955 ms | 8 - 444 MB | FP16 | NPU |  [Unet-Segmentation.tflite](https://huggingface.co/qualcomm/Unet-Segmentation/blob/main/Unet-Segmentation.tflite) 
-| Samsung Galaxy S23 Ultra (Android 13) | Snapdragon® 8 Gen 2 | QNN Model Library | 151.842 ms | 10 - 26 MB | FP16 | NPU |  [Unet-Segmentation.so](https://huggingface.co/qualcomm/Unet-Segmentation/blob/main/Unet-Segmentation.so) 
+| Samsung Galaxy S23 Ultra (Android 13) | Snapdragon® 8 Gen 2 | TFLite | 154.294 ms | 6 - 8 MB | FP16 | NPU |  [Unet-Segmentation.tflite](https://huggingface.co/qualcomm/Unet-Segmentation/blob/main/Unet-Segmentation.tflite) 
+| Samsung Galaxy S23 Ultra (Android 13) | Snapdragon® 8 Gen 2 | QNN Model Library | 151.839 ms | 10 - 29 MB | FP16 | NPU |  [Unet-Segmentation.so](https://huggingface.co/qualcomm/Unet-Segmentation/blob/main/Unet-Segmentation.so) 
 
 
 
@@ -99,10 +99,10 @@ python -m qai_hub_models.models.unet_segmentation.export
 ```
 Profile Job summary of Unet-Segmentation
 --------------------------------------------------
-Device: SA8255 (Proxy) (13)
-Estimated Inference Time: 157.83 ms
-Estimated Peak Memory Range: 9.41-27.04 MB
-Compute Units: NPU (51) | Total (51)
+Device: Snapdragon X Elite CRD (11)
+Estimated Inference Time: 135.74 ms
+Estimated Peak Memory Range: 9.39-9.39 MB
+Compute Units: NPU (52) | Total (52)
 
 
 ```
@@ -123,29 +123,13 @@ in memory using the `jit.trace` and then call the `submit_compile_job` API.
 import torch
 
 import qai_hub as hub
-from qai_hub_models.models.unet_segmentation import Model
+from qai_hub_models.models.unet_segmentation import 
 
 # Load the model
-torch_model = Model.from_pretrained()
 
 # Device
 device = hub.Device("Samsung Galaxy S23")
 
-# Trace model
-input_shape = torch_model.get_input_spec()
-sample_inputs = torch_model.sample_inputs()
-
-pt_model = torch.jit.trace(torch_model, [torch.tensor(data[0]) for _, data in sample_inputs.items()])
-
-# Compile model on a specific device
-compile_job = hub.submit_compile_job(
-    model=pt_model,
-    device=device,
-    input_specs=torch_model.get_input_spec(),
-)
-
-# Get target model to run on-device
-target_model = compile_job.get_target_model()
 
 ```
 
@@ -158,10 +142,10 @@ provisioned in the cloud.  Once the job is submitted, you can navigate to a
 provided job URL to view a variety of on-device performance metrics.
 ```python
 profile_job = hub.submit_profile_job(
-    model=target_model,
-    device=device,
-)
-
+        model=target_model,
+        device=device,
+        )
+        
 ```
 
 Step 3: **Verify on-device accuracy**
@@ -171,12 +155,11 @@ on sample input data on the same cloud hosted device.
 ```python
 input_data = torch_model.sample_inputs()
 inference_job = hub.submit_inference_job(
-    model=target_model,
-    device=device,
-    inputs=input_data,
-)
-
-on_device_output = inference_job.download_output_data()
+        model=target_model,
+        device=device,
+        inputs=input_data,
+    )
+    on_device_output = inference_job.download_output_data()
 
 ```
 With the output of the model, you can compute like PSNR, relative errors or