 Bring Your Own Codegen to TVMnp from tvm import relay 2. Load a pretrained network mod, params = relay.testing.mobilenet.get_workload(batch_size=1) 3. Partition and build the network with an external codegen mod = relay.build_extern(mod ib/ Bring Your Own Codegen to TVMnp from tvm import relay 2. Load a pretrained network mod, params = relay.testing.mobilenet.get_workload(batch_size=1) 3. Partition and build the network with an external codegen mod = relay.build_extern(mod ib/- /graph_annotator.py ● Apply the annotator to a workload: mod, params = relay.testing.mobilenet.get_workload(batch_size=1) mod[‘main’] = MyAnnotator().visit(mod[‘main’]) mod = relay 0 码力 | 19 页 | 504.69 KB | 5 月前3
 TVM@Alibaba AI Labs让 1 splits the workload into thread <| | Apaday+my blocks Bly zx) https://docstvm ai/ PVR TOPI Alibaba ALLabs 阿里巴巴人工智能实验室 Blocking Splits the workload into thread blocks (work groups) and individual threads (work items) Processing Element0 码力 | 12 页 | 1.94 MB | 5 月前3 TVM@Alibaba AI Labs让 1 splits the workload into thread <| | Apaday+my blocks Bly zx) https://docstvm ai/ PVR TOPI Alibaba ALLabs 阿里巴巴人工智能实验室 Blocking Splits the workload into thread blocks (work groups) and individual threads (work items) Processing Element0 码力 | 12 页 | 1.94 MB | 5 月前3
 TVM@AliOS45 .31让工 1.31 -35 1 129 中131 124有23152136 2 1.14 am omo oo Convolution Workload Performance AiOS 1驱动万物智能 Alios TVM @ ARM CPU INT8 Depthwise Convolution 。, NHWC layout 。 Using 33. 1.15 116 111 09工08 工区 0.77 0.77 | | | Depthwise Convolution Workload Performance Alios TVM @ ARM CPU INT8 Performance Comparison @ rasp 3b+ AARCH64 aoo0 8.87 sm ao0 码力 | 27 页 | 4.86 MB | 5 月前3 TVM@AliOS45 .31让工 1.31 -35 1 129 中131 124有23152136 2 1.14 am omo oo Convolution Workload Performance AiOS 1驱动万物智能 Alios TVM @ ARM CPU INT8 Depthwise Convolution 。, NHWC layout 。 Using 33. 1.15 116 111 09工08 工区 0.77 0.77 | | | Depthwise Convolution Workload Performance Alios TVM @ ARM CPU INT8 Performance Comparison @ rasp 3b+ AARCH64 aoo0 8.87 sm ao0 码力 | 27 页 | 4.86 MB | 5 月前3
 Trends Artificial Intelligence
PerformanceNVIDIA GPU Performance = +225x Over Eight Years 106 1 GPT-MoE Inference Workload = A type of workload where a GPT-style model with a Mixture-of-Experts (MoE) architecture is used for inference over eight years while requiring 4x fewer GPUs… $1B Data Center Comparison GPT-MoE Inference Workload1 …Inference token capacity +27,500x over eight years, implying +30,000x higher theoretical0 码力 | 340 页 | 12.14 MB | 4 月前3 Trends Artificial Intelligence
PerformanceNVIDIA GPU Performance = +225x Over Eight Years 106 1 GPT-MoE Inference Workload = A type of workload where a GPT-style model with a Mixture-of-Experts (MoE) architecture is used for inference over eight years while requiring 4x fewer GPUs… $1B Data Center Comparison GPT-MoE Inference Workload1 …Inference token capacity +27,500x over eight years, implying +30,000x higher theoretical0 码力 | 340 页 | 12.14 MB | 4 月前3
 TVM: Where Are We Goingfunc = remote_mod[“npufunction0"] func(remote_a, remote_b)Virtual Machine: Supporting Dynamic Workload Dynamic shape workloads More runtime objects: Arrays, Tuples, Trees, ADTs Minimum runtime for0 码力 | 31 页 | 22.64 MB | 5 月前3 TVM: Where Are We Goingfunc = remote_mod[“npufunction0"] func(remote_a, remote_b)Virtual Machine: Supporting Dynamic Workload Dynamic shape workloads More runtime objects: Arrays, Tuples, Trees, ADTs Minimum runtime for0 码力 | 31 页 | 22.64 MB | 5 月前3
 OpenAI 《A practical guide to building agents》ticket to a human. Orchestration Agents themselves can serve as tools for other agents—see the Manager Pattern in the Orchestration section. Refund agent, Research agent, Writing agent. 9 A practical requirements, our experience with customers highlights two broadly applicable categories: Manager (agents as tools) A central “manager” agent coordinates multiple specialized agents via tool calls, each handling specializations. Multi-agent systems can be modeled as graphs, with agents represented as nodes. In the manager pattern, edges represent tool calls whereas in the decentralized pattern, edges represent handoffs0 码力 | 34 页 | 7.00 MB | 6 月前3 OpenAI 《A practical guide to building agents》ticket to a human. Orchestration Agents themselves can serve as tools for other agents—see the Manager Pattern in the Orchestration section. Refund agent, Research agent, Writing agent. 9 A practical requirements, our experience with customers highlights two broadly applicable categories: Manager (agents as tools) A central “manager” agent coordinates multiple specialized agents via tool calls, each handling specializations. Multi-agent systems can be modeled as graphs, with agents represented as nodes. In the manager pattern, edges represent tool calls whereas in the decentralized pattern, edges represent handoffs0 码力 | 34 页 | 7.00 MB | 6 月前3
 PAI & TVM Meetup - Shanghai 20191116下和全于由 loss = loss_fn() opt = tf.Adamoptimizer(learning_rate=...) # Choose a 1oss Scale manager which decides how to pick the right loss scale # throughout the training process. 1oss_scale_manger original optimizer in a LossScale0ptimizer . loss_scale_optimizer = LossScaleOptimizer(opt,1oss_scale_manager) # Call minimize() on the loss scale optimizer. train_op = loss_scale_optimizer.minimize(1oss) Loss0 码力 | 26 页 | 5.82 MB | 5 月前3 PAI & TVM Meetup - Shanghai 20191116下和全于由 loss = loss_fn() opt = tf.Adamoptimizer(learning_rate=...) # Choose a 1oss Scale manager which decides how to pick the right loss scale # throughout the training process. 1oss_scale_manger original optimizer in a LossScale0ptimizer . loss_scale_optimizer = LossScaleOptimizer(opt,1oss_scale_manager) # Call minimize() on the loss scale optimizer. train_op = loss_scale_optimizer.minimize(1oss) Loss0 码力 | 26 页 | 5.82 MB | 5 月前3
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