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[2024-09-10 21:10:22,658] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
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[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
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[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
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[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
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[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
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[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
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[2024-09-10 21:10:25,566] [WARNING] [runner.py:202:fetch_hostfile] Unable to find hostfile, will proceed with training with local resources only. |
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[2024-09-10 21:10:25,566] [INFO] [runner.py:568:main] cmd = /home/juntao/Miniconda3/envs/roo/bin/python -u -m deepspeed.launcher.launch --world_info=eyJsb2NhbGhvc3QiOiBbMCwgMSwgMiwgMywgNCwgNSwgNiwgN119 --master_addr=127.0.0.1 --master_port=21326 --module --enable_each_rank_log=None safe_rlhf.values.score_lm --train_datasets PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json --eval_datasets PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json --model_name_or_path /home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m --max_length 1024 --trust_remote_code True --loss_type sequence-wise --epochs 2 --per_device_train_batch_size 4 --per_device_eval_batch_size 4 --gradient_accumulation_steps 4 --gradient_checkpointing --regularization 0.001 --normalize_score_during_training False --normalizer_type ExponentialMovingAverage --normalizer_momentum 0.9 --learning_rate 2e-5 --lr_scheduler_type cosine --lr_warmup_ratio 0.03 --weight_decay 0.1 --lm_coef 0.01 --seed 42 --need_eval --eval_strategy epoch --output_dir /home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910 --log_type wandb --log_project score_lm --log_run_name gpt2_774m_0910 --zero_stage 3 --offload none --bf16 True --tf32 True --save_16bit |
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[2024-09-10 21:10:27,116] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
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[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
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[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
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[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
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[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
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[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
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[2024-09-10 21:10:29,339] [INFO] [launch.py:146:main] WORLD INFO DICT: {'localhost': [0, 1, 2, 3, 4, 5, 6, 7]} |
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[2024-09-10 21:10:29,339] [INFO] [launch.py:152:main] nnodes=1, num_local_procs=8, node_rank=0 |
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[2024-09-10 21:10:29,339] [INFO] [launch.py:163:main] global_rank_mapping=defaultdict(<class 'list'>, {'localhost': [0, 1, 2, 3, 4, 5, 6, 7]}) |
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[2024-09-10 21:10:29,339] [INFO] [launch.py:164:main] dist_world_size=8 |
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[2024-09-10 21:10:29,339] [INFO] [launch.py:168:main] Setting CUDA_VISIBLE_DEVICES=0,1,2,3,4,5,6,7 |
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[2024-09-10 21:10:29,340] [INFO] [launch.py:256:main] process 3553582 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=0', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,341] [INFO] [launch.py:256:main] process 3553583 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=1', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,343] [INFO] [launch.py:256:main] process 3553584 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=2', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,344] [INFO] [launch.py:256:main] process 3553585 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=3', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,345] [INFO] [launch.py:256:main] process 3553586 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=4', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,346] [INFO] [launch.py:256:main] process 3553587 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=5', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,348] [INFO] [launch.py:256:main] process 3553588 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=6', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:29,349] [INFO] [launch.py:256:main] process 3553589 spawned with command: ['/home/juntao/Miniconda3/envs/roo/bin/python', '-u', '-m', 'safe_rlhf.values.score_lm', '--local_rank=7', '--train_datasets', 'PrefOnlyRewardJSON01::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/train.json', '--eval_datasets', 'PrefOnlyRewardJSON02::/home/juntao/Projects/roo-dev-cty/data/roo/gold-generate-dataset-ultrafeedback/30k/test.json', '--model_name_or_path', '/home/juntao/Projects/roo-dev-cty/models/proxy_model/gpt2-774m', '--max_length', '1024', '--trust_remote_code', 'True', '--loss_type', 'sequence-wise', '--epochs', '2', '--per_device_train_batch_size', '4', '--per_device_eval_batch_size', '4', '--gradient_accumulation_steps', '4', '--gradient_checkpointing', '--regularization', '0.001', '--normalize_score_during_training', 'False', '--normalizer_type', 'ExponentialMovingAverage', '--normalizer_momentum', '0.9', '--learning_rate', '2e-5', '--lr_scheduler_type', 'cosine', '--lr_warmup_ratio', '0.03', '--weight_decay', '0.1', '--lm_coef', '0.01', '--seed', '42', '--need_eval', '--eval_strategy', 'epoch', '--output_dir', '/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910', '--log_type', 'wandb', '--log_project', 'score_lm', '--log_run_name', 'gpt2_774m_0910', '--zero_stage', '3', '--offload', 'none', '--bf16', 'True', '--tf32', 'True', '--save_16bit'] |
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[2024-09-10 21:10:31,934] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:31,977] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,047] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,054] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,082] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,127] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,127] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[2024-09-10 21:10:32,186] [INFO] [real_accelerator.py:203:get_accelerator] Setting ds_accelerator to cuda (auto detect) |
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[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
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[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m async_io requires the dev libaio .so object and headers but these were not found. |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m async_io: please install the libaio-dev package with apt |
|
[93m [WARNING] [0m If libaio is already installed (perhaps from source), try setting the CFLAGS and LDFLAGS environment variables to where it can be found. |
|
[93m [WARNING] [0m Please specify the CUTLASS repo directory as environment variable $CUTLASS_PATH |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
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[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[93m [WARNING] [0m sparse_attn requires a torch version >= 1.5 and < 2.0 but detected 2.3 |
|
[93m [WARNING] [0m using untested triton version (2.3.1), only 1.0.0 is known to be compatible |
|
[2024-09-10 21:10:38,687] [INFO] [comm.py:637:init_distributed] cdb=None |
|
[2024-09-10 21:10:38,855] [INFO] [comm.py:637:init_distributed] cdb=None |
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[2024-09-10 21:10:39,029] [INFO] [comm.py:637:init_distributed] cdb=None |
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[2024-09-10 21:10:39,034] [INFO] [comm.py:637:init_distributed] cdb=None |
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[2024-09-10 21:10:39,090] [INFO] [comm.py:637:init_distributed] cdb=None |
|
[2024-09-10 21:10:39,133] [INFO] [comm.py:637:init_distributed] cdb=None |
|
[2024-09-10 21:10:39,180] [INFO] [comm.py:637:init_distributed] cdb=None |
|
[2024-09-10 21:10:39,211] [INFO] [comm.py:637:init_distributed] cdb=None |
|
[2024-09-10 21:10:39,211] [INFO] [comm.py:668:init_distributed] Initializing TorchBackend in DeepSpeed with backend nccl |
|
Set logger level to DEBUG. |
|
[2024-09-10 21:10:44,377] [INFO] [partition_parameters.py:345:__exit__] finished initializing model - num_params = 439, num_elems = 0.84B |
|
ninja: no work to do. |
|
Time to load fused_adam op: 0.5585312843322754 seconds |
|
Time to load fused_adam op: 0.607450008392334 seconds |
|
Time to load fused_adam op: 0.6077747344970703 seconds |
|
Time to load fused_adam op: 0.6062517166137695 seconds |
|
Time to load fused_adam op: 0.6082189083099365 seconds |
|
Time to load fused_adam op: 0.6088159084320068 seconds |
|
Time to load fused_adam op: 0.6079161167144775 seconds |
|
Time to load fused_adam op: 0.6089522838592529 seconds |
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[2024-09-10 21:10:51,954] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed info: version=0.14.4, git-hash=unknown, git-branch=unknown |
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[2024-09-10 21:10:51,954] [INFO] [comm.py:662:init_distributed] Distributed backend already initialized |
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[2024-09-10 21:10:51,989] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed Flops Profiler Enabled: False |
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[2024-09-10 21:10:51,992] [INFO] [logging.py:96:log_dist] [Rank 0] Using client Optimizer as basic optimizer |
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[2024-09-10 21:10:51,992] [INFO] [logging.py:96:log_dist] [Rank 0] Removing param_group that has no 'params' in the basic Optimizer |
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[2024-09-10 21:10:52,028] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed Basic Optimizer = FusedAdam |
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[2024-09-10 21:10:52,028] [INFO] [utils.py:56:is_zero_supported_optimizer] Checking ZeRO support for optimizer=FusedAdam type=<class 'deepspeed.ops.adam.fused_adam.FusedAdam'> |
|
[2024-09-10 21:10:52,028] [INFO] [logging.py:96:log_dist] [Rank 0] Creating fp16 ZeRO stage 3 optimizer, MiCS is enabled False, Hierarchical params gather False |
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[2024-09-10 21:10:52,028] [INFO] [logging.py:96:log_dist] [Rank 0] Creating torch.bfloat16 ZeRO stage 3 optimizer |
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[2024-09-10 21:10:52,210] [INFO] [utils.py:781:see_memory_usage] Stage 3 initialize beginning |
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[2024-09-10 21:10:52,210] [INFO] [utils.py:782:see_memory_usage] MA 0.32 GB Max_MA 0.58 GB CA 0.66 GB Max_CA 1 GB |
|
[2024-09-10 21:10:52,210] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.67 GB, percent = 3.9% |
|
[2024-09-10 21:10:52,212] [INFO] [stage3.py:130:__init__] Reduce bucket size 500,000,000 |
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[2024-09-10 21:10:52,212] [INFO] [stage3.py:131:__init__] Prefetch bucket size 30000000 |
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[2024-09-10 21:10:52,354] [INFO] [utils.py:781:see_memory_usage] DeepSpeedZeRoOffload initialize [begin] |
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[2024-09-10 21:10:52,354] [INFO] [utils.py:782:see_memory_usage] MA 0.32 GB Max_MA 0.32 GB CA 0.66 GB Max_CA 1 GB |
|
[2024-09-10 21:10:52,355] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.67 GB, percent = 3.9% |
|
Parameter Offload: Total persistent parameters: 602881 in 292 params |
|
[2024-09-10 21:10:52,518] [INFO] [utils.py:781:see_memory_usage] DeepSpeedZeRoOffload initialize [end] |
|
[2024-09-10 21:10:52,518] [INFO] [utils.py:782:see_memory_usage] MA 0.22 GB Max_MA 0.34 GB CA 0.66 GB Max_CA 1 GB |
|
[2024-09-10 21:10:52,518] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.67 GB, percent = 3.9% |
|
[2024-09-10 21:10:52,666] [INFO] [utils.py:781:see_memory_usage] Before creating fp16 partitions |
|
[2024-09-10 21:10:52,666] [INFO] [utils.py:782:see_memory_usage] MA 0.22 GB Max_MA 0.22 GB CA 0.66 GB Max_CA 1 GB |
|
[2024-09-10 21:10:52,666] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.68 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,213] [INFO] [utils.py:781:see_memory_usage] After creating fp16 partitions: 2 |
|
[2024-09-10 21:10:53,213] [INFO] [utils.py:782:see_memory_usage] MA 0.22 GB Max_MA 0.22 GB CA 0.24 GB Max_CA 1 GB |
|
[2024-09-10 21:10:53,213] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.73 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,381] [INFO] [utils.py:781:see_memory_usage] Before creating fp32 partitions |
|
[2024-09-10 21:10:53,381] [INFO] [utils.py:782:see_memory_usage] MA 0.22 GB Max_MA 0.22 GB CA 0.24 GB Max_CA 0 GB |
|
[2024-09-10 21:10:53,381] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.73 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,538] [INFO] [utils.py:781:see_memory_usage] After creating fp32 partitions |
|
[2024-09-10 21:10:53,539] [INFO] [utils.py:782:see_memory_usage] MA 0.58 GB Max_MA 0.76 GB CA 0.78 GB Max_CA 1 GB |
|
[2024-09-10 21:10:53,539] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.73 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,689] [INFO] [utils.py:781:see_memory_usage] Before initializing optimizer states |
|
[2024-09-10 21:10:53,689] [INFO] [utils.py:782:see_memory_usage] MA 0.58 GB Max_MA 0.58 GB CA 0.78 GB Max_CA 1 GB |
|
[2024-09-10 21:10:53,689] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.73 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,838] [INFO] [utils.py:781:see_memory_usage] After initializing optimizer states |
|
[2024-09-10 21:10:53,839] [INFO] [utils.py:782:see_memory_usage] MA 0.58 GB Max_MA 0.94 GB CA 1.14 GB Max_CA 1 GB |
|
[2024-09-10 21:10:53,839] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.73 GB, percent = 3.9% |
|
[2024-09-10 21:10:53,841] [INFO] [stage3.py:486:_setup_for_real_optimizer] optimizer state initialized |
|
[2024-09-10 21:10:54,868] [INFO] [utils.py:781:see_memory_usage] After initializing ZeRO optimizer |
|
[2024-09-10 21:10:54,869] [INFO] [utils.py:782:see_memory_usage] MA 1.69 GB Max_MA 1.93 GB CA 2.07 GB Max_CA 2 GB |
|
[2024-09-10 21:10:54,869] [INFO] [utils.py:789:see_memory_usage] CPU Virtual Memory: used = 39.72 GB, percent = 3.9% |
|
[2024-09-10 21:10:54,869] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed Final Optimizer = DeepSpeedZeroOptimizer_Stage3 |
|
[2024-09-10 21:10:54,869] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed using client LR scheduler |
|
[2024-09-10 21:10:54,869] [INFO] [logging.py:96:log_dist] [Rank 0] DeepSpeed LR Scheduler = <torch.optim.lr_scheduler.LambdaLR object at 0x79a35fe0b8d0> |
|
[2024-09-10 21:10:54,869] [INFO] [logging.py:96:log_dist] [Rank 0] step=0, skipped=0, lr=[0.0, 0.0], mom=[(0.9, 0.95), (0.9, 0.95)] |
|
[2024-09-10 21:10:54,870] [INFO] [config.py:997:print] DeepSpeedEngine configuration: |
|
[2024-09-10 21:10:54,870] [INFO] [config.py:1001:print] activation_checkpointing_config { |
|
"partition_activations": false, |
|
"contiguous_memory_optimization": false, |
|
"cpu_checkpointing": false, |
|
"number_checkpoints": null, |
|
"synchronize_checkpoint_boundary": false, |
|
"profile": false |
|
} |
|
[2024-09-10 21:10:54,870] [INFO] [config.py:1001:print] aio_config ................... {'block_size': 1048576, 'queue_depth': 8, 'thread_count': 1, 'single_submit': False, 'overlap_events': True} |
|
[2024-09-10 21:10:54,870] [INFO] [config.py:1001:print] amp_enabled .................. False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] amp_params ................... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] autotuning_config ............ { |
|
"enabled": false, |
|
"start_step": null, |
|
"end_step": null, |
|
"metric_path": null, |
|
"arg_mappings": null, |
|
"metric": "throughput", |
|
"model_info": null, |
|
"results_dir": "autotuning_results", |
|
"exps_dir": "autotuning_exps", |
|
"overwrite": true, |
|
"fast": true, |
|
"start_profile_step": 3, |
|
"end_profile_step": 5, |
|
"tuner_type": "gridsearch", |
|
"tuner_early_stopping": 5, |
|
"tuner_num_trials": 50, |
|
"model_info_path": null, |
|
"mp_size": 1, |
|
"max_train_batch_size": null, |
|
"min_train_batch_size": 1, |
|
"max_train_micro_batch_size_per_gpu": 1.024000e+03, |
|
"min_train_micro_batch_size_per_gpu": 1, |
|
"num_tuning_micro_batch_sizes": 3 |
|
} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] bfloat16_enabled ............. True |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] bfloat16_immediate_grad_update False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] checkpoint_parallel_write_pipeline False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] checkpoint_tag_validation_enabled True |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] checkpoint_tag_validation_fail False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] comms_config ................. <deepspeed.comm.config.DeepSpeedCommsConfig object at 0x79a35fe0dbd0> |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] communication_data_type ...... None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] compression_config ........... {'weight_quantization': {'shared_parameters': {'enabled': False, 'quantizer_kernel': False, 'schedule_offset': 0, 'quantize_groups': 1, 'quantize_verbose': False, 'quantization_type': 'symmetric', 'quantize_weight_in_forward': False, 'rounding': 'nearest', 'fp16_mixed_quantize': False, 'quantize_change_ratio': 0.001}, 'different_groups': {}}, 'activation_quantization': {'shared_parameters': {'enabled': False, 'quantization_type': 'symmetric', 'range_calibration': 'dynamic', 'schedule_offset': 1000}, 'different_groups': {}}, 'sparse_pruning': {'shared_parameters': {'enabled': False, 'method': 'l1', 'schedule_offset': 1000}, 'different_groups': {}}, 'row_pruning': {'shared_parameters': {'enabled': False, 'method': 'l1', 'schedule_offset': 1000}, 'different_groups': {}}, 'head_pruning': {'shared_parameters': {'enabled': False, 'method': 'topk', 'schedule_offset': 1000}, 'different_groups': {}}, 'channel_pruning': {'shared_parameters': {'enabled': False, 'method': 'l1', 'schedule_offset': 1000}, 'different_groups': {}}, 'layer_reduction': {'enabled': False}} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] curriculum_enabled_legacy .... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] curriculum_params_legacy ..... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] data_efficiency_config ....... {'enabled': False, 'seed': 1234, 'data_sampling': {'enabled': False, 'num_epochs': 1000, 'num_workers': 0, 'curriculum_learning': {'enabled': False}}, 'data_routing': {'enabled': False, 'random_ltd': {'enabled': False, 'layer_token_lr_schedule': {'enabled': False}}}} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] data_efficiency_enabled ...... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] dataloader_drop_last ......... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] disable_allgather ............ False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] dump_state ................... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] dynamic_loss_scale_args ...... None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_enabled ........... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_gas_boundary_resolution 1 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_layer_name ........ bert.encoder.layer |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_layer_num ......... 0 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_max_iter .......... 100 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_stability ......... 1e-06 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_tol ............... 0.01 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] eigenvalue_verbose ........... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] elasticity_enabled ........... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] flops_profiler_config ........ { |
|
"enabled": false, |
|
"recompute_fwd_factor": 0.0, |
|
"profile_step": 1, |
|
"module_depth": -1, |
|
"top_modules": 1, |
|
"detailed": true, |
|
"output_file": null |
|
} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] fp16_auto_cast ............... None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] fp16_enabled ................. False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] fp16_master_weights_and_gradients False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] global_rank .................. 0 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] grad_accum_dtype ............. None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] gradient_accumulation_steps .. 4 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] gradient_clipping ............ 1.0 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] gradient_predivide_factor .... 1.0 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] graph_harvesting ............. False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] hybrid_engine ................ enabled=False max_out_tokens=512 inference_tp_size=1 release_inference_cache=False pin_parameters=True tp_gather_partition_size=8 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] initial_dynamic_scale ........ 1 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] load_universal_checkpoint .... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] loss_scale ................... 1.0 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] memory_breakdown ............. False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] mics_hierarchial_params_gather False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] mics_shard_size .............. -1 |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] monitor_config ............... tensorboard=TensorBoardConfig(enabled=False, output_path='', job_name='DeepSpeedJobName') comet=CometConfig(enabled=False, samples_log_interval=100, project=None, workspace=None, api_key=None, experiment_name=None, experiment_key=None, online=None, mode=None) wandb=WandbConfig(enabled=False, group=None, team=None, project='deepspeed') csv_monitor=CSVConfig(enabled=False, output_path='', job_name='DeepSpeedJobName') enabled=False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] nebula_config ................ { |
|
"enabled": false, |
|
"persistent_storage_path": null, |
|
"persistent_time_interval": 100, |
|
"num_of_version_in_retention": 2, |
|
"enable_nebula_load": true, |
|
"load_path": null |
|
} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] optimizer_legacy_fusion ...... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] optimizer_name ............... None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] optimizer_params ............. None |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] pipeline ..................... {'stages': 'auto', 'partition': 'best', 'seed_layers': False, 'activation_checkpoint_interval': 0, 'pipe_partitioned': True, 'grad_partitioned': True} |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] pld_enabled .................. False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] pld_params ................... False |
|
[2024-09-10 21:10:54,871] [INFO] [config.py:1001:print] prescale_gradients ........... False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] scheduler_name ............... None |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] scheduler_params ............. None |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] seq_parallel_communication_data_type torch.float32 |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] sparse_attention ............. None |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] sparse_gradients_enabled ..... False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] steps_per_print .............. 10 |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] timers_config ................ enabled=True synchronized=True |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] train_batch_size ............. 128 |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] train_micro_batch_size_per_gpu 4 |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] use_data_before_expert_parallel_ False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] use_node_local_storage ....... False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] wall_clock_breakdown ......... False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] weight_quantization_config ... None |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] world_size ................... 8 |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] zero_allow_untested_optimizer False |
|
[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] zero_config .................. stage=3 contiguous_gradients=True reduce_scatter=True reduce_bucket_size=500,000,000 use_multi_rank_bucket_allreduce=True allgather_partitions=True allgather_bucket_size=500,000,000 overlap_comm=True load_from_fp32_weights=True elastic_checkpoint=False offload_param=DeepSpeedZeroOffloadParamConfig(device='none', nvme_path=None, buffer_count=5, buffer_size=100,000,000, max_in_cpu=1,000,000,000, pin_memory=False) offload_optimizer=DeepSpeedZeroOffloadOptimizerConfig(device='none', nvme_path=None, buffer_count=4, pin_memory=False, pipeline=False, pipeline_read=False, pipeline_write=False, fast_init=False, ratio=1.0) sub_group_size=1,000,000,000 cpu_offload_param=None cpu_offload_use_pin_memory=None cpu_offload=None prefetch_bucket_size=30000000 param_persistence_threshold=10000 model_persistence_threshold=sys.maxsize max_live_parameters=30000000 max_reuse_distance=1,000,000,000 gather_16bit_weights_on_model_save=True use_all_reduce_for_fetch_params=False stage3_gather_fp16_weights_on_model_save=False ignore_unused_parameters=True legacy_stage1=False round_robin_gradients=False zero_hpz_partition_size=1 zero_quantized_weights=False zero_quantized_nontrainable_weights=False zero_quantized_gradients=False mics_shard_size=-1 mics_hierarchical_params_gather=False memory_efficient_linear=False pipeline_loading_checkpoint=False override_module_apply=True |
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[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] zero_enabled ................. True |
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[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] zero_force_ds_cpu_optimizer .. True |
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[2024-09-10 21:10:54,872] [INFO] [config.py:1001:print] zero_optimization_stage ...... 3 |
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[2024-09-10 21:10:54,872] [INFO] [config.py:987:print_user_config] json = { |
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"train_batch_size": 128, |
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"train_micro_batch_size_per_gpu": 4, |
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"gradient_accumulation_steps": 4, |
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"steps_per_print": 10, |
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"zero_optimization": { |
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"stage": 3, |
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"offload_param": { |
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"device": "none" |
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}, |
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"offload_optimizer": { |
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"device": "none" |
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}, |
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"param_persistence_threshold": 1.000000e+04, |
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"max_live_parameters": 3.000000e+07, |
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"prefetch_bucket_size": 3.000000e+07, |
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"memory_efficient_linear": false, |
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"gather_16bit_weights_on_model_save": true |
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}, |
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"gradient_clipping": 1.0, |
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"prescale_gradients": false, |
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"wall_clock_breakdown": false, |
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"hybrid_engine": { |
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"enabled": false, |
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"max_out_tokens": 512, |
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"inference_tp_size": 1, |
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"release_inference_cache": false, |
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"pin_parameters": true, |
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"tp_gather_partition_size": 8 |
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}, |
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"bf16": { |
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"enabled": true |
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} |
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} |
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***** Running training ***** |
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|
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***** Evaluating at the beginning ***** |
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Evaluation: accuracy = 0.342000, reward_mean = 0.236833, reward_std = 0.019346 |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ³βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ³βββββββββββ³ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ³βββββββββββ |
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β prompt β higher-reward response β reward β lower-reward response β reward β |
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β‘βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ© |
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β BEGINNING OF CONVERSATION: USER: I would like to see a good β Sure! Google Colab is a great platform for running Python code β 0.233398 β Of course! I'm happy to help you with analyzing Python data β 0.221680 β |
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β example of analyzing Python data using Colab. Show me a code β and analyzing data using Python libraries, like pandas, β β using Colab. β β |
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β example. ASSISTANT: β matplotlib and seaborn. Here's a simple example using a β β First, let me clarify that Colab is a free-hosted Jupyter β β |
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β β dataset about cars and analyzing the relationship between β β notebook browser that allows you to write and run Python code β β |
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β β horsepower and miles per gallon (mpg). β β in your web browser. It's a great tool for data analysis and β β |
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β β β β visualization, and we can use it to analyze Python data using β β |
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β β ```python β β various libraries and techniques. β β |
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β β # Import necessary libraries β β Now, let's say we have a dataset of customer information for β β |
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β β import pandas as pd β β an e-commerce website, and we want to analyze it using Colab. β β |
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β β import matplotlib.pyplot as plt β β Here's an example of how we can do this: β β |
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β β import seaborn as sns β β 1. First, let's import the necessary libraries: β β |
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β β β β ``` β β |
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β β # Load a sample dataset about cars (available on seaborn β β !pip install pandas β β |
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β β library) β β import pandas as pd β β |
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β β df = sns.load_dataset('mpg') β β import numpy as np β β |
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β β β β import matplotlib.pyplot as plt β β |
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β β # Print the first few rows of the dataset β β ``` β β |
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β β print(df.head()) β β In this code, we're installing the `pandas` library for data β β |
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β β β β manipulation and analysis, and `numpy` for numerical β β |
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β β # Visualize the relationship between 'horsepower' and'mpg' β β computations. We're also importing the `matplotlib` library β β |
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β β plt.figure(figsize=(10, 5)) β β for data visualization. β β |
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β β sns.scatterplot(x='horsepower', y='mpg', data=df) β β 2. Next, let's load the dataset: β β |
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β β plt.title('Relationship between Horsepower and MPG') β β β β |
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β β plt.xlabel('Horsepower') β β customer_data = pd.read_csv('customer.csv') β β |
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β β plt.ylabel('Miles per Gallon') β β ``` β β |
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β β β β # Replace 'customer.csv' with the name of your dataset file β β |
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β β # Display the plot β β ``` β β |
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β β plt.show() β β This code reads the customer dataset from a CSV file named β β |
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β β ``` β β `customer.csv`. Make sure to replace this with the actual β β |
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β β β β name of your dataset file. β β |
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β β This code will create a scatter plot showing the relationship β β 3. Now, let's examine the dataset: β β |
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β β between horsepower and miles per gallon (mpg) of various cars. β β β β |
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β β The seaborn library comes with several built-in datasets, one β β print(customer_data.head()) β β |
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β β of which is used in this example. You can also upload your β β β β |
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β β data files into your Colab notebook and load them into a β β ``` β β |
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β β pandas DataFrame for analysis and visualization. β β β β |
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β β β β This code displays the first few rows of the dataset using β β |
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β β To run the code shown above in Google Colab: β β the `head()` method of the `pd.DataFrame` object. This gives β β |
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β β β β us a quick rundown of what the dataset looks like. β β |
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β β 1. Head over to https: |
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β β 2. Click `File` > `New notebook` β β metrics: β β |
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β β 3. Copy and paste the code into a code cell β β β β |
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β β 4. Press `Shift` + `Enter` to execute the cell and see the β β print(customer_data.mean()) β β |
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β β output below the cell β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code calculates the mean of various columns in the β β |
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β β β β dataset using the `mean()` method of the `pd.DataFrame` β β |
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β β β β object. This gives us an idea of the average value of each β β |
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β β β β column. β β |
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β β β β 5. Let's visualize the distribution of values in one of the β β |
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β β β β columns: β β |
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β β β β β β |
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β β β β print(customer_data['age'].hist()) β β |
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β β β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code creates a histogram of the values in the `age` β β |
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β β β β column using the `hist()` method of the `pd.Series` object. β β |
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β β β β This gives us a visual representation of the distribution of β β |
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β β β β ages in the dataset. β β |
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β β β β 6. Finally, let's analyze the data using a machine learning β β |
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β β β β algorithm: β β |
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β β β β β β |
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β β β β from sklearn.cluster import KMeans β β |
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β β β β β β |
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β β β β customer_kmeans = β β |
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β β β β KMeans(n_clusters=5).fit(customer_data.drop('age', axis=1)) β β |
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β β β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code uses the `KMeans` algorithm from the `scikit-learn` β β |
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β β β β library to cluster the customers based on their β β |
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β β β β characteristics (excluding the `age` column). We can use this β β |
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β β β β to identify groups of similar customers. β β |
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β β β β And that's it! These are just a few examples of how you can β β |
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β β β β use Colab to analyze Python data. Of course, there are many β β |
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β β β β more techniques and libraries you can use, depending on the β β |
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β β β β nature of your dataset. I hope this helps you get started β β |
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β β β β with analyzing your own data using Colab! β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββΌββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββ€ |
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β BEGINNING OF CONVERSATION: USER: write an assignment on β Title: Designing a University Management System β 0.229492 β Assignment Title: University Management System β 0.220703 β |
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β University management system(also write sql commands, β β β β β |
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β relation schema and max 5 table) ASSISTANT: β Objective: β β Introduction: β β |
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β β The objective of this assignment is to design a university β β β β |
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β β management system by creating a relational schema, SQL β β A University Management System is a software application for β β |
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β β commands, and implementing it using no more than five tables. β β managing academic and administrative tasks. This system β β |
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β β The system will help manage student and staff records, β β provides a centralized solution to manage records and tasks β β |
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β β courses, and other essential aspects of university management. β β related to students, teachers, courses, departments, and β β |
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β β β β other aspects of the university. The goal of this assignment β β |
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β β Specifications: β β is to create a University Management System using a β β |
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β β β β relational database. β β |
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β β 1. The system should be capable of storing and managing β β β β |
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β β student records, including personal details, contact β β Architecture of University Management System: β β |
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β β information, and academic records. β β β β |
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β β 2. The system should be able to store and manage staff β β The University Management System will have five main tables β β |
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β β records, including personal details, contact information, and β β in the relational schema: Students, Teachers, Courses, β β |
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β β employment history. β β Departments, and Attendance. These tables will be joined β β |
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β β 3. The system should manage courses, including course details, β β together to provide functionalities such as course β β |
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β β instructors, and enrolled students. β β registration, course management, student profiling, student β β |
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β β 4. The system should support adding, editing, and removing β β performance evaluation, and others. β β |
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β β records. β β β β |
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β β 5. The system should facilitate querying and reporting based β β 1. Students Table: β β |
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β β on the stored data. β β β β |
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β β β β | Field Name | Data Type | Description | β β |
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β β Schema: β β | --- | --- | --- | β β |
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β β The proposed relational schema for the university management β β | student_id | INT | Unique identifier for the student | β β |
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β β system is as follows: β β | first_name | VARCHAR | First name of the student | β β |
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β β β β | last_name | VARCHAR | Last name of the student | β β |
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β β Table 1: Students (S) β β | email | VARCHAR | Email address of the student | β β |
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β β β β | course_id | INT | Course that student is enrolled in | β β |
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β β * S\_ID (Primary Key): Unique identifier for each student β β β β |
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β β * FirstName: Student's first name β β SQL Command to create the Students table: β β |
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β β * LastName: Student's last name β β ```sql β β |
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β β * MiddleName: Student's middle name β β CREATE TABLE students ( β β |
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β β * Gender: Student's gender β β student_id INT PRIMARY KEY, β β |
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β β * DateOfBirth: Student's date of birth β β first_name VARCHAR(50), β β |
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β β * Address: Student's address β β last_name VARCHAR(50), β β |
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β β * ContactNumber: Student's contact number β β email VARCHAR(50), β β |
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β β * Email: Student's email address β β course_id INT β β |
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β β * RegistrationNumber: Student's registration number β β ); β β |
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β β * EnrollmentStatus: Student's enrollment status β β ``` β β |
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β β β β 1. Teachers Table: β β |
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β β Table 2: Staff ( Employees ) β β β β |
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β β β β | Field Name | Data Type | Description | β β |
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β β * Employee\_ID (Primary Key): Unique identifier for each staff β β | --- | --- | --- | β β |
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β β member β β | teacher_id | INT | Unique identifier for the teacher | β β |
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β β * FirstName: Staff member's first name β β | first_name | VARCHAR | First name of the teacher | β β |
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β β * LastName: Staff member's last name β β | last_name | VARCHAR | Last name of the teacher | β β |
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β β * MiddleName: Staff member's middle name β β | email | VARCHAR | Email address of the teacher | β β |
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β β * Gender: Staff member's gender β β | department_id | INT | Department that teacher is associated β β |
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β β * DateOfBirth: Staff member's date of birth β β with | β β |
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β β * Address: Staff member's address β β β β |
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β β * ContactNumber: Staff member's contact number β β SQL Command to create the Teachers table: β β |
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β β * Email: Staff member's email address β β ```sql β β |
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β β * Position: Staff member's job position β β CREATE TABLE teachers ( β β |
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β β * Department: Staff member's department β β teacher_id INT PRIMARY KEY, β β |
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β β β β first_name VARCHAR(50), β β |
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β β Table 3: Courses (C) β β last_name VARCHAR(50), β β |
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β β β β email VARCHAR(50), β β |
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β β * Course\_ID (Primary Key): Unique identifier for each course β β department_id INT β β |
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β β * CourseName: Course name β β ); β β |
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β β * CourseCode: Course code β β ``` β β |
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β β * Description: Course description β β 1. Courses Table: β β |
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β β * Instructor\_ID: ID of the instructor for the course (Foreign β β β β |
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β β key referencing Staff) β β | Field Name | Data Type | Description | β β |
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β β * Department: Department the course belongs to (Foreign key β β | --- | --- | --- | β β |
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β β referencing Departments) β β | course_id | INT | Unique identifier for the course | β β |
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β β β β | course_name | VARCHAR | Name of the course | β β |
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β β Table 4: Students\_Courses (SC) β β | department_id | INT | Department that course belongs to | β β |
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β β β β | instructor_id | INT | ID of the teacher who is teaching the β β |
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β β * SC\_ID (Primary Key): Unique identifier for the β β course | β β |
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β β student-course relationship β β β β |
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β β * S\_ID (Foreign key): ID of the student (Referencing β β SQL Command to create the Courses table: β β |
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β β Students) β β ```sql β β |
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β β * Course\_ID (Foreign key): ID of the course (Referencing β β CREATE TABLE courses ( β β |
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β β Courses) β β course_id INT PRIMARY KEY, β β |
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β β * EnrollmentDate: Date when the student enrolled in the course β β course_name VARCHAR(50), β β |
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β β * Grade: Final grade earned by the student in the course β β department_id INT, β β |
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β β β β instructor_id INT β β |
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β β Table 5: Departments (D) β β ); β β |
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β β β β ``` β β |
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β β * Department\_ID (Primary Key): Unique identifier for each β β 1. Departments Table: β β |
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β β department β β β β |
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β β * DepartmentName: Department name β β | Field Name | Data Type | Description | β β |
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β β * DepartmentChair: ID of the department chair (Foreign key β β | --- | --- | --- | β β |
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β β referencing Staff) β β | department_id | INT | Unique identifier for the department β β |
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β β β β | β β |
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β β SQL Commands: β β | department_name | VARCHAR | Name of the department | β β |
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β β The following SQL commands will help in implementing and β β β β |
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β β managing the university management system: β β SQL Command to create the Departments table: β β |
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β β β β ```sql β β |
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β β 1. INSERT INTO Students (Student\_ID, FirstName, LastName, β β CREATE TABLE departments ( β β |
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β β MiddleName, Gender, DateOfBirth, Address, ContactNumber, β β department_id INT PRIMARY KEY, β β |
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β β Email, RegistrationNumber, EnrollmentStatus) β β department_name VARCHAR(50) β β |
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β β 2. INSERT INTO Staff (Employee\_ID, FirstName, LastName, β β ); β β |
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β β MiddleName, Gender, DateOfBirth, Address, ContactNumber, β β ``` β β |
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β β Email, Position, Department) β β 1. Attendance Table: β β |
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β β 3. INSERT INTO Courses (Course\_ID, CourseName, CourseCode, β β β β |
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β β Description, Instructor\_ID, Department) β β | Field Name | Data Type | Description | β β |
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β β 4. INSERT INTO Students\_Courses (SC\_ID, S\_ID, Course\_ID, β β | --- | --- | --- | β β |
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β β EnrollmentDate, Grade) β β | attendance_id | INT | Unique identifier for attendance β β |
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β β 5. INSERT INTO Departments (Department\_ID, DepartmentName, β β record | β β |
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β β DepartmentChair) β β | student_id | INT | ID of the student attending the class | β β |
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β β β β | course_id | INT | ID of the course attended | β β |
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β β 1. UPDATE Students SET FirstName = 'NewFirstName', LastName = β β | date_time | DATE | Date and time of the class | β β |
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β β 'NewLastName', Address = 'NewAddress' WHERE Student\_ID = ' β β | status | VARCHAR | Status of the student's attendance β β |
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β β β β (Attended/Absent) | β β |
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β β β β β β |
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β β β β SQL Command to create the Attendance table: β β |
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β β β β ```sql β β |
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β β β β CREATE TABLE attendance ( β β |
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β β β β attendance_id INT PRIMARY KEY, β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββΌββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββ€ |
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β BEGINNING OF CONVERSATION: USER: create a cheat sheet for β Hello! As a respectful and helpful AI assistant, I'm here to β 0.212891 β A cheat sheet for data management in clinical trials can β 0.234375 β |
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β data management in clinical trials, including a short β help you with your question on data management in clinical β β include a short description of the necessary documents, such β β |
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β description of the necessary documents, to do's and main β trials. Here's a cheat sheet that summarizes the necessary β β as case report forms (CRFs), informed consent forms (ICFs), β β |
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β activities ASSISTANT: β documents, to-do's, and main activities for successful data β β standard operating procedures (SOPs), and data safety β β |
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β β management in clinical trials: β β monitoring plans (DSMPs). The to do's can include compiling β β |
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β β β β these documents, collecting and managing data, maintaining a β β |
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β β Necessary Documents: β β trial master file (TMF), and conducting statistical analyses. β β |
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β β β β The main activities include conducting a risk assessment, β β |
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β β 1. Study Protocol: This document outlines the overall plan for β β monitoring data quality, ensuring adherence to protocols, and β β |
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β β the clinical trial, including the objectives, β β managing study events. β β |
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β β inclusion/exclusion criteria, and the methods for data β β β β |
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β β collection and analysis. β β β β |
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β β 2. Data Management Plan (DMP): This document details the β β β β |
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β β strategies and procedures for collecting, storing, and β β β β |
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β β analyzing the data generated during the clinical trial. β β β β |
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β β 3. Case Report Forms (CRFs): These forms are used to collect β β β β |
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β β data from participants during the clinical trial, and they β β β β |
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β β should be designed to capture the relevant information needed β β β β |
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β β for the study. β β β β |
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β β 4. Data Query Management Plan: This plan outlines the β β β β |
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β β procedures for addressing data discrepancies and resolving β β β β |
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β β queries that arise during the clinical trial. β β β β |
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β β 5. Data Monitoring Plan: This plan details the procedures for β β β β |
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β β monitoring the data collected during the clinical trial, β β β β |
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β β including the methods for detecting and addressing anydata β β β β |
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β β issues. β β β β |
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β β β β β β |
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β β To-Do's: β β β β |
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β β β β β β |
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β β 1. Develop a comprehensive Data Management Plan (DMP) that β β β β |
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β β outlines the strategies and procedures for collecting, β β β β |
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β β storing, and analyzing the data generated during the clinical β β β β |
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β β trial. β β β β |
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β β 2. Train the study team on the data management procedures β β β β |
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β β outlined in the DMP. β β β β |
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β β 3. Develop and implement a robust data quality control process β β β β |
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β β to ensure the accuracy, completeness, and consistency of the β β β β |
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β β data collected during the clinical trial. β β β β |
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β β 4. Regularly review and update the DMP as needed to ensure β β β β |
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β β that it remains relevant and effective throughout the clinical β β β β |
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β β trial. β β β β |
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β β 5. Monitor the data collected during the clinical trial in β β β β |
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β β accordance with the Data Monitoring Plan to ensure that the β β β β |
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β β data is accurate, complete, and consistent. β β β β |
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β β β β β β |
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β β Main Activities: β β β β |
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β β β β β β |
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β β 1. Data Collection: This involves the use of CRFs and other β β β β |
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β β data collection tools to capture the relevant data from β β β β |
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β β participants during the clinical trial. β β β β |
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β β 2. Data Cleaning and Validation: This involves reviewing and β β β β |
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β β correcting any errors or inconsistencies in the data to ensure β β β β |
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β β that it is accurate and complete. β β β β |
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β β 3. Data Integration: This involves combining data from β β β β |
|
β β multiple sources (e.g., CRFs, laboratory results, medical β β β β |
|
β β imaging) to create a comprehensive view of the data. β β β β |
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β β 4. Data Analysis: This involves using statistical methods and β β β β |
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β β other techniques to extract insights and meaning from the data β β β β |
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β β collected during the clinical trial. β β β β |
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β β 5. Data Reporting: This involves presenting the findings of β β β β |
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β β the clinical trial in a clear and concise manner, using β β β β |
|
β β graphs, tables, and other visual aids to help stakeholders β β β β |
|
β β understand the results. β β β β |
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β β β β β β |
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β β I hope this cheat sheet is helpful in providing you with a β β β β |
|
β β comprehensive overview of the necessary documents, to-do's, β β β β |
|
β β and main activities for successful data management in clinical β β β β |
|
β β trials. If you have any further questions or need more β β β β |
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β β information, please don't hesitate to ask! β β β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄βββββββββββ΄ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄βββββββββββ |
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[2024-09-10 21:16:31,442] [INFO] [logging.py:96:log_dist] [Rank 0] step=10, skipped=0, lr=[1.6666666666666667e-05, 1.6666666666666667e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:16:31,443] [INFO] [timer.py:258:stop] epoch=0/micro_step=40/global_step=10, RunningAvgSamplesPerSec=11.352064835791357, CurrSamplesPerSec=12.850610086386917, MemAllocated=2.43GB, MaxMemAllocated=8.25GB |
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[2024-09-10 21:18:28,331] [INFO] [logging.py:96:log_dist] [Rank 0] step=20, skipped=0, lr=[1.998121781934438e-05, 1.998121781934438e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:18:28,332] [INFO] [timer.py:258:stop] epoch=0/micro_step=80/global_step=20, RunningAvgSamplesPerSec=11.363551332554591, CurrSamplesPerSec=10.94879345671668, MemAllocated=2.43GB, MaxMemAllocated=8.25GB |
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[2024-09-10 21:20:27,570] [INFO] [logging.py:96:log_dist] [Rank 0] step=30, skipped=0, lr=[1.9905036114631247e-05, 1.9905036114631247e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:20:27,570] [INFO] [timer.py:258:stop] epoch=0/micro_step=120/global_step=30, RunningAvgSamplesPerSec=11.298163748093565, CurrSamplesPerSec=11.487612894272052, MemAllocated=2.43GB, MaxMemAllocated=8.25GB |
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[2024-09-10 21:22:22,658] [INFO] [logging.py:96:log_dist] [Rank 0] step=40, skipped=0, lr=[1.9770727719432994e-05, 1.9770727719432994e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:22:22,658] [INFO] [timer.py:258:stop] epoch=0/micro_step=160/global_step=40, RunningAvgSamplesPerSec=11.353218793245079, CurrSamplesPerSec=10.9797341655996, MemAllocated=2.43GB, MaxMemAllocated=8.25GB |
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[2024-09-10 21:24:21,862] [INFO] [logging.py:96:log_dist] [Rank 0] step=50, skipped=0, lr=[1.9579080808818035e-05, 1.9579080808818035e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:24:21,862] [INFO] [timer.py:258:stop] epoch=0/micro_step=200/global_step=50, RunningAvgSamplesPerSec=11.309583578778108, CurrSamplesPerSec=11.005110509882158, MemAllocated=2.43GB, MaxMemAllocated=8.25GB |
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[2024-09-10 21:26:23,209] [INFO] [logging.py:96:log_dist] [Rank 0] step=60, skipped=0, lr=[1.9331220043062894e-05, 1.9331220043062894e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:26:23,210] [INFO] [timer.py:258:stop] epoch=0/micro_step=240/global_step=60, RunningAvgSamplesPerSec=11.239385489180092, CurrSamplesPerSec=12.941125799620023, MemAllocated=2.43GB, MaxMemAllocated=8.26GB |
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[2024-09-10 21:27:36,753] [INFO] [logging.py:96:log_dist] [Rank 0] step=70, skipped=0, lr=[1.9028599967698533e-05, 1.9028599967698533e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:27:36,753] [INFO] [timer.py:258:stop] epoch=0/micro_step=280/global_step=70, RunningAvgSamplesPerSec=11.919907292071862, CurrSamplesPerSec=37.40828234561593, MemAllocated=2.43GB, MaxMemAllocated=8.26GB |
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[2024-09-10 21:28:16,039] [INFO] [logging.py:96:log_dist] [Rank 0] step=80, skipped=0, lr=[1.8672996477658767e-05, 1.8672996477658767e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:28:16,039] [INFO] [timer.py:258:stop] epoch=0/micro_step=320/global_step=80, RunningAvgSamplesPerSec=13.023186384694899, CurrSamplesPerSec=33.891358706157426, MemAllocated=2.43GB, MaxMemAllocated=8.26GB |
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[2024-09-10 21:28:54,903] [INFO] [logging.py:96:log_dist] [Rank 0] step=90, skipped=0, lr=[1.826649639562266e-05, 1.826649639562266e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:28:54,904] [INFO] [timer.py:258:stop] epoch=0/micro_step=360/global_step=90, RunningAvgSamplesPerSec=14.029985026793161, CurrSamplesPerSec=34.3639610115291, MemAllocated=2.43GB, MaxMemAllocated=8.26GB |
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[2024-09-10 21:29:33,402] [INFO] [logging.py:96:log_dist] [Rank 0] step=100, skipped=0, lr=[1.7811485225709255e-05, 1.7811485225709255e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:29:33,403] [INFO] [timer.py:258:stop] epoch=0/micro_step=400/global_step=100, RunningAvgSamplesPerSec=14.95891743722857, CurrSamplesPerSec=35.51995537038689, MemAllocated=2.43GB, MaxMemAllocated=8.26GB |
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[2024-09-10 21:30:12,602] [INFO] [logging.py:96:log_dist] [Rank 0] step=110, skipped=0, lr=[1.731063315439084e-05, 1.731063315439084e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:30:12,603] [INFO] [timer.py:258:stop] epoch=0/micro_step=440/global_step=110, RunningAvgSamplesPerSec=15.790714272731938, CurrSamplesPerSec=33.65822133275722, MemAllocated=2.43GB, MaxMemAllocated=8.27GB |
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[2024-09-10 21:30:50,861] [INFO] [logging.py:96:log_dist] [Rank 0] step=120, skipped=0, lr=[1.6766879380776983e-05, 1.6766879380776983e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:30:50,861] [INFO] [timer.py:258:stop] epoch=0/micro_step=480/global_step=120, RunningAvgSamplesPerSec=16.581424302731428, CurrSamplesPerSec=35.42318196453927, MemAllocated=2.43GB, MaxMemAllocated=8.27GB |
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[2024-09-10 21:31:30,047] [INFO] [logging.py:96:log_dist] [Rank 0] step=130, skipped=0, lr=[1.6183414868225434e-05, 1.6183414868225434e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:31:30,047] [INFO] [timer.py:258:stop] epoch=0/micro_step=520/global_step=130, RunningAvgSamplesPerSec=17.29520092558459, CurrSamplesPerSec=39.98405555917592, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:32:08,975] [INFO] [logging.py:96:log_dist] [Rank 0] step=140, skipped=0, lr=[1.55636636185003e-05, 1.55636636185003e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:32:08,976] [INFO] [timer.py:258:stop] epoch=0/micro_step=560/global_step=140, RunningAvgSamplesPerSec=17.960545464179184, CurrSamplesPerSec=36.18071795491109, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:32:47,194] [INFO] [logging.py:96:log_dist] [Rank 0] step=150, skipped=0, lr=[1.4911262578368233e-05, 1.4911262578368233e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:32:47,195] [INFO] [timer.py:258:stop] epoch=0/micro_step=600/global_step=150, RunningAvgSamplesPerSec=18.588957116713487, CurrSamplesPerSec=35.50834292851299, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:33:26,895] [INFO] [logging.py:96:log_dist] [Rank 0] step=160, skipped=0, lr=[1.4230040296548588e-05, 1.4230040296548588e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:33:26,896] [INFO] [timer.py:258:stop] epoch=0/micro_step=640/global_step=160, RunningAvgSamplesPerSec=19.152311385651867, CurrSamplesPerSec=33.165219493804244, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:34:04,963] [INFO] [logging.py:96:log_dist] [Rank 0] step=170, skipped=0, lr=[1.352399445626722e-05, 1.352399445626722e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:34:04,964] [INFO] [timer.py:258:stop] epoch=0/micro_step=680/global_step=170, RunningAvgSamplesPerSec=19.705901192348477, CurrSamplesPerSec=38.5529274775763, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:34:42,710] [INFO] [logging.py:96:log_dist] [Rank 0] step=180, skipped=0, lr=[1.2797268415261681e-05, 1.2797268415261681e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:34:42,710] [INFO] [timer.py:258:stop] epoch=0/micro_step=720/global_step=180, RunningAvgSamplesPerSec=20.231478027340223, CurrSamplesPerSec=37.03658383470068, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:35:22,082] [INFO] [logging.py:96:log_dist] [Rank 0] step=190, skipped=0, lr=[1.2054126890910499e-05, 1.2054126890910499e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:35:22,082] [INFO] [timer.py:258:stop] epoch=0/micro_step=760/global_step=190, RunningAvgSamplesPerSec=20.6988053391199, CurrSamplesPerSec=34.546312777603255, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:36:00,721] [INFO] [logging.py:96:log_dist] [Rank 0] step=200, skipped=0, lr=[1.1298930933175805e-05, 1.1298930933175805e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:36:00,721] [INFO] [timer.py:258:stop] epoch=0/micro_step=800/global_step=200, RunningAvgSamplesPerSec=21.146676476095102, CurrSamplesPerSec=34.54886048866023, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:36:39,570] [INFO] [logging.py:96:log_dist] [Rank 0] step=210, skipped=0, lr=[1.0536112332228057e-05, 1.0536112332228057e-05], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:36:39,570] [INFO] [timer.py:258:stop] epoch=0/micro_step=840/global_step=210, RunningAvgSamplesPerSec=21.566856479167555, CurrSamplesPerSec=34.07296502962237, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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***** Evaluating at epoch 1/2 ***** |
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Evaluation: accuracy = 0.792333, reward_mean = 0.444733, reward_std = 2.274559 |
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β prompt β higher-reward response β reward β lower-reward response β reward β |
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β‘βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ© |
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β BEGINNING OF CONVERSATION: USER: I would like to see a good β Sure! Google Colab is a great platform for running Python β 1.906250 β Of course! I'm happy to help you with analyzing Python data β 3.281250 β |
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β example of analyzing Python data using Colab. Show me a code β code and analyzing data using Python libraries, like pandas, β β using Colab. β β |
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β example. ASSISTANT: β matplotlib and seaborn. Here's a simple example using a β β First, let me clarify that Colab is a free-hosted Jupyter β β |
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β β dataset about cars and analyzing the relationship between β β notebook browser that allows you to write and run Python code β β |
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β β horsepower and miles per gallon (mpg). β β in your web browser. It's a great tool for data analysis and β β |
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β β β β visualization, and we can use it to analyze Python data using β β |
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β β ```python β β various libraries and techniques. β β |
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β β # Import necessary libraries β β Now, let's say we have a dataset of customer information for β β |
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β β import pandas as pd β β an e-commerce website, and we want to analyze it using Colab. β β |
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β β import matplotlib.pyplot as plt β β Here's an example of how we can do this: β β |
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β β import seaborn as sns β β 1. First, let's import the necessary libraries: β β |
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β β β β ``` β β |
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β β # Load a sample dataset about cars (available on seaborn β β !pip install pandas β β |
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β β library) β β import pandas as pd β β |
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β β df = sns.load_dataset('mpg') β β import numpy as np β β |
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β β β β import matplotlib.pyplot as plt β β |
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β β # Print the first few rows of the dataset β β ``` β β |
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β β print(df.head()) β β In this code, we're installing the `pandas` library for data β β |
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β β β β manipulation and analysis, and `numpy` for numerical β β |
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β β # Visualize the relationship between 'horsepower' and'mpg' β β computations. We're also importing the `matplotlib` library β β |
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β β plt.figure(figsize=(10, 5)) β β for data visualization. β β |
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β β sns.scatterplot(x='horsepower', y='mpg', data=df) β β 2. Next, let's load the dataset: β β |
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β β plt.title('Relationship between Horsepower and MPG') β β β β |
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β β plt.xlabel('Horsepower') β β customer_data = pd.read_csv('customer.csv') β β |
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β β plt.ylabel('Miles per Gallon') β β ``` β β |
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β β β β # Replace 'customer.csv' with the name of your dataset file β β |
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β β # Display the plot β β ``` β β |
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β β plt.show() β β This code reads the customer dataset from a CSV file named β β |
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β β ``` β β `customer.csv`. Make sure to replace this with the actual β β |
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β β β β name of your dataset file. β β |
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β β This code will create a scatter plot showing the relationship β β 3. Now, let's examine the dataset: β β |
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β β between horsepower and miles per gallon (mpg) of various β β β β |
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β β cars. The seaborn library comes with several built-in β β print(customer_data.head()) β β |
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β β datasets, one of which is used in this example. You can also β β β β |
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β β upload your data files into your Colab notebook and load them β β ``` β β |
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β β into a pandas DataFrame for analysis and visualization. β β β β |
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β β β β This code displays the first few rows of the dataset using β β |
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β β To run the code shown above in Google Colab: β β the `head()` method of the `pd.DataFrame` object. This gives β β |
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β β β β us a quick rundown of what the dataset looks like. β β |
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β β 1. Head over to https://colab.research.google.com β β 4. Let's analyze the dataset using some basic statistical β β |
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β β 2. Click `File` > `New notebook` β β metrics: β β |
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β β 3. Copy and paste the code into a code cell β β β β |
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β β 4. Press `Shift` + `Enter` to execute the cell and see the β β print(customer_data.mean()) β β |
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β β output below the cell β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code calculates the mean of various columns in the β β |
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β β β β dataset using the `mean()` method of the `pd.DataFrame` β β |
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β β β β object. This gives us an idea of the average value of each β β |
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β β β β column. β β |
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β β β β 5. Let's visualize the distribution of values in one of the β β |
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β β β β columns: β β |
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β β β β β β |
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β β β β print(customer_data['age'].hist()) β β |
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β β β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code creates a histogram of the values in the `age` β β |
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β β β β column using the `hist()` method of the `pd.Series` object. β β |
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β β β β This gives us a visual representation of the distribution of β β |
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β β β β ages in the dataset. β β |
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β β β β 6. Finally, let's analyze the data using a machine learning β β |
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β β β β algorithm: β β |
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β β β β β β |
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β β β β from sklearn.cluster import KMeans β β |
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β β β β β β |
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β β β β customer_kmeans = β β |
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β β β β KMeans(n_clusters=5).fit(customer_data.drop('age', axis=1)) β β |
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β β β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code uses the `KMeans` algorithm from the `scikit-learn` β β |
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β β β β library to cluster the customers based on their β β |
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β β β β characteristics (excluding the `age` column). We can use this β β |
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β β β β to identify groups of similar customers. β β |
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β β β β And that's it! These are just a few examples of how you can β β |
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β β β β use Colab to analyze Python data. Of course, there are many β β |
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β β β β more techniques and libraries you can use, depending on the β β |
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β β β β nature of your dataset. I hope this helps you get started β β |
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β β β β with analyzing your own data using Colab! β β |
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β BEGINNING OF CONVERSATION: USER: write an assignment on β Title: Designing a University Management System β 2.515625 β Assignment Title: University Management System β 2.671875 β |
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β University management system(also write sql commands, β β β β β |
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β relation schema and max 5 table) ASSISTANT: β Objective: β β Introduction: β β |
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β β The objective of this assignment is to design a university β β β β |
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β β management system by creating a relational schema, SQL β β A University Management System is a software application for β β |
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β β commands, and implementing it using no more than five tables. β β managing academic and administrative tasks. This system β β |
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β β The system will help manage student and staff records, β β provides a centralized solution to manage records and tasks β β |
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β β courses, and other essential aspects of university β β related to students, teachers, courses, departments, and β β |
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β β management. β β other aspects of the university. The goal of this assignment β β |
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β β β β is to create a University Management System using a β β |
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β β Specifications: β β relational database. β β |
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β β β β β β |
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β β 1. The system should be capable of storing and managing β β Architecture of University Management System: β β |
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β β student records, including personal details, contact β β β β |
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β β information, and academic records. β β The University Management System will have five main tables β β |
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β β 2. The system should be able to store and manage staff β β in the relational schema: Students, Teachers, Courses, β β |
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β β records, including personal details, contact information, and β β Departments, and Attendance. These tables will be joined β β |
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β β employment history. β β together to provide functionalities such as course β β |
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β β 3. The system should manage courses, including course β β registration, course management, student profiling, student β β |
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β β details, instructors, and enrolled students. β β performance evaluation, and others. β β |
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β β 4. The system should support adding, editing, and removing β β β β |
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β β records. β β 1. Students Table: β β |
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β β 5. The system should facilitate querying and reporting based β β β β |
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β β on the stored data. β β | Field Name | Data Type | Description | β β |
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β β β β | --- | --- | --- | β β |
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β β Schema: β β | student_id | INT | Unique identifier for the student | β β |
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β β The proposed relational schema for the university management β β | first_name | VARCHAR | First name of the student | β β |
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β β system is as follows: β β | last_name | VARCHAR | Last name of the student | β β |
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β β β β | email | VARCHAR | Email address of the student | β β |
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β β Table 1: Students (S) β β | course_id | INT | Course that student is enrolled in | β β |
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β β β β β β |
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β β * S\_ID (Primary Key): Unique identifier for each student β β SQL Command to create the Students table: β β |
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β β * FirstName: Student's first name β β ```sql β β |
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β β * LastName: Student's last name β β CREATE TABLE students ( β β |
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β β * MiddleName: Student's middle name β β student_id INT PRIMARY KEY, β β |
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β β * Gender: Student's gender β β first_name VARCHAR(50), β β |
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β β * DateOfBirth: Student's date of birth β β last_name VARCHAR(50), β β |
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β β * Address: Student's address β β email VARCHAR(50), β β |
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β β * ContactNumber: Student's contact number β β course_id INT β β |
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β β * Email: Student's email address β β ); β β |
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β β * RegistrationNumber: Student's registration number β β ``` β β |
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β β * EnrollmentStatus: Student's enrollment status β β 1. Teachers Table: β β |
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β β β β β β |
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β β Table 2: Staff ( Employees ) β β | Field Name | Data Type | Description | β β |
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β β β β | --- | --- | --- | β β |
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β β * Employee\_ID (Primary Key): Unique identifier for each β β | teacher_id | INT | Unique identifier for the teacher | β β |
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β β staff member β β | first_name | VARCHAR | First name of the teacher | β β |
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β β * FirstName: Staff member's first name β β | last_name | VARCHAR | Last name of the teacher | β β |
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β β * LastName: Staff member's last name β β | email | VARCHAR | Email address of the teacher | β β |
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β β * MiddleName: Staff member's middle name β β | department_id | INT | Department that teacher is associated β β |
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β β * Gender: Staff member's gender β β with | β β |
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β β * DateOfBirth: Staff member's date of birth β β β β |
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β β * Address: Staff member's address β β SQL Command to create the Teachers table: β β |
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β β * ContactNumber: Staff member's contact number β β ```sql β β |
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β β * Email: Staff member's email address β β CREATE TABLE teachers ( β β |
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β β * Position: Staff member's job position β β teacher_id INT PRIMARY KEY, β β |
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β β * Department: Staff member's department β β first_name VARCHAR(50), β β |
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β β β β last_name VARCHAR(50), β β |
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β β Table 3: Courses (C) β β email VARCHAR(50), β β |
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β β β β department_id INT β β |
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β β * Course\_ID (Primary Key): Unique identifier for each course β β ); β β |
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β β * CourseName: Course name β β ``` β β |
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β β * CourseCode: Course code β β 1. Courses Table: β β |
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β β * Description: Course description β β β β |
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β β * Instructor\_ID: ID of the instructor for the course β β | Field Name | Data Type | Description | β β |
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β β (Foreign key referencing Staff) β β | --- | --- | --- | β β |
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β β * Department: Department the course belongs to (Foreign key β β | course_id | INT | Unique identifier for the course | β β |
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β β referencing Departments) β β | course_name | VARCHAR | Name of the course | β β |
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β β β β | department_id | INT | Department that course belongs to | β β |
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β β Table 4: Students\_Courses (SC) β β | instructor_id | INT | ID of the teacher who is teaching the β β |
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β β β β course | β β |
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β β * SC\_ID (Primary Key): Unique identifier for the β β β β |
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β β student-course relationship β β SQL Command to create the Courses table: β β |
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β β * S\_ID (Foreign key): ID of the student (Referencing β β ```sql β β |
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β β Students) β β CREATE TABLE courses ( β β |
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β β * Course\_ID (Foreign key): ID of the course (Referencing β β course_id INT PRIMARY KEY, β β |
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β β Courses) β β course_name VARCHAR(50), β β |
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β β * EnrollmentDate: Date when the student enrolled in the β β department_id INT, β β |
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β β course β β instructor_id INT β β |
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β β * Grade: Final grade earned by the student in the course β β ); β β |
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β β β β ``` β β |
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β β Table 5: Departments (D) β β 1. Departments Table: β β |
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β β β β β β |
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β β * Department\_ID (Primary Key): Unique identifier for each β β | Field Name | Data Type | Description | β β |
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β β department β β | --- | --- | --- | β β |
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β β * DepartmentName: Department name β β | department_id | INT | Unique identifier for the department β β |
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β β * DepartmentChair: ID of the department chair (Foreign key β β | β β |
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β β referencing Staff) β β | department_name | VARCHAR | Name of the department | β β |
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β β β β β β |
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β β SQL Commands: β β SQL Command to create the Departments table: β β |
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β β The following SQL commands will help in implementing and β β ```sql β β |
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β β managing the university management system: β β CREATE TABLE departments ( β β |
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β β β β department_id INT PRIMARY KEY, β β |
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β β 1. INSERT INTO Students (Student\_ID, FirstName, LastName, β β department_name VARCHAR(50) β β |
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β β MiddleName, Gender, DateOfBirth, Address, ContactNumber, β β ); β β |
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β β Email, RegistrationNumber, EnrollmentStatus) β β ``` β β |
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β β 2. INSERT INTO Staff (Employee\_ID, FirstName, LastName, β β 1. Attendance Table: β β |
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β β MiddleName, Gender, DateOfBirth, Address, ContactNumber, β β β β |
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β β Email, Position, Department) β β | Field Name | Data Type | Description | β β |
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β β 3. INSERT INTO Courses (Course\_ID, CourseName, CourseCode, β β | --- | --- | --- | β β |
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β β Description, Instructor\_ID, Department) β β | attendance_id | INT | Unique identifier for attendance β β |
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β β 4. INSERT INTO Students\_Courses (SC\_ID, S\_ID, Course\_ID, β β record | β β |
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β β EnrollmentDate, Grade) β β | student_id | INT | ID of the student attending the class | β β |
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β β 5. INSERT INTO Departments (Department\_ID, DepartmentName, β β | course_id | INT | ID of the course attended | β β |
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β β DepartmentChair) β β | date_time | DATE | Date and time of the class | β β |
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β β β β | status | VARCHAR | Status of the student's attendance β β |
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β β 1. UPDATE Students SET FirstName = 'NewFirstName', LastName = β β (Attended/Absent) | β β |
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β β 'NewLastName', Address = 'NewAddress' WHERE Student\_ID = ' β β β β |
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β β β β SQL Command to create the Attendance table: β β |
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β β β β ```sql β β |
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β β β β CREATE TABLE attendance ( β β |
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β β β β attendance_id INT PRIMARY KEY, β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββΌββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββΌββββββββββββ€ |
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β BEGINNING OF CONVERSATION: USER: create a cheat sheet for β Hello! As a respectful and helpful AI assistant, I'm here to β 2.906250 β A cheat sheet for data management in clinical trials can β -1.640625 β |
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β data management in clinical trials, including a short β help you with your question on data management in clinical β β include a short description of the necessary documents, such β β |
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β description of the necessary documents, to do's and main β trials. Here's a cheat sheet that summarizes the necessary β β as case report forms (CRFs), informed consent forms (ICFs), β β |
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β activities ASSISTANT: β documents, to-do's, and main activities for successful data β β standard operating procedures (SOPs), and data safety β β |
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β β management in clinical trials: β β monitoring plans (DSMPs). The to do's can include compiling β β |
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β β β β these documents, collecting and managing data, maintaining a β β |
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β β Necessary Documents: β β trial master file (TMF), and conducting statistical analyses. β β |
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β β β β The main activities include conducting a risk assessment, β β |
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β β 1. Study Protocol: This document outlines the overall plan β β monitoring data quality, ensuring adherence to protocols, and β β |
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β β for the clinical trial, including the objectives, β β managing study events. β β |
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β β inclusion/exclusion criteria, and the methods for data β β β β |
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β β collection and analysis. β β β β |
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β β 2. Data Management Plan (DMP): This document details the β β β β |
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β β strategies and procedures for collecting, storing, and β β β β |
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β β analyzing the data generated during the clinical trial. β β β β |
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β β 3. Case Report Forms (CRFs): These forms are used to collect β β β β |
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β β data from participants during the clinical trial, and they β β β β |
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β β should be designed to capture the relevant information needed β β β β |
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β β for the study. β β β β |
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β β 4. Data Query Management Plan: This plan outlines the β β β β |
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β β procedures for addressing data discrepancies and resolving β β β β |
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β β queries that arise during the clinical trial. β β β β |
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β β 5. Data Monitoring Plan: This plan details the procedures for β β β β |
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β β monitoring the data collected during the clinical trial, β β β β |
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β β including the methods for detecting and addressing anydata β β β β |
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β β issues. β β β β |
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β β β β β β |
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β β To-Do's: β β β β |
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β β β β β β |
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β β 1. Develop a comprehensive Data Management Plan (DMP) that β β β β |
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β β outlines the strategies and procedures for collecting, β β β β |
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β β storing, and analyzing the data generated during the clinical β β β β |
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β β trial. β β β β |
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β β 2. Train the study team on the data management procedures β β β β |
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β β outlined in the DMP. β β β β |
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β β 3. Develop and implement a robust data quality control β β β β |
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β β process to ensure the accuracy, completeness, and consistency β β β β |
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β β of the data collected during the clinical trial. β β β β |
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β β 4. Regularly review and update the DMP as needed to ensure β β β β |
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β β that it remains relevant and effective throughout the β β β β |
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β β clinical trial. β β β β |
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β β 5. Monitor the data collected during the clinical trial in β β β β |
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β β accordance with the Data Monitoring Plan to ensure that the β β β β |
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β β data is accurate, complete, and consistent. β β β β |
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β β β β β β |
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β β Main Activities: β β β β |
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β β β β β β |
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β β 1. Data Collection: This involves the use of CRFs and other β β β β |
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β β data collection tools to capture the relevant data from β β β β |
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β β participants during the clinical trial. β β β β |
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β β 2. Data Cleaning and Validation: This involves reviewing and β β β β |
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β β correcting any errors or inconsistencies in the data to β β β β |
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β β ensure that it is accurate and complete. β β β β |
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β β 3. Data Integration: This involves combining data from β β β β |
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β β multiple sources (e.g., CRFs, laboratory results, medical β β β β |
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β β imaging) to create a comprehensive view of the data. β β β β |
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β β 4. Data Analysis: This involves using statistical methods and β β β β |
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β β other techniques to extract insights and meaning from the β β β β |
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β β data collected during the clinical trial. β β β β |
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β β 5. Data Reporting: This involves presenting the findings of β β β β |
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β β the clinical trial in a clear and concise manner, using β β β β |
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β β graphs, tables, and other visual aids to help stakeholders β β β β |
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β β understand the results. β β β β |
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β β β β β β |
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β β I hope this cheat sheet is helpful in providing you with a β β β β |
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β β comprehensive overview of the necessary documents, to-do's, β β β β |
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β β and main activities for successful data management in β β β β |
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β β clinical trials. If you have any further questions or need β β β β |
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β β more information, please don't hesitate to ask! β β β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄βββββββββββ΄ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄ββββββββββββ |
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[2024-09-10 21:37:51,869] [INFO] [logging.py:96:log_dist] [Rank 0] step=220, skipped=0, lr=[9.770147610939098e-06, 9.770147610939098e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:37:51,869] [INFO] [timer.py:258:stop] epoch=1/micro_step=36/global_step=220, RunningAvgSamplesPerSec=21.966314339864027, CurrSamplesPerSec=33.760786366468444, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:38:31,329] [INFO] [logging.py:96:log_dist] [Rank 0] step=230, skipped=0, lr=[9.005531754865929e-06, 9.005531754865929e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:38:31,330] [INFO] [timer.py:258:stop] epoch=1/micro_step=76/global_step=230, RunningAvgSamplesPerSec=22.32980174701388, CurrSamplesPerSec=35.389844443022064, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:39:09,598] [INFO] [logging.py:96:log_dist] [Rank 0] step=240, skipped=0, lr=[8.246751833888122e-06, 8.246751833888122e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:39:09,599] [INFO] [timer.py:258:stop] epoch=1/micro_step=116/global_step=240, RunningAvgSamplesPerSec=22.691040550387914, CurrSamplesPerSec=35.76697721022449, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:39:48,325] [INFO] [logging.py:96:log_dist] [Rank 0] step=250, skipped=0, lr=[7.4982606702975505e-06, 7.4982606702975505e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:39:48,326] [INFO] [timer.py:258:stop] epoch=1/micro_step=156/global_step=250, RunningAvgSamplesPerSec=23.020642838591982, CurrSamplesPerSec=34.82238692926768, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:40:27,165] [INFO] [logging.py:96:log_dist] [Rank 0] step=260, skipped=0, lr=[6.764450707866577e-06, 6.764450707866577e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:40:27,166] [INFO] [timer.py:258:stop] epoch=1/micro_step=196/global_step=260, RunningAvgSamplesPerSec=23.33485982834451, CurrSamplesPerSec=36.00791452442397, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:41:06,727] [INFO] [logging.py:96:log_dist] [Rank 0] step=270, skipped=0, lr=[6.049628235241459e-06, 6.049628235241459e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:41:06,727] [INFO] [timer.py:258:stop] epoch=1/micro_step=236/global_step=270, RunningAvgSamplesPerSec=23.6192219149906, CurrSamplesPerSec=33.58459096268449, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:41:44,718] [INFO] [logging.py:96:log_dist] [Rank 0] step=280, skipped=0, lr=[5.357988114928221e-06, 5.357988114928221e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:41:44,718] [INFO] [timer.py:258:stop] epoch=1/micro_step=276/global_step=280, RunningAvgSamplesPerSec=23.914591862369896, CurrSamplesPerSec=36.43050912715466, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:42:23,492] [INFO] [logging.py:96:log_dist] [Rank 0] step=290, skipped=0, lr=[4.693589166171466e-06, 4.693589166171466e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:42:23,492] [INFO] [timer.py:258:stop] epoch=1/micro_step=316/global_step=290, RunningAvgSamplesPerSec=24.182353423319345, CurrSamplesPerSec=32.93404717817095, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:43:02,107] [INFO] [logging.py:96:log_dist] [Rank 0] step=300, skipped=0, lr=[4.060330346189125e-06, 4.060330346189125e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:43:02,108] [INFO] [timer.py:258:stop] epoch=1/micro_step=356/global_step=300, RunningAvgSamplesPerSec=24.441503622060544, CurrSamplesPerSec=35.991128098419786, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:43:40,080] [INFO] [logging.py:96:log_dist] [Rank 0] step=310, skipped=0, lr=[3.4619278695411495e-06, 3.4619278695411495e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:43:40,081] [INFO] [timer.py:258:stop] epoch=1/micro_step=396/global_step=310, RunningAvgSamplesPerSec=24.69759048587517, CurrSamplesPerSec=37.285845626152096, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:44:19,260] [INFO] [logging.py:96:log_dist] [Rank 0] step=320, skipped=0, lr=[2.901893399904797e-06, 2.901893399904797e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:44:19,261] [INFO] [timer.py:258:stop] epoch=1/micro_step=436/global_step=320, RunningAvgSamplesPerSec=24.93446897462122, CurrSamplesPerSec=36.56896740097372, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:44:57,527] [INFO] [logging.py:96:log_dist] [Rank 0] step=330, skipped=0, lr=[2.383513442235812e-06, 2.383513442235812e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:44:57,527] [INFO] [timer.py:258:stop] epoch=1/micro_step=476/global_step=330, RunningAvgSamplesPerSec=25.165884641725835, CurrSamplesPerSec=35.56060815710096, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:45:37,653] [INFO] [logging.py:96:log_dist] [Rank 0] step=340, skipped=0, lr=[1.9098300562505266e-06, 1.9098300562505266e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:45:37,654] [INFO] [timer.py:258:stop] epoch=1/micro_step=516/global_step=340, RunningAvgSamplesPerSec=25.368728610343652, CurrSamplesPerSec=32.247460562594604, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:46:16,561] [INFO] [logging.py:96:log_dist] [Rank 0] step=350, skipped=0, lr=[1.4836230044098164e-06, 1.4836230044098164e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:46:16,561] [INFO] [timer.py:258:stop] epoch=1/micro_step=556/global_step=350, RunningAvgSamplesPerSec=25.576276606933504, CurrSamplesPerSec=36.93215706283395, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:46:54,662] [INFO] [logging.py:96:log_dist] [Rank 0] step=360, skipped=0, lr=[1.1073934391676666e-06, 1.1073934391676666e-06], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:46:54,663] [INFO] [timer.py:258:stop] epoch=1/micro_step=596/global_step=360, RunningAvgSamplesPerSec=25.78283084656346, CurrSamplesPerSec=31.665623101338372, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:47:34,087] [INFO] [logging.py:96:log_dist] [Rank 0] step=370, skipped=0, lr=[7.833492252140284e-07, 7.833492252140284e-07], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:47:34,087] [INFO] [timer.py:258:stop] epoch=1/micro_step=636/global_step=370, RunningAvgSamplesPerSec=25.964791892022447, CurrSamplesPerSec=34.99092767545847, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:48:12,267] [INFO] [logging.py:96:log_dist] [Rank 0] step=380, skipped=0, lr=[5.133919828468992e-07, 5.133919828468992e-07], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:48:12,268] [INFO] [timer.py:258:stop] epoch=1/micro_step=676/global_step=380, RunningAvgSamplesPerSec=26.15507899670456, CurrSamplesPerSec=37.44660653913578, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:48:49,226] [INFO] [logging.py:96:log_dist] [Rank 0] step=390, skipped=0, lr=[2.9910592850826983e-07, 2.9910592850826983e-07], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:48:49,227] [INFO] [timer.py:258:stop] epoch=1/micro_step=716/global_step=390, RunningAvgSamplesPerSec=26.35423730296853, CurrSamplesPerSec=36.52307551434236, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:49:27,365] [INFO] [logging.py:96:log_dist] [Rank 0] step=400, skipped=0, lr=[1.4174857797209951e-07, 1.4174857797209951e-07], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:49:27,366] [INFO] [timer.py:258:stop] epoch=1/micro_step=756/global_step=400, RunningAvgSamplesPerSec=26.53049421074311, CurrSamplesPerSec=36.23310466569185, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:50:05,119] [INFO] [logging.py:96:log_dist] [Rank 0] step=410, skipped=0, lr=[4.2243366741735457e-08, 4.2243366741735457e-08], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:50:05,120] [INFO] [timer.py:258:stop] epoch=1/micro_step=796/global_step=410, RunningAvgSamplesPerSec=26.70669284405725, CurrSamplesPerSec=39.64436670212626, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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[2024-09-10 21:50:43,356] [INFO] [logging.py:96:log_dist] [Rank 0] step=420, skipped=0, lr=[1.1742309631845861e-09, 1.1742309631845861e-09], mom=[(0.9, 0.95), (0.9, 0.95)] |
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[2024-09-10 21:50:43,356] [INFO] [timer.py:258:stop] epoch=1/micro_step=836/global_step=420, RunningAvgSamplesPerSec=26.869131933366237, CurrSamplesPerSec=35.752126381191324, MemAllocated=2.43GB, MaxMemAllocated=8.31GB |
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***** Evaluating at epoch 2/2 ***** |
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Evaluation: accuracy = 0.782667, reward_mean = 0.206962, reward_std = 2.715212 |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββ³ββββββββββββββββββββββββββββββββββββββββββββββββββββββ³βββββββββββ³βββββββββββββββββββββββββββββββββββββββββββββββββββββββ³ββββββββββββ |
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β prompt β higher-reward response β reward β lower-reward response β reward β |
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β BEGINNING OF CONVERSATION: USER: I would like to β Sure! Google Colab is a great platform for running β 3.156250 β Of course! I'm happy to help you with analyzing β 2.828125 β |
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β see a good example of analyzing Python data using β Python code and analyzing data using Python β β Python data using Colab. β β |
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β Colab. Show me a code example. ASSISTANT: β libraries, like pandas, matplotlib and seaborn. β β First, let me clarify that Colab is a free-hosted β β |
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β β Here's a simple example using a dataset about cars β β Jupyter notebook browser that allows you to write β β |
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β β and analyzing the relationship between horsepower β β and run Python code in your web browser. It's a β β |
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β β and miles per gallon (mpg). β β great tool for data analysis and visualization, and β β |
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β β β β we can use it to analyze Python data using various β β |
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β β ```python β β libraries and techniques. β β |
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β β # Import necessary libraries β β Now, let's say we have a dataset of customer β β |
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β β import pandas as pd β β information for an e-commerce website, and we want β β |
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β β import matplotlib.pyplot as plt β β to analyze it using Colab. Here's an example of how β β |
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β β import seaborn as sns β β we can do this: β β |
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β β β β 1. First, let's import the necessary libraries: β β |
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β β # Load a sample dataset about cars (available on β β ``` β β |
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β β seaborn library) β β !pip install pandas β β |
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β β df = sns.load_dataset('mpg') β β import pandas as pd β β |
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β β β β import numpy as np β β |
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β β # Print the first few rows of the dataset β β import matplotlib.pyplot as plt β β |
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β β print(df.head()) β β ``` β β |
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β β β β In this code, we're installing the `pandas` library β β |
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β β # Visualize the relationship between 'horsepower' β β for data manipulation and analysis, and `numpy` for β β |
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β β and'mpg' β β numerical computations. We're also importing the β β |
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β β plt.figure(figsize=(10, 5)) β β `matplotlib` library for data visualization. β β |
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β β sns.scatterplot(x='horsepower', y='mpg', data=df) β β 2. Next, let's load the dataset: β β |
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β β plt.title('Relationship between Horsepower and β β β β |
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β β MPG') β β customer_data = pd.read_csv('customer.csv') β β |
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β β plt.xlabel('Horsepower') β β ``` β β |
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β β plt.ylabel('Miles per Gallon') β β # Replace 'customer.csv' with the name of your β β |
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β β β β dataset file β β |
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β β # Display the plot β β ``` β β |
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β β plt.show() β β This code reads the customer dataset from a CSV file β β |
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β β ``` β β named `customer.csv`. Make sure to replace this with β β |
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β β β β the actual name of your dataset file. β β |
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β β This code will create a scatter plot showing the β β 3. Now, let's examine the dataset: β β |
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β β relationship between horsepower and miles per β β β β |
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β β gallon (mpg) of various cars. The seaborn library β β print(customer_data.head()) β β |
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β β comes with several built-in datasets, one of which β β β β |
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β β is used in this example. You can also upload your β β ``` β β |
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β β data files into your Colab notebook and load them β β β β |
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β β into a pandas DataFrame for analysis and β β This code displays the first few rows of the dataset β β |
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β β visualization. β β using the `head()` method of the `pd.DataFrame` β β |
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β β β β object. This gives us a quick rundown of what the β β |
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β β To run the code shown above in Google Colab: β β dataset looks like. β β |
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β β β β 4. Let's analyze the dataset using some basic β β |
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β β 1. Head over to https: |
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β β 3. Copy and paste the code into a code cell β β print(customer_data.mean()) β β |
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β β 4. Press `Shift` + `Enter` to execute the cell and β β β β |
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β β see the output below the cell β β ``` β β |
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β β β β β β |
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β β β β This code calculates the mean of various columns in β β |
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β β β β the dataset using the `mean()` method of the β β |
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β β β β `pd.DataFrame` object. This gives us an idea of the β β |
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β β β β average value of each column. β β |
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β β β β 5. Let's visualize the distribution of values in one β β |
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β β β β of the columns: β β |
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β β β β β β |
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β β β β print(customer_data['age'].hist()) β β |
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β β β β β β |
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β β β β ``` β β |
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β β β β β β |
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β β β β This code creates a histogram of the values in the β β |
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β β β β `age` column using the `hist()` method of the β β |
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β β β β `pd.Series` object. This gives us a visual β β |
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β β β β representation of the distribution of ages in the β β |
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β β β β dataset. β β |
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β β β β 6. Finally, let's analyze the data using a machine β β |
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β β β β learning algorithm: β β |
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β β β β β β |
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β β β β from sklearn.cluster import KMeans β β |
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β β β β β β |
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β β β β customer_kmeans = β β |
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β β β β KMeans(n_clusters=5).fit(customer_data.drop('age', β β |
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β β β β axis=1)) β β |
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β β β β `scikit-learn` library to cluster the customers β β |
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β BEGINNING OF CONVERSATION: USER: write an β Title: Designing a University Management System β 2.937500 β Assignment Title: University Management System β 3.218750 β |
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β assignment on University management system(also β β β β β |
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β write sql commands, relation schema and max 5 β Objective: β β Introduction: β β |
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β table) ASSISTANT: β The objective of this assignment is to design a β β β β |
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β β university management system by creating a β β A University Management System is a software β β |
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β β relational schema, SQL commands, and implementing β β application for managing academic and administrative β β |
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β β it using no more than five tables. The system will β β tasks. This system provides a centralized solution β β |
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β β help manage student and staff records, courses, and β β to manage records and tasks related to students, β β |
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β β other essential aspects of university management. β β teachers, courses, departments, and other aspects of β β |
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β β β β the university. The goal of this assignment is to β β |
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β β Specifications: β β create a University Management System using a β β |
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β β β β relational database. β β |
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β β 1. The system should be capable of storing and β β β β |
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β β managing student records, including personal β β Architecture of University Management System: β β |
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β β details, contact information, and academic records. β β β β |
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β β 2. The system should be able to store and manage β β The University Management System will have five main β β |
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β β staff records, including personal details, contact β β tables in the relational schema: Students, Teachers, β β |
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β β information, and employment history. β β Courses, Departments, and Attendance. These tables β β |
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β β 3. The system should manage courses, including β β will be joined together to provide functionalities β β |
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β β course details, instructors, and enrolled students. β β such as course registration, course management, β β |
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β β 4. The system should support adding, editing, and β β student profiling, student performance evaluation, β β |
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β β removing records. β β and others. β β |
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β β 5. The system should facilitate querying and β β β β |
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β β reporting based on the stored data. β β 1. Students Table: β β |
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β β β β β β |
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β β Schema: β β | Field Name | Data Type | Description | β β |
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β β The proposed relational schema for the university β β | --- | --- | --- | β β |
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β β management system is as follows: β β | student_id | INT | Unique identifier for the β β |
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β β β β student | β β |
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β β Table 1: Students (S) β β | first_name | VARCHAR | First name of the student | β β |
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β β β β | last_name | VARCHAR | Last name of the student | β β |
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β β * S\_ID (Primary Key): Unique identifier for each β β | email | VARCHAR | Email address of the student | β β |
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β β student β β | course_id | INT | Course that student is enrolled β β |
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β β * FirstName: Student's first name β β in | β β |
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β β * LastName: Student's last name β β β β |
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β β * MiddleName: Student's middle name β β SQL Command to create the Students table: β β |
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β β * Gender: Student's gender β β ```sql β β |
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β β * DateOfBirth: Student's date of birth β β CREATE TABLE students ( β β |
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β β * Address: Student's address β β student_id INT PRIMARY KEY, β β |
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β β * ContactNumber: Student's contact number β β first_name VARCHAR(50), β β |
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β β * Email: Student's email address β β last_name VARCHAR(50), β β |
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β β * RegistrationNumber: Student's registration number β β email VARCHAR(50), β β |
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β β * EnrollmentStatus: Student's enrollment status β β course_id INT β β |
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β β β β ); β β |
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β β Table 2: Staff ( Employees ) β β ``` β β |
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β β * FirstName: Staff member's first name β β | --- | --- | --- | β β |
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β β * LastName: Staff member's last name β β | teacher_id | INT | Unique identifier for the β β |
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β β * MiddleName: Staff member's middle name β β teacher | β β |
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β β * Gender: Staff member's gender β β | first_name | VARCHAR | First name of the teacher | β β |
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β β * DateOfBirth: Staff member's date of birth β β | last_name | VARCHAR | Last name of the teacher | β β |
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β β * Address: Staff member's address β β | email | VARCHAR | Email address of the teacher | β β |
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β β * ContactNumber: Staff member's contact number β β | department_id | INT | Department that teacher is β β |
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β β * Email: Staff member's email address β β associated with | β β |
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β β * Position: Staff member's job position β β β β |
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β β * Department: Staff member's department β β SQL Command to create the Teachers table: β β |
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β β β β ```sql β β |
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β β Table 3: Courses (C) β β CREATE TABLE teachers ( β β |
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β β β β teacher_id INT PRIMARY KEY, β β |
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β β * Course\_ID (Primary Key): Unique identifier for β β first_name VARCHAR(50), β β |
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β β each course β β last_name VARCHAR(50), β β |
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β β * CourseName: Course name β β email VARCHAR(50), β β |
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β β * CourseCode: Course code β β department_id INT β β |
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β β * Instructor\_ID: ID of the instructor for the β β ``` β β |
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β β (Foreign key referencing Departments) β β | Field Name | Data Type | Description | β β |
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β β Table 4: Students\_Courses (SC) β β | course_id | INT | Unique identifier for the course β β |
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β β β β | β β |
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β β * SC\_ID (Primary Key): Unique identifier for the β β | course_name | VARCHAR | Name of the course | β β |
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β β student-course relationship β β | department_id | INT | Department that course β β |
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β β * S\_ID (Foreign key): ID of the student β β belongs to | β β |
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β β (Referencing Students) β β | instructor_id | INT | ID of the teacher who is β β |
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β β * Course\_ID (Foreign key): ID of the course β β teaching the course | β β |
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β β (Referencing Courses) β β β β |
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β β * EnrollmentDate: Date when the student enrolled in β β SQL Command to create the Courses table: β β |
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β β the course β β ```sql β β |
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β β * Grade: Final grade earned by the student in the β β CREATE TABLE courses ( β β |
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β β course β β course_id INT PRIMARY KEY, β β |
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β β β β course_name VARCHAR(50), β β |
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β β Table 5: Departments (D) β β department_id INT, β β |
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β β β β instructor_id INT β β |
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β β * Department\_ID (Primary Key): Unique identifier β β ); β β |
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β β for each department β β ``` β β |
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β β * DepartmentName: Department name β β 1. Departments Table: β β |
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β β * DepartmentChair: ID of the department chair β β β β |
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β β (Foreign key referencing Staff) β β | Field Name | Data Type | Description | β β |
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β β β β | --- | --- | --- | β β |
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β β SQL Commands: β β | department_id | INT | Unique identifier for the β β |
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β β The following SQL commands will help in β β department | β β |
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β β implementing and managing the university management β β | department_name | VARCHAR | Name of the department β β |
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β β system: β β | β β |
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β β 1. INSERT INTO Students (Student\_ID, FirstName, β β SQL Command to create the Departments table: β β |
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β β LastName, MiddleName, Gender, DateOfBirth, Address, β β ```sql β β |
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β β ContactNumber, Email, RegistrationNumber, β β CREATE TABLE departments ( β β |
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β β EnrollmentStatus) β β department_id INT PRIMARY KEY, β β |
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β β 2. INSERT INTO Staff (Employee\_ID, FirstName, β β department_name VARCHAR(50) β β |
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β β ContactNumber, Email, Position, Department) β β ``` β β |
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β β 3. INSERT INTO Courses (Course\_ID, CourseName, β β 1. Attendance Table: β β |
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β β CourseCode, Description, Instructor\_ID, β β β β |
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β β Department) β β | Field Name | Data Type | Description | β β |
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β β 4. INSERT INTO Students\_Courses (SC\_ID, S\_ID, β β | --- | --- | --- | β β |
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β β Course\_ID, EnrollmentDate, Grade) β β | attendance_id | INT | Unique identifier for β β |
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β β 5. INSERT INTO Departments (Department\_ID, β β attendance record | β β |
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β β DepartmentName, DepartmentChair) β β | student_id | INT | ID of the student attending the β β |
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β β β β class | β β |
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β β 1. UPDATE Students SET FirstName = 'NewFirstName', β β | course_id | INT | ID of the course attended | β β |
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β β LastName = 'NewLastName', Address = 'NewAddress' β β | date_time | DATE | Date and time of the class | β β |
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β β WHERE Student\_ID = ' β β | status | VARCHAR | Status of the student's β β |
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β β β β attendance (Attended/Absent) | β β |
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β β β β β β |
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β β β β SQL Command to create the Attendance table: β β |
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β β β β ```sql β β |
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β β β β CREATE TABLE attendance ( β β |
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β β β β attendance_id INT PRIMARY KEY, β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββΌββββββββββββββββββββββββββββββββββββββββββββββββββββββΌβββββββββββΌβββββββββββββββββββββββββββββββββββββββββββββββββββββββΌββββββββββββ€ |
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β BEGINNING OF CONVERSATION: USER: create a cheat β Hello! As a respectful and helpful AI assistant, β 3.296875 β A cheat sheet for data management in clinical trials β -2.515625 β |
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β sheet for data management in clinical trials, β I'm here to help you with your question on data β β can include a short description of the necessary β β |
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β including a short description of the necessary β management in clinical trials. Here's a cheat sheet β β documents, such as case report forms (CRFs), β β |
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β documents, to do's and main activities ASSISTANT: β that summarizes the necessary documents, to-do's, β β informed consent forms (ICFs), standard operating β β |
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β β and main activities for successful data management β β procedures (SOPs), and data safety monitoring plans β β |
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β β in clinical trials: β β (DSMPs). The to do's can include compiling these β β |
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β β β β documents, collecting and managing data, maintaining β β |
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β β Necessary Documents: β β a trial master file (TMF), and conducting β β |
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β β β β statistical analyses. The main activities include β β |
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β β 1. Study Protocol: This document outlines the β β conducting a risk assessment, monitoring data β β |
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β β overall plan for the clinical trial, including the β β quality, ensuring adherence to protocols, and β β |
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β β objectives, inclusion/exclusion criteria, and the β β managing study events. β β |
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β β methods for data collection and analysis. β β β β |
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β β 2. Data Management Plan (DMP): This document β β β β |
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β β details the strategies and procedures for β β β β |
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β β collecting, storing, and analyzing the data β β β β |
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β β generated during the clinical trial. β β β β |
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β β 3. Case Report Forms (CRFs): These forms are used β β β β |
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β β to collect data from participants during the β β β β |
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β β clinical trial, and they should be designed to β β β β |
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β β capture the relevant information needed for the β β β β |
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β β study. β β β β |
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β β 4. Data Query Management Plan: This plan outlines β β β β |
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β β the procedures for addressing data discrepancies β β β β |
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β β and resolving queries that arise during the β β β β |
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β β clinical trial. β β β β |
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β β 5. Data Monitoring Plan: This plan details the β β β β |
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β β procedures for monitoring the data collected during β β β β |
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β β the clinical trial, including the methods for β β β β |
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β β detecting and addressing anydata issues. β β β β |
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β β β β β β |
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β β To-Do's: β β β β |
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β β β β β β |
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β β 1. Develop a comprehensive Data Management Plan β β β β |
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β β (DMP) that outlines the strategies and procedures β β β β |
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β β for collecting, storing, and analyzing the data β β β β |
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β β generated during the clinical trial. β β β β |
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β β 2. Train the study team on the data management β β β β |
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β β procedures outlined in the DMP. β β β β |
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β β 3. Develop and implement a robust data quality β β β β |
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β β control process to ensure the accuracy, β β β β |
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β β completeness, and consistency of the data collected β β β β |
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β β during the clinical trial. β β β β |
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β β 4. Regularly review and update the DMP as needed to β β β β |
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β β ensure that it remains relevant and effective β β β β |
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β β throughout the clinical trial. β β β β |
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β β 5. Monitor the data collected during the clinical β β β β |
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β β trial in accordance with the Data Monitoring Plan β β β β |
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β β to ensure that the data is accurate, complete, and β β β β |
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β β consistent. β β β β |
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β β β β β β |
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β β Main Activities: β β β β |
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β β β β β β |
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β β 1. Data Collection: This involves the use of CRFs β β β β |
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β β and other data collection tools to capture the β β β β |
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β β relevant data from participants during the clinical β β β β |
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β β trial. β β β β |
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β β 2. Data Cleaning and Validation: This involves β β β β |
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β β reviewing and correcting any errors or β β β β |
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β β inconsistencies in the data to ensure that it is β β β β |
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β β accurate and complete. β β β β |
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β β 3. Data Integration: This involves combining data β β β β |
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β β from multiple sources (e.g., CRFs, laboratory β β β β |
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β β results, medical imaging) to create a comprehensive β β β β |
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β β view of the data. β β β β |
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β β 4. Data Analysis: This involves using statistical β β β β |
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β β methods and other techniques to extract insights β β β β |
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β β and meaning from the data collected during the β β β β |
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β β clinical trial. β β β β |
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β β 5. Data Reporting: This involves presenting the β β β β |
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β β findings of the clinical trial in a clear and β β β β |
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β β concise manner, using graphs, tables, and other β β β β |
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β β visual aids to help stakeholders understand the β β β β |
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β β results. β β β β |
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β β β β β β |
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β β I hope this cheat sheet is helpful in providing you β β β β |
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β β with a comprehensive overview of the necessary β β β β |
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β β documents, to-do's, and main activities for β β β β |
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β β successful data management in clinical trials. If β β β β |
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β β you have any further questions or need more β β β β |
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β β information, please don't hesitate to ask! β β β β |
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βββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄ββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄βββββββββββ΄βββββββββββββββββββββββββββββββββββββββββββββββββββββββ΄ββββββββββββ |
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Saving model to "/home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910" ... |
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Saving 16-bit model... |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,105] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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[2024-09-10 21:51:26,106] [INFO] [logging.py:96:log_dist] [Rank 0] [Torch] Checkpoint global_step422 is about to be saved! |
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[2024-09-10 21:51:26,107] [INFO] [torch_checkpoint_engine.py:21:save] [Torch] Saving /home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910/pytorch_model.bin... |
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[2024-09-10 21:51:27,890] [INFO] [torch_checkpoint_engine.py:23:save] [Torch] Saved /home/juntao/Projects/roo-dev-cty/experiments/outputs/score_lm/gpt2_774m_0910/pytorch_model.bin. |
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[2024-09-10 21:51:27,890] [INFO] [torch_checkpoint_engine.py:33:commit] [Torch] Checkpoint global_step422 is ready now! |
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Model saved! |
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