Dontopedia

mixed precision

From Dontopedia, the open, paraconsistent wiki. (Last updated 2026-06-10.)

mixed precision has 14 facts recorded in Dontopedia across 7 references, with 3 live disagreements.

14 facts·9 predicates·7 sources·3 in dispute

Mostly:rdf:type(3), supports format(2), future consideration(1)

Maturity scale raw canonical shape-checked rule-derived certified

Inbound mentions (10)

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enablesEnables(2)

isUsedForIs Used for(2)

purposePurpose(2)

essentialForEssential for(1)

isAchievedByIs Achieved by(1)

listsItemLists Item(1)

usesTechniqueUses Technique(1)

Other facts (12)

The long tail: predicates that appear too rarely to warrant their own section. Filter or scroll to find a specific one. Each row links to its source.

12 facts
PredicateValueRef
Rdf:typeTraining Feature[2]
Rdf:typeTraining Mode[5]
Rdf:typeTraining Technique[7]
Supports Formatbf16[2]
Supports Formatfp16[2]
Future Considerationtrue[1]
Provides BenefitMemory Efficiency[3]
Is Continuationtrue[3]
Enabled byTorch Cuda Amp[4]
Optimization TechniqueTraining Performance[4]
Contributes toComputational Efficiency[6]
Used inAutocast Context[7]

Timeline

Timeline axis is valid_time — when each source says the fact was true in the world, not when Dontopedia learned about it. Retracted rows are kept for provenance; coloured stripes indicate the context kind.

futureConsiderationblah/watt-activation/part-78
true
labelblah/watt-activation/458
Mixed precision (bf16/fp16)
typeblah/watt-activation/458
ex:TrainingFeature
supportsFormatblah/watt-activation/458
bf16
supportsFormatblah/watt-activation/458
fp16
providesBenefitbeam/d37ddcd2-e87b-45fe-94fd-23a99f3a695e
ex:memory-efficiency
isContinuationbeam/d37ddcd2-e87b-45fe-94fd-23a99f3a695e
true
enabled-bybeam/8b6abd69-54a1-41b8-bb85-d0b80bff1a3a
ex:torch-cuda-amp
optimization-techniquebeam/8b6abd69-54a1-41b8-bb85-d0b80bff1a3a
ex:training-performance
typebeam/b37d3f65-b489-4a88-aa05-62e2c014851e
ex:TrainingMode
contributesTobeam/af924c4f-8579-4b2a-85d1-c042076b09c7
ex:computational-efficiency
typebeam/43e9fcd8-67ff-4a5a-a1bd-5302a703a02a
ex:TrainingTechnique
labelbeam/43e9fcd8-67ff-4a5a-a1bd-5302a703a02a
mixed precision
usedInbeam/43e9fcd8-67ff-4a5a-a1bd-5302a703a02a
ex:autocast-context

References (7)

7 references
  1. [1]Part 781 fact
    ctx:discord/blah/watt-activation/part-78
  2. [2]4584 facts
    ctx:discord/blah/watt-activation/458
    • full textwatt-activation-458
      text/plain2 KBdoc:agent/watt-activation-458/de149b38-35c3-463f-b547-cd05f36c46d2
      Show excerpt
      [2026-03-21 14:35] xenonfun: --- ## NEEDS TESTING (builds, untested) - [ ] LoheSphericalComplexAttention (lohe_complex.rs) - [ ] LoheSphericalComplexSplitAttention (lohe_complex_split.rs) - [ ] QuaternionEncoder (quaternion_enc.rs) - [ ]
  3. ctx:claims/beam/d37ddcd2-e87b-45fe-94fd-23a99f3a695e
    • full textbeam-chunk
      text/plain1 KBdoc:beam/d37ddcd2-e87b-45fe-94fd-23a99f3a695e
      Show excerpt
      # Calculate average loss for the epoch avg_loss = running_loss / len(data_loader) print(f'Epoch [{epoch + 1}/100], Loss: {avg_loss:.4f}, LR: {optimizer.param_groups[0]["lr"]}') # Step the scheduler s
  4. ctx:claims/beam/8b6abd69-54a1-41b8-bb85-d0b80bff1a3a
    • full textbeam-chunk
      text/plain1 KBdoc:beam/8b6abd69-54a1-41b8-bb85-d0b80bff1a3a
      Show excerpt
      loss = criterion(outputs, batch_targets) # Normalize the loss because it is accumulated loss = loss / accumulation_steps # Backward pass loss.backward() # Update wei
  5. ctx:claims/beam/b37d3f65-b489-4a88-aa05-62e2c014851e
    • full textbeam-chunk
      text/plain1 KBdoc:beam/b37d3f65-b489-4a88-aa05-62e2c014851e
      Show excerpt
      import torch import torch.nn as nn import torch.optim as optim from torch.utils.data import DataLoader, TensorDataset from torch.cuda.amp import GradScaler, autocast # Initialize PyTorch model model = nn.Sequential( nn.Linear(128, 128)
  6. ctx:claims/beam/af924c4f-8579-4b2a-85d1-c042076b09c7
    • full textbeam-chunk
      text/plain1 KBdoc:beam/af924c4f-8579-4b2a-85d1-c042076b09c7
      Show excerpt
      loss = loss / accumulation_steps # Backward pass scaler.scale(loss).backward() # Update weights if (i + 1) % accumulation_steps == 0: scaler.step(optimizer)
  7. ctx:claims/beam/43e9fcd8-67ff-4a5a-a1bd-5302a703a02a
    • full textbeam-chunk
      text/plain1 KBdoc:beam/43e9fcd8-67ff-4a5a-a1bd-5302a703a02a
      Show excerpt
      To profile your code and identify bottlenecks, you can use `torch.autograd.profiler`. Here's a quick example of how to profile your training loop: ```python from torch.autograd import profiler # Training loop with profiling for epoch in r

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