framework
active
framework:dual-balancing-multi-task-learningDual-Balancing Multi-Task Learning
Novel MTL method combining loss-scale and gradient-magnitude balancing
Neighborhood — ranked by edge-count
Thinkers (3)
thinker
- Baijiong Linintroduces
- Ying-Cong Chenintroduces
- Shu Liuintroduces
Concepts (3)
concept
- gradient-magnitude balancingimplementsAddressing disparity in gradient magnitudes across tasks at the gradient level
- loss-scale balancingimplementsAddressing disparity in loss magnitudes across tasks at the loss level
- Multi-Task Learningassociated_withLearning paradigm that jointly learns multiple related tasks using a single model
Datasets (5)
dataset
- CityscapesaboutUrban scene understanding benchmark with semantic segmentation and depth estimation tasks
- NYUv2aboutIndoor scene understanding benchmark with 3 tasks: semantic segmentation, depth estimation, surface normal prediction
- Office-31aboutImage classification dataset with 3 domain tasks (Amazon, DSLR, Webcam)
- Office-HomeaboutImage classification dataset with 4 domain tasks (artistic, clipart, product, real-world)
- QM9aboutMolecular property prediction dataset with 11 regression tasks
Frameworks (2)
framework
Questions (1)
question
- Core challenge where disparity in loss and gradient scales among tasks leads to performance compromises
Related by similarity (8)
cosine ≥ 0.65 · no typed edgeEntities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.
- The proposed method combining loss-scale balancing via logarithm transformation and gradient-magnitude balancing via maximum-norm normalization.
- Motivation for the proposed method.
- The problem of ensuring all tasks in MTL perform well, avoiding dominance by some tasks.
- Task balancing requires simultaneous consideration of both loss scales and gradient magnitudesclaim0.737Core interpretive position of DB-MTL: complementarity of loss and gradient perspectives
- The capability of GPT-3 to learn tasks from few-shot prompts during runtime.
- Improving recommendations by adapting gradient magnitudes of auxiliary tasks.
- A response containing multiple distinct attempts to answer the prompt, used as primary metric for ESR
- Supervised learning framework where system learns by observing contrast between current response and nudged improved response; requires weak additional forces from supervisor