Benchmarking Deletion Metrics With The Principles Explanations

Contributions
Formalization of deletion metrics

New attribution function
Study OOD problem
Formalization of deletion metrics
Formalization
The black-box model to study
Attribution function
(i) Delete the most relevant first: MoRF

Two evaluation scenarios of (and therefore of ):
MoRF:
small AUC is better
nb area masked
Prediction
(ii) Delete the least relevant first: LeRF
small AUC is better
large AUC is better
Formalization
The black-box model to study
Attribution function
Attribution rank
(increasing order)
Evaluation function
Formalization
Remarks
(i) Deletion or Insertion is the same problem.
(ii) logit vs proba
(iii) MoRF and LeRF are different problems
max
min
Average
Treatment Effect?
Contributions
Formalization of deletion metrics
New attribution function
Study OOD problem
New attribution function
TRACE
Current Problem:
Too complicated and too vast.

NP-hard
Let's convert the problem in into one in (permutations).
is big ( ) but finite!


TRACE
for each k finds the set minimizing
Optimality
Greedy / SA
Global Optimum
(GO)
Complete Search
(CS)


Algorithms
* patches instead of pixels
- Greedy
- Simulated Annealing (SA)
TRACE

How order
is evaluated
How order
is computed
TRACE-Mo performs poorly in the LeRF test.
Recommendation for computing order
LeRF−MoRF > LeRF >> MoRG
TRACE-Mo performs poorly in the LeRF test.
TRACE-Le performs well in the MoRF test.
TRACE-Mo performs poorly in the LeRF test.
TRACE-Le performs well in the MoRF test.
TRACE-Le−Mo is most consistent in both tests.
Contributions
Formalization of deletion metrics
New attribution function
Study OOD problem
Study OOD problem
OOD Problem

Reference Value and OOD


Benchmarking Deletion Metrics With The Principles Explanations

BenchDelMet
By ahcene
BenchDelMet
- 41