Metadata-Version: 2.1
Name: cece
Version: 0.0.3
Summary: Conceptual Edits as Counterfactual Explanations
Home-page: UNKNOWN
Author: Giorgos Filandrianos
Author-email: georgefilandr@gmail.com
License: MIT
Description: # Conceptual Edits as Counterfactual Explanations (CECE)
        
        ![png](https://github.com/geofila/Semantic-Counterfactuals/blob/main/app/images/logo.png?raw=true)
        
        **CECE: a powerful Python library for generating semantic counterfactual explanations for any machine learning algorithm.**
        
        <a target="_blank" href="https://colab.research.google.com/github/geofila/Semantic-Counterfactuals/blob/main/app/cece/playground.ipynb">
          <img src="https://colab.research.google.com/assets/colab-badge.svg" alt="Open In Colab"/>
        </a>
        
        More information about the framework and the algorithm that the library uses can be found in the paper: [Choose your Data Wisely: A Framework for Semantic Counterfactuals
        ](https://arxiv.org/pdf/2305.17667.pdf).
        
        ## Citation
        ```bibtex
        @article{dervakos2023choose,
          title={Choose your Data Wisely: A Framework for Semantic Counterfactuals},
          author={Dervakos, Edmund and Thomas, Konstantinos and Filandrianos, Giorgos and Stamou, Giorgos},
          journal={arXiv preprint arXiv:2305.17667},
          year={2023}
        }
        ```
        
        # How to install the library
        ```python
        # Install cece
        pip install cece
        ```
        
        **- or -**
        
        ```python
        git clone https://github.com/geofila/Semantic-Counterfactuals.git
        cd Semantic-Counterfactuals
        git install .
        ```
        
        # How to use the library
        
        ## Use Case 1: Calculate the semantic distance between 2 queries
        
        
        ```python
        from cece.queries import *
        from cece.refine import *
        
        
        q1 = Query(np.array([set(["car", "vehicle"]), set(["tree"])]))
        q2 = Query(np.array([set(["car"]), set(["tree"]), set(["person"])]))
        
        r = refine (q1, q2,verbose= True, return_edits = True)
        
        print (r)
        ```
        
            Remains the same: {'tree'}
            -------------------------------------
            Tranform {'car'} from {'vehicle'} -> set()
            Add: {'person'}
            --------------------------------------
            (2, {'additions': [{'person'}], 'removals': [], 'transf': [({'car', 'vehicle'}, {'car'})]})
        
        
        
        ```python
        from cece.wordnet import *
        
        q1 = Query(np.array([set(connect_term_to_wordnet("car")),
                             set(connect_term_to_wordnet("man")),]))
        
        q2 = Query(np.array([set(connect_term_to_wordnet("woman")),
                             set(connect_term_to_wordnet("truck"),)]))
        
        r = refine (q1, q2,verbose= True, return_edits = True)
        print ("Cost: ", r[0])
        ```
        
            -------------------------------------
            Tranform {'motor_vehicle.n.01', 'artifact.n.01', 'instrumentality.n.03', 'whole.n.02', 'object.n.01', 'conveyance.n.03', 'wheeled_vehicle.n.01', 'vehicle.n.01', 'self-propelled_vehicle.n.01', 'physical_entity.n.01', 'entity.n.01'} from {'car.n.01'} -> {'truck.n.01'}
            Tranform {'living_thing.n.01', 'adult.n.01', 'whole.n.02', 'organism.n.01', 'person.n.01', 'object.n.01', 'physical_entity.n.01', 'entity.n.01'} from {'man.n.01'} -> {'woman.n.01'}
            --------------------------------------
            Cost:  4
        
        
        
        ```python
        
        q1 = Query(np.array([connect_term_to_wordnet("tree"),
                             connect_term_to_wordnet("man"),]))
        
        q2 = Query(np.array([connect_term_to_wordnet("man"),
                             connect_term_to_wordnet("truck"),]))
        
        r = refine (q1, q2,verbose= True, return_edits = True)
        print ("Cost: ", r[0])
        ```
        
            Remains the same: {'man.n.01', 'living_thing.n.01', 'adult.n.01', 'whole.n.02', 'organism.n.01', 'person.n.01', 'object.n.01', 'physical_entity.n.01', 'entity.n.01'}
            -------------------------------------
            Tranform {'entity.n.01', 'whole.n.02', 'physical_entity.n.01', 'object.n.01'} from {'living_thing.n.01', 'organism.n.01', 'vascular_plant.n.01', 'tree.n.01', 'woody_plant.n.01', 'plant.n.02'} -> {'motor_vehicle.n.01', 'instrumentality.n.03', 'truck.n.01', 'conveyance.n.03', 'wheeled_vehicle.n.01', 'vehicle.n.01', 'self-propelled_vehicle.n.01', 'artifact.n.01'}
            --------------------------------------
            Cost:  14
        
        
        ### or even simpler
        
        
        ```python
        q1 = Query(np.array(connect_list_to_wordnet(["tree", "man"])))
        q2 = Query(np.array(connect_list_to_wordnet(["man", "truck"])))
        r = refine (q1, q2,verbose= True, return_edits = True)
        print ("Cost: ", r[0])
        ```
        
            Remains the same: {'man.n.01', 'living_thing.n.01', 'adult.n.01', 'whole.n.02', 'organism.n.01', 'person.n.01', 'object.n.01', 'physical_entity.n.01', 'entity.n.01'}
            -------------------------------------
            Tranform {'entity.n.01', 'whole.n.02', 'physical_entity.n.01', 'object.n.01'} from {'living_thing.n.01', 'organism.n.01', 'vascular_plant.n.01', 'tree.n.01', 'woody_plant.n.01', 'plant.n.02'} -> {'motor_vehicle.n.01', 'instrumentality.n.03', 'truck.n.01', 'conveyance.n.03', 'wheeled_vehicle.n.01', 'vehicle.n.01', 'self-propelled_vehicle.n.01', 'artifact.n.01'}
            --------------------------------------
            Cost:  14
        
        
        ### or even simpler
        
        
        ```python
        from cece.xDataset import createMSQ
        
        q1 = createMSQ(["tree", "man"], connect_to_wordnet = True)
        q2 = createMSQ(["man", "truck"], connect_to_wordnet = True)
        r = refine (q1, q2,verbose= True, return_edits = True)
        print ("Cost: ", r[0])
        ```
        
            Remains the same: {'man.n.01', 'living_thing.n.01', 'adult.n.01', 'whole.n.02', 'organism.n.01', 'person.n.01', 'object.n.01', 'physical_entity.n.01', 'entity.n.01'}
            -------------------------------------
            Tranform {'entity.n.01', 'whole.n.02', 'physical_entity.n.01', 'object.n.01'} from {'living_thing.n.01', 'organism.n.01', 'vascular_plant.n.01', 'tree.n.01', 'woody_plant.n.01', 'plant.n.02'} -> {'motor_vehicle.n.01', 'instrumentality.n.03', 'truck.n.01', 'conveyance.n.03', 'wheeled_vehicle.n.01', 'vehicle.n.01', 'self-propelled_vehicle.n.01', 'artifact.n.01'}
            --------------------------------------
            Cost:  14
        
        
        ## Use Case 2: Use it for a Datatset
        
        
        ```python
        from cece.xDataset import *
        
        
        # initialize an instance of the Dataset
        ds = xDataset(dataset = [["tree", "man"],
                                 ["man", "truck"],
                                 ["kitchen", "oven", "refrigerator"], 
                                 ["bed", "pillow", "blanket", "woman"],
                                 ["sofa", "cushion", "pillow"],],
        
                      labels = ["outdoor", "outdoor", "indoor", "indoor", "indoor"],
                      connect_to_wordnet = True)
        
        
        ds.retrieve(ds.dataset[1])
        ```
        
        
        
        
            {1: 0, 0: 14, 4: 28, 3: 29, 2: 36}
        
        
        
        
        ```python
        for idx, cost in ds.retrieve(ds.dataset[1]).items():
            print (f"Cost: {cost} for '{ds.labels[idx]}' with id: {idx}")
        ```
        
            Cost: 0 for 'outdoor' with id: 1
            Cost: 14 for 'outdoor' with id: 0
            Cost: 28 for 'indoor' with id: 4
            Cost: 29 for 'indoor' with id: 3
            Cost: 36 for 'indoor' with id: 2
        
        
        
        ```python
        results = ds.retrieve([ "car", "woman"])
        
        for idx, cost in results.items():
            print (f"Cost: {cost} for '{ds.labels[idx]}' with id: {idx}")
        ```
        
            Cost: 4 for 'outdoor' with id: 1
            Cost: 16 for 'outdoor' with id: 0
            Cost: 27 for 'indoor' with id: 3
            Cost: 28 for 'indoor' with id: 4
            Cost: 36 for 'indoor' with id: 2
        
        
        ## Explain Method - Get a Semantic Counterfatual
        
        
        ```python
        results = ds.explain([ "car", "woman"], "outdoor")
        
        print (f"Cost: {results[1]} for '{ds.labels[results[0]]}' with id: {results[0]}")
        ```
        
            Cost: 27 for 'indoor' with id: 3
        
        
        
        ```python
        from cece.xDataset import *
        ds.find_edits(["car", "man"], ["woman", "truck"])
        ```
        
        
        
        
            (4,
             {'additions': [],
              'removals': [],
              'transf': [({'artifact.n.01',
                 'car.n.01',
                 'conveyance.n.03',
                 'entity.n.01',
                 'instrumentality.n.03',
                 'motor_vehicle.n.01',
                 'object.n.01',
                 'physical_entity.n.01',
                 'self-propelled_vehicle.n.01',
                 'vehicle.n.01',
                 'wheeled_vehicle.n.01',
                 'whole.n.02'},
                {'artifact.n.01',
                 'conveyance.n.03',
                 'entity.n.01',
                 'instrumentality.n.03',
                 'motor_vehicle.n.01',
                 'object.n.01',
                 'physical_entity.n.01',
                 'self-propelled_vehicle.n.01',
                 'truck.n.01',
                 'vehicle.n.01',
                 'wheeled_vehicle.n.01',
                 'whole.n.02'}),
               ({'adult.n.01',
                 'entity.n.01',
                 'living_thing.n.01',
                 'man.n.01',
                 'object.n.01',
                 'organism.n.01',
                 'person.n.01',
                 'physical_entity.n.01',
                 'whole.n.02'},
                {'adult.n.01',
                 'entity.n.01',
                 'living_thing.n.01',
                 'object.n.01',
                 'organism.n.01',
                 'person.n.01',
                 'physical_entity.n.01',
                 'whole.n.02',
                 'woman.n.01'})]})
        
        
        
        ## Global Explanations 
        
        
        ```python
        from cece.xDataset import *
        
        # initialize an instance of the Dataset
        ds = xDataset(dataset = [["tree", "man"],
                                 ["man", "truck"],
                                 ["kitchen", "oven", "refrigerator", "man"], 
                                 ["bed", "blanket", "woman"],
                                 ["sofa", "pillow", "man"],],
        
                      labels = ["outdoor", "outdoor", "indoor", "indoor", "indoor"],
                      connect_to_wordnet = True)
        
        ds.global_explanation([["tree", "man", "car"], ["man", "truck", "car"]], ["outdoor", "outdoor"])
        ```
        
        
        
        
            {'motor_vehicle.n.01': -3,
             'conveyance.n.03': -3,
             'wheeled_vehicle.n.01': -3,
             'vehicle.n.01': -3,
             'self-propelled_vehicle.n.01': -3,
             'padding.n.01': 2,
             'cushion.n.03': 2,
             'pillow.n.01': 2,
             'car.n.01': -2,
             'sofa.n.01': 2,
             'furnishing.n.02': 2,
             'seat.n.03': 2,
             'furniture.n.01': 2,
             'living_thing.n.01': -1,
             'organism.n.01': -1,
             'vascular_plant.n.01': -1,
             'tree.n.01': -1,
             'woody_plant.n.01': -1,
             'plant.n.02': -1,
             'artifact.n.01': 1,
             'truck.n.01': -1,
             'instrumentality.n.03': -1}
        
        
        
        
        ```python
        # plot the global explanation in abar plot
        import matplotlib.pyplot as plt
        
        explanations = ds.global_explanation([["tree", "man", "car"], ["man", "truck", "car"]], ["outdoor", "outdoor"])
        
        plt.bar(explanations.keys(), explanations.values())
        plt.xticks(rotation=90)
        plt.show()
        ```
        
        
            
        ![png](https://github.com/geofila/Semantic-Counterfactuals/blob/main/app/images/global_explanations_example.png?raw=true)
            
        
Platform: UNKNOWN
Classifier: License :: OSI Approved :: MIT License
Classifier: Programming Language :: Python :: 3.10
Classifier: Operating System :: OS Independent
Requires-Python: >=3.8.8
Description-Content-Type: text/markdown
Provides-Extra: dev
