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InfoVis 2012
                                 Seattle, WA




Outflow
Exploring Flow, Factors and Outcomes
of Temporal Event Sequences


Krist Wongsuphasawat
HCIL, University of Maryland

David Gotz
IBM Research


                                       m
m




Events
m




Event | 12:15 p.m. Lunch
m




Event Sequences
Event   Event   Event
Daily Activity




7:30 a.m.       7:45 a.m.    8:15 a.m.
Wake Up          Exercise    Go to work

                                          m
Soccer Game




 10th minute       25th minute    90th minute
Team A scores     Team B scores   Team A scores

                                             m
Soccer Game
                                 Time

Game #1


  10th minute      25th minute          90th minute
     Goal           Concede                Goal




                                                      m
Many games
                                Time


Game #1
                 Goal Concede      Goal

Game #2
          Goal      Goal   Concede

Game #3
                 Goal             Concede   Concede



Game #n
            Concede Goal        Goal      Goal
                                                      m
with outcome
                                 Time


Game #1                                                Win (1)
                  Goal Concede      Goal

Game #2                                                Win (1)
           Goal      Goal   Concede

Game #3                                                Lose (0)
                  Goal             Concede   Concede



Game #n                                                Win (1)
             Concede Goal        Goal      Goal
                                                          m
7 events per entity
7 event types


     823543 co mbinations




                                      m
Enjoy!
     m
consumable




             m
Overview / Summary



     Event Sequences	

      with Outcome	





                          m
m




7
Steps
m




Step 1 | Aggregation
Event Sequences

Entity #1

Entity #2
                  Outflow
                   Graph
Entity #3

Entity #4

Entity #5

Entity #6

Entity #7
            …

Entity #n

                     m
Assumption
•  Events are persistent.

 Entity #1
                 e1    e2   e3



 Entity #1




                                 m
Assumption
•  Events are persistent.

 Entity #1
                 e1    e2   e3



 Entity #1
                 e1    e1   e1




                                 m
Assumption
•  Events are persistent.

 Entity #1
                 e1    e2   e3



 Entity #1
                 e1    e1   e1
                       e2   e2




                                 m
Assumption
•  Events are persistent.

 Entity #1
                 e1    e2   e3



 Entity #1
                 e1    e1   e1
                       e2   e2
                            e3




                                 m
Assumption
•  Events are persistent.

 Entity #1
                 e1       e2           e3



 Entity #1
                 e1      e1            e1
                [e1]     e2            e2
                                       e3
States                 [e1, e2]
                                  [e1, e2, e3]


                                                 m
Select alignment point
                        Pick a state




What are the paths                     What are the paths
that led to ?                          after ?



        Example
        Soccer: Goal, Concede, Goal



                                                       m
Select alignment point
                     Pick a state




What are the paths                  What are the paths
that led to ?                       after ?




         or just an empty state []

                                                    m
Outflow Graph
      Alignment Point




        [e1, e2, e3]	





                          m
1 entity
           Outflow Graph
                                 Alignment Point


         [e1]	

   [e1, e2]	





[ ]	


                                   [e1, e2, e3]	

                                                     [e1, e2, e3, e5]	





                                                                     m
2 entities
           Outflow Graph
                                 Alignment Point


         [e1]	

   [e1, e2]	





[ ]	

             [e1, e3]	


                                   [e1, e2, e3]	

                                                     [e1, e2, e3, e5]	





                                                                     m
3 entities
           Outflow Graph
                                 Alignment Point


         [e1]	

   [e1, e2]	

                                                     [e1, e2, e3, e4]	



[ ]	

             [e1, e3]	


                                   [e1, e2, e3]	

                                                     [e1, e2, e3, e5]	

         [e3]	





                                                                     m
n entities
           Outflow Graph
                                 Alignment Point


         [e1]	

   [e1, e2]	

                                                     [e1, e2, e3, e4]	



[ ]	

   [e2]	

   [e1, e3]	


                                   [e1, e2, e3]	

                                                     [e1, e2, e3, e5]	

         [e3]	

   [e2, e3]	





                                                                     m
n entities
           Outflow Graph
                                         Alignment Point


         [e1]	

           [e1, e2]	

                                                             [e1, e2, e3, e4]	



[ ]	

   [e2]	

           [e1, e3]	


                                           [e1, e2, e3]	

                                                             [e1, e2, e3, e5]	

         [e3]	

           [e2, e3]	

                                          Average outcome = 0.4
                                          Average time       = 10 days
                   layer                  Number of entities = 10

                                                                             m
Soccer Results
                           Alignment Point


         1-0	

   2-0	

                                             2-2	



0-0	

            1-1	


                                2-1	

                                             3-1	

         0-1	

   0-2	





                                                      m
m




Step 2 | Visual Encoding
Past                                    Future
                     Alignment

                                                           Node’s horizontal position
                                                           shows sequence of states.
                                                     e1!
                                                     e2!
                                                     e3!
                                                                 End of path
e1!


                         e1!
                         e2!
                               time       link       e1!
                                                            Node’s height is
                               edge       edge       e2!
                                                            number of entities.
                                                     e4!
e2!




      Color is outcome           Time edge’s width is
      measure.                   duration of transition.                       m
m




Step 3 | Graph Drawing
m
m
3.1 Sugiyama’s heuristics
•  Directed Acyclic Graph (DAG) layout
  –  Sugiyama, K., Tagawa, S. & Toda, M., 1981.
     Methods for Visual Understanding of Hierarchical System Structures.
     IEEE Transactions on Systems, Man, and Cybernetics, 11(2), p.109-125.

•  Reduce edge crossing




                                                                    m
41 crossings




  m
12 crossings




  m
m
3.2 Force-directed layout
•  Spring simulation
                                        Each node is particle.




                              x




Total force = Force from edges - Repulsion between nodes
                                                           m
m
m
3.3 Edge Routing
•  Avoid unnecessary crossings




                   Reroute




                                 m
3.3 Edge Routing
•  After routing




                   m
m
m
m




Step 4 | Interactions
Interactions
•    Panning
•    Zooming
•    Brushing
•    Pinning
•    Tooltip
•    Event type selection




                            m
m




Demo
m




Step 5 | Simplification
Node Clustering
•  Cluster nodes in each layer
•  Similarity measure: Outcome, etc.
•  Threshold (0-1)




                                       m
m
m
m




Step 6 | Factors
Factors
                                            Time


Entity #1
                         [e1]    [e1, e2]    [e1, e2, e3]


        Factor 1   Factor 2     Factor 3     Factor 4




                                                            m
Factors
                                        Time


Patient #1
                     [e1]    [e1, e2]    [e1, e2, e3]


       Yellow   Injury      Red          Substitution




    Which factors are correlated to each state?



                                                        m
Information Retrieval
Which keywords are correlated to each document?


             State 1      State 2   State 3
             …            …         …
             Factor xxx   …         …
             …            …         …


               Doc#1        Doc#2     Doc#3


Which factors are correlated to each state?



                                                  m
Present factors
                               Alignment Point


     Factor 1 [e1]   [e1,e2]
                                                 [e1,e2,e3,e4]


[]            [e2]   [e1,e3]

                                 [e1,e2,e3]
                                                 [e1,e2,e3,e5]
              [e3]   [e2,e3]



                                                             m
Absent factors
                                 Alignment Point


                [e1]   [e1,e2]
                                                   [e1,e2,e3,e4]
     Factor 2

[]              [e2]   [e1,e3]
     Factor 2
                                   [e1,e2,e3]
                                                   [e1,e2,e3,e5]
                [e3]   [e2,e3]



                                                               m
tf-idf
•  Term frequency

   tf    =
               Number of times a term t appear in the document
                          Number of terms in the document




•  Inverse document frequency

   idf =     log   (            Number of documents
                       Number of documents that has the term t + 1
                                                                     )

                                                                     m
Score based on tf-idf
•  Ratio (presence)

   Rp =                Number of entities with factor f before state
                              Number or entities in the state




•  Inverse state ratio (presence)

   R-1
    sp   =   log   (                 Number of states
                          Number of states preceded by factor f + 1
                                                                       )

                                                                       m
m
m




Step 7 | User Study
User Study
•  Goal:
     Evaluate Outflow’s ability
     to support event sequence analysis tasks


•    12 participants
•    60 minutes each
•    9 tasks + 7 training tasks
•    Questionnaire


                                                m
Results
•  Accurate:
      3 mistakes from 108 tasks
•  Fast:
      Average 5-60 seconds
•  Findings:
   –  From video
   –  Different outcomes for each incoming paths
   –  Etc.



                                             m
Future Work
•    Integration with prediction algorithm
•    Additional layout techniques
•    Advanced factor analysis
•    Deeper evaluations with domain experts




                                         m
Conclusions
•  Event sequences with outcome
•  Outflow
  –  Interactive visual summary
  –  Explore flow & outcome
  –  Factors
  –  Multi-step layout process
•  Not specific to sports



Contact:    kristw@twitter.com    dgotz@us.ibm.com
            @kristwongz
                                                 m
Heart failure (CHF) patient
                             Time

Patient #1                                 Die (0)


    Aug 1998      Oct 1998          Jan 1999
   Ankle Edema   Cardiomegaly       Weight Loss




                                                  m
Event Sequences

 Medical    Transportation


 Sports     Education


 Web logs   Logistics



                  and more…



                              m
Acknowledgement
•    Charalambos (Harry) Stavropoulos
•    Robert Sorrentino
•    Jimeng Sun
•    Comments from HCIL colleagues




                                        m
Conclusions
•  Event sequences with outcome
•  Outflow
  –  Interactive visual summary
  –  Explore flow & outcome
  –  Factors
  –  Multi-step layout process
•  Not specific to medical or sports



Contact:    kristw@twitter.com    dgotz@us.ibm.com
            @kristwongz
                                                 m
m




THANK YOU
 ขอบคุณครับ

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Outflow: Exploring Flow, Factors and Outcome of Temporal Event Sequences

  • 1. InfoVis 2012 Seattle, WA Outflow Exploring Flow, Factors and Outcomes of Temporal Event Sequences Krist Wongsuphasawat HCIL, University of Maryland David Gotz IBM Research m
  • 3. m Event | 12:15 p.m. Lunch
  • 5. Daily Activity 7:30 a.m. 7:45 a.m. 8:15 a.m. Wake Up Exercise Go to work m
  • 6. Soccer Game 10th minute 25th minute 90th minute Team A scores Team B scores Team A scores m
  • 7. Soccer Game Time Game #1 10th minute 25th minute 90th minute Goal Concede Goal m
  • 8. Many games Time Game #1 Goal Concede Goal Game #2 Goal Goal Concede Game #3 Goal Concede Concede Game #n Concede Goal Goal Goal m
  • 9. with outcome Time Game #1 Win (1) Goal Concede Goal Game #2 Win (1) Goal Goal Concede Game #3 Lose (0) Goal Concede Concede Game #n Win (1) Concede Goal Goal Goal m
  • 10. 7 events per entity 7 event types 823543 co mbinations m
  • 11. Enjoy! m
  • 13. Overview / Summary Event Sequences with Outcome m
  • 15. m Step 1 | Aggregation
  • 16. Event Sequences Entity #1 Entity #2 Outflow Graph Entity #3 Entity #4 Entity #5 Entity #6 Entity #7 … Entity #n m
  • 17. Assumption •  Events are persistent. Entity #1 e1 e2 e3 Entity #1 m
  • 18. Assumption •  Events are persistent. Entity #1 e1 e2 e3 Entity #1 e1 e1 e1 m
  • 19. Assumption •  Events are persistent. Entity #1 e1 e2 e3 Entity #1 e1 e1 e1 e2 e2 m
  • 20. Assumption •  Events are persistent. Entity #1 e1 e2 e3 Entity #1 e1 e1 e1 e2 e2 e3 m
  • 21. Assumption •  Events are persistent. Entity #1 e1 e2 e3 Entity #1 e1 e1 e1 [e1] e2 e2 e3 States [e1, e2] [e1, e2, e3] m
  • 22. Select alignment point Pick a state What are the paths What are the paths that led to ? after ? Example Soccer: Goal, Concede, Goal m
  • 23. Select alignment point Pick a state What are the paths What are the paths that led to ? after ? or just an empty state [] m
  • 24. Outflow Graph Alignment Point [e1, e2, e3] m
  • 25. 1 entity Outflow Graph Alignment Point [e1] [e1, e2] [ ] [e1, e2, e3] [e1, e2, e3, e5] m
  • 26. 2 entities Outflow Graph Alignment Point [e1] [e1, e2] [ ] [e1, e3] [e1, e2, e3] [e1, e2, e3, e5] m
  • 27. 3 entities Outflow Graph Alignment Point [e1] [e1, e2] [e1, e2, e3, e4] [ ] [e1, e3] [e1, e2, e3] [e1, e2, e3, e5] [e3] m
  • 28. n entities Outflow Graph Alignment Point [e1] [e1, e2] [e1, e2, e3, e4] [ ] [e2] [e1, e3] [e1, e2, e3] [e1, e2, e3, e5] [e3] [e2, e3] m
  • 29. n entities Outflow Graph Alignment Point [e1] [e1, e2] [e1, e2, e3, e4] [ ] [e2] [e1, e3] [e1, e2, e3] [e1, e2, e3, e5] [e3] [e2, e3] Average outcome = 0.4 Average time = 10 days layer Number of entities = 10 m
  • 30. Soccer Results Alignment Point 1-0 2-0 2-2 0-0 1-1 2-1 3-1 0-1 0-2 m
  • 31. m Step 2 | Visual Encoding
  • 32. Past Future Alignment Node’s horizontal position shows sequence of states. e1! e2! e3! End of path e1! e1! e2! time link e1! Node’s height is edge edge e2! number of entities. e4! e2! Color is outcome Time edge’s width is measure. duration of transition. m
  • 33. m Step 3 | Graph Drawing
  • 34. m
  • 35. m
  • 36. 3.1 Sugiyama’s heuristics •  Directed Acyclic Graph (DAG) layout –  Sugiyama, K., Tagawa, S. & Toda, M., 1981. Methods for Visual Understanding of Hierarchical System Structures. IEEE Transactions on Systems, Man, and Cybernetics, 11(2), p.109-125. •  Reduce edge crossing m
  • 39. m
  • 40. 3.2 Force-directed layout •  Spring simulation Each node is particle. x Total force = Force from edges - Repulsion between nodes m
  • 41. m
  • 42. m
  • 43. 3.3 Edge Routing •  Avoid unnecessary crossings Reroute m
  • 44. 3.3 Edge Routing •  After routing m
  • 45. m
  • 46. m
  • 47. m Step 4 | Interactions
  • 48. Interactions •  Panning •  Zooming •  Brushing •  Pinning •  Tooltip •  Event type selection m
  • 50. m Step 5 | Simplification
  • 51. Node Clustering •  Cluster nodes in each layer •  Similarity measure: Outcome, etc. •  Threshold (0-1) m
  • 52. m
  • 53. m
  • 54. m Step 6 | Factors
  • 55. Factors Time Entity #1 [e1] [e1, e2] [e1, e2, e3] Factor 1 Factor 2 Factor 3 Factor 4 m
  • 56. Factors Time Patient #1 [e1] [e1, e2] [e1, e2, e3] Yellow Injury Red Substitution Which factors are correlated to each state? m
  • 57. Information Retrieval Which keywords are correlated to each document? State 1 State 2 State 3 … … … Factor xxx … … … … … Doc#1 Doc#2 Doc#3 Which factors are correlated to each state? m
  • 58. Present factors Alignment Point Factor 1 [e1] [e1,e2] [e1,e2,e3,e4] [] [e2] [e1,e3] [e1,e2,e3] [e1,e2,e3,e5] [e3] [e2,e3] m
  • 59. Absent factors Alignment Point [e1] [e1,e2] [e1,e2,e3,e4] Factor 2 [] [e2] [e1,e3] Factor 2 [e1,e2,e3] [e1,e2,e3,e5] [e3] [e2,e3] m
  • 60. tf-idf •  Term frequency tf = Number of times a term t appear in the document Number of terms in the document •  Inverse document frequency idf = log ( Number of documents Number of documents that has the term t + 1 ) m
  • 61. Score based on tf-idf •  Ratio (presence) Rp = Number of entities with factor f before state Number or entities in the state •  Inverse state ratio (presence) R-1 sp = log ( Number of states Number of states preceded by factor f + 1 ) m
  • 62. m
  • 63. m Step 7 | User Study
  • 64. User Study •  Goal: Evaluate Outflow’s ability to support event sequence analysis tasks •  12 participants •  60 minutes each •  9 tasks + 7 training tasks •  Questionnaire m
  • 65. Results •  Accurate: 3 mistakes from 108 tasks •  Fast: Average 5-60 seconds •  Findings: –  From video –  Different outcomes for each incoming paths –  Etc. m
  • 66. Future Work •  Integration with prediction algorithm •  Additional layout techniques •  Advanced factor analysis •  Deeper evaluations with domain experts m
  • 67. Conclusions •  Event sequences with outcome •  Outflow –  Interactive visual summary –  Explore flow & outcome –  Factors –  Multi-step layout process •  Not specific to sports Contact: kristw@twitter.com dgotz@us.ibm.com @kristwongz m
  • 68. Heart failure (CHF) patient Time Patient #1 Die (0) Aug 1998 Oct 1998 Jan 1999 Ankle Edema Cardiomegaly Weight Loss m
  • 69. Event Sequences Medical Transportation Sports Education Web logs Logistics and more… m
  • 70. Acknowledgement •  Charalambos (Harry) Stavropoulos •  Robert Sorrentino •  Jimeng Sun •  Comments from HCIL colleagues m
  • 71. Conclusions •  Event sequences with outcome •  Outflow –  Interactive visual summary –  Explore flow & outcome –  Factors –  Multi-step layout process •  Not specific to medical or sports Contact: kristw@twitter.com dgotz@us.ibm.com @kristwongz m