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Werner CEUSTERS Center of Excellence in Bioinformatics and Life Sciences Ontology Research Group

Discovery Seminar 035158/UE 141 MMM – Spring 2008 Solving Crimes using Referent Tracking Final Test. Werner CEUSTERS Center of Excellence in Bioinformatics and Life Sciences Ontology Research Group University at Buffalo, NY, USA. The case to analyze.

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Werner CEUSTERS Center of Excellence in Bioinformatics and Life Sciences Ontology Research Group

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  1. Discovery Seminar 035158/UE 141 MMM – Spring 2008Solving Crimes using Referent Tracking Final Test Werner CEUSTERS Center of Excellence in Bioinformatics and Life Sciences Ontology Research Group University at Buffalo, NY, USA

  2. The case to analyze • In July 1984, 9-year-old Dawn Hamilton was raped and murdered. In August 1984, Kimberly Ruffner was imprisoned for another rape and attempted murder. A composite sketch of the perpetrator in the Hamilton case was shown on the local news. Two anonymous callers advised that Kirk Bloodsworth looked like the composite. Bloodsworth was convicted of the murder. In 1993, new forensic tests discovered semen on Hamilton's underpants. DNA tests proved it was not Bloodsworth’s. In September 2003, the DNA sample recovered from Hamilton's underpants was identified as that of Ruffner.

  3. Assignment • Identify all particulars involved and give them a Unique Instance Identifier • Give the minimal set of universals required to describe the particulars • Classify all particulars in terms of the yellow boxes on slide 5 • State all relevant relationships (at relevant times) that hold • Between the particulars and the universals • Amongst (some of) the particulars themselves (Use relationships from slide 6 if possible, otherwise, define a new relationship as needed and motivate)

  4. Procedure • I will present the case during the class of April 2nd, and work out one example. • You will collectively be tested during the class of April 23rd. The method is that I will ask a question, invite a person to answer, and then invite others to provide comments. You will be rated on your participation in this process, the correctness of your answers and the solidity of your argumentation. • I suggest to analyze the case before April 23rd. You may collaborate with other students. • When you prepare for the exam, you may make notes, and bring these notes to the class. You may also bring any other material you think you need, including any course material. • You will receive a score for this test by the end of the class. The score counts for 75% of the total score, the other 25% being based on your participation during the course, including response to earlier assignments. • If you are unhappy with the score, or want to improve it, you may submit BY EMAIL to ceusters@buffalo.edu a written analysis of the case not later than April 30rd.

  5. Top-Level Ontology Continuant Occurrent (always dependent on one or more independent continuants) Spatial Region Independent Continuant Dependent Continuant Role Function Propensity Process Temporal Region

  6. Primitive instance-level relationships • c instance_of C at t- a primitive relation between a continuant instance and a class which it instantiates at a specific time • p instance_of P- a primitive relation between a process instance and a class which it instantiates holding independently of time • c part_of c1 at t- a primitive relation between two continuant instances and a time at which the one is part of the other • p part_of p1, r part_of r1 - a primitive relation of parthood, holding independently of time, either between process instances (one a subprocess of the other), or between spatial regions (one a subregion of the other) • c located_in r at t- a primitive relation between a continuant instance, a spatial region which it occupies, and a time • r adjacent_to r1 - a primitive relation of proximity between two disjoint continuants • t earlier t1 - a primitive relation between two times • c derives_from c1 - a primitive relation involving two distinct material continuants c and c1 • p has_participant c at t- a primitive relation between a process, a continuant, and a time • p has_agent c at t- a primitive relation between a process, a continuant and a time at which the continuant is causally active in the process

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