Page 211 - Big Data Analytics for Connected Vehicles and Smart Cities
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192	       Big	Data	Analytics	for	Connected	Vehicles	and	Smart	Cities	                	                        Building a Data Lake	                    193


          I have decided that perhaps the solution lies in the application of transportation
          data analytics. Organizational change would take the form of changes in job
          objectives and descriptions and the adoption of a new culture. To address the
          idea of a new culture, consider the following football analogy.
               World-class reporting will enable staff within an organization to be ex-
          tremely  well-informed  spectators  at  the  football  game.  Great  transportation
          analytics will empower the same staff to be coaches and exert influence on the
          performance of the organization, our team. It is expected that transportation
          data analytics will significantly impact the planning, design, and operations of
          transportation while providing guidance for future transportation investment
          programs. As an example, an interesting analytic might be dollars per percent-
          age modal shift toward public transportation. This would be a measure of the
          effectiveness of investments designed to influence the modal shift in the region
          in favor of public transit.
               So how exactly would transportation data analytics shape the organiza-
          tional arrangements within a transportation enterprise? Analysis of big data sets
          using suitable discovery tools will reveal the trends, patterns, and underlying
          mechanisms  of  transportation. Transportation  data  analytics  will  be  defined
          and can be used to manage planning, design, implementation, operations, and
          maintenance of transportation. These transportation data analytics would then
          be incorporated into job descriptions and objectives for the staff involved in
          transportation service delivery.
               A simple example would be the role of the traffic signal engineer. At the
          moment, the job of the traffic signal engineer is to run the traffic signal sys-
          tem. Perhaps in the future, the job objectives of the traffic signal engineer will
          be stated as the minimization of stops and delays across the corridor or the
          network. There may also be other advanced analytics yet to be discovered that
          could be suitable for use as job objectives. The job description for a traffic signal
          engineer would then be written around the attainment of the job objectives.
               For example, a narrow view of this would suggest that the change in em-
          phasis could be unfair to the traffic signal engineer, as some factors affecting
          stops and delays are not within his or her control. Perhaps the job description
          could be written to include the need to cooperate and collaborate with others
          whose actions affect the primary objectives. This also leads to the thought that
          perhaps ITS user services could have analytics associated with them for the pur-
          poses of measuring the effectiveness of the delivery of the services. This concept
          holds out the possibility of building a bridge between the various layers of an
          ITS architecture, while also setting the scene for a laser focus on results rather
          than activity.
               The emergence of big data and the connected vehicle and growing under-
          standing of the data science possibilities from outside of transportation means
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