APTS – Fourth Day Miscellaneous Topics. Fleet Management Fixed Route versus Paratransit Operations versus Maintenance.

Slides:



Advertisements
Similar presentations
Vehicle tracking system
Advertisements

Factory Objectives Value of Asset Management Strategies.
Metro Transit INTELLIGENT TRANSPORTATION SYSTEMS (ITS)
1 The Role of Bus Transit in the Regional Transportation, Present and Future Howard Benn, Chair, TPB Regional Bus Subcommittee TPB Regional Priority Bus.
Jeremy Siviter, IBI Group, Project Manager May 18th, 2011
GIS Data in Real-Time Transit Management Systems 2011 GIS in Public Transportation Conference St. Petersburg, FL, September 14, 2011.
Distributed Data Processing
T RANSPORTATION D ISADVANTAGED B EST P RACTICES & T RAINING W ORKSHOP “ Maximizing ITS investments to reduce operating costs and provide the best possible.
Intelligent Transportation Systems - ITS
Guard4Life Advanced GPS
Software Engineering CSE470: Process 15 Software Engineering Phases Definition: What? Development: How? Maintenance: Managing change Umbrella Activities:
Applications of Big Data in Transportation and Finance Hardeep Kumar (2014CSB2106) Aridaman Singh (2014CSB2103)
STRATEGIES FOR ORGANIZATION, VALIDATION AND DISTRIBUTION OF TRANSIT GEOGRAPHIC INFORMATION SYSTEMS DATA Jonathan Wade Manager, Service Development Support.
September 20, 2002G2E 2002 GSA Technical Forum1 Best Of Breed (BOB) Standard.
WMATA Bus ITS Project Update Transit Signal Priority Briefing to the Traffic Signals and Operations Working Group April 21, 2005.
Mobile Resource Manager v2. Core Pillars  Engine - High fuel costs, vehicle maintenance  Productivity - Customers expect increasing levels of service.
Effective Utilization of Advanced Public Transportation Systems (APTS) Technology 19th Annual Transportation Disadvantaged Best Practices and Training.
Archived Data User Services (ADUS). Archive Creation Summary Data to be stored –Level of aggregation –All, or some subset of data available Quality control.
Archived Data User Services (ADUS). ITS Produce Data The (sensor) data are used for to help take transportation management actions –Traffic control systems.
Principles of Information Systems, Seventh Edition2 An organization’s TPS must support the routine, day-to- day activities that occur in the normal course.
Electronic Fare Collection CEE582. Vehicle-Based Systems (Fixed-Route) Exterior Route and Destination Announcements Electronic Destination Sign Vehicle.
Advanced Public Transit Systems (APTS) Transit ITS CEE582.
Advanced Public Transit Systems (APTS) Transit ITS CEE582.
TSP Must Fit Within An Overall Agency ITS Plan. Transit Priority Data Needs Vehicle Location –Speed Door & Lift Status –Predictions Passenger Counting.
Toll Collection. One of the early widespread adopters of ITS Some of the most obvious benefits from ITS adoption.
Transit Traveler Information CEE582. Fixed-Route Central ControlCustomer Information Wireless Data On-Off Load Data Radio/ Message and AVL Transmission.
Center for Urban Transportation Research | University of South Florida Technology Session: 21 st Annual Transportation Disadvantaged Best Practices and.
Logitrac Advanced GPS THE FUTURE OF GPS TECHNOLOGY.
CAPS RoutePro CAPS Logistics Overview RoutePro Dispatcher Features.
Leveraging Technology to Increase Ridership and The Passenger Experience Jeff Lougheed Regional Manager Trapeze Group Mississauga, Ontario - Canada.
Dillon: CSE470: SE, Process1 Software Engineering Phases l Definition: What? l Development: How? l Maintenance: Managing change l Umbrella Activities:
The Future of gps technology
Operating System Review September 10, 2012Introduction to Computer Security ©2004 Matt Bishop Slide #1-1.
Legacy systems overview DT Legacy System definition “Legacy system is deficiency in a system in terms of its suitability to the business, its Platform.
Project Tracking. Questions... Why should we track a project that is underway? What aspects of a project need tracking?
Student Safety in Schools. Student Safety Tips Be early for the bus. Never run to or from the bus. Be alert and stand back from the curb. Don't push or.
Intelligent Transportation System (ITS) Project Update TAC - July 21, 2015 Nick Perfili, FCDOT Department of Transportation.
NESTS Transit Planning Project Facilities and Technology Briefing with CAST of Cornell University and Creighton Manning Engineering, LLP.
Presents High operating costs and keen competition demand that you… -Optimize your deliveries -Have better information on the performance of your drivers.
U.S. DOT T3 Webinar Mobile Device Technology TCRP Synthesis 91 April 10, 2012 Case Study LeeTran – Lee County, FL Mike Horsting, AICP 1.
0 Christopher A. Pangilinan, P.E. Special Assistant to the Deputy Administrator Research and Innovative Technology Administration, ITS Joint Program Office.
Object-Oriented Software Engineering Practical Software Development using UML and Java Chapter 1: Software and Software Engineering.
Materials developed by K. Watkins, J. LaMondia and C. Brakewood Vehicle & Crew Scheduling Unit 5: Staff & Fleet Scheduling.
Materials developed by K. Watkins, J. LaMondia and C. Brakewood Timetabling Components Unit 5: Staff & Fleet Scheduling.
Transit Signal Priority (TSP). Problem: Transit vehicles are slow Problem: Transit vehicles are effected even more than cars by traffic lights –The number.
Vs >Slash fuel costs as much as 13.2%* by reducing idling, miles driven, & speeding >Complete more jobs and improve service with better dispatch.
Business Functions, Processes, and Data Requirements
Issues in Accelerator Control Bob Dalesio, December 23, 2002.
SandCherry, Inc. Managing Logistics at the Speed of Sound – Streamlining Processes Using Voice Applications Simplifying Service Solutions™
Chapter 3 - VLANs. VLANs Logical grouping of devices or users Configuration done at switch via software Not standardized – proprietary software from vendor.
TDTIMS Overview What is TDTIMS? & Why Do We Do It?
Discount Tracking Solutions THE FUTURE OF GPS TRACKING IS HERE!
Bus Detection Device For The Passenger Using GPS And Gsm Application Student Name USN NO Guide Name H.O.D Name Name Of The College & Dept.
Materials developed by K. Watkins, J. LaMondia and C. Brakewood Frequency Determination Unit 5: Staff & Fleet Scheduling.
IT3002 Computer Architecture
Transit Signal Priority: The Importance of AVL Data David T. Crout Tri-County Metropolitan Transportation District of Oregon (TriMet) Presented at Transportation.
BIC 2013 National Conference Presented By: Tim Quinn, Executive Vice President Date: 27 October, 2013 Time: 15:00 to 16:00 Social Media, Accelerating IT.
Ubiquitous means ‘everywhere’
WIS DOT MCLARY MANAGEMENT PERFORMANCE MEASUREMENT.
Artificial Intelligence In Power System Author Doshi Pratik H.Darakh Bharat P.
Public Transit & Transportation Network Companies
TRANSACTION PROCESSING SYSTEM (TPS)
What is TDTIMS? & Why Do We Do It?
Real Time School Bus Tracking System
Comprehensive Maintenance Reducing the Transit Footprint Together
Programmable Logic Controllers (PLCs) An Overview.
Broadening the Reach of CAT Connect With Trimble Solutions
Comprehensive Maintenance Reducing the Transit Footprint Together
Reducing Project Duration
Presentation transcript:

APTS – Fourth Day Miscellaneous Topics

Fleet Management Fixed Route versus Paratransit Operations versus Maintenance

Fleet Management Fixed Route - Operations –Late driver relief –Late bus relief –Transfer point coordination –Changes in schedule operation (stop skipping) –Security

Late Driver Relief Driver overtime is a significant expense –1.5x, 2x, and 3x pay rates (depending) Extra drivers are available (extra board) –Can be driven from base to route by supervisor Problem: –Knowing which drivers to relieve –Computing the cost of relief versus overtime

Late Driver Relief Only worthwhile if “really late” (over 20 minutes) This leads to an organizational definition of “late” that is very different than that of a rider

Late Bus Relief Same issues as late driver relief A big issue is the fact that the bus can’t make its next trip on time if it can’t finish the first trip This concern can be solved by leaving “slack time” at the end of each trip. (Driver waits 15 minutes before starting the next trip.) However, “slack time” is a waste of money. You are paying the driver to do nothing

Late Bus Relief An optimization problem

Late Bus Relief Optimization problem: –How much money do you save by decreasing “slack time?” (“Maintenance Hours”) –It depends: How many runs are you late for? How many riders do you lose by being late? –Lack data on both of these subjects Analysis of location data provides for the first of these items

Changes in Schedule Operation Slack time is not the only potential cost savings –What if you could reduce the time it took to make a trip from 45 minutes to 35 minutes? Can you save –A bus? –Driver hours?

Changes in Schedule Often must perform the entire run cutting process (schedule creation – driver assignment) to determine the potential cost savings For a large transit agency, the potential savings are very large, especially if large blocks of time (10 + minutes) can be removed

Transfer Point Coordination Transfers: –A necessary evil in the fixed route transportation industry Transfers allow: –Access between more locations –More frequent service to all locations at the same cost –High volume movements to major points –Small vehicle service to low volume points

Transfer Point Coordination People don’t like to transfer –Takes too much time –Effected by the weather –Worried about missing connections Frequent headways make transferring, much less onerous –For many locations, frequent headways are not possible

Transfer Point Coordination Operational requirements –Need to keep all buses on time Penalty for route failure viewed as very high –Adds time to the schedule All routes controlled by the reliability of the least reliable bus route –Importance of schedule reliability goes up

Transfer Point Coordination How do we keep the schedules reliable? –Build in extra time Slows bus down Makes riders more impatient Costs money –Use new technology like TSP Can limit the effect of delays when needed –Use communications to allow ad hoc delays

Security Driver Rider Vehicle Need to locate a moveable asset quickly in order to send the appropriate response to the appropriate location

Fleet Management Paratransit Operations –Pick up and delivery routing –Planning –Late driver / bus notification –Security –Also Taxi operations

Fleet Management Maintenance –Vehicle maintenance needs from on-board diagnostics Engine performance Component status

Fleet Management - Maintenance Need communications to get the data off- board Need database system to maintain the information transmitted Need decision support system to turn information into recommended actions

Fleet Management - Maintenance Allows improvement over simple MTBF component replacement Improves the speed of diagnostics Improves monitoring of driver behavior –Is it legal? –Is it moral?

Fleet Management - Maintenance Requires better, more detailed record keeping What is the cost of the added record keeping, versus what you save by using the system?

System Integration In theory – money can be saved if systems share information / infra-structure –Lower data collection costs Fewer sensors Less data entries –Lower communications costs

System Integration Requires a simple / cost effective means of transferring data from hardware system to hardware system –Standards Requires a consistent means of identification –Vehicle tags –Database identifiers –Conversion from vehicle to other (e.g., route)

System Integration Problem of connecting to legacy systems Identifiers are missing Difficult to change existing code / data structures Systems were often designed to stand alone and lack communications capabilities

System Integration Location Data –How do we define a location? th St? 45 th St and Seventh Avenue X/Y/Z coordinates Milepost 12.3 on State Route 7 Next to the 7-11 on 45th

System Integration In reality – –Vendors like proprietary solutions Limits competition Ensures repeat business Allows sales based on unique characteristics Can lower development cost to vendor Can limit potential for innovation –Requires effort to create / encourage standards –Requires effort to manage system used by someone else –Who pays for added capabilities?

On-Board System Integration On-Board systems in particular can benefit from integration Sharing of information eliminates sensors and data entry –Vehicle ID –Location –Communications

On/Off Board Communications Who pays for the difference between a simple dumb tag off-board communications link and a “smart” off-board link that contains a variety of other data?

On-Board System Integration Vehicle ID Needed for almost every task –Revenue reporting –Location reporting Operations – late bus Security –Maintenance tracking –Planning / ridership data collection

On-Board System Integration Location –Automated passenger counting –Operations – late bus –Operations – TSP (Here I am) –Security –Input to maintenance tracking how far vehicle traveled how vehicle was driven (fast / slow / start / stop) “here I am” notice to base for data download

On-Board System Integration Communications –On-board between systems AVI AVL APC Engine diagnostics Off-board communications Outside displays Announcements Revenue collection / reporting

On-Board System Integration Communications –Off-board: to external systems For TSP To base – operations To base – security To base – maintenance data download To base – other download From base – routes for the day From base – database uploads From base – “next pick up is” - “directions are as follows”

On-Board Systems Integration Standards –SAE J-1708 Van standard – Interface standard and definitions SAE J-1587 Protocol and Device Definition SAE J-1455 Equipment Environment Standards SAE J-XXX In-Progress Connector Standards

J-1708 A non-proprietary communications protocol based on information sharing to cover transit’s vehicle device and communications needs A defined hardware handshake for all manufacturer’s logic boards