Agent-based model of greater Jakarta; current, and future work - - PowerPoint PPT Presentation

agent based model of greater jakarta current and future
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Agent-based model of greater Jakarta; current, and future work - - PowerPoint PPT Presentation

Agent-based model of greater Jakarta; current, and future work Anugrah Ilahi Supervisor : Prof. K.W. Axhausen IVT ETH Zrich R4D colloquium , Zurich Introduction Develop agent-based model in Greater Jakarta using MATSim


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Agent-based model of greater Jakarta; current, and future work

Anugrah Ilahi Supervisor : Prof. K.W. Axhausen IVT ETH Zürich R4D colloquium , Zurich

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Introduction

  • Develop agent-based model in Greater Jakarta using MATSim
  • Integrated choice model and agent-based model
  • Explore the accessibility by public transport

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Jakarta Now

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Jakarta Now

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MATSim loop

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MATSim loop integrated with mode-choice model

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x

Mode-Choice Model More info at: www.eqasim.org

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Greater Jakarta Scenario Synthesis

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Two parts:

  • Supply (road network, public transport services)
  • Demand (synthetic population)
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Creating Public Transport Network; OSM & GTFS

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Open Street Map

  • 472 thousand nodes
  • 1.2 million links

Multimodal Transport

  • BRT
  • Buses
  • Rail
  • Microbus (Angkot)
  • Car
  • Motorcycle
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Synthetic Population (1)

  • Population is synthesized using the data gathered by the Japan

International Cooperation Agency (JICA) in 2009 (JICA, 2009), which includes 3% of Households

  • Synthetic agents are synthesized using Bayesian Network (BN)

and Generalized Raking (GR)

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Synthetic Population (2)

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Household data Individual data Geocoding location Data Joint/Fusion Population Synthesis using BN approach Fitting to marginal target using GR Marginal data Region by Age Marginal data Region by Gender Output Dataset of all variables needed

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Choice Modelling (Parameter estimates)

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Mode Parameters Estimate Public Transport

β numberOfTransfers, PT.

  • 0.170

β inVehicleTime, PT [min-1]

  • 0.120

β transferTime, PT [min-1]

  • 0.048

β accessEgressTime, PT [min-1]

  • 0.080

Car

α Car

1.227

β travelTime, Car [min-1]

  • 0.066

Motorcycle

α MC

1.227

β travelTime, MC [min-1]

  • 0.100

Walk

α walk

1.430

β travelTime,walk [min-1]

  • 0.141

Other

β Cost

  • 0.030

Calibration

θ parkingSearchTime, Car [min]

4.000

θ accessEgressTime, Car [min]

4.000

θ accessEgressTime,MC [min]

2.000

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Activities simulated in MATSim (1)

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Education Working Home

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Activities simulated in MATSim (2)

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Mode shares

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30 26.8 41.6 8.6 31 24.1 40.5 4.4

5 10 15 20 25 30 35 40 45

Non-Motorized Transport Public Tranport Motorcycle Car MATSim JICA

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Traffic Count comparison: MC on Thamrin St.

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500 1000 1500 2000 2500 3000 3500 4000 4500 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 MATSim Counting

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Traffic Count comparison: Cars on Thamrin St.

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1000 2000 3000 4000 5000 6000 7000 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16

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Trip Distance Band

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Distance Trips Trips [%] Less than 1 km 105,372 7.72 1 - 5 km 514,413 37.67 5 - 10 km 300,938 22.04 10 - 20 km 248,785 18.22 20 - 30 km 95,119 6.97 More than 30 km 100,813 7.38

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Accessibility

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Conclusions

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  • We use a novel approach that integrates choice modelling in MATSim
  • There is small difference of mode share between JICA and MATSim

model

  • Number of motorcycles and cars in the MATSim model is higher than
  • bserved.
  • The accessibility is higher in the Greater Jakarta, and less so in

agglomeration cities

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  • The model so far only based on mandatory activities (HWH and HSH)
  • Only 5% of population are simulated (1.1 million)
  • 1 iteration takes more than 1 hour
  • We use mode-choice model parameters estimated for Zurich,

Switzerland (Jakarta RP/SP survey is on-going)

Limitations

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  • Include mandatory and secondary activities based on our new survey

“MOBILITY JAKARTA” in the model

  • Using choice model parameter of Greater Jakarta
  • Simulate emerging transportation
  • Online motorcycle taxi
  • Online car taxi
  • Urban Air Mobility
  • Policy recommendations for the government

Future Work

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Questions ?

www.ivt.ethz.ch www.MATSim.org

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Appendix

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Mobility Jakarta Survey

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  • RP Survey
  • SP Survey
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RP : Mode share by distance

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RP : Mode share by activity

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RP: Travel Time and Distance by Mode

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RP: Travel Time and Mode by Activities

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RP : Travel Time and Cost by Mode

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RP : Trip Chain Distribution

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Trip Chain Share of Trip Chain

h,w,h 39.12% h,e,h 22.70% h,w,l,w,h 13.66% h,s,h 5.83% h,w,l,h 4.40% h,l,h 3.53% h,er,h 1.97% h,s,w,h 1.32% h 0.74% h,e,l,h 0.74%

Trip Chain Share of Trip Chain

h,w,l,w,l,w,h 0.73% h,w,l,w,l,w,l,w,h 0.48% h,w,s,h 0.45% h,er,w,l,h 0.34% h,w,er,h 0.32% h,w,s,w,h 0.27% h,w,l,w,l,h 0.24% h,s,w,l,h 0.19% h,er,w,h 0.18% Others 2.77%

h = home e = education s = shopping w = working l = leisure er = errand

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SP : Choices, Distance and Types of Respondent

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Variable Value Sample (%) Choice PT Car MC Car taxi MC taxi Car ODT MC ODT UAM Walk 21.00 10.20 41.00 2.10 6.20 3.30 9.40 3.00 3.70 Distance band 0-1.5 km 1.5-5 km 5-15 km >15 km 11.00 16.00 35.90 37.20 Type of respondents Driver to Jakarta Driver out of Jakarta Non-driver in Jakarta Non-driver out of Jakarta 44.20 18.30 1050 27.00

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SP: Distance by Mode

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RP: Types of Respondents by Mode

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