18 May 2015 Kelly J. Clifton, PhD * Patrick A. Singleton * Christopher D. Muhs * Robert J. Schneider, PhD † * Portland State Univ. † Univ. Wisconsin–Milwaukee.

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Presentation transcript:

18 May 2015 Kelly J. Clifton, PhD * Patrick A. Singleton * Christopher D. Muhs * Robert J. Schneider, PhD † * Portland State Univ. † Univ. Wisconsin–Milwaukee Development of a Pedestrian Demand Estimation Tool: a Destination Choice Model CC Glenn Dettwiler, Flickr

Background Why model pedestrian travel? 2 health & safety new data mode shifts greenhouse gas emissions plan for pedestrian investments & non-motorized facilities Background — Method — Results — Future Work

Metro: metropolitan planning organization for Portland, OR Two research projects Project overview 3 Background — Method — Results — Future Work travel demand estimation model pedestrian demand estimation model pedestrian scale pedestrian environment destination choice mode choice

Current method 4 Trip Distribution or Destination Choice (TAZ) Mode Choice (TAZ) Trip Assignment Pedestrian Trips All TripsPedestrian TripsVehicular Trips TAZ = transportation analysis zone Trip Generation (TAZ) Background — Method — Results — Future Work

New method 5 TAZ = transportation analysis zone PAZ = pedestrian analysis zone Trip Generation (PAZ) Trip Distribution or Destination Choice (TAZ) Mode Choice (TAZ) Trip AssignmentPedestrian Trips Walk Mode Split (PAZ) Destination Choice (PAZ) I II All TripsPedestrian TripsVehicular Trips Background — Method — Results — Future Work

Pedestrian analysis zones 6 TAZsPAZs Home-based work trip productions 1 / 20 mile = 264 feet ≈ 1 minute walk Metro: ~ 2,000 TAZs  ~ 1.5 million PAZs Background — Method — Results — Future Work

Pedestrian Index of the Environment (PIE) PIE is a 20 – 100 score total of 6 dimensions, calibrated to observed walking activity: 7 Pedestrian environment People and job density Transit access Block size Sidewalk extent Comfortable facilities Urban living infrastructure Background — Method — Results — Future Work

Walk mode split Probability(walk) = f(traveler characteristics, pedestrian environment) 9 I Walk Mode Split (PAZ) Pedestrian Trips Vehicular Trips Data: 2011 OR Household Activity Survey: ( 4,000 walk trips) ÷ ( 50,000 trips) = 8 % walk Model: binary logistic regression Background — Method — Results — Future Work

Walk Mode Split Results Household characteristics 10 I + positively related to walking– negatively related to walking number of childrenage of household vehicle ownership home–work trips home–other trips other–other trips Pedestrian environment + positively related to walking + 1 point PIE associated with: Background — Method — Results — Future Work

Prob(dest.) = function of… – network distance – size ( # of destinations ) – pedestrian environment – traveler characteristics Data: 2011 OHAS (4,000 walk trips) Method: multinomial logit model random sampling Spatial unit: super-pedestrian analysis zone Models estimated for 6 trip purposes Destination choice 11 II Background — Method — Results — Future Work Pedestrian Trips Destination Choice (PAZ)

DC Model Specification 12 Background — Method — Results — Future Work Key variables ImpedanceAttractiveness Ped supports Ped barriers Traveler attributes Add’l variables Network distance btw. zonesEmployment by category (within ln) PIESlope, x-ings, fwy

Destination choice results 13 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW Sample size , Pseudo R

Results : key variables 14 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW Distance (mi)-1.94**-1.43**-1.45** Distance * Auto (y)-1.35** Distance * Auto (n)-0.96** Distance * Child (y)-2.29**-1.76** Distance * Child (n)-1.54**-1.52** Size terms (ln)0.50**0.88**0.05*0.41**0.36**0.39** (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01)

Results : key variables 15 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW Distance (mi)-1.94**-1.43**-1.45** Distance * Auto (y)-1.35** Distance * Auto (n)-0.96** Distance * Child (y)-2.29**-1.76** Distance * Child (n)-1.54**-1.52** Size terms (ln)0.50**0.88**0.05*0.41**0.36**0.39** (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) Distance has the most influence on destination choices Auto ownership and children in HH moderate effects

Results : key variables 16 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW Distance (mi)-1.94**-1.43**-1.45** Distance * Auto (y)-1.35** Distance * Auto (n)-0.96** Distance * Child (y)-2.29**-1.76** Distance * Child (n)-1.54**-1.52** Size terms (ln)0.50**0.88**0.05*0.41**0.36**0.39** (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) No. of destinations inc. odds of choosing particular zone # Retail destinations dominates shopping purpose

Results : ped variables 17 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW PIE (avg)0.03**n.s. 0.03**0.02*0.02** Avg. slope ( ° ) n.s.-0.20*n.s.-0.42**-0.16**n.s. Major-major xing (y)n.s.0.60**0.42’n.s. Freeway (y)n.s.-0.95**n.s. 0.27’ % Industrial jobs-1.00*-1.82**n.s.-0.40’-1.66**n.s. (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) n.s. = not significant

Results : ped variables 18 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW PIE (avg)0.03**n.s. 0.03**0.02*0.02** Avg. slope ( ° ) n.s.-0.20*n.s.-0.42**-0.16**n.s. Major-major xing (y)n.s.0.60**0.42’n.s. Freeway (y)n.s.-0.95**n.s. 0.27’ % Industrial jobs-1.00*-1.82**n.s.-0.40’-1.66**n.s. (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) n.s. = not significant Ped supports: PIE increases odds of dest choice for many trip purposes

Results : ped variables 19 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW PIE (avg)0.03**n.s. 0.03**0.02*0.02** Avg. slope ( ° ) n.s.-0.20*n.s.-0.42**-0.16**n.s. Major-major xing (y)n.s.0.60**0.42’n.s. Freeway (y)n.s.-0.95**n.s. 0.27’ % Industrial jobs-1.00*-1.82**n.s.-0.40’-1.66**n.s. (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) n.s. = not significant Ped barriers: Slope, major crossings, and presence of freeways have mixed impacts

Results : ped variables 20 Background — Method — Results — Future Work HB Work HB Shop HB Rec HB Other NHB Work NHB NW PIE (avg)0.03**n.s. 0.03**0.02*0.02** Avg. slope ( ° ) n.s.-0.20*n.s.-0.42**-0.16**n.s. Major-major xing (y)n.s.0.60**0.42’n.s. Freeway (y)n.s.-0.95**n.s. 0.27’ % Industrial jobs-1.00*-1.82**n.s.-0.40’-1.66**n.s. (‘ = p < 0.10, * = p < 0.05, ** = p < 0.01) n.s. = not significant Ped barriers: Ratio of industrial jobs to total jobs suggests industrial uses deter ped destination choices

Some Interpretation 21 miles

Some Interpretation 22 PIE = 75PIE = 85 miles

Conclusions 23 Background — Method — Results — Future Work One of the first studies to examine destination choice of pedestrian trips Pedestrian scale analysis w/ pedestrian-relevant variables Distance and size have the most influence on ped. dest. choice Supports and barriers to walking also influence choice Traveler characteristics moderate distance effect

Future work Model improvements – Choice set generation method & sample sizes – Explore non-linear effects & other interactions Model validation & application Predict potential pedestrian paths Test method in other region(s) Incorporation into Metro trip-based model 24 Background — Method — Results — Future Work

Questions? Project report/info: Kelly J. Clifton, Christopher D. Patrick A. Robert J. Schneider, 25

Destination choice results 26 Background — Method — Results — Future Work HB WorkHB ShopHB RecHB OthNHB WorkNHB NW Distance (mi)-1.94**-1.43**-1.45** Distance * Auto (y)-1.35** Distance * Auto (n)-0.96** Distance * Child (y)-2.29**-1.76** Distance * Child (n)-1.54**-1.52** Size terms (ln)0.50**0.88**0.05*0.41**0.36**0.39** Retail Jobs (#)++++ Finance Jobs (#)+ Gov’t jobs (#)++ Retail + gov’t jobs (#)+ Ret + fin + gov’t jobs (#)+ Other jobs (#) Households (#)——+ Park in zone (y)0.48**n.s. PIE (avg)0.03**n.s. 0.03**0.02*0.02** Avg. slope ( ° ) n.s.-0.20*n.s.-0.42**-0.16**n.s. Major-major xing (y)n.s.0.60**0.42’n.s. Freeway (y)n.s.-0.95**n.s. 0.27’ % Industrial jobs-1.00*-1.82**n.s.-0.40’-1.66**n.s. Sample size , Pseudo R Coefficients with #s are significant (‘ = p 0.10).