Residential Location Choices and Household Activity Engagement 1/14/2013 Roger Chen, Steven Gehrke, Yunemi Jiang, Jenny Liu and Kelly Clifton 1 Oregon.

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Presentation transcript:

Residential Location Choices and Household Activity Engagement 1/14/2013 Roger Chen, Steven Gehrke, Yunemi Jiang, Jenny Liu and Kelly Clifton 1 Oregon Modeling Collaborative

Introduction A relationship exists between where we live and what we do Different Location type choices Lead to different activity engagement What is the relationship between where we live and how households spend their time?

Overview of Study This study is concerned with loocation at ther elatopnsiip beween where wee vive and how we spend out time Data on Activity engagement is nucours; as a the alocation of time is distilled Estimate models of choice to look at connection 3

Study Area and Distribution of Residential Area-Types 4

5 Major Urban Center Households within five miles of 50,000 people and within a mile of 2,500 people, where the majority of households are within an MPO. Urban near Major City Household with 2,500 people within one mile of the residential location, that is also within 15 miles of 50,000 people. Rural near Major City Household that is immediately surrounded by an area of less than 2,500 people, but is within 15 miles of 50,000 people. Isolated City Household is within two miles of 2,500 people and is more than 15 miles away from 50,000 people. Rural Household is more than two miles away from 2,500 people and more than 15 miles away from 50,000 people. Area-Type Distribution of Households in Sample

6 Tenure-Housing Type Distribution of Sample Housing Tenure Rent Own 83.64% 16.36% Single- Family Unit Duplex Unit Multi- Family Unit Single- Family Unit Duplex Unit Multi- Family Unit 96.7% 1.09% 2.21% % 50.18% Rent Own SF DPLX SF MF DPLX

Why we segment into lifestyle classes Control for heterogeneity Based on classifications found in the literature 7

8 Household Segmentation Single Households Household Size Non-Single Households Age >= 65 yrs. Age < 65 yrs. with Children (0<=Age<=17 yrs.) No Children (0<=Age<=17 yrs.) Related Household Unrelated Household Num. Adult =1 Num. Adult >1 HH Members Age >= 65 yrs. HH Members Age < 65 yrs. Segment 1: Single, >=65 yrs. Segment 2: Single, < 65 yrs. Segment 3: Unrelated Segment 4: Single Adult With Children Segment :5 Related Adults >1With Children Segment :6 All Adults >= 65 yrs. Segment :7 Related Adults Household (<65 yrs.)

Descriptive Statistics of Lifecycle Segments 9 Original Slide

Household Lifecycle Stage from the OHAS Sample 10

Lifecycle Segments within the OHAS Sample 11

Lifecycle Segments within the OHAS Sample 12

Lifecycle Segments within the OHAS Sample 13

Lifecycle Segments within the OHAS Sample 14

Lifecycle Segments within the OHAS Sample 15

Lifecycle Segments within the OHAS Sample 16

Slide about Factor Analysis 17

18 Cut-off at λ < 1.0 Principal Component Extraction 7 Factors 59.3% Variance Explained

Factor Analysis of Time Allocated per Household Factor 1 (Work): Strongly and positively correlated with work activities and negatively correlated with in-home activity allocation. Factor 2 (Routine Out-of-Home Activities): strongly correlated with activity types that are suggestive of routine activity patterns or activities. Factor 3 (School Travel): This third factor is characterized strongly by school related activities. Although passenger pick-up/drop-off is not specifically identified as being student-related (student pick-up/drop-off), the bundling with school activities suggests this may be the case. Factor 4 (Eating and Recreation): general out-of-home social activities that are strongly correlated with eating and recreation. Factor 5 (Work with Errands): bundling between work and out-of-home errands; suggests that the work activity may be an anchoring activity in trip-chaining. Factor 6 (Specialty Shopping and Civic/Religious): bundling between civic/religious activities and specialty shopping. Factor 7 (Personal Activities and Civic/Religious): similar to the sixth factor and suggests a bundling of civic/religious activities with personal activities. 19 Original Slide

20 Factor Label Percent Variance Explained Influencing Activities (Time Allocated per Household – BOLD: Factors > 0.6) Work (out-of-home)12.6% (-) Home (+) Working from Home (+) Work/Work-related Routine Out-of-Home Activities9.3% (-) Work/Work-related (+) Routine Shopping, HH Errands (+) Personal Business (+) Eating (Out-of-Home) (+) Visit School and School-Related Travel7.9% (-) Work/Work-Related (+) Transfer/Drop-off/Pick-up (Travel) (+) Class/Class-Related (School) Eating and Recreation7.6% (+) Recreation/Entertainment (+) Eating (Out-of-Home) (-) Healthcare (-) Visit Work at Home with Errands7.4% (-) Working at Home (+) Work/Work-related (+) Transfer/Drop-off/Pick-up (Travel) (+) Eating (Out-of-Home) Specialty Shopping and Civic/Religious 7.3% (+) Civic/Religious (+) Transfer/Drop-off/Pick-up (Travel) (+) Special Shopping Personal Activities and Civic/Religious 7.2% (+) Personal Business (-) Working at Home (+) Civic/Religious

Model Specification ɛ 21

Model Specification ɛ μ(h) μ(t) Assumptions: 22 Original Slide

Model Estimation N = Total Number of Households Likelihood Function 1 if combination TH is chosen by observation n and 0 otherwise. A Full- Information Maximum Likelihood (FIML) Procedure was used… For identification, the scale parameter for tenure was set to 1; the own/single-family combination was used as the base; the retired household segment was used as the base. (basically you want to optimize this function w.r.t the betas) 23 Original Slide

Estimation Results: Coefficients on Accessibility HH are more likely to rent single-family homes in rural, isolated and cities near MPOs relative to households in MPOs. HH are less likely to rent multi-family and attached single-family in areas outside of MPOs. HH are less likely to own multi-family and attached single-family in areas outside of MPOs; this is least likely in rural areas In general in rural areas, HHs are more likely To own a single family unit; 24 Original Slide

25 Estimation Results: Area-Type Model Coefficients NOTE: I’m using this as an “introduction slide”… “Remember the area-types we discussed earlier? Here’s how they fair in the model…”

Estimation Results: Area-Type Model Coefficients 26 Base case

Estimation Results: Area-Type Model Coefficients 27 HH are more likely to rent single-family homes in rural, isolated and cities near MPOs relative to households in MPOs.

Estimation Results: Area-Type Model Coefficients 28 HH are less likely to own multi-family and attached single-family in areas outside of MPOs; this is least likely in rural areas

Estimation Results: Area-Type Model Coefficients 29 HH are less likely to rent multi-family and attached single-family in areas outside of MPOs. In general in rural areas, HHs are more likely to own a single family unit.

Estimation Results: Coefficients on Lifestyle Segments 1)Single Adult >=65 2)Single Adult =18 3)Non-related Household 4)Single Parents with Children 5)Parents with Children 6)Related Adults no Children, <65 7)Related Adults no Children, >=65 Relative to retired couples, All segments are more likely to Rent a SF home. Relative to retired couples, All segments are more likely to Rent a SF home. In general, retired households Are less likely to rent relative to Owning a SF. W.R.T owning MF-ASF, single adults are the most likely segment; the least likely are parents with children. 30 Original Slide

Lifecycle Segments within the OHAS Sample 31

Estimation Results: Lifecycle Model Coefficients Base case

Estimation Results: Lifecycle Model Coefficients Relative to retired couples, all segments are more likely to rent a SF home.

Estimation Results: Lifecycle Model Coefficients Single adults are the most likely segment to own a Multi- Family/Attached Single-Family home. The least likely are parents with children.

Estimation Results: Lifecycle Model Coefficients Single parents with Children are the most likely segment to rent a Multi-Family/Attached Single- Family home. The least likely are older adults (with or without kids).

Estimation Results: Other Coefficients F6 = Specialty Shopping w/Religious-Civic has a positive impact on renting SF units for Single retired adults and Couples without children F4 = Spending more time on out-of-home Eating and recreation negatively affects the Likelihood of renting. F3 and F5 = Spending more time on school related activities and work w/errands positively impacts the likelihood of renting a MF or DSF. F2 = Spending more time on routine out-of-home Activities reduces the likelihood of renting a SF unit. Weak (but statistically significant) correlation among alternatives in the same nest…. 36 Original Slide

37 Factor Label Percent Variance Explained Influencing Activities (Time Allocated per Household – BOLD: Factors > 0.6) Work (out-of-home)12.6% (-) Home (+) Working from Home (+) Work/Work-related Routine Out-of-Home Activities9.3% (-) Work/Work-related (+) Routine Shopping, HH Errands (+) Personal Business (+) Eating (Out-of-Home) (+) Visit School and School-Related Travel7.9% (-) Work/Work-Related (+) Transfer/Drop-off/Pick-up (Travel) (+) Class/Class-Related (School) Eating and Recreation7.6% (+) Recreation/Entertainment (+) Eating (Out-of-Home) (-) Healthcare (-) Visit Work at Home with Errands7.4% (-) Working at Home (+) Work/Work-related (+) Transfer/Drop-off/Pick-up (Travel) (+) Eating (Out-of-Home) Specialty Shopping and Civic/Religious 7.3% (+) Civic/Religious (+) Transfer/Drop-off/Pick-up (Travel) (+) Special Shopping Personal Activities and Civic/Religious 7.2% (+) Personal Business (-) Working at Home (+) Civic/Religious

38 Estimation Results: Time-Allocation Factors Household variation in the Time-Allocation Factor Scores “Work” or “Personal Activity with Civic Responsibilities” activities was not a significant variable in explaining differences in either tenure or housing structure choice. When comparing variation across any Time- Allocation Factor Scores, there was also no significant difference between propensities to own a single-family or multi-family/attached single-family homes. NOTE: I took a stab at interpretation. Please check me. I still haven’t taken a discrete choice class so my knowledge base is weak if not non-existent.

39 Estimation Results: Time-Allocation Factors Households with larger time-allocation scores for routine out-of-home activities, then to be slightly less likely to rent a single-family home, then to own their own home or rent a multi- family/attached single-family home.

40 Estimation Results: Time-Allocation Factors Households with larger scores related to school activity time, also tend to be more likely to rent multi-family or attached single-family housing types.

41 Estimation Results: Time-Allocation Factors Households with larger eating out- and recreation-type activity scores, also tend to be much less likely to rent. They tend to be even more likely to rent single-family housing types.

42 Estimation Results: Time-Allocation Factors Households with a greater amount of work-related activity, tend to rent multi- family or attached single- family housing types more.

43 Estimation Results: Time-Allocation Factors NOTE: My interpretation leaves the interacted coefficients for Rent/SF x lifecycle 2 or 6 to be identified separately than “all lifecycles”. Should these be displayed in sum? e.g. B rent/SF (*1) + B rent/SF x lifecycle 2 (*1) I’m not clear how interacted variables should be presented when discussing overall propensities in mode choice models… In general, households who spend larger amounts of their time doing specialty shopping or participating in civic/religious activities, tend to be less likely to rent a single-family home. Single adults (age: 18-65) or related adults without children (age: < 65) who spend greater amounts of time doing these things, have a greater likelihood of renting a single- family home. This slide is messy. I’m not really liking the double radial graph… Not sure yet

44 Estimation Results: Time-Allocation Factors Thoughts about results for Time-allocation factors? NOTE: Why are we not getting a whole lot of results from using the time-allocation activity factors? Is it because we factored time across all lifecycle stages, instead of factoring within stages? Would that make a difference? How about looking at the factor analysis and checking how much explanation of variance these factors provide?

Conclusions In rural areas, you are less likely to see rentals and old people. In fact, in general retired. Retired households are less likely to rent, but more likely to located in urban areas. Households with children are less likely to rent MF or ASF homes. 45 NOTE: Improve conclusions. Maybe our outcome says something about using a FA on time allocation as a proxy instead of an actual model. How might this be applicable to practicing modelers? What are we not able to capture YET.

Extensions for Future Work 1.Incorporate Stated-Preference (SP) responses 2.Do away with the two-stage approach 3.Integrate price index model 4.Improve process capturing household time allocation 46