# RECORD 41a24683a4b966679145f8c822178e61a9a339a4 # TITLE: A Comparative Hedonic Analysis of Condominium Asking Rents in Bangkok, Phuket, and Pattaya # YEAR: 2026.0 VENUE: International Journal of Building, Urban, Interior and Landscape Technology DOI: 10.56261/built.v24.266592 # AUTHORS: Than Dendoung # PAGES: 16 CANDIDATE TABLE PAGES (1-based): [8, 11] # ABSTRACT: This study estimates condominium rental price differentials from online listings across Thailand’s three major tourist cities, using Bangkok as the benchmark for Phuket and Pattaya while controlling for observable unit characteristics. Intercity differentials are measured with a hedonic regression in which the dependent variable is the natural logarithm of monthly rent (in Thai baht). Model 1 controls for the number of bedrooms, while Model 2 adds unit size through log(size_sqm), allowing the effect of unit composition on estimated city effects to be assessed. Confidence intervals at 95% are based on heteroskedasticity-robust (HC1) standard errors. The main finding is the magnitude and persistence of city-level effects relative to Bangkok. In Model 1, Pattaya has a monthly rent 11.5% lower (95% CI -13.3% to -9.6%) and Phuket 23.8% higher (95% CI 21.4% to 26.3%). When apartment size is included in Model 2, the monthly rent in Pattaya is 16.8% lower (95% CI -18.3% to -15.2%) and in Phuket 14.3% higher (95% CI 12.5% to 16.2%), and the model fit improves as the adjusted R-squared rises from 0.491 to 0.663. These results indicate that factors beyond apartment size drive rental differences across cities, since the gaps remain statistically significant after adjusting for size. The study offers robust, transparent estimates of rental levels in Thailand’s major tourist cities that can support comparison and benchmarking. ===== PAGE 1 (score 16, numeric-paren 0, table-words 3, var-words 10) ===== Dendoung, T. 1 Research Article A Comparative Hedonic Analysis of Condominium Asking Rents in Bangkok, Phuket, and Pattaya Than Dendoung Faculty of Architecture and Planning, Thammasat University, Phahonyothin Road, Khlong Nueng Subdistrict, Khlong Luang District, Pathum Thani Province 12121, Thailand Corresponding author e-mail: dendoung.than@gmail.com Received: 1 Jul 2026; Revised from: 31 Aug 2026 ; Accepted: 8 Sep 2026 Print-ISSN: 2228-9135, Electronic-ISSN: 2258-9194, https://doi.org/10.56261/built.v24.266592 Abstract In Thailand, rent comparisons between cities are based on unadjusted averages of listings, which confuses the mix of units advertised with the price a city sets on property. I ask how much of the rent difference between Bangkok, Phuket, and Pattaya is composition and how much survives it. I use a cross-section of 14,849 active condominium rental listings from FazWaz in January 2026 to estimate nested hedonic models. The dependent variable is the natural log of monthly asking rent in Thai baht; all inference uses heteroskedasticity-robust (HC1) standard errors. Model 1 controls bedroom count, Model 2 adds ln(size), Model 3 adds bathrooms and view type. The raw picture misleads: Model 1 places Phuket 22.8% above Bangkok (95% CI 20.3% to 25.4%) and Pattaya 11.5% below (95% CI -13.4% to -9.6%). Controlling size moves both, Phuket to 14.4% and Pattaya to 16.8% below, and lifts adjusted R-squared from 0.492 to 0.662; about a third of the apparent Phuket premium is size composition, not location. The central result is asymmetric. Adding bathrooms and view type leaves Phuket essentially unchanged, 0.130 to 0.134 log points, but widens the Pattaya discount from 15.6% to 22.4%: The listed stock in Pattaya leans toward sea-view and pool-view product and the city indicator had been absorbing that mix. City coefficients based on listing data are not location premiums or willingness to pay, but conditional associations. A third of the variation in rent is unexplained and the attributes that would close the gap are named. Keywords: hedonic price model; condominium rental market; asking rents; online listings; Bangkok; Phuket; Pattaya https://doi.org/10.56261/built.v24.266592 ===== PAGE 8 (score 17, numeric-paren 0, table-words 4, var-words 7) ===== BUILT 24(2). 2026, 266592 8 4. Results 4.1 Overview of analytic sample The analytical sample consists of 14,849 condominium listings: 9,774 in Bangkok, 2,835 in Phuket, and 2,240 in Pattaya. Bedroom counts are derived from the title-based extraction rule in Section 3.2, which reduces missingness and enhances comparability between cities by classifying studios as zero and parsing stated counts as integers. Table 5 lists the number of bedrooms, unit size, and monthly asking rent by city. The log-linear specification is motivated by the widely dispersed and strongly right-skewed nature of both rent and size. 4.2 Distributional diagnostics All three cities’ asking rents have a long upper tail and a significant right skew. The rent distributions are plotted on a logarithmic horizontal axis in Figure 5, which allows the cross-city differences to be seen without distorting the majority of the observations. Because the log transformation stabilizes the variance and enables the coefficients to be interpreted as semi-elasticities and elasticities, the pattern supports modeling the dependent variable as ln(rent). Figure 3. Rent per sqm density by city Figure 4. Rent per sqm by bedrooms, faceted by city Table 5 | Descriptive Statistics by City | N = 14,849. City N Minimum Maximum Mean Std. Deviation Bangkok Monthly rent (THB) 9,774 3,500 1,390,000 40,403 44,184 Unit size (sqm) 9,774 20.00 772.49 66.82 59.46 Bedrooms 9,774 0.00 6.00 1.42 0.79 Phuket Monthly rent (THB) 2,835 10,000 1,420,000 41,444 52,192 Unit size (sqm) 2,835 17.50 650.00 61.20 53.55 Bedrooms 2,835 0.00 5.00 1.12 0.80 Pattaya Monthly rent (THB) 2,240 6,000 290,000 27,633 22,032 Unit size (sqm) 2,240 21.00 450.00 56.25 40.74 Bedrooms 2,240 0.00 5.00 1.10 0.80 Note. Summary statistics for the analytic sample (N = 14,849) reporting monthly asking rent (THB), unit size (sqm) and bedroom count by city. ===== PAGE 9 (score 12, numeric-paren 0, table-words 4, var-words 3) ===== Dendoung, T. 9 Figure 5. Rent distributions by city, log scale Table 6 | Coefficients, Heteroskedasticity-Robust (HC1) Standard Errors | N = 14,849. Model Unstandardized Coefficients Standardized Coefficients t Sig. 95% Confidence Interval for B B Robust Std. Error Beta Lower Bound Upper Bound 1 (Intercept) 9.491 .008 1128.881 .000 9.474 9.507 Phuket .205 .011 .117 19.402 .000 .185 .226 Pattaya -.122 .011 -.064 -11.309 .000 -.143 -.101 Bedrooms .589 .005 .693 114.160 .000 .579 .599 2 (Intercept) 6.902 .038 181.536 .000 6.827 6.977 Phuket .135 .009 .077 15.625 .000 .118 .151 Pattaya -.184 .009 -.096 -19.629 .000 -.202 -.165 Bedrooms .104 .009 .122 12.202 .000 .087 .120 ln(size) .822 .012 .699 67.554 .000 .798 .846 Note. Estimated coefficients for Models 1 and 2 with heteroskedasticity-robust (HC1) standard errors and associated test statistics. Robust inference is emphasized given cross-sectional listing data and potentially heteroskedastic residuals. The dependent variable is ln(rent) and Bangkok is the reference city category. N = 14,849 ===== PAGE 11 (score 33, numeric-paren 0, table-words 9, var-words 13) ===== Dendoung, T. 11 4.5 Richer specification: bathrooms and view type The city indicators in Models 1 and 2 may absorb unmeasured attributes that systematically differ between markets. As a result, Model 3 adds the two characteristics that the listing records report at high coverage: the number of bathrooms and the advertised view type. Figure 7 shows the city coefficients for each of the three nested specifications, and Table 7 presents the estimates with robust standard errors. Both added attributes are priced as expected. Keeping size, number of bedrooms, and city constant, an extra bathroom is linked to an 8.0% increase in rent. View type is economically substantial. Sea views are about 17.2% and lake views are about 20.0% more expensive than city views, which are the reference category; pool, garden, mountain, and river views are between 7% and 15% less expensive. The latter should not be interpreted as distaste for those outlooks because the coefficient shows that these outlooks are more common in less expensive inland and secondary regions. Table 7 | Model 3 with Heteroskedasticity-Robust (HC1) Standard Errors | N = 13,224. Unstandardized Coefficients Standardized Coefficients t Sig. 95% Confidence Interval for B %Δ B Robust Std. Error Beta Lower Bound Upper Bound (Intercept) 7.097 .046 152.770 .000 7.006 7.188 Phuket .134 .012 .077 10.974 .000 .110 .158 +14.4 Pattaya -.254 .013 -.135 -20.278 .000 -.279 -.230 -22.4 View: Garden -.074 .016 -.024 -4.728 .000 -.105 -.043 -7.1 View: Lake .183 .033 .029 5.490 .000 .117 .248 +20.0 View: Mountain -.079 .017 -.027 -4.519 .000 -.113 -.045 -7.6 View: Pool -.136 .013 -.054 -10.314 .000 -.162 -.110 -12.7 View: River -.158 .049 -.013 -3.205 .001 -.255 -.061 -14.6 View: Sea .159 .015 .078 10.491 .000 .129 .188 +17.2 View: Skyline .044 .014 .017 3.206 .001 .017 .071 +4.5 View: Unblocked Open -.092 .015 -.031 -6.075 .000 -.121 -.062 -8.8 Bedrooms .088 .009 .104 9.521 .000 .070 .107 +9.2 ln(size) .755 .016 .633 47.358 .000 .723 .786 Bathrooms .077 .013 .075 5.997 .000 .052 .102 +8.0 Note. Model 3 adds bathroom count and view type to Model 2. The dependent variable is ln(rent), Bangkok is the reference city category and a city view is the reference view category. N = 13,224. Adjusted R squared = 0.668. The %Δ column converts a coefficient to a percentage effect using Equation 4 and is reported only where a one-unit change in the regressor is meaningful, that is, for the indicator and count variables. It is left blank for ln(size), whose coefficient is an elasticity and is read as the percentage change in rent associated with a one percent increase in floor area. The main outcome of the extended specification is that the effect on the city coefficients is asymmetric. Since the Phuket premium, as estimated on the common sample, is essentially unchanged, changing from 0.130 to 0.134 log points, the conclusion that Phuket commands a genuine premium over Bangkok survives the addition of these variables. In contrast, the Pattaya discount increases from -0.170 to -0.254 log points, or around 15.6% to 22.4% less than Bangkok. Pattaya’s listed stock is weighted toward sea-view and pool-view product, and once those attributes are priced individually the city’s underlying position turns out to be weaker than the size-adjusted comparison suggests. This is direct evidence for H3, and evidence that city indicators in parsimonious hedonic specifications can absorb compositional differences in amenity mix as well as in unit size. It is the principal reason all city coefficients reported here are described as conditional associations rather than as location premiums. ===== PAGE 12 (score 43, numeric-paren 0, table-words 11, var-words 21) ===== BUILT 24(2). 2026, 266592 12 BUILT 24(2). 2026, 266592 12 Figure 7. City coefficients relative to Bangkok across nested specifications 4.6 Robustness checks Two further attributes are reported for only part of the sample, so I examine them in subsamples rather than in the pooled specification. Table 8 reports both. For Bangkok, the listing records report distance to the nearest BTS or MRT station for 83% of listings. Added to the Model 3 specification for Bangkok alone, it returns a coefficient of -0.082, so each additional kilometer from a station is associated with rent about 7.9% lower, holding unit attributes constant. This is the accessibility control that the pooled specification lacks, and its magnitude is consistent with the accessibility literature discussed in Section 2.4. The comparable field is absent for Phuket and Pattaya, where urban rail does not operate. More than 95% of listings in Phuket and Pattaya provide the floor level, while only 4% of listings in Bangkok do so. I add floor level to the Model 3 specification for the two coastal cities and get a coefficient of 0.0017 per story that is not statistically significant (p = 0.18). Once view type is controlled, height per se does not command a measurable premium in these markets: it is the outlook that is priced, for which floor level is only a proxy. In this subsample a sea view is worth about 31.5% and the Pattaya discount relative to Phuket about 34.3%. Additionally, I created and tested an index counting advertised amenities, covering furnishing, balcony, washing machine, wifi, pool access, gym, microwave, television and recent renovation, and excluded it from the reported specifications. It entered negative and significant, an implausible sign that diagnostic examination attributes to the source data’s structure rather than preferences. There are only a few attribute slots available in the listing design, which are filled with basic appliances in lower-priced ads and various descriptions in higher-priced ads. Mean amenity count accordingly falls from 2.35 in the smallest size quartile to 1.82 in the largest, and the individual indicators price a television at -5.0% and Table 8 | Subsample Robustness Checks | N = 7,195 and 4,422. Specification B Robust Std. Error Sig. %Δ Bangkok (+ transit distance) Distance to BTS/ MRT (km) -.082 .004 .000 -7.9 ln(size) .735 .024 .000 Bathrooms .086 .015 .000 +9.0 Bedrooms .070 .014 .000 +7.2 Phuket & Pattaya (+ floor level) Floor level .002 .001 .183 +0.2 ln(size) .629 .021 .000 Bathrooms .073 .026 .005 +7.6 Bedrooms .157 .014 .000 +17.0 Pattaya -.420 .016 .000 -34.3 Note. Both specifications add the stated attribute to the Model 3 covariate set. The Bangkok specification is estimated on 7,195 listings with adjusted R squared 0.674. The Phuket and Pattaya specification is estimated on 4,422 listings with adjusted R squared 0.703, with Phuket as the reference city. The dependent variable is ln(rent) in both cases. As in Table 7, the %Δ column is left blank for ln(size), whose coefficient is an elasticity.