Indoor Environmental Quality (IEQ)
Parent: Center for the Built Environment
eScholarship stats: Breakdown by Item for March through June, 2025
| Item | Title | Total requests | Download | View-only | %Dnld |
|---|---|---|---|---|---|
| 78v8055h | Indoor air movement acceptability and thermal comfort in hot-humid climates | 1,669 | 48 | 1,621 | 2.9% |
| 4qq2p9c6 | Developing an adaptive model of thermal comfort and preference | 1,552 | 533 | 1,019 | 34.3% |
| 3f4599hx | The skin's role in human thermoregulation and comfort | 975 | 698 | 277 | 71.6% |
| 2kd0135t | Analysis of the accuracy on PMV – PPD model using the ASHRAE Global Thermal Comfort Database II | 449 | 114 | 335 | 25.4% |
| 2gq017pb | Workspace satisfaction: The privacy-communication trade-off in open-plan offices | 414 | 238 | 176 | 57.5% |
| 2tm289vb | Thermal sensation and comfort models for non-uniform and transient environments: Part III: whole-body sensation and comfort | 404 | 63 | 341 | 15.6% |
| 2048t8nn | Climate, comfort, & natural ventilation: a new adaptive comfort standard for ASHRAE standard 55 | 392 | 56 | 336 | 14.3% |
| 2m34683k | A better way to predict comfort: the new ASHRAE standard 55-2004 | 391 | 127 | 264 | 32.5% |
| 25x5j8w6 | Indoor Air Quality in 24 California Residences Designed as High Performance Green Homes | 388 | 296 | 92 | 76.3% |
| 11m0n1wt | Human thermal sensation and comfort in transient and non-uniform thermal environments | 381 | 190 | 191 | 49.9% |
| 5ts1r442 | Thermal Adaptation in the Built Environment: a Literature Review | 369 | 75 | 294 | 20.3% |
| 3sw061xh | Thermal sensation and comfort models for non-uniform and transient environments: Part I: local sensation of individual body parts | 299 | 73 | 226 | 24.4% |
| 13s1q2xc | Extending air temperature setpoints: Simulated energy savings and design considerations for new and retrofit buildings | 292 | 75 | 217 | 25.7% |
| 5kz1z9cg | Indoor Humidity and Human Health--Part I: Literature Review of Health Effects of Humidity-Influenced Indoor Pollutants | 288 | 80 | 208 | 27.8% |
| 7897g2f8 | Air quality and thermal comfort in office buildings: Results of a large indoor environmental quality survey | 277 | 137 | 140 | 49.5% |
| 6s44510d | Ceiling Fan Design Guide | 275 | 66 | 209 | 24.0% |
| 4kv4f2mk | A review of the corrective power of personal comfort systems in non-neutral ambient environments | 265 | 44 | 221 | 16.6% |
| 40r8r9pz | Indoor Climate and Productivity in Offices | 258 | 228 | 30 | 88.4% |
| 9rf7p4bs | Occupant satisfaction with indoor environmental quality in green buildings | 237 | 38 | 199 | 16.0% |
| 89m1h2dg | Modeling the comfort effects of short-wave solar radiation indoors | 231 | 34 | 197 | 14.7% |
| 7710g5cb | Well-connected microzones for increased building efficiency and occupant comfort | 229 | 7 | 222 | 3.1% |
| 1pz9j3j2 | Thermal sensation and comfort models for non-uniform and transient environments: Part II: local comfort of individual body parts | 227 | 56 | 171 | 24.7% |
| 1nv5k5qx | Human comfort and self-estimated performance in relation to indoor environmental parameters and building features | 225 | 162 | 63 | 72.0% |
| 5zt7n382 | Air movement and thermal comfort: The new ASHRAE Standard 55 provides information on appropriate indoor air velocities for occupant comfort | 215 | 18 | 197 | 8.4% |
| 0080t60q | Why is the Indian Sari an all-weather gear? Clothing insulation of Sari, Salwar-Kurti, Pancha, Lungi, and Dhoti | 214 | 93 | 121 | 43.5% |
| 3338m9qf | Dynamic predictive clothing insulation models based on outdoor air and indoor operative temperatures | 205 | 99 | 106 | 48.3% |
| 18d174zs | Personal comfort models—A new paradigm in thermal comfort for occupant-centric environmental control | 197 | 36 | 161 | 18.3% |
| 3sq8z441 | A model of human physiology and comfort for assessing complex thermal environments | 197 | 81 | 116 | 41.1% |
| 5rg8307n | Field demonstration of a tracer method to track simulated exhaled air trajectories and mixing in three connected rooms with upper-room GUV | 194 | 44 | 150 | 22.7% |
| 4cd386s7 | Natural Ventilation for Energy Savings in California Commercial Buildings | 186 | 45 | 141 | 24.2% |
| 6pq3r5pr | Evaluation of the physiological bases of thermal comfort models | 176 | 50 | 126 | 28.4% |
| 92z5q2qb | Progress in thermal comfort research over the last twenty years | 170 | 98 | 72 | 57.6% |
| 84r525hj | Impacts of life satisfaction, job satisfaction and the Big Five personality traits on satisfaction with the indoor environment | 161 | 91 | 70 | 56.5% |
| 9s12q89q | Comfort under personally controlled air movement in warm and humid environments | 160 | 39 | 121 | 24.4% |
| 6d94f90b | Moving air for comfort | 159 | 64 | 95 | 40.3% |
| 9hn3s947 | Convective and radiative heat transfer coefficients for individual human body segments | 159 | 113 | 46 | 71.1% |
| 54n6b7m3 | Personal comfort models: Predicting individuals' thermal preference using occupant heating and cooling behavior and machine learning | 155 | 51 | 104 | 32.9% |
| 2hf4r1pg | Experimental evaluation of the effect of body mass on thermal comfort perception | 154 | 33 | 121 | 21.4% |
| 1wc7t219 | Quantitative relationships between occupant satisfaction and satisfaction aspects of indoor environmental quality and building design | 153 | 65 | 88 | 42.5% |
| 22k424vp | Evaluating thermal environments by using a thermal manikin with controlled skin surface temperature | 153 | 86 | 67 | 56.2% |
| 18f0r375 | Typical Clothing Ensemble Insulation Levels for Sixteen Body Parts | 152 | 36 | 116 | 23.7% |
| 0dh6c67d | Development of the ASHRAE Global Thermal Comfort Database II | 151 | 64 | 87 | 42.4% |
| 3js1z0b8 | Evaluation of Annual Sunlight Exposure (ASE) as a Proxy to Glare: A Field Study in a NZEB and LEED Certified Office in San Francisco | 150 | 30 | 120 | 20.0% |
| 5ww2c38p | Advances to ASHRAE Standard 55 to encourage more effective building practice | 148 | 40 | 108 | 27.0% |
| 7f01n291 | Thermal comfort, perceived air quality and cognitive performance when personally controlled air movement is used by tropically acclimatized persons | 148 | 80 | 68 | 54.1% |
| 04x6v86j | A dimensionality reduction method to select the most representative daylight illuminance distributions | 147 | 18 | 129 | 12.2% |
| 28x9d7xj | Energy savings from extended air temperature setpoints and reductions in room air mixing | 146 | 46 | 100 | 31.5% |
| 6fp048t4 | The Effects of Ventilation, Humidity, and Temperature on Bacterial Growth and Bacterial Genera Distribution | 143 | 12 | 131 | 8.4% |
| 6gd9t8pj | Evaluation of the effect of landscape distance seen in window views on visual satisfaction | 142 | 98 | 44 | 69.0% |
| 98n759dr | Evaluation of the cooling fan efficiency index. | 142 | 60 | 82 | 42.3% |
Note: Due to the evolving nature of web traffic, the data presented here should be considered approximate and subject to revision. Learn more.