{"@context":"http://iiif.io/api/presentation/2/context.json","@id":"https://repo.library.stonybrook.edu/cantaloupe/iiif/2/manifest.json","@type":"sc:Manifest","label":"Thermal Homeostasis in Buildings (THiB): Radiant conditioning of hydronically activated buildings with large fenestration and adequate thermal mass using natural energy for thermal comfort","metadata":[{"label":"dc.description.sponsorship","value":"This work is sponsored by the Stony Brook University Graduate School in compliance with the requirements for completion of degree."},{"label":"dc.format","value":"Monograph"},{"label":"dc.format.medium","value":"Electronic Resource"},{"label":"dc.identifier.uri","value":"http://hdl.handle.net/11401/76447"},{"label":"dc.language.iso","value":"en_US"},{"label":"dc.publisher","value":"The Graduate School, Stony Brook University: Stony Brook, NY."},{"label":"dcterms.abstract","value":"&quot; Living&quot; buildings, like living bodies, seek to maintain stable internal environments while the external surroundings keep on changing. In biology, the &quot; stable internal environment&quot; is called homeostasis. This dissertation focuses on thermal homeostasis in buildings. In a homeostatic building, adequate thermal mass is applied to keep indoor temperature varying within a small range; natural energy is harnessed to maintain indoor temperature at a comfortable level using lower-power equipment (lowPE); hydronic radiant conditioning system is employed to distribute heat or coolness effectively to avoid over-heating or over-cooling; and large fenestration is designed for aesthetics, natural lighting and solar gain. The design of homeostatic buildings is approached in interdependent but distinguishable two steps: <italic>archi.engineering <underline>building's indoor air-mass</underline> partially homeostatic to be within an acceptable temperature range</italic> without equipment, and <italic>maintaining the building fully homeostatic to be at a comfortable temperature level</italic> with lowPE or off-peak mechanical equipment. This new process design philosophy replaces the conventional heat balance design philosophy of <italic>engineering <underline>building's indoor air</underline> to be at a fixed temperature</italic>. The new design philosophy is applied to a TABS (thermally activated building systems)-equipped office building-room using an RC (resistor-capacitor) model built in Matlab/Simulink. Everyone intuitively knows that a building's thermal resistance and its mass are the most important passive elements of its thermal-control system. However, common building codes make no provision for its mass. This inconsistency results from the static heat balance design philosophy. In the dynamic RC model, indoor temperatures are allowed to float within a range. Systematic study of building's structural thermal mass requirement leads to a new dynamic definition of the thermal envelope, which sets limit in minimum thermal mass and maximum WWR (window-to-wall ratio) for partially homeostatic buildings. The use of TABS and thermal mass makes a partially homeostatic building possible to harness natural energy with lowPE, such as cooling tower. The favorable climatic conditions of using cooling tower are investigated to achieve full homeostasis in buildings. It shows that in seven selected cities the most favorable location is Sacramento, which has a largest diurnal temperature variation derived from the strong micro-climatic process of sea breeze. This finding argues that the changing &quot; external environment&quot; is not only a challenge but also an opportunity--the opportunity in how a partially homeostatic building can harness natural energy with lowPE to achieve full homeostasis. Better than Sacramento, Paso Robles has a larger diurnal temperature swing in summers, which makes it one of the most favorite locations for homeostatic buildings. A stand-alone one-story south-facing small commercial building in Paso Robles is designed. Simulation confirms that the building is a good partially homeostatic building even with a very high WWR. Thermal homeostasis in buildings is an example of sustainable technologies. The homeostatic conception makes a building into a harnessing system for a new kind of renewable &quot; energy.&quot; Homeostasis in buildings and how it is engineered offer an opportunity of creating a new kind of man-made systems with ecological sustainability -- a perfect revolutionary form and content for getting the green architecture movement lifting off."},{"label":"dcterms.available","value":"2017-09-20T16:50:17Z"},{"label":"dcterms.contributor","value":"Butcher, Thomas."},{"label":"dcterms.creator","value":"Ma, Peizheng"},{"label":"dcterms.dateAccepted","value":"2017-09-20T16:50:17Z"},{"label":"dcterms.dateSubmitted","value":"2017-09-20T16:50:17Z"},{"label":"dcterms.description","value":"Department of Mechanical Engineering."},{"label":"dcterms.extent","value":"205 pg."},{"label":"dcterms.format","value":"Application/PDF"},{"label":"dcterms.identifier","value":"http://hdl.handle.net/11401/76447"},{"label":"dcterms.issued","value":"2013-12-01"},{"label":"dcterms.language","value":"en_US"},{"label":"dcterms.provenance","value":"Made available in DSpace on 2017-09-20T16:50:17Z (GMT). No. of bitstreams: 1\nMa_grad.sunysb_0771E_11369.pdf: 14312170 bytes, checksum: 175e4f8a1b3e6bd2b32eac998b980ca5 (MD5)\n  Previous issue date:    1"},{"label":"dcterms.publisher","value":"The Graduate School, Stony Brook University: Stony Brook, NY."},{"label":"dcterms.subject","value":"Building Design, Building Energy Modeling, Building Hydronic Radiant Cooling, Building Thermal Comfort, Thermal Homeostasis in Buildings, Thermal Mass and Cooling Tower"},{"label":"dcterms.title","value":"Thermal Homeostasis in Buildings (THiB): Radiant conditioning of hydronically activated buildings with large fenestration and adequate thermal mass using natural energy for thermal comfort"},{"label":"dcterms.type","value":"Dissertation"},{"label":"dc.type","value":"Dissertation"}],"description":"This manifest was generated dynamically","viewingDirection":"left-to-right","sequences":[{"@type":"sc:Sequence","canvases":[{"@id":"https://repo.library.stonybrook.edu/cantaloupe/iiif/2/canvas/page-1.json","@type":"sc:Canvas","label":"Page 1","height":1650,"width":1275,"images":[{"@type":"oa:Annotation","motivation":"sc:painting","resource":{"@id":"https://repo.library.stonybrook.edu/cantaloupe/iiif/2/13%2F52%2F43%2F135243771416240540011179257552963378502/full/full/0/default.jpg","@type":"dctypes:Image","format":"image/jpeg","height":1650,"width":1275,"service":{"@context":"http://iiif.io/api/image/2/context.json","@id":"https://repo.library.stonybrook.edu/cantaloupe/iiif/2/13%2F52%2F43%2F135243771416240540011179257552963378502","profile":"http://iiif.io/api/image/2/level2.json"}},"on":"https://repo.library.stonybrook.edu/cantaloupe/iiif/2/canvas/page-1.json"}]}]}]}