Bio-Climatology for Built Environment
Indoor climate is determined by rational lighting, heating, cooling and ventilating systems. For occupants' well-being it should be consistent with how regional outdoor climate works in the flow of radiation via four paths of heat transfer: radiation; convection; conduction; and evaporation. This book starts with the relationship between the human body and its immediate environmental space followed by a brief introduction of passive and active systems for indoor climate conditioning. The nature of light and heat is discussed with a focus on building envelope systems such as walls and windows, and then examined from the viewpoint of thermodynamics and human-biology. Some examples are given to enable a better understanding of luminous and thermal characteristics of our most immediate environment particularly for those professionally involved in environmental planning, designing, and engineering to know about bio-climatic design principle.
TABLE OF CONTENTS
Built Environment and Human Beings
Passive and Active Systems for Conditioning the Built Environment
Basics of Human Biology
Solar and Lunar Effects on Built Environment
Visible Light and Luminous Environment
Heat and Thermal Environment
Thermodynamics
Air and Moisture
Mathematical Modelling
Human-Body Exergetic Behaviour
Flow and Circulation of Matter
Global Environmental System Enfolding Built-Environmental Systems
.
Masanori Shukuya, Ph.D., is a professor at the Department of Restoration Ecology and Built Environment and at the Graduate School of Environmental and Information Studies, Yokohama campus, Tokyo City University (YC-TCU). His major interests in research and education are 1) the development of exergy evaluation methods for various builtenvironmental systems for human thermal comfort with the rational use of various exergy resources; 2) the development of a method for the holistic approach to built-environmental education.
Date de parution : 03-2021
15.6x23.4 cm
Date de parution : 03-2019
15.6x23.4 cm
Thèmes de Bio-Climatology for Built Environment :
Mots-clés :
Exergy Consumption; Exergy Balance Equation; exergetic; Entropy Generation; bioclimatic design; Entropy Balance Equation; passive system; Exergy Balance; active system; Exergy Input; thermodynamics; Thermal Exergy; human body; VBA Code; thermal characteristics; Global Environmental System; built environment; Exergy Transfer; bio-climatology; Summer Case; Room Air Temperature; Solar Absorptance; Water Vapour; Interior Surface Temperature; Entropy Generation Rate; Outdoor Air Temperature; Thermal Environmental Conditions; Sea Water; Liquid Water; Galactic Cosmic Rays; Carnot Engine; Air Change Rate; ATP Molecule; Light Emitting Diode Lamps