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Frost: Cost, Energy-Efficiency Drives Adoption of Intelligent Buildings in N. America
October 22, 2007 // Published as a news service by IHS
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| The North American intelligent building market continues to stay at a nascent stage with considerable skepticism and speculation in the minds of builders and other stakeholders.
According to Frost & Sullivan, the lack of interoperable systems remains a major challenge, but the market will gradually accept the concept of open interoperable communication protocols.
Analysts said manufacturers will also develop wireless devices and protocols, besides web-based services. These technological developments expect to facilitate the easy adoption of intelligent buildings, thus promoting the growth of future markets.
"Reduced operational and maintenance costs became the main driving force encouraging the growth of the North American intelligent buildings market," said Frost & Sullivan senior research analyst Anwesha Bose.
"Intelligent buildings require fewer operational staff as all building subsystems become automated and this, in turn, considerably reduces the cost of running the building."
An intelligent building, through reduced energy consumption, leads to additional cost savings. Analysts said consumption costs became minimized by effectively managing the temperature and lighting of unoccupied spaces.
Proper zone controls, using a schedule based on the time of the day, will reduce energy costs. This, in turn, leads to greater energy savings, also helping reduce carbon dioxide (CO2) and greenhouse gas (GHG) emissions.
Despite all these, lack of public awareness and knowledge remains a critical restraint for the growth of the North American intelligent buildings market. Analysts said most customers believe that integrating subsystems in a building involves huge investments. This detractor, in many cases, makes builders reluctant to secure the heavy initial investment.
"Often the stakeholders of a building will not become aware of the benefits that an intelligent building offers," said Bose. "Hence, information about the advantages of having an intelligent building should ultimately reach the decision-makers and building automation practitioners to convince them to make the necessary investments."
Going forward, analysts said industry participants should be responsible for touting the benefits offered by intelligent buildings.
While manufacturers should ensure that adequate knowledge transfer happens among all the stakeholders, analysts said design engineers must also make themselves aware so as to convince decision-makers about the benefits of integration. Building owners and builders should realize the increased value that the intelligent building provides in terms of both resale and leasing.
Source: Frost & Sullivan.
| Building Energy Efficiency Standards |
ARI GUIDELINE V Calculating the Efficiency of Energy Recovery Ventilation and its Effect on Efficiency and Sizing of Building HVAC Systems |
DIN V 18599-2 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 2: Net energy demand for heating and cooling of building zones |
DIN EN 15232 (DRAFT) Calculation methods for energy efficiency improvements by the application of integrated building automation systems; German version prEN 15232:2005 |
BSI BS EN 832 Thermal Performance of Buildings - Calculation of Energy Use for Heating - Residential Buildings-CORR 11044: July 2001 |
DIN V 4701-10 Energy efficiency of heating and ventilation systems in buildings - Part 10: Heating, domestic hot water supply, ventilation |
DIN V 18599-1 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 1: General balancing procedures, terms and definitions, zoning and evaluation of energy sources |
DIN V 18599-2 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 2: Net energy demand for heating and cooling of building zones |
DIN V 18599-3 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 3: Net energy demand for air conditioning |
DIN V 18599-4 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 4: Net and final energy demand for lighting |
DIN V 18599-5 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 5: Final energy demand of heating systems |
DIN V 18599-6 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 6: Final energy demand of ventilation systems and air heating systems for residential buildings |
DIN V 18599-7 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 7: Final energy demand of air-handling and air-conditioning systems for non-residential buildings |
DIN V 18599-8 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 8: Net and final energy demand of domestic hot water systems |
DIN V 18599-9 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 9: Final and primary energy demand of combined heat and power generation plants |
DIN V 18599-10 Energy efficiency of buildings - Calculation of the net, final and primary energy demand for heating, cooling, ventilation, domestic hot water and lighting - Part 10: Boundary conditions of use, climatic data |
DIN EN 15232 (DRAFT) Calculation methods for energy efficiency improvements by the application of integrated building automation systems; German version prEN 15232:2005 |
DIN EN 15316-1 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 1: General; German version prEN 15316-1:2005 |
DIN EN 15316-2-1 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 2-1: Space heating emission systems; German version prEN 15316-2-1:2005 |
DIN EN 15316-2-3 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 2-3: Space heating distribution systems; German version prEN 15316-2-3:2005 |
DIN EN 15316-3-1 (DRAFT) Heating systems in buildings - Method for calculations of system energy requirements and system efficiencies - Part 3-1: Domestic hot water systems, characterisation of needs (tapping requirements); German version prEN 15316-3-1:2005 |
DIN EN 15316-3-2 (DRAFT) Heating systems in buildings - Method for calculations of system energy requirements and system efficiencies - Part 3-2: Domestic hot water systems, distribution; German version prEN 15316-3-2:2005 |
DIN EN 15316-3-3 (DRAFT) Heating systems in buildings - Method for calculations of system energy requirements and system efficiencies - Part 3-3: Domestic hot water systems, generation; German version prEN 15316-3-3:2005 |
DIN EN 15316-4-1 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-1: Space heating generation systems, combustion systems; German version prEN 15316-4-1:2005 |
DIN EN 15316-4-2 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-2: Space heating generation systems, heat pump systems; German version prEN 15316-4-2:2005 |
DIN EN 15316-4-3 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-3 - Space heating generation systems, thermal solar systems; German version prEN 15316-4-3:2005 |
DIN EN 15316-4-4 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-4: Space heating generation systems, the performance and quality of CHP electricity and heat; German version prEN 15316-4-4:2005 |
DIN EN 15316-4-5 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-5: Space heating generation systems, the performance and quality of district heating and large volume systems; German version prEN 15316-4-5:2005 |
DIN EN 15316-4-6 (DRAFT) Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-6: Space heating generation systems, the performance of other renewables heat and electricity; German version prEN 15316-4-6:2005 |
NAVY MIL-HDBK-1003/19 Design Procedures For Passive Solar Buildings |
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