Energy Signature Monitor (ESM). Development of a low-cost data acquisition system

The Energy Signature Monitor (ESM), an innovative energy monitoring system, addresses the data acquisition and analysis demands of test programmes which require monitoring of large samples of buildings. It has been developed aspart of the Whole Building Evaluation System (WBES). Only a nominal number of sensors are required per test site, with less stringent sensor accuracy demands as compared to laboratory investigations. The aim is to provide an inexpensive user friendly system for use by non-technical personnel.

Demonstration of energy efficient houses as integrated systems

This paper deals with the concept of energy efficient houses as integrated systems. Quantitative analysis is used to show that evenly distributed insulation is more effective than excessive insulation applied to only one element of a house and that ventilation rates are a critical factor in determining the magnitude of energy loss. For a new approach to be adopted on a large scale, it is suggested that a means to implement Planned Change is required. Various models to bring about this change are discussed with an indication of the final recipe used for a demonstration project.

Use of vegetation to ameliorate building microclimates

Evaluates the space-conditioning energy conservation potentials of landscapes designed to ameliorate building microclimates. The physical bases for vegetative modifications of climate are discussed, and results of past study of the effects of vegetation on space-conditioning energy consumption in buildings are reviewed. The state-of-the-art of energy-conserving landscape designs is assessed and recommendations are presented for further research. Landscaping mobile houses and single family dwellings is considered.

Spicewood office park. A case study in passive solar office design. Austin, Texas

The above new building is described. Main features of this building are shade from trees, south windows catch the breeze in summer and insolation in the winter, insulated foundations, roof and wall insulation, solar collectors toprovide all hot water heating and 75% of space heating, thermally massive walls to stabilise temperature, various natural ventilation and air conditioning options, and storm windows. Energy consumption details are given.

Energy conservation and air conditioning and ventilation installations Economies d'energie et installations de ventilation et de climatisation

Summarises in tables the energy consumptions of a block of flats and a single house demonstrating how the share of energy consumed for fresh air heating and domestic hot water supply increases significantly in line with improved thermal insulation.

A comparison of an automated continuous formaldehyde analyser with passive dosimeters

A microprocessor-controlled, five point, all-teflon sequential air sampling system interfaced to a continuous formaldehyde analyser, the CEA model TGM 555 Air Monitor which uses the pararosaniline colorimetric method was used tomeasure the seaso

The BKL-method - A simplified method to predict energy consumption in buildings

Presents a simplified method for estimating heat consumption in buildings. The basis of the method are presented, along with an example of how to apply it. The method requires climatic data in a specific form and the way to calculate this is also discussed. Finally, gives some comparisons between results from this method and detailed computer simulations.

Energy conservation intensifies the problem caused by radon in dwellings

Sources of radon and the high levels of radon in many locations and building materials in Sweden are considered. Improvements in energy conservation through the reduction of ventilation rate have lead to very high levels of radon over 1000 BqRnD/m3 in some houses. Recommendations on acceptable levels of gamma radiation on building sites and radon concentration in dwellings are given. It is estimated that there are 30-40,000 dwellings over the Swedish recommended limit of 400 BqRnD/m3 requiring modification.

Energy savings through reduced air infiltration in houses.

Energy is consumed in heating the air infiltrating into houses maintained at temperatures above ambient. By using climatic data tapes and a daily profile for indoor temperature of a house, it is possible to calculate factors, which in conjunction with a relationship between air change rate and wind speed enable the energy consumption due to infiltration to be calculated on amonthly basis. This has been done for Melbourne, Australia and the factors tabulated on a monthly, annual and heating season (April Nov) basis.

Air quality control strategies for health, comfort, and energy efficiency

Within the last ten years, energy shortages, economic pressures, and changes in indoor environmental requirements have resulted in buildings that are more energy efficient but less forgiving, environmentally. These results indicate that energ

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