Abstract

Radiant floor air conditioning systems based on capillary tube mats, in addition to offering high comfort standards, generate significant energy savings. They allow the use of renewable energies such as thermal solar panels and combine them with solar cooling systems based on lithium chloride or absorption systems with lithium bromide in summer, cooling water down to 15–16 °C through solar thermal panel energy collection. Thus, in addition to energy savings from the transport of low water flows, annual energy demand is also reduced. This research analyses the application of thermal ceramic panels (TCP)—containing polypropylene (PPR) tube capillary mats—to public buildings in the Spanish Mediterranean. A case study of the Museum of the University of Alicante (MUA) is presented. Water was distributed individually from a split system heat pump inside the building combined with a thermal solar panel system on the roof. The MUA’s annual energy demand was quantified using thermal simulation tools and was monitored during the entire one-year cycle. Simulations were conducted both for the radiant floor system and an all-air conventional convective system, as well as with solar thermal panel applications. The reduction in annual energy demand was 24.91% when TCP panels are used on the floor. This is a considerable value, but lower than others results obtained in Central Europe due to the higher values of humidity. When solar thermal panels are installed on the rooftop the energy savings can increase to 60.70%.

Highlights

  • The 1980s saw the development of systems of conditioning of architectural spaces based on capillary mats of polypropylene tubes of about 3 mm in diameter, separated by approximately 10 mm.Cold or hot water circulates through these mats

  • We studied the application of large-format thermal ceramic panels (TCP) to

  • We studied the application of large-format thermal ceramic panels (TCP) to the floor of the Museum of the University of Alicante (MUA, by its Spanish acronym), with the aim of the floor of the Museum of the University of Alicante (MUA, by its Spanish acronym), with the aim implementing radiant floor air conditioning

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Summary

Introduction

The 1980s saw the development of systems of conditioning of architectural spaces based on capillary mats of polypropylene tubes of about 3 mm in diameter, separated by approximately 10 mm. Cold or hot water circulates through these mats They can be applied to any interior walls—floors, walls and ceilings—using a range of techniques—such as plasterboard, false ceilings, false walls or plaster projection, achieving healthy, silent and comfortable air conditioning. Radiant Surface Conditioning systems using PPR capillary mats work mainly by radiation, and Radiantby. We studied the application of large-format thermal ceramic panels (TCP) to the floor of the Museum of the University of Alicante (MUA, by its Spanish acronym), with the aim of the floor of the Museum of the University of Alicante (MUA, by its Spanish acronym), with the aim implementing radiant floor air conditioning. Novel 20 mm-thick large-format ceramic pieces allow us to apply the panels to flooring combined with the application of PPR capillary mats. 9, 2089 were made, with acceptable amortisation periods regarding the installation’s required investments

Ceramic
Application
Application the University of Alicante
Comparison
MUA Monitoring
Calculating the MUA’s Energy Demand
Incorporation
Design savings
Findings
Conclusions
Full Text
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