Introduction This presentation describes tests undertaken by Frenger Systems Limited on a water driven radiant heating panel arrangement.

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Radiant Heating Tests...Panel Position Scenario Analysis 0311rht issue 1 March 2006

Test Paramenters DIN man representing occupant heat load in Frenger testing facility. Test laboratory viewing galery. Client presentation showing heating panel in Frenger s test rig. Introduction This presentation describes tests undertaken by Frenger Systems Limited on a water driven radiant heating panel arrangement. The arrangement particularly relates to those proposed for generic healthcare applications where a cooled thermal wall is used to represent the heat loss from a single cold façade. The purpose of the testing programme, undertaken during November 2003, was to evaluate comfort conditions in a room where a radiant heating panel is positioned in two different orientations; parallel to the cold façade and perpendicular to the cold façade. Assessment of the relative performance of the two scenario required quantification the following criteria: Air velocities Air temperatures Radiant temperatures This was achieved by physical modelling techniques, which involved the actual measurements of air velocities, radiant temperatures and air temperatures in a full-scale laboratory based mock up. Air velocity measurements were made at 3 heights above the finished floor level; 0.1m (ankle level), 1.0m (bed level) and 1.8m (standing head height). Air temperature measurements were made at 3 heights above the finished floor level; 0.1m (ankle level), 1.0m (bed level) and 1.8m (standing head height). Radiant temperature measurements were made using a shielded sensor (black bulb probe) at 2 heights above the finished floor level; 1.0m (bed level) and 1.8m (standing head height). Test Room Construction A test room with internal dimensions of 6.3 m by 4.9 m by 3.3 m (2.5m to the underside of the suspended ceiling) was constructed within the Frenger test laboratory. The room was constructed by Frenger Systems Limited and incorporated a semi acoustic ceiling and lights to represent a typical hospital ward. The outer office space was controlled in terms of temperature and maintained uniformity at the level using Frengers Building Energy Management System (BEMS), by maintaining the surrounding areas at a similar temperature as the test room to ensure that heat transfer through the fabric of the test room is minimised. The test room was constructed using plasterboard with 300mm of insulation above and below the test area to minimise heat loss or gain through the roof and floor. The walls were manufacture with plasterboard and 60mm thick insulation as standard and the thermal wall was insulated with Celotex and an air cavity to reduce energy losses further. Product Identification The climate system under test consisted of several individual components; the specification of each product can be seen below: Atrium Radiant Heating Panel Quantity: 1-Off Model Type / Ref Atrium + Radiant Shield Manufacturer: Frenger Systems Ltd Physical Dimensions (LxWxD) : 900 x 600 x 100 mm. Ceiling Tiles Model Type / Ref: Perforated Ceiling Tiles Manufacturer: SAS Physical Dimensions (LxWxD): 1200 x 400 x 25 mm. The ceiling tiles were manufactured from 0.6mm (Nominal) Zintec, perforated with3mm holes on a triangular pitch. The perforation quantity equated to 33% free area over the ceiling zone. The ceiling tiles were finished powder coated white. Light Fittings Quantity: 6-Off Model Type / Ref: Budget Troffer Manufacturer: Thorn Lighting PTY Ltd Rated Output: 28W Physical Dimensions (LxWxD): 1200 x 200 x 60 mm.

Test Arrangements Arrangement 1 Arrangement 2 Test rig enclosure Suspended ceiling Test rig enclosure Suspended ceiling Atrium radiant heating panel Cool wall Atrium radiant heating panel Cool wall Insulated raised floor Insulated raised floor Radiant heating panel parallel to cool wall Radiant heating panel perpendicular to cool wall

Air termperature analysis Arrangement 1 Arrangement 2 0.1m above FFL 0.1m above FFL +1.5K +1.5K +1.0K +1.0K +0.5K +0.5K average average -0.5K -0.5K -1.0K -1.0K -1.5K -1.5K -2.0K -2.0K

Arrangement 1 Arrangement 2 Radiant termperature analysis +0.50K +0.25K +0.50K +0.25K average average -0.25K -0.25K -0.50K -0.50K -0.5K -0.5K -1.0K -1.0K -1.5K -1.5K -2.0K -2.0K

Air Velocity analysis Arrangement 1 Arrangement 2 0.1m above FFL 0.1m above FFL

Summary & conclusion Summary Air Temperatures Through the evaluation of air temerature measurements at 48 locations, the average room temperature for arrangement 1 was determined as 20.6 o C. An analysis was made of the deviation from this average at 3 different heights above finished floor level (FFL). The results of this analysis for arrangement 1can be seen below. Height above FFL (m) 0.1 1.0 1.8 Deviation from room ave. temp. (K) -1.32 +0.17 +1.22 Summary Radiant Temperatures Through the evaluation of radiant temerature measurements at 32 locations, the average room radiant temperature between 1.1m and for arrangement 1 was determined as 22.0 o C. An analysis was made of the deviation from this average at 2 different heights above finished floor level (FFL). The results of this analysis for arrangement 1can be seen below. Height above FFL (m) 1.1 1.8 Deviation from room ave. temp. (K) -0.23 +0.31 Summary Air Velocities Through the evaluation of air velocity measurements at 48 locations, the average room air velocity between 0.1m and for arrangement 1 was determined as 0.03m/s. The average values at the differing measurement heights for arrangement 1can be seen below. Height above FFL (m) 0.1 1.0 1.8 Average Air Velocity (m/s) 0.023 0.020 0.037 The average room temperature for arrangement 2 was determined as 21.5 o C. An analysis was made of the deviation from this average at 3 different heights above (FFL). The results of this analysis for arrangement 2 can be seen below. Height above FFL (m) 0.1 1.0 1.8 Deviation from room ave. temp. (K) -1.45 +0.15 +1.30 The average room radiant temperature for arrangement 2 was determined as 23.1 o C. An analysis was made of the deviation from this average at 2 different heights above (FFL). The results of this analysis for arrangement 2 can be seen below. Height above FFL (m) 1.1 1.8 Deviation from room ave. temp. (K) -0.41 +0.36 The average room air velocity for arrangement 2 was determined as 0.03m/s. The average values at the differing measurement heights for arrangement 1can be seen below. Height above FFL (m) 0.1 1.0 1.8 Average Air Velocity (m/s) 0.022 0.020 0.046 It can be seen from these results that there was negligible difference in the distribution of heat within the test room when comparing the two heating panel arrangements. Conclusion It can be concluded that the orientation of the heating panel has very little effect on the distribution of heat within the space, determined from air temperature measurement. Considering the requirements of ISO 7730 that temperature stratification should not exceed 3K in the occupied zone (0.1m - 1.1m), it can also be concluded that thermal comfort is achieved with both arrangements. It can be seen from these results that there was negligible difference in the distribution of radiant heat within the test room when comparing the two heating panel arrangements. Conclusion It can be concluded that the orientation of the heating panel has very little effect on the radiant heat distribution within the space. It can also be concluded that thermal comfort is achieved with both arrangements. It can be seen from these results that there was negligible difference in the distribution of air velocities within the test room when comparing the two heating panel arrangements. Conclusion It can be concluded that the orientation of the heating panel has very little effect on the air velocity distribution within the space. Considering the requirements of ISO 7730 that mean air velocities should not exceed 0.25 m/s in the occupied zone (0.1m - 1.1m), it can also be concluded that thermal comfort is achieved with both arrangements.

Details and product specifications may vary without prior notice. Details produced in this booklet may not be copied without permission and are not drawn to scale. Frenger Systems Limited Riverside Road Pride Park Derby DE24 8HY +44 (0) 1332 295 678 +44 (0) 1332 381 054 sales@frenger.co.uk www.frenger.co.uk Frenger Systems Limited is an FTF Group Company Certificate No: FS 37431