适合基本需求的Halton Rex冷梁家族新成员!
典型应用: 办公室、大开间办公室
Total lengths 1200, 1800 and 2400 mm
Total length 3000 mm
ØD | 125 |
Coil length | 1000, 1600, 2200, 2800 |
L-5 | 1195, 1795, 2397, 2995 |
kg/m | 14 |
Part | Material | Finishing | Note |
Front panel | Pre-painted galvanised steel |
Polyester – painted white (RAL 9003 or RAL 9010, 20% gloss) |
Special colours not available |
Side plates | Pre-painted galvanised steel |
Polyester – painted white (RAL 9003 or RAL 9010, 20% gloss)) |
Special colours not available. |
End plates | Pre-painted galvanised steel |
Polyester – painted white (RAL 9003 or RAL 9010, 20% gloss) |
Special colours not available |
Supply air plenum | Galvanised steel | ||
Brackets | Galvanised steel | ||
Coil pipes | Copper | ||
Coil fins | Aluminium |
Accessory / model | Code | Description | Note |
Combined cooling and heating coil |
TC = H | Coil with hot water circulation |
Cooling/heating copper water pipe connections are Ø 15/10 mm |
The Halton Rex 600 Basic’s cooling/heating water pipe connections are Cu15/Cu10
with wall thickness of 0.9-1.0 mm fulfilling European Standard EN 1057:1996.
The maximum chilled/hot water circuit operating pressure is 1.0 MPa.
The supply air duct connection is 125 mm.
The Halton Rex 600 Basic chilled beam is designed to be installed flush with a suspended ceiling.
The primary supply air enters the plenum of the active chilled beam. From there the air is diffused into the room through nozzles.
The supply air nozzle jets efficiently induce ambient room air, which is then directed horizontally along the ceiling surface. The secondary air is drawn through the perforation located at the bottom of the beam. The air then cycled through the heat exhanger, where it is either cooled or heated before being diffused into the room.
The Halton Rex 600 Basic active chilled beam is especially suitable for ceiling mounting running parallel to the exterior wall of the room.
When selecting of the chilled beam orientation, the location of the supply air and water circuit connections are taken into account.
The chilled beam can be attached directly to the ceiling surface (H1 = 195 mm) or suspended using threaded drop rods (8 mm). Each beam is equipped with movable brackets fixed to both sides of the beam. It is recommended that the brackets be positioned one quarter of the unit length (L/4) away from the end of the beam.
Install the main pipelines of the cooling and heating water circuits above the level of the chilled beam in order to enable venting of the pipework.
The duct connection is located at the middle of the long side. Handing of the unit can be changed on site by turning the heat exhanger.
The recommended cooling water mass flow rate is 0.02-0.10 kg/s, resulting in a temperature rise of 1-4 °C in the heat exchanger. To avoid condensation, the recommended inlet water temperature of the heat exchanger is over 14 °C.
The recommended heating water mass flow rate is 0.01-0.04 kg/s, resulting in a temperature drop of 5-15 °C in the heat exchanger. The maximum recommended temperature of the inlet water for the heat exchanger is 35 °C.
Balance the water flow rates of the Halton Rex 600 Basic chilled beam with adjustment valves installed on the outlet side of the cooling and heating water loops. The cooling capacity and heating capacity of the chilled beam are controlled by regulating the water mass flow rate. The water mass flow rate can be controlled by using an ON/OFF valve or a two- or three-way proportional valve. Valves are not included to the delivery of the beams.
Connect a manometer in the measurement tap and measure the static pressure in the Halton Rex 600 Basic chilled beam. The air flow rate is calculated according to the formula below:
Nozzle jet air flow rate (qv)
l eff Length of the coil [m]
Δpm Measured static chamber pressure [Pa]
Nozzle | k (l/s) | k (m3/h) |
A | 0,71 | 2,56 |
B | 0,99 | 3,56 |
C | 1,36 | 4,90 |
D | 2,09 | 7,52 |
E | 3,33 | 11,99 |
Code description:
1. Front panel
2. Casing
3. Supply air connection
4. Heat exchanger
Open the front panel (1) of the chilled beam. In beams longer than 2400 mm, the front panel can be opened in two sections.
Clean the supply air plenum and fins of the heat exchanger (4) with a vacuum cleaner, taking care not to damage the fins.
Clean the front panel and other visible painted plates using a damp cloth.
The active chilled beam has an integral recirculation air path through the perforated front panel.
The front panel is openable from either side in order to allow general maintenance and cleaning.
The front panel is removable without any special tools.
The active chilled beam is 595 mm wide and 195 mm high.
The active chilled beam has an inlet duct diameter of 125 mm.
Handing of the unit can be changed on site by turning around the heat exchanger
The frame, front, and side panels are made of galvanised steel plate.
All visible parts are white, painted to RAL 9003 or RAL 9010 (20% gloss).
All pipes are manufactured from copper, and connection pipes with a wall thickness of 0.9-1.0 mm.
The fins are manufactured from aluminium.
Optionally, heating is incorporated within the heat exchanger by means of two 10-mm pipes, connected in series.
All joints are soldered and factory pressure-tested.
The pipework s maximum operation pressure is 1.0 MPa.
The active chilled beam has a measurement tap to allow air flow measurement.
Active chilled beams are protected by a removable plastic coating.
The duct connection and pipe ends remain sealed during transport.
The active chilled beams are identified by labels attached to both the active chilled beam and the plastic packaging.
S = Nozzle type
A Bi-directional/ Nozzle 1
B Bi-directional/ Nozzle 2
C Bi-directional/ Nozzle 3
D Bi-directional/ Nozzle 4
E Bi-directional/ Nozzle 5
L = Total length
1200, 1800, 2400, 3000
LD = Duct connection / Duct size / Damper
L2N Left / 125 / Without damper
TC = Cooling / Heating functions (Coil type)
C Cooling
H Cooling and Heating
CO = Colour
SW Signal white (RAL9003)
W Pure white (RAL 9010)
X Special colour (RALxxxx)
ZT = Tailored product
N No
Y Yes (ETO)
R6B-A-3000, LD=L2N,TC=C,CO=SW,ZT=N