DSCN5311

CT series Round FRP Cooling tower

Round cooling tower shell material for FRP, common term injection molding machine cooling, air compressor cooling and so on. Because of its cheap price, good cooling effect, deeply loved by users. But the downside is that it is easy to make equipment scaling clogged.



1, CT type round FRP Cooling tower application range
The CT circular FRP cooling tower adopts galvanized steel frame, and the shell adopts FRP material. Internal as required with ordinary PVC heat transfer filler, or high-temperature pp heat transfer filler. Because the structure is simple, the cooling effect is good, and the price is cheap, widely used in the injection molding machine cooling, air compressor cooling, intermediate frequency electric furnace cooling and other water quality requirements are not high cooling equipment.


2, CT circular FRP cooling tower and DBNL type round FRP Cooling tower Difference
CT circular FRP Cooling tower and DBNL type round FRP Cooling tower, the user in the selection of the time must pay attention. CT cooling tower using cold tons as the basic unit, such as CT-80 model cooling tower, indicating that the refrigeration capacity of 80 cold tons, after the unit conversion can be calculated, the actual amount of water treated is equivalent to 62.4m3/h. The DBNL cooling tower is different, DBNL uses water tons as the basic unit. DBNL-80 means that the amount of water treated is 80m3/h. That is to say, DBNL-80 is much bigger than CT-80. This is due to historical reasons.
The bottom inlet of the CT cooling tower adopts the net Inlet Air window, which is easy to disassemble, but the disadvantage is easy to break. and DBNL type cooling into the wind window using FRP blinds. The use of fiberglass blinds not only beautiful shape, but also long service life, not easy to break and other advantages. But the downside is that the cost is higher. Therefore, the same level of cooling tower, CT type is much cheaper than the DBNL type.


3. Principle of CT circular FRP Cooling tower


① motor, ② fan, ③ filler, ④ inlet and outlet and recharge port, ⑤ catchment tray, ⑥ into wind window, ⑦ cloth pipe, ⑧ shell
As can be seen from the schematic, the cooling tower enters the cooling tower from the bottom of the tower and, under the pressure of the pump, passes through the middle column to the top of the cooling tower. The top of the middle pipe can rotate the cloth water to turn the head, the cooling tower through the head into the various branch tubes. The tube is drilled with a series of small holes, and the cooling water is sprayed out through these small holes and sprinkled onto the filler. Because the cooling water through the small hole ejected in the direction of the filler vertical direction has a certain angle, so the spray out of the water will give the cloth pipe a moment. This moment pushes the cloth water and turns its head constantly spinning. The cooling water passes through the filler and travels evenly on the surface of the PVC filler. The heat of the water and the cold air in the gap between the filler heat exchange, the water is cooled and dripped into the bottom of the catchment disk, and hot air will be the top of the wind machine into the atmosphere, new dry cold air from the inlet window into the supplement. The cooling water dripping into the catchment tray is sucked away by the pump and re-enters the cooling cycle.
It is often asked how many degrees can the cooling tower cool the water? In fact, from the principle of cooling tower, it is very simple. Hot water in the filler with the air heat exchange, the maximum heat exchange is the temperature of the water and the temperature of the air is equal, the heat exchange will stop. Thus, the temperature of the cooling water is consistent with the ambient temperature. But there is one thing that cannot be ignored, that is, the evaporation of water, water evaporation needs to absorb heat, water evaporation will lead to lower water temperature. The drier the air, the more intense the evaporation, the lower the outlet temperature of the cooling tower. Therefore, the effluent temperature of cooling water is determined by two aspects: Heat transfer and evaporation. These two aspects determine that the cooling water temperature will be lower than the ambient temperature, higher than the wet bulb temperature.


4, CT type of circular FRP cooling tower composition



5, CT type of circular FRP cooling tower technical parameters

 

ModelCT101520253040506080100125150

Basic

parameters

Flowm3/h7.811.715.619.523.431.23946.862.47897.5117
Airm3/h85140160200230280330420450700830950
MotorKW0.180.370.550.750.751.51.51.51.52.252.252.25
VolumedB(A)4748.55051.55354.55657.559606060
NetKg46546798116130190240260500540580
Running HeavyKg19029030050053055097512501280160016401680
Interface parametersInto WaterWI40505080808080100100125125150
Out WaterWO40505080808080100100125125150
OverflowOF252525252525252525252525
SewageDR252525252525252525252525
Automatic Water RechargeFV151515151515152020202020
HeightTower BodyTH183016451930215018952040212023452510269028752875
MotorMH170170170180180200200270270320320320
Air barrelCH10709551140138511301255125512901455159517801780
Into the WindAH170170170245245245245325325325325325
Water Collector PlateWH420450450340340340420460460450450450

IH270280280175175175230295295300300300

OH180190190115115115125200200230230230
BasisFH250250250300300300300300300300300300
DiameterFanED63563577077077093093011801180145014501450
Water PlateWD92011651165138516501650188021002100290029002900
BasisFD52073073096011801180137015301530232023202320
BoltBD101010101010101212121212
Other BasisFS250250250300300300300300300300300300
BasisFC








600600600
FeetLPL140150150140140140180200200210210210
FeetWPW120140140140150150160190190130130130
FeetCPC








140140140
BoltBC45063563568083583597010801080114511451145
Sparse sectionSC80115115150150150120150150180180180
Sparse sectionSL390515515600780780835915915143014301430















ModelCT1752002252503003504005006007008001000
Basic parametersFlowm3/h136.5156175.5195234273312390468546624780
Airm3/h115012501500175020002000240026003750375050005400
MotorKW3.753.755.55.57.57.5111115152222
VolumedB(A)606054555657596065667374
NetKg8608801050108017601800284029003950405047004900
Running HeavyKg19601980277028003930397057405800935094501190012100
Interface parametersWaterWI150150200200200200200250250250300300
WaterWO150150200200200200200250250250300300
OverflowOF50508080808080100100100100100
SewageDR50508080808080100100100100100
Automatic Water RechargeFV252532323232325050505050
HeightTower BodyTH351535154170417043604360455045505310551056605860
MotorMH350350590590680680710710840840940940
Air barrelCH196519652060206021602160218021802430263026802880
Into the WindAH3503506206206206207607601020102010201020
Water Collector PlateWH8508509009009009009009001020102010201020
WaterIH245245280280280280280300340340370370
DiameterBasisFH300300300300300300400400400400400400
Wind MachineED175017502135213524402440274527453400340037003700
Water PlateWD331033104120412047304730560056006600660076007600
Other dimensionsBasisFD331033104120412047304730560056006600660076007600
BoltBD161616161616161625252525
BasisFS300300300300300300400400400400400400
BasisFC600600600600600600600600800800800800
Foot LPL180180180180180180180180300300300300
Foot WPW150150150150150150215215200200200200
Foot Plate CPC400400800800800800800800660660680680
BoltBC259825982156215624752475219821982590259029832983
FlangeSC74074084084084084084084010501050