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TCX-TCI TowerClean

TCX-TCI System Images

Why Does My Cooling Water Need Filtration?

Cooling Tower High Efficiency
Cooling Tower

Suspended solids clog tower nozzles and water distribution systems – resulting in loss of thermal capacity as well as scale and mineral buildup on tower fill and closed tower coils.

Condenser Tube TCX-TCI
Condenser Tube

Suspended solids reduce heat transfer areas and decrease flow inside tubes by accumulating on internal tube fins.

Heat Exchanger Plate
Heat Exchanger Plate

Solids in cooling tower water clog channels and create areas of low thermal conductivity.

Eliminate Basin Cleaning

Without filtration, dirt buildup quickly degrades the performance of your cooling tower, leading to increased energy costs and costly cleanouts. Automatic filtration keeps your tower efficient and eliminates a cumbersome maintenance task.

  • Prevent dirt from increasing maintenance and reducing efficiency
  • Eliminate cooling tower muck-outs
  • Maintain equipment design efficiencies
  • Improve water treatment effectiveness

Benefits of Cooling Tower Water Filtration

  • Minimize manual cleaning, maintenance, downtime, and risk of injury

  • HydroBoosters™ sweep cooling tower basins to remove suspended solids at the source

  • Maintain downstream thermal efficiency of heat transfer surfaces

  • Reduce under-deposit corrosion, remove food source for biological activity, and extend life of the basin

  • Maximize equipment life

Basin Sweeping Layout

 

What’s the Difference?

TCX System

TCX Removable Head

TCX Systems feature a removable head design, allowing access to separator internals for visual inspection.

TCI System

TCI non-removable Head

TCI Systems are welded closed and do NOT feature a removable head design.

WATCH NOW: Cooling Water Filtration Videos
Configure a LAKOS System
Configure Here

 

Specifications

TCX-TCI
Models
Downloads
(TCI)
Downloads
(TCX)
Flow Inlet
(flanged)
Outlet
(grooved)
Inlet Piping
To Use*
US GPM m3/hr
0030-SRV

0030-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

30 7 1-1/2″ thd 1″ 2″
0065-SRV

0065-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

65 15 2″ thd 1-1/2″ 2-1/2″
0100-SRV

0100-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

100 23 3″ 2″ 3″
0145-SRV

0145-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

145 33 3″ 2-1/2″ 4″
0200-SRV

0200-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

200 45 3″ 3″ 4″
0280-SRV

0280-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

280 64 4″ 4″ 6″
0400-SRV

0400-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

400 91 6″ 4″ 6″
0525-SRV

0525-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

525 119 6″ 4″ 6″
0600-SRV

0600-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG       PDF

600 136 6″ 6″ 6″
0825-SRV

0825-ABV

DWG      PDF

DWG      PDF

DWG       PDF

DWG      PDF

825 187 8″ 6″ 8″
1100-SRV

1100-ABV

DWG     PDF

DWG     PDF

DWG      PDF

DWG      PDF

1,100 250 8″ 6″ 10″
1670-SRV

1670-ABV

DWG      PDF

DWG      PDF

DWG      PDF

DWG      PDF

1,670 379 10″ 8″ 10″

 

TCX-TCI
Models
TCI Weight TCX Weight Pump
HP
Max Basin
Size (sq. ft.)
Full Load
Amperage
@ 460v
Empty
lbs.
Empty
kg
Empty
lbs.
Empty
kg
0030-SRV 311 141 320 145 1 30 2.1
0065-SRV 352 160 424 192 3 65 4.8
0100-SRV 477 217 577 262 2 100 7.6
0145-SRV 480 218 631 282 2 145 7.6
0200-SRV 547 248 662 300 7.5 200 11
0280-SRV 656 298 820 372 10 280 14
0400-SRV 1,065 483 1,153 523 15 400 21
0525-SRV 1,235 560 1,318 598 20 525 27
0600-SRV 1,535 696 1,580 717 20 600 27
0825-SRV 1,735 787 1,771 803 30 825 40
1100-SRV 1,794 815 1,847 838 40 1,100 52
1670-SRV 3,405 1,544 3,598 1632 60 1,670 77

* LAKOS recommended inlet pipe size.
All TCX-TCI TowerClean systems are rated for 150 psi (10.3 bar) maximum pressure

TCX-TCI Dimensions

Dimensions

TCX-TCI
Models
Dim A Dim B Dim E – TCI Dim E – TCX
inches mm inches mm inches mm inches mm
0030-SRV 39-3/4″ 1,010 24″ 610 44-5/16″ 1,125 46-1/8″ 1,172
0065-SRV 39-3/4″ 1,010 24″ 610 44-1/16″ 1,119 46-1/8″ 1,172
0100-SRV 39-3/4″ 1,010 24″ 610 47″ 1,119 48-1/8″ 1,222
0145-SRV 39-3/4″ 1,010 24″ 610 47-1/2″ 1,207 49-3/8″ 1,254
0200-SRV 39-3/4″ 1,010 24″ 610 50-1/12″ 1,283 51-3/8″ 1,305
0280-SRV 39-3/4″ 1,010 24″ 610 62″ 1,575 67-1/16″ 1,703
0400-SRV 48″ 1,219 30″ 762 69-3/16″ 1,757 69-3/16″ 1,757
0525-SRV 48″ 1,219 30″ 762 69-3/16″ 1,757 69-3/16″ 1,757
0600-SRV 60″ 1,524 36″ 914 84-15/16″ 2,157 84-15/16″ 2,157
0825-SRV 60″ 1,524 36″ 914 84-15/16″ 2,157 85-1/16″ 2,161
1100-SRV 60″ 1,524 36″ 914 84-15/16″ 2,157 85-1/16″ 2,161
1670-SRV 117-3/8″ 2,981 46-1/2″ 1,181 67-3/16″ 1,707 63″ 1,600

 

System Adders:
208/230V – 60Hz (PE Motor), 380/415V (50 Hz), 575V (60 Hz), Premium Efficiency (60 Hz Motor)

Inlet/Outlet Valve Kit Adders:
TCV Valve Kit, ECV Valve Kit, 2 Tower Valve Kit

SRV System Adders:
SRI, DEC, Replacement Bags

Pump Repair Kit

ASME

Internal 3M Scotchkote Coating

Stainless Steel Material

Download Brochure
  • LS-710 TowerClean Brochure
  • LS-580 HVAC Solutions Brochure
Download Manual
  • LS-591 TC-TB Install Guide
Download Sample Spec
  • LS-711 Tower Clean Spec Sheet

Frequently Asked Questions

Answer: As a rule of thumb, LAKOS uses a sizing factor of 1 GPM per square foot of basin area to determine the required size of a Tower Clean (TC) system. Using this factor, multiply the square footage of the cooling tower basin (L x W) by 1 GPM / sq. ft. This gives the basic flow rate for sizing the TC system. Tower Clean literature LS-710 can also be used as a reference for more information and equipment selections.

For industrial applications or very heavy solids loadings, consult LAKOS for recommended basin sweeping flow rates.

TCX-TCI

Answer: LAKOS factory-built purge controllers (ABV, ABV2, AKE, APP, AFS, EFS) do not have factory-set timings. The required purge frequency and durations vary depending on flow rates, solids concentrations, type of solids, etc. The controller time settings must be set at time of installation. LAKOS literature LS-608 can be used to help establish purge duration and frequency based on the application.

Answer: To determine the necessary purge frequency, purge often at first and calculate the proper rate based on the expected volume of separated solids. Purge duration should be long enough to evacuate the purge chamber AND clear the entire length of the purge piping of all solids. This is usually indicated by a change in the color of the purged liquid from dark to light.

The time between purges should never exceed the time it takes to fill 1/3 of the collection chamber volume, based on the expected solids load and the separator’s purge collection volume, as indicated in the separator’s literature. Refer to LS-608 for additional information on calculating purge frequency and duration.

Answer: While there are many LAKOS Separators still in service after 15-25 years, there are many variables to the longevity of a LAKOS Separator. It can generally be expected to last as long as any other materials of similar construction in that system. Environment, fluid chemical make-up, flow, the material of construction, type of solids, and maintenance purging are all important factors to the life of a separator. It is important to consider all these factors when purchasing a separator. Providing LAKOS with details about your application will ensure your separator meets or exceeds the life expected through your purchase. Consult your LAKOS factory representative to obtain the life expectancy in your specific application.

Answer: Solids-removal efficiency is affected by several factors, including the difference in specific gravity between the solids and the carrying liquid, the viscosity of the liquid, the particle shape, and any purging enhancement techniques. In general, with a specific gravity ratio of 2.6 (e.g. quartz sand in freshwater), liquids of 31 SSU viscosity, and generally round particles, a single pass through a separator predictably removes up to 98% of particles 74 microns (0.0029 inches) and larger. Up to 98% of particles 44 micron and larger for eSeries (eHTX and eJPX) Separators. Appreciable quantities of particles finer than 44 microns (for eSeries Separators) are also removed, as well as particles of lighter specific gravity. Higher specific gravities (like mill scale in water, where SG=5.7) result in much finer levels of filtration.

Recirculating systems (running the fluid through one or more separators continuously) can also result in appreciable removal of particles down as fine as 5 microns.

Contact LAKOS for assistance determining performance expectations on your specific application.

Answer: As a standard, most separators are available in mild carbon steel and 304L/316L-series stainless steels. Specially designed separators can also be constructed in most weldable metals, including, but not limited to: super duplex stainless steels, chrome-moly, titanium, Hastelloy, nickel alloys, and cupronickel. In special cases, separators can also be fabricated in plastic or fiberglass. For materials other than carbon and stainless steel, consult with LAKOS on the availability of your specific material requirements.

Answer: LAKOS Separators and sand media filters are both designed to remove solids from liquids, but have advantages over each other depending on the application.

A separator is designed to remove solids with a specific gravity at least 1.5 times that of the carrying liquid. Separators require very little, if any, maintenance because they have no moving parts. The pressure loss across a separator is predictable and steady and only varies with flow rate. Separators require minimum liquid loss for the purging of collected solids, and can also be equipped with an optional Solids Recovery Vessel that can eliminate liquid loss. However, Separators do not generally help with liquid clarity (turbidity) and are ineffective on organic material, such as algae.

A sand media filter is designed to remove finer solids (down to 5 microns in size) with low specific gravities. Sand filters are used when finer filtration and liquid clarity (turbidity reduction) are a requirement. Sand filters do require more operational maintenance (more moving parts) and use more liquid for backwashing of the sand bed to remove the collected solids. Pressure loss across a media filter varies, as solids are collected and enter a backwash cycle when they reach a predetermined pressure loss. However, sand media filters are very efficient at removing a wide variety of light, organic solids.

Answer: The maximum solids loading on LAKOS Separators is recommended to be less than 1% by volume. While 1% may seem low, keep in mind that 1% in a small 100 GPM system is 1 gallon of solids every minute, or 1,440 gallons (twenty-six 55-gallon drums) of solids per day. If your application exceeds these limitations, please consult your factory representative for proven alternatives.

Answer: Standard maximum temperature rating for operating most LAKOS Separators is 180°F. LAKOS can easily accommodate higher temperatures with custom separators.

Answer: The LAKOS Separator is capable of working with any liquid that has a viscosity less than 100 SSU. The solids to be separated must also have a specific gravity at least 1.5x greater than the fluid. The greater the specific gravity of the separable solids and the lower the viscosity of the liquid, the better the LAKOS Separator will work. A good rule of thumb: if the solids settle within 3-4 minutes in your liquid, they will likely be separable with a LAKOS Separator.

Answer: Standard maximum pressure rating for most LAKOS Separators is 150 psi. Contact the factory for higher pressures; LAKOS can accommodate pressures up to 3000 psi through custom separators.

Answer: Yes, we can manufacture a separator with a Canadian Registration Number (CRN). We must know the Province or Territory the vessel is to be located so we can contact the registration controlling agency within that Province or Territory to determine the cost and lead time.