Process Equipment Cost Estimation Final Report January 2002 H.P. Loh U.S. Department of Energy National Energy Technology Laboratory P.O. Box 10940, 626 Cochrans Mill Road Pittsburgh, PA 15236-0940 and P.O. Box 880, 3610 Collins Ferry Road Morgantown, WV 26507-0880 and Jennifer Lyons and Charles W. White, III EG&G Technical Services, Inc. 3604 Collins Ferry Road, Suite 200 Morgantown, WV 26505 DOE/NETL-2002/1169
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Process Equipment Cost EstimationFinal Report
January 2002
H.P. LohU.S. Department of Energy
National Energy Technology LaboratoryP.O. Box 10940, 626 Cochrans Mill Road
EG&G Technical Services, Inc.3604 Collins Ferry Road, Suite 200
Morgantown, WV 26505
DOE/NETL-2002/1169
ii
Disclaimer
This report was prepared as an account of work sponsored by an agency of the United StatesGovernment. Neither the United States Government nor any agency thereof, nor any of theiremployees, makes any warranty, express or implied, or assumes any legal liability orresponsibility for the accuracy, completeness, or usefulness of any information, apparatus,product, or process disclosed, or represents that its use would not infringe privately owned rights.Reference herein to any specific commercial product, process, or service by trade name,trademark, manufacturer, or otherwise does not necessarily constitute or imply its endorsement,recommendation, or favoring by the United States Government or any agency thereof. Theviews and opinions of authors expressed herein do not necessarily state or reflect those of theUnited States Government or any agency thereof.
Table 3 Distributive Factors for Bulk Materials – Solids - Gas Processes.................. 41
Table 4 Distributive Factors for Bulk Materials - Liquid and Slurry Systems............ 42
Table 5 Distributive Factors for Bulk Materials - Gas Processes................................ 43
Table 6 Distributive Labor Factors for Setting Equipment ......................................... 44
Table 7 Factors for Converting Carbon Steel to Equivalent Alloy Costs.................... 45
Table 8 Engineering News Record Construction Cost Index ...................................... 47
Table 9 Marshall and Swift Installed-Equipment Index .............................................. 48
Table 10 Nelson-Farrar Refinery Construction Index ................................................... 49
Table 11 Chemical Engineering Plant Cost Index......................................................... 50
1
Abstract
This report presents generic cost curves for several equipment types generated usingICARUS Process Evaluator. The curves give Purchased Equipment Cost as a function ofa capacity variable. This work was performed to assist NETL engineers and scientists inperforming rapid, order of magnitude level cost estimates or as an aid in evaluating thereasonableness of cost estimates submitted with proposed systems studies or proposalsfor new processes. The specific equipment types contained in this report were selected torepresent a relatively comprehensive set of conventional chemical process equipmenttypes.
Background
As part of its mission to identify and develop practical and viable processes for powerproduction, chemicals processing, fuel processing, CO2 capture and sequestration, andother environmental management applications, NETL engineers and scientists need toboth perform order of magnitude cost estimates and evaluate and assess cost estimatescontained in proposals for novel processes. In these applications where process andtechnological specifics are lacking, detailed cost estimates are not justified. Rather,rough estimates that can be obtained relatively quickly are more suitable. There are anumber of tools available to NETL engineers to assist in the performance and evaluationof chemical process equipment cost estimates.
One such tool is ICARUS Process Evaluator (IPE). IPE is a sophisticated and industry-accepted software tool for generating cost estimates, process facility designs, andengineering and construction schedules. The IPE equipment library contains over 320process equipment types. Sizing is performed using common engineering methodologiesfrom intrinsic sizing algorithms. IPE utilizes self-contained equipment, piping,instrumentation, electrical, civil, steel, insulation, and paint sizing and design algorithmsfor a preliminary equipment model that is properly integrated and evaluated for manysafety and operability issues.
When used with appropriate values for the adjustable design and construction parameters,IPE provides a highly detailed and accurate cost estimate. However, the program is verycomplex and both expensive and time consuming to learn and use. Furthermore, IPErequires well-defined process configuration and process parameters that typical proposalsdo not provide. In general, it is not practical or cost-effective to use IPE for theassessment of cost estimates contained in proposals for novel processes or in generatingrough cost estimates from laboratory scale data. Instead, the factored estimationmethodology, a cost-effective methodology widely used in industry, is more suitable forthat application. To leverage the cost information contained within IPE, a series of costcurves for different equipment types were generated. The cost curves and otherinformation contained in this report can then be used to develop the overall process plantcapital cost using the factored estimation methodology.
2
Results and Usage
For this activity, a general file was created in ICARUS Process Evaluator version 5.0 thatcontained several pieces of stand-alone equipment. The specific equipment types wereselected by NETL and intended to represent a relatively comprehensive set ofconventional chemical process equipment types that might be encountered in processesrelevant to CO2 capture and sequestration. Each piece of equipment was then varied insize to generate costs for a spectrum of sizes. The cost versus sizing capacity was plottedfor each equipment type. The data was then regressed to provide smoothed cost curves.
The cost curves for the 31 different types of equipment examined in this report are shownon pages 6 - 40. In addition to the graphs, the applicable design specifications andequipment descriptions are provided as appropriate.
All graphs portray purchased equipment cost data. This total material cost includes:• Internals, shells, nozzles, manholes, covers, etc as noted for each piece equipment.• Vendor engineering, shop drawings shop testing, certification.• Shop fabrication labor (and field labor if field-fabricated).• Typical manuals, small tools, accessories.• Packaging for shipment by land.• FOB Vendor.
The total material cost does not include:• Owner/contractor indirects (engineering, shop inspection, start-up/commissioning).• Packaging for overseas/air shipment, modularization.• Freight, insurance, taxes/duties• Field setting costs (off-loading, storage, transportation, setting, testing)• Installation bulks
The total capital cost of each piece of equipment includes material and labor charges.The material charges include the delivered equipment costs and installation bulk materialcosts. The labor charges include labor for handling and placing bare equipment and laborfor installation of bulk materials.
Installation bulks consist of foundations, structural steel, buildings, insulation,instruments, electrical, piping, painting and miscellaneous. Tables 2 - 5 list distributivepercentage factors that can be used to estimate installation bulk labor and materials fordifferent plant types. 1 The factors vary depending on the type of process and thetemperature and pressure of the system. The bare equipment cost is used as the base toapply the percentage factor for the installation material cost. This installation materialcost is then used as the base to apply the percentage factor for determining the associatedlabor cost involved.
Handling and placing equipment involves unloading, uncrating, mechanical connection,alignment, storage, inspection, and other factors. The costs vary by type and size of
1 AACE Recommended Practices and Standards – “Conducting Technical and Economic Evaluations in theProcess and Utility Industries,” adopted November 1990.
3
equipment. The setting costs can be estimated by using historical work hours or byapplying factors for labor cost as a percentage of delivered equipment cost. Table 6shows approximate factors for setting various types of equipment.1
The total cost for installing a piece of equipment would be the bare equipment cost plusthe setting labor cost plus the installation bulks material and labor costs as determinedfrom the distributive labor percentages. See Appendix A for a detailed example.
Appendix B shows the ICARUS generated purchased/ installed costs of the equipmentused in each chart. All costs in this document are reported in first quarter 1998 dollars.
Assessment
The charts can be used for preliminary purchased equipment cost estimates (i.e. order ofmagnitude estimates with accuracy of +50%/-30% and budget estimates with accuracy of+30%/-15%). Clearly, the charts are most accurate when used for the operatingconditions listed as defaults for each equipment type. Nevertheless, they should providereasonable cost estimates for conditions that contain small or moderate deviations fromthe assumed design conditions. Correlations to correct for deviations in some designvariables, particularly pressure, are available in the literature. Peters and Timmerhaus“Plant Design and Economics for Chemical Engineers” is one such source for correctionfactor data. Without appropriate correction, estimates generated for conditions thatdeviate markedly from those used in this study should be used with caution.
Another limitation is that most of the charts give estimates for equipment manufacturedfrom carbon steel. Conversion factors for converting the carbon steel costs to equivalentalloy costs for a few items of equipment are shown in Table 7.2
As mentioned previously, setting costs can be estimated by using historical data or byapplying factors. It should be noted that the factors do not work well for very largepieces of equipment. If available, historical work hours provide more accurate costs.
Conclusions/Recommendations
This report contains cost curves for various equipment types at specific operatingtemperatures and pressures. These conditions and other design parameters are listed foreach equipment type. When used within the expected design conditions, the costestimates derived from the cost curves contained in this report will provide accurateestimates. The data can also be used to provide reasonableness estimates when the actualdesign conditions are outside the expected values but the level of accuracy cannot bequantified.
2 Perry, Robert H. , and Don W. Green, “Perry’s Chemical Engineers’ Handbook,” The McGraw-HillCompanies, Inc., 1999.
4
To help quantify the error induced by large deviations in the design conditions, it isrecommended that a first-order sensitivity analysis of the cost curves be performed.Another activity that could improve the range of accuracy of the charts would be to runcases with various materials of construction to show how the price is affected. Ifrequested, additional support can be provided to expand the set of equipment typesbeyond those examined in this report. For example, cost data for slurry pumps and solidsconveying equipment would be useful for many of the technologies at NETL.
5
Cost Curves
Vertical Vessel
Description: The vertical process vessel is erected in the vertical position. They arecylindrical in shape with each end capped by a domed cover called a head. The length todiameter ratio of a vertical vessel is typically 3 to 1. Vertical tanks include: process,storage applications liquid, gas, solid processing and storage; pressure/vacuum codedesign for process and certain storage vessel types; includes heads, single wall, saddles,lugs, nozzles, manholes, legs or skirt, base ring, davits where applicable.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: The horizontal vessel is a pressure vessel fabricated according to the rulesof the specified code and erected in the horizontal position. Although the horizontalvessel may be supported by lugs in an open steel structure, the more usual arrangement isfor the vessel to be erected at grade and supported by a pair of saddles. Cylindrical,pressure/vacuum, code design and construction, includes head, single wall (base material,clad/lined), saddles/lugs, nozzles and manholes.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description:Floating Roof: Typically constructed from polyurethane foam blocks or nylon clothimpregnated with rubber or plastic, floating roofs are designed to completely contact thesurface of the storage products and thereby eliminate the vapor space between theproduct level and the fixed roof. Floating roof tanks are suitable for storage of productshaving vapor pressure from 2 to 15 psia.Cone Roof: Typically field fabricated out of carbon steel. They are used for storage oflow vapor pressure (less than 2 psia) products, typically ranging from 50,000 – 1,000,000gallons.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates.
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates, packing not included (see Table 1).
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Pressure/vacuum column includes vessel shell, heads, single base material(lined or clad, nozzles, manholes (one manhole below and above tray stack or packedsection and one manhole every tenth tray or 25 feet of packed height), jacket and nozzlesfor heating or cooling medium, base ring, lugs, skirt or legs; tray clips, tray supports (ifdesignated), distributor piping, plates, packing not included (see Table 1).
Design Basis:1st Quarter 1998 DollarsShell Material: A515(Carbon Steel Plates for pressure vessels for intermediate and higher temperature service)
Description: Shell and tube heat exchanger consists of a bundle of tubes held in acylindrical shape by plates at either end called tube sheets. The tube bundle placed insidea cylindrical shell. The size of the exchanger is defined as the total outside surface areaof the tube bundle. Maximum shell size is 48 Inches.
Design Basis:1st Quarter 1998 DollarsType: Floating Head (BES)/ Fixed Head (BEM)Shell Material: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
Description: Variety of plenum chambers, louver arrangements, fin types (or baretubes), sizes, materials, free-standing or rack mounted, multiple bays and multipleservices within a single bay.
Spira l P late H eat Exchanger Purchased Equipm ent C ost
1,000
10,000
100,000
10 100 1,000 10,000
H eat Transfer Area, S quare Feet
Pu
rch
ased
Co
st, $
18
Furnace
Description: Gas or Oil fired vertical cylindrical type for low heat duty range moderatetemperature with long contact time. Walls of the furnace are refractory lined.
Description: Package boiler unit includes forced draft fans, instruments, controls,burners, soot-blowers, feedwater deaerator, chemical injections system, steam drum, muddrum and stack. Shop assembled.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)Pressure: 250 psigSuperheat: 100 °F
S te a m B o i le r P u rch a se d Eq u ip m e n t C o st
10 ,000
100 ,000
1 ,000 ,000
10 ,000 ,000
1 ,000 10 ,000 100 ,000 1 ,000 ,000
C a p a city , P o u n d s p e r H o u r
Pu
rch
ased
Co
st,
$
21
Evaporators
Description: Standard vertical tube evaporator and standard horizontal tube evaporator.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)Tube Material: Carbon Steel
E vaporators P urchased E quipm ent C ost
1,000
10,000
100 ,000
1,000,000
10 100 1,000 10,000
Area , S quare Feet
Pu
rch
ased
Co
st, $
S tan d ard V ertica l T u b e
S tan d ard H o rizo n ta l T u b e
22
Crushers
Description: All crushers include motor and drive unit.Gyratory: Primary crushing of hard and medium hard materials.Rotary: For course, soft materials.Ring Granulator: For primary and secondary crushing of bituminous andsubbituminous coals, lignite, gypsum and some medium hard minerals.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
C ru s h e rs P u rc h a s e d E q u ip m e n t C o s t
1 ,0 0 0
1 0 ,0 0 0
1 0 0 ,0 0 0
1 ,0 0 0 ,0 0 0
1 0 ,0 0 0 ,0 0 0
1 1 0 1 0 0 1 ,0 0 0 1 0 ,0 0 0
D riv e r P o w e r, H o rs e p o w e r
Pu
rch
ased
Co
st, $
G yra to ry C ru s h e r
R o ta ry C ru s h e r
R in g G ra n u la to r
23
Mills
Description: All units include mill, bearings, gears, lube system and vendor-suppliedinstruments. Ball mill includes initial ball charge.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
M ills P u rc h a s e d E q u ip m e n t C o s t
1 ,0 0 0
1 0 ,0 0 0
1 0 0 ,0 0 0
1 ,0 0 0 ,0 0 0
1 1 0 1 0 0 1 ,0 0 0
D r iv e r P o w e r , H o rs e p o w e r
Pu
rch
ased
Co
st, $ R o lle r M ill
B a ll M ill
24
Dryers
Description:Atmospheric tray batch dryer includes solid materials.Rotary and Drum dryers include motor and drive unit.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
Dryer Purchased Equ ipm ent Cost
1,000
10,000
100,000
1,000,000
1 10 100 1,000 10,000
Area, Square Feet
Pu
rch
ased
Co
st, $
S ingle atm ospheric drum
D irect contact rotary
Atm ospheric tray batch
25
Centrifuges
Description: Centrifuges include motor and drive unit.Reciprocating Conveyor with continuous filtering centrifuge for free-draining granularsolids, horizontal bowl, removal by reciprocating piston.Continuous Filtration Vibratory Centrifuge with solids removal by vibratory screenfor dewatering of course solids.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
C e n tr ifu g e P u rc h a s e d E q u ip m e n t C o s t
1 ,00 0
1 0 ,0 0 0
1 00 ,0 00
1 ,00 0 ,0 0 0
1 1 0 1 00
S c re e n D ia m e te r, In c h e s
Pu
rch
ased
Co
st, $
C o ntinuo us filtra tio n vib ra to ry
R e c ip ro c a ting c o nve y o r
B a tc h to p -s us p e nd e d
B a tc h b o tto m -s us p e nd e d
26
Filters
Description:Cartridge Filter consists of a tank containing one or more disposable cartridges.Contains 5-micron cotton filter.Drum Filter is a vacuum type, multi compartment cylinder shell with internal filtratepiping with polypropylene filter cloth, feed box with inlet and drain nozzles, suctionvalve, discharge trough, driver consisting of rotor, drive motor base plate, worm, gearreducer and two pillow block bearing with supports.
Defaults for Drum Filtermedium filtration rate,0.5 tons per day/ square feet solids handling rate,20% consistency (percent of solids in feed stream).
Tubular Fabric Filters are a bank of three without automatic cleaning option.Plate and Frame Filter default material is rubber-lined carbon steel.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)
Filter Purchased Equipment Cost
100
1,000
10,000
100,000
1,000,000
1 10 100 1,000 10,000
Cartridge and Tubular - Flow Rate, Cubic Feet per M inute; Plate and Frame - Frame Capacity, Cubic Feet;
Drum - Surface Area, Square Feet
Pu
rch
ased
Co
st,
$
Drum filterPlate & Frame filter
Tubular fabric filter
Cartridge filter
27
Agitator
Description: Fixed propeller mixer with motor and gear drive. Includes motor, geardrive, shaft and impeller.
Design Basis:1st Quarter 1998 DollarsMaterial: A285C(Low and intermediate strength carbon steel plates for pressure vessels.)Speed: 1800 RPM
Agitator Purchased Equipment Cost
1,000
10,000
100,000
1 10 100 1,000
Driver Power, Horsepower
Pu
rch
ased
Co
st, $
28
Rotary Pump
Description: Rotary (sliding vanes) pump includes motor driver.
Driver Type: Standard motorSeal Type: Single mechanical seal
Inline Pump Purchased Equipment Cost
1,000
10,000
100,000
1 10 100 1000
Capacity, Gallons per Minute
Pu
rch
ased
Co
st,
$
30
Centrifugal Pump
Description: Single and multistage centrifugal pumps for process or general servicewhen flow/head conditions exceed general service. Split casing not a cartridge or barrel.Includes standard motor driver.
Description: Mechanical oil-sealed vacuum pump includes pump, motor and drive unit.
Design Basis:1st Quarter 1998 DollarsMaterial: Carbon SteelFirst Stage: 0.01 MM HG (Mercury)Second Stage: 0.0003 MM HG (Mercury)
Vacuum Pump Purchased Equipment Cost
1,000
10,000
100,000
10 100 1000
Actual Capacity, Gallons per Minute
Pu
rch
ased
Co
st, $
2 Stages
1 Stage
33
Reciprocating Compressor
Description: Reciprocating compressor with gear reducer, couplings, guards, base plate,compressor unit, fittings, interconnecting piping, vendor-supplied instruments, lube/sealsystem. Does not include intercoolers or aftercoolers and interstage knock-out drums.
Description: This general-purpose blower includes inlet and discharge silencers. Thecasing of the rotary blower is cast iron and the impellers are ductile iron.
Cost indexes are used to update costs from the base time, in this case First Quarter 1998dollars, to the present time of the estimate. Cost indexes are used to give a generalestimate, but can not take into account all factors. Some limitations of cost indexesinclude:3
1. Accuracy is very limited. Two Indexes may yield much different answers.2. Cost indexes are based on averages. Specific cases may be much different from the
average.3. At best, 10% accuracy can be expected for periods up to 5 years.4. For periods over 10 years, indexes are suitable only for order of magnitude estimates.
The most common indexes are Engineering News-Record Construction Cost Index, Table8, (published in the Engineering News-Record), Marshall and Swift Equipment CostIndexes, Table 9, (published in Chemical Engineering), Nelson-Farrar RefineryConstruction Cost Index, Table 10, (published in the Oil and Gas Journal) and theChemical Engineering Plant Cost Index, Table 11, (published in Chemical Engineering).Annual averages for each of these indexes are included in this report.
The Marshall and Swift Equipment Cost Indexes are divided into two categories, the all-industry equipment index and the process-industry equipment index. The indexes takeinto consideration the cost of machinery and major equipment plus costs for installation,fixtures, tools, office furniture, and other minor equipment. The Engineering News-Record Construction Cost Index shows the variation in the labor rates and materials costsfor industrial construction. The Nelson-Farrar Refinery Construction Cost Index usesconstruction costs in the petroleum industry as the basis. The Chemical EngineeringPlant Cost Index uses construction costs for chemical plants as the basis.
Two cost indexes, the Marshall and Swift equipment cost indexes and the ChemicalEngineering plant cost indexes, give very similar results and are recommended for usewith process-equipment estimates and chemical-plant investment estimates. TheEngineering News-Record construction cost index, relative with time, has increasedmuch more rapidly than the other two because it does not include a productivityimprovement factor. Similarly, the Nelson-Farrar refinery construction index has showna very large increase with time and should be used with caution and only for refineryconstruction.4
3 Humphreys, Dr. Kenneth K. PE CCE, "Preliminary Capital and Operating CostEstimating (for the Process and Utility Industries)," course notes.
4 Peters, Max S. and Klaus D. Timmerhaus, "Plant Design and Economics for ChemicalEngineers" McGraw-Hill, Inc. 1991.
47
Table 8Engineering News Record Construction Cost IndexPublished in the Engineering News-Record
The following is an example of the usage of the cost curves and tables to estimate theinstalled cost of a 5,000 square foot gas-gas shell and tube heat exchanger with a designtemperature of 650°F and a design pressure of 150 psig.
From the chart on page 16, the estimated purchased equipment cost is $62,000. FromTable 6, the factor for setting a heat exchanger is 20%. Column 3 of Table 5 is used toestimate the bulk material and labor costs.
Bare cost: $62,000Setting Cost: $62,000*0.2 $12,400Bulk Installations:Foundations
Material $62,000*0.06 $3,720Labor $3,720*1.33 $4,948