SPECIFICATIONS
Tender Documents.pdf - Northern Rockies Regional Municipality
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<strong>SPECIFICATIONS</strong>
FOUNDATION<br />
PLAN<br />
1:50
ROOF FRAMING<br />
PLAN<br />
1:50
Geotechnical Assessment<br />
Airport Terminal Building Addition<br />
Fort Nelson Airport<br />
FORT NELSON, British Columbia<br />
File No.: FN321 27 February 2012<br />
Prepared By:<br />
Harder Associates Engineering Consulting Inc.<br />
P.O. Box 3055<br />
No. 7, 4916 - 50 th Avenue North<br />
Fort Nelson, British Columbia V0C 1R0<br />
Prepared For:<br />
Northern Rockies Regional Municipality<br />
C/O<br />
CJP Architects Ltd.<br />
301 - 6 th Street<br />
New Westminster, British Columbia<br />
V3L 3A7<br />
Distribution List:<br />
CJP Architects Ltd. - 3 Copies<br />
Harder Associates Engineering Consulting Inc. - 3 Copies<br />
NOTICE<br />
ACCESS TO INFORMATION ACT<br />
These documents and the information contained within them are the confidential property of Northern Rockies Regional Municipality<br />
and any disclosure of same is governed by the provisions of each of the applicable provincial or territorial Freedom of Information<br />
legislation, the Privacy Act (Canada) 1980-81-82-83, c.111, Sch. II ”2”, and the Access to Information Act (Canada) 1980-81-82-83,<br />
c.111, Sch. I”1”, as such legislation may be amended or replaced from time to time.
File No.: FN321<br />
Page i<br />
TABLE OF CONTENTS<br />
1.0 INTRODUCTION .................................................................................................... 1<br />
1.1 BACKGROUND .............................................................................................. 1<br />
1.2 OBJECTIVES .................................................................................................. 1<br />
2.0 REVIEW OF PREVIOUS REPORTS ........................................................................ 1<br />
3.0 FOUNDATION RECOMMENDATIONS ................................................................... 2<br />
3.1 SCREW PILES ................................................................................................ 2<br />
3.2 CAST-IN-PLACE CONCRETE PILES ............................................................... 4<br />
3.3 BASEMENT FOOTINGS .................................................................................. 7<br />
4.0 FLOOR RECOMMENDATIONS .............................................................................. 9<br />
4.1 GRADE SUPPORTED FLOORS ........................................................................ 9<br />
4.2 STRUCTURALLY SUPPORTED FLOORS ........................................................ 11<br />
5.0 SULPHATE ATTACK ........................................................................................... 12<br />
6.0 EARTHQUAKE DESIGN PARAMETERS .............................................................. 13<br />
7.0 CLOSURE ............................................................................................................ 14
File No.: FN321<br />
Page ii<br />
LIST OF TABLES<br />
TABLE 3.1: ULTIMATE SKIN FRICTION AND END BEARING RESISTANCE FOR CONCRETE PILES 5<br />
TABLE 3.2: ULTIMATE GEOTECHNICAL RESISTANCE ................................................................. 6<br />
TABLE 4.1: AGGREGATE GRADATIONS .................................................................................... 11<br />
TABLE 6.1: NATIONAL BUILDING CODE INTERPOLATED SEISMIC HAZARD VALUES ............... 14<br />
TABLE 6.2: BRITISH COLUMBIA BUILDING CODE - F A SITE COEFFICIENTS .............................. 14<br />
TABLE 6.3: BRITISH COLUMBIA BUILDING CODE - F V SITE COEFFICIENTS .............................. 14<br />
TABLE 6.4: DESIGN SPECTRAL ACCELERATION VALUES OF S(T) ............................................ 14<br />
APPENDIX A<br />
J.R. Paine & Associates Ltd. Geotechnical Investigation Report
File No.: FN321<br />
Page 1<br />
1.0 INTRODUCTION<br />
1.1 BACKGROUND<br />
Harder Associates Engineering Consulting Inc. (Harder Associates) was retained by<br />
CJP Architects Ltd. (CJP) on behalf of the Northern Rockies Regional Municipality<br />
(NRRM) to conduct a geotechnical assessment and provide foundation and floor<br />
recommendations, based on a previous report, for a washroom addition to the<br />
Terminal Building at the Fort Nelson Airport. The site is located approximately 7.5<br />
kilometres northeast of Fort Nelson, British Columbia.<br />
The proposed single storey addition, washroom facilities, proposed to be constructed<br />
on the north side of the existing Terminal Building, have a proposed footprint of 72.5<br />
m 2 . Due to the small footprint and possible temporary (a new terminal building is<br />
being discussed) nature of the addition, the client requested foundation and slab<br />
recommendations without performing a geotechnical investigation. Therefore, the<br />
recommendations provided in this report are based off a third party geotechnical<br />
investigation performed in 2004.<br />
Harder Associates cannot verify the authenticity of the third party report or that the<br />
subsurface soils in the proposed addition footprint will be similar to those<br />
encountered during the geotechnical investigation.<br />
1.2 OBJECTIVES<br />
The objectives of the geotechnical assessment were to:<br />
<br />
<br />
provide geotechnical recommendations for cast-in-place concrete piles,<br />
screw piles, and concrete footings; and,<br />
provide geotechnical recommendations for floating and structural floor<br />
slabs.<br />
2.0 REVIEW OF PREVIOUS REPORTS<br />
Harder Associates personnel reviewed a report provided by CJP personnel, written by<br />
J.R. Paine & Associates Ltd. titled “Geotechnical Investigation, Light Standard<br />
Supports, Fort Nelson Airport, Fort Nelson, B.C.”, dated April 2004, File No.
File No.: FN321<br />
Page 2<br />
GP6132-2. A brief summary of the information obtained from the referenced report<br />
is as follows:<br />
Three boreholes were drilled between the terminal building and apron on 05<br />
April 2004. The maximum depth of exploration was 9.5 m.<br />
<br />
<br />
Surficial topsoil and asphalt were encountered overlying silty sand and clay<br />
till. The clay till extended to the maximum exploration depth in all three<br />
boreholes.<br />
Seepage was encountered in boreholes BH04-1 and BH04-2 but no sloughing<br />
was encountered during drilling.<br />
The referenced report is included in Appendix A.<br />
3.0 FOUNDATION RECOMMENDATIONS<br />
There is more than one suitable option for the type of foundation system used<br />
however, most foundations systems mobilize their full support and behave<br />
differently. Therefore, the use of several different types of foundations systems to<br />
support the same structure is not recommended. It is recommended that the same<br />
type of foundation supporting the existing terminal building is used to support the<br />
proposed addition.<br />
3.1 SCREW PILES<br />
Lighter foundation loads may be supported by screw anchors. Frost jacking is not an<br />
issue for screw anchors; however, the helix plates/plates must be completely below<br />
the depth of frost penetration, estimated to be 2.5 m at this site.<br />
The desirable depth for screw anchors is 4.5 m. The design for screw anchor piles<br />
having a steel shaft diameter of 127 mm (5 inches) and a helix diameter of 457 mm<br />
(18 inches) is calculated using the following: 1<br />
h h u c h q 0.5 y <br />
<br />
1 Canadian Geotechnical Society, 2006. Canadian Foundation Engineering Manual 4 th<br />
Edition, p. 267.
File No.: FN321<br />
Page 3<br />
Where:<br />
h = Individual helix bearing capacity;<br />
h = Projected helix area (0.1514 m 2 );<br />
u = Undrained shear strength of the soil at helix (80 kPa);<br />
= Unit Weight of the soil (20 kN/m 3 );<br />
h = Depth to helical bearing plate (4.5 m);<br />
= Diameter of the helical plate (0.457 m); and,<br />
c , q y Bearing capacity factors for local shear conditions 2 (N c =31, N q =21,<br />
N y =10).<br />
Generally, across the site using an average undrained shear strength of 80 kPa, Q h =<br />
669 kN. The total capacity of the helical pile equals the bearing capacity of the soil<br />
applied to the individual helical plate(s) plus the skin friction of the shaft. Therefore,<br />
the total bearing capacity of the screw anchor with a shaft diameter exceeding 100<br />
mm is:<br />
Q f is calculated as:<br />
h f<br />
f s<br />
Where:<br />
= Diameter of the pile shaft (0.457 m);<br />
= Height from helix plate to top of soil in skin friction area (0.6 m and 1.9 m); and,<br />
F s = Skin friction of soil in h area (50 kPa and 54 kPa).<br />
Generally, across the site using an average undrained shear strength of 80 kPa, Q f =<br />
53 kN for a 4.5 m long screw pile.<br />
Using the above formula, the following outlines the bearing capacities:<br />
<br />
<br />
A single helix pile will have an ultimate load capacity of 722 kN;<br />
A double helix pile will have an allowable load capacity of 1171 kN;<br />
<br />
2 Das, Braja M., Principles of Foundation Engineering 6 th Edition, pg. 133. Values<br />
taken from Table 3.3.
File No.: FN321<br />
Page 4<br />
<br />
<br />
<br />
For double helix piles the minimal spacing between the helixes is three<br />
times the diameter of the largest helix (in this case 1.4 m);<br />
The minimal spacing between single helix screw piles is three times the<br />
diameter of the helix (in this case 1.4 m); and,<br />
The design for screw anchor piles having different dimensions than the one<br />
mentioned above can be provided on request.<br />
The factored geotechnical screw pile resistance is given as follows:<br />
ɸR n<br />
where:<br />
ɸ is the geotechnical resistance factors as follows:<br />
ɸ = 0.4 for axial compression piles; and,<br />
ɸ = 0.3 for axial tension (uplift) piles.<br />
Screw anchors may be installed in frozen soil. Screw anchors are a favourable<br />
foundation system for structures with lighter loads. These anchors are provided on a<br />
design-build basis. We recommend the anchor designs be prepared or reviewed by a<br />
qualified geotechnical engineer.<br />
3.2 CAST-IN-PLACE CONCRETE PILES<br />
Augered, cast-in-place concrete piles are an ideal system to support the proposed<br />
structure at this site.<br />
Our specific design criteria and recommendations for these foundation systems are as<br />
follows:<br />
1. Pile foundation loads may be supported on piles designed as straight shaft or end<br />
bearing cast-in-place concrete piles.<br />
2. Ultimate values for the design of skin friction and end bearing cast-in-place<br />
concrete piles are presented in Table 3.1:
File No.: FN321<br />
Page 5<br />
TABLE 3.1: ULTIMATE SKIN FRICTION AND END BEARING RESISTANCE FOR<br />
CONCRETE PILES<br />
Depth Below<br />
Existing<br />
Grade (m)<br />
0.0 to 2.0<br />
Soil Type<br />
Topsoil / Silty<br />
Sand<br />
End Bearing<br />
Resistance (kPa)<br />
Ultimate<br />
Skin Friction<br />
Resistance (kPa)<br />
-* 0<br />
2.0 to 2.6 Silty Sand -* 50<br />
Below 2.6 Clay Till 720 54<br />
*Not recommended<br />
The factored 3<br />
follows:<br />
geotechnical cast-in-place concrete pile resistance is given as<br />
ɸR n<br />
where:<br />
ɸ is the geotechnical resistance factor as follows:<br />
ɸ = 0.4, for axial compression piles; and,<br />
ɸ = 0.3, for axial tension (uplift) piles.<br />
R n is the ultimate geotechnical resistance and is determined as shown in Table<br />
3.2.<br />
<br />
3 Canadian Geotechnical Society, 2006. Canadian Foundation Engineering Manual, 4 th<br />
Edition, P. 136.
File No.: FN321<br />
Page 6<br />
TABLE 3.2: ULTIMATE GEOTECHNICAL RESISTANCE<br />
Depth (m)<br />
R n<br />
0.0 to 2.0 Nil<br />
2.0 to 2.6 50*A s<br />
Below 2.6<br />
720*A p + 54*A s<br />
Where:<br />
R n = ΣR n 0.0 m to 2.0 m + ΣR n 2.0 m to 2.6 m + ΣR n > 2.6 m<br />
and<br />
A p is the area of the pile tip (m 2 ); and,<br />
A s is the area of the pile shaft (m 2 ).<br />
The skin friction contribution of the upper 2.0 m of pile below finished grade<br />
should be ignored in the determination of pile capacity.<br />
3. Construct all piles, even lightly loaded piles, with tip depths three times the<br />
depth of seasonal frost penetration to provide sufficient pull out resistance to<br />
potential frost jacking. The frost penetration for exterior concrete piles is<br />
estimated at 2.5 m; therefore, the minimum pile tip depth will be 7.5 m.<br />
4. Typically, belled piles are used to support heavier loads than straight-shaft piles.<br />
In order to derive the design bearing capacity, the base of any belled pile must<br />
be at least five bell diameters below finished surface, or at least 4.0 m below<br />
ground surface in the clay till, whichever depth is greater. End bearing, belled,<br />
cast-in-place concrete piles formed in the clay till may be designed for an<br />
ultimate end bearing of 720 kPa. There is no skin friction contribution in<br />
calculating the capacity of belled piles.<br />
5. The bell base must be at least 200 mm high and the roof of the bell must be no<br />
steeper than 60 degrees, measured from horizontal.<br />
6. Seepage was encountered during borehole drilling so seepage or sloughing will<br />
occur during pile excavations. Casing will be required if seepage or sloughing is
File No.: FN321<br />
Page 7<br />
encountered. Cobbles and boulders are commonly found in till, were visible at<br />
surface, and may cause problems during excavation.<br />
7. During construction, steel reinforcement and concrete must be placed<br />
immediately following pile drilling (and belling if undertaken). Water or slough<br />
must be immediately pumped or otherwise removed prior to placement of<br />
concrete. As such, the immediate placement of concrete following drilling and<br />
belling can improve construction progress and quality of pile construction.<br />
8. Pile shafts must be adequately reinforced to withstand the imposed stresses.<br />
9. Place a void-forming material with a thickness of at least 150 mm beneath grade<br />
beams, foundation concrete or other structural elements supported by piles (all<br />
pile types) to prevent uplifting by soil heaving.<br />
10. The building design must allow no load transfer from stable building elements<br />
supported by the pile and grade beam foundation to potentially vertically<br />
moving building elements supported by the soil or grade supported floors.<br />
3.3 BASEMENT FOOTINGS<br />
Basement footings founded at depths below 2.5 m will likely not be subject to<br />
movements by frost. Footings founded above this depth are subject to movement by<br />
frost, and therefore, will require insulation and heating to prevent frost penetration<br />
below the footing. The recommended insulation configuration for footings above<br />
2.5 m can be provided if required. Temporary structures or structures tolerant to<br />
some movement may be placed on footings at depths within 2.5 m of finished grades.<br />
The following recommendations are made for shallow footings:<br />
1. The footings must be founded on undisturbed native soil. No footings should<br />
be constructed on fill or topsoil.<br />
2. Excavate and remove all topsoil and fill to expose undisturbed native soil as<br />
the founding stratum for footings.<br />
3. Prepare the founding surface by removing any pockets of soft or organic soil<br />
to a uniform bearing surface. The founding surface must be maintained in an<br />
undisturbed state. The surface should not be left exposed to the environment<br />
which could result in wetting, softening or drying.
File No.: FN321<br />
Page 8<br />
<br />
4. In areas beneath footings, excavate to expose the founding stratum below the<br />
footing level. Backfill over-excavated areas below the footing with concrete.<br />
5. The footings must be adequately reinforced to distribute the applied loads<br />
and also have sufficient stiffness to distribute local overstresses.<br />
6. Design footings for an allowable bearing pressure of 160 kPa for the silty<br />
sand and clay till. The minimum width for a footing as required by the<br />
applicable building code must be used in design regardless of bearing<br />
capacity considerations.<br />
7. A qualified geotechnical engineer should inspect all footing bearing surfaces<br />
prior to casting footings.<br />
8. Granular backfill for non-basement footings is not recommended because<br />
frost penetration is greater in granular soils than in clayey soils. In cases<br />
where the footing supports a basement wall however, granular backfill is<br />
preferred because it provides better subsurface drainage on the exterior of the<br />
basement wall (lowers the hydrostatic pressure) and tends to settle less than<br />
uncompacted clayey soil backfill. Where granular backfill of basement walls<br />
is used, insulation boards may be required above the footings to prevent frost<br />
penetration below the footing.<br />
9. Settlement of the footings will be less than 25 mm total or differential for the<br />
allowable bearing pressures recommended herein.<br />
Basement and retaining walls must be designed to support the horizontal loads<br />
imposed by the earth behind the wall. If the backfill behind the walls cannot be fully<br />
drained, the hydrostatic forces from impounded water must be added to the wall<br />
loads. Any surcharge loading at the top of these walls, such as parked vehicles, must<br />
be included in the wall loading. The structural design of these walls must provide<br />
mechanisms to prevent leakage, such as water stops and planned shrinkage joints to<br />
minimize random cracking. The exterior of the walls require heavy water proofing<br />
materials.<br />
Place a minimum 600 mm of impermeable clay soil at surface to reduce surface<br />
infiltration into the granular backfill. Provide factory installed geotextile wrapped<br />
plastic perforated subdrain pipes around the base of the basement or retaining wall.<br />
Provide for gravity discharge of the subdrain pipe to a frost-free sump, which is<br />
drained by gravity or level activated pumping.
File No.: FN321<br />
Page 9<br />
The soil properties to use in the design of the basement and retaining walls are<br />
provided in Appendix A.<br />
4.0 FLOOR RECOMMENDATIONS<br />
4.1 GRADE SUPPORTED FLOORS<br />
Our recommendations for a grade supported floor slab are as follows:<br />
1. Excavate the existing subgrade soils below the proposed floor slab to<br />
undisturbed, native silty sand. Construction on fill material of unknown quality<br />
and composition can result in uneven settlement or heave. Remove all topsoil<br />
from the floor area during subgrade preparation. Remove all loose soil and<br />
debris. Soft, wet areas, which do not have sufficient trafficability for<br />
construction purposes, should be further excavated and replaced with the pit run<br />
sand or gravel that complies to the specifications in Table 4.1.<br />
2. Scarify and uniformly compacted the upper 200 mm of the subgrade to a<br />
minimum 95% of its maximum dry density as determined by test ASTM D698.<br />
Adjust the water content of the subgrade to within 2.0% wet of the optimum<br />
water content.<br />
3. Any fill material required to raise the grade before construction of the grade<br />
supported floor should be a non-frost active granular soil. Place the structural<br />
fill in lifts not exceeding 150 mm uncompacted thickness and compact to a<br />
minimum 95% of its SPDD as determined by test ASTM D698. Adjust the<br />
water content of the subgrade clay to within 2.0% of the optimum water content.<br />
4. Place 25 mm crushed granular base course, which complies with the<br />
specifications as shown on Table 4.1 and 150 mm thick, on the compacted<br />
subgrade or sub-base. The granular base should be compacted to a minimum<br />
98% of its SPDD as determined by test ASTM D698 using a vibratory<br />
compactor. Water may be used as a compaction aid.<br />
5. Install a layer of polyethylene sheeting 150 m (minimum) thick between the<br />
granular base and the concrete slab to prevent the migration of moisture through<br />
the floor.
File No.: FN321<br />
Page 10<br />
6. Care must be taken during the installation of water and sewer lines to ensure that<br />
any leaks will drain to a sump and will not collect under the floor slab.<br />
7. The building design must allow no load transfer from stable building elements<br />
supported by the foundation to potentially vertically moving building elements<br />
supported by the soil or grade supported floors.<br />
8. Provide positive site drainage away from the building. Minimum slopes of at<br />
least 2% are recommended. Down spouts must have extensions to direct their<br />
flow to discharge points at least 2.0 m away from the building face and<br />
discharge to an area with clearly defined drainage away from the building.<br />
9. Provide separation boards between the floor slab and any footing-supported<br />
structures. This separation prevents load transfer from the moving floor to the<br />
stable, footing supported structure.<br />
10. ABSOLUTELY DO NOT place reinforcing steel to connect the grade supported<br />
floor slab to the edge of the footing. Such reinforcement has two consequences.<br />
First, there will be a major crack and fault in the floor along a line parallel to the<br />
grade beam face at exactly the end of the connecting steel. Second, a strongly<br />
reinforced connection can rotate the top of the footing outward as the floor<br />
adjacent heaves. Structural damage, such as the displacement and pop out of<br />
plate glass windows, has been observed.<br />
11. Use sleeves through the grade-supported floor slab and telescoping or collapsing<br />
connections for all pipes passing through or supported by the grade-supported<br />
floor.<br />
12. Review the building design to identify and revise any construction details which<br />
allow load transfer from moving grade-supported building elements to stable<br />
structurally supported building elements.
File No.: FN321<br />
Page 11<br />
TABLE 4.1: AGGREGATE GRADATIONS<br />
Sieve Size<br />
% Passing For Nominal Maximum Size<br />
(mm)<br />
25 mm (Base Course) 75 mm (Sub-base Course)<br />
75 --- 100<br />
25 100 ---<br />
19 80 – 100 15 – 100<br />
9.5 50 – 85 0 – 100<br />
4.75 35 – 70 ---<br />
2.36 25 – 50 ---<br />
1.18 15 – 35 ---<br />
0.6 --- 0 – 100<br />
0.3 5 – 20 0 – 15<br />
0.075 0 – 5 0 – 5<br />
NOTE: 2009 Standard Specifications for Highway Construction, Ministry of Transportation and<br />
Infrastructure, Section 202, Table 202-C.<br />
4.2 STRUCTURALLY SUPPORTED FLOORS<br />
Where heaving or settlement will have unacceptable impacts on floor serviceability,<br />
local areas of structurally supported floors should be provided. For example,<br />
structural floors are often placed below the door swing areas of external doors.<br />
Alternatively, ensure that the top of floor slabs below the exterior door swing is at<br />
least 150 mm below the underside of the door. Floor slabs can heave to block the<br />
swing of doors that are structurally supported by perimeter grade beams.<br />
Our recommendations for structurally supported floors are as follows:<br />
1. The floor should be designed to derive its support structurally from the pile and<br />
grade beam foundation system.<br />
2. The void or crawl space must be a minimum 150 mm below the underside of the<br />
floor slab.<br />
3. If a crawl space is used, provision must be made for accumulated waters to drain<br />
to a frost-free sump by sloping the crawl space floor. Additionally, the soil<br />
below the crawl space should be covered with 150 m polyethylene sheeting<br />
held in place by at least 50 mm of sand. Alternately, a thin concrete mud floor<br />
may be used on the bottom of the crawl space. Ventilation must be provided to
File No.: FN321<br />
Page 12<br />
the crawl space during the non-freezing season to remove moisture<br />
accumulations. It is desirable to design the ventilation system with vents that<br />
may be closed with insulated covers during freezing weather.<br />
Void form systems that rely on the decomposition of an organic void forming<br />
material should be avoided.<br />
5.0 SULPHATE ATTACK<br />
No testing was conducted for water-soluble sulphate contents. As the sulphate<br />
content is unknown, Harder Associates would recommend that the concrete be<br />
designed for severe sulphate levels (Class S-2) with sulphate resistant Portland<br />
Cement (Type 50) having a minimum specified 28-day compressive strength of 32<br />
MPa and a maximum water-cement ratio of 0.45 (see Table 3 in CAN/CSA A23.1-<br />
2009). Calcium chloride or any other admixture containing chlorides should not be<br />
used since the sulphate resisting property of the cement would be reduced. Calcium<br />
salts used as an accelerating admixture should also be avoided as they may increase<br />
the severity of sulphate attack.<br />
If Portland Cement (Type 50) is unavailable or cannot be used due to adverse<br />
construction considerations, then Type 10 cement in combination with 30% by mass<br />
of cement (a little less that 30% by mass of cementing materials) of a Type F or CI<br />
fly ash, is expected to produce sulphate resistance equivalent or superior to concrete<br />
made with a Type 50.<br />
Such concretes have demonstrated good performance in CSA A23.1-09 Table 3 S-1,<br />
S-2 and S-3 sulphate exposure environments. The technical basis for this practice<br />
had its origins in work done by HBT, AGRA Limited and AGRA Earth &<br />
Environmental Ltd in the late 1980’s for the major cement companies in British<br />
Columbia. Referenced publications are:<br />
Sulphate Resistance of Different Types of Portland Cements with and without<br />
Supplementary Cementing Materials by D. Hatch and D.R Morgan<br />
Supplying Concrete for Sulphate Conditions by Mark Stewart
File No.: FN321<br />
Page 13<br />
To enhance durability, an appropriate amount of air entrainment as per CSA<br />
Specification CAN/CSA A23.1-2009, Clause 4.3.3 and Table 4, is also recommended<br />
for all concrete exposed to freezing and thawing at this site.<br />
There may be other design criteria or exposure conditions as outlined in Tables 11<br />
and 14 of CSA A23.1-2009 that could necessitate additional requirements for<br />
subsurface concrete.<br />
If concrete construction proceeds during the winter, Harder Associates recommends<br />
that the concrete be manufactured and placed in a manner that complies with the cold<br />
weather provisions of CSA Concrete Specifications CAN/CSA-A23.1. This<br />
includes:<br />
<br />
<br />
<br />
<br />
using a minimum concrete temperature of 10 degrees Celsius;<br />
heating formwork and reinforcing steel to at least 10 degrees Celsius prior to<br />
placing concrete;<br />
heating and hoarding the concrete as soon as practicable after the concrete is<br />
placed and maintaining the temperature of concrete made to CSA exposure<br />
class S-2 at 10 degrees Celsius for a period of at least 7 days or for the time<br />
necessary to attain 70% of the specified design strength; and,<br />
removing the protection at an appropriate rate at the end of the curing period<br />
to avoid cracking the concrete due to sudden temperature change.<br />
6.0 EARTHQUAKE DESIGN PARAMETERS<br />
The soils at the site are generally clay fill overlying clay till. Pertinent seismic data 4<br />
for the proposed office building is provided in Table 6.1 through 6.4, inclusive.<br />
<br />
<br />
The undrained shear strength is: 50 kPa > S u > 100 kPa;<br />
Site Classification for Seismic Response is Site Class “D” with a<br />
corresponding Average Shear Wave Velocity of 180 m/s < Vs < 360 m/s;<br />
<br />
4 Data was obtained from the Geological Survey of Canada and The British Columbia<br />
Building Code, 2006.
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Page 14<br />
Seismic Data which has a 2% probability of exceedance in 50 years for Fort Nelson<br />
is as follows:<br />
TABLE 6.1: NATIONAL BUILDING CODE INTERPOLATED SEISMIC HAZARD<br />
VALUES<br />
S a (0.2) S a (0.5) S a (1.0) S a (2.0) PGA (g)<br />
0.095 0.058 0.033 0.021 0.039<br />
The acceleration- and velocity-based site coefficients F a and F v , for Site Class “D”<br />
shall be as follows:<br />
TABLE 6.2: BRITISH COLUMBIA BUILDING CODE - F A SITE COEFFICIENTS<br />
S a (0.2) ≤ 0.25 S a (0.2) = 0.50 S a (0.2) = 0.75 S a (0.2) = 1.00 S a (0.2) ≥ 1.25<br />
1.3 1.2 1.1 1.1 1.0<br />
TABLE 6.3: BRITISH COLUMBIA BUILDING CODE - F V SITE COEFFICIENTS<br />
S a (1.0) ≤ 0.1 S a (1.0) = 0.2 S a (1.0) = 0.3 S a (1.0) = 0.4 S a (1.0) ≥ 0.5<br />
1.4 1.3 1.2 1.1 1.1<br />
The design spectral acceleration values of S(T) shall be as follows:<br />
TABLE 6.4: DESIGN SPECTRAL ACCELERATION VALUES OF S(T)<br />
T<br />
S(T)<br />
T ≤ 0.2 s 0.124<br />
T = 0.5 s 0.081<br />
T = 1.0 s 0.046<br />
T = 2.0 s 0.029<br />
T ≥ 4.0 s 0.015<br />
7.0 CLOSURE<br />
<br />
Harder Associates Engineering Consulting Inc. prepared this report for the use of the<br />
Northern Rockies Regional Municipality and their agents for the geotechnical<br />
assessment and foundation recommendations for an addition to the terminal building
File No.: FN321<br />
Page 15<br />
of the Fort Nelson Airport located approximately 7.5 Km northeast of Fort Nelson,<br />
British Columbia. The contents herein reflect Harder Associates’ best judgment<br />
available to it at the time of preparation with recommendations provided based on the<br />
soil parameters outlined in J.R. Paine & Associates Ltd. report. Any use which a<br />
third party makes of this report, or any reliance on or decisions to be made based on<br />
it, are the responsibility of such third parties. Harder Associates Engineering<br />
Consulting Inc. accepts no responsibility for damages, if any, suffered by any third<br />
party as a result of decisions made or actions based on this report.<br />
This report has been prepared in accordance with generally accepted engineering<br />
practice common to the local area. No other warranty, expressed or implied is made<br />
as Harder Associates can not verify the contects of J.R. Paine & Associates Ltd.’s<br />
report and can provide no assurance the subsurface soil conditions will be similar to<br />
those encountered in the referenced geotechnical report.<br />
Our conclusions and recommendations are based upon the information obtained from<br />
a third party report. If variations or other latent conditions do become evident,<br />
Harder Associates Engineering Consulting Inc. should be notified immediately so<br />
that we may re-evaluate our conclusions and recommendations. Although surface<br />
conditions have been explored, we have not conducted the investigations, sampling,<br />
laboratory testing and can not verify the results. The subsurface soil conditions may<br />
also differ between the proposed addition footprint and the location of the boreholes.<br />
This report contains the results of our review as well as certain recommendations<br />
arising out of such review. Our recommendations do not constitute a design, in<br />
whole or in part, of any of the elements of the proposed work. Incorporation of any<br />
or all of our recommendations into the design of any such element does not constitute<br />
us as designers or co-designers of such elements, nor does it mean that such design is<br />
appropriate in geotechnical terms. The designers of such elements must consider the<br />
appropriateness of our recommendations in the light of all design criteria known to<br />
them, many of which may not be known to us. Our mandate has been to investigate<br />
and recommend which we have completed by means of this report. We have had no<br />
mandate to design, or review the design of any elements of the proposed work and<br />
accept no responsibility for such design or design review.
File No.: FN321<br />
Page 16<br />
Yours truly,<br />
Harder Associates Engineering Consulting Inc.<br />
Joshua Wilson, E.I.T.<br />
Project Engineer<br />
Ian H. Harder, P. Eng.<br />
V.P. N.E. B.C. & Northern AB.
Appendix A
J.R. Paine &Associates<br />
Ltd.<br />
FILE NO: GP6132-2<br />
I<br />
I<br />
I<br />
I<br />
GEOTECHNICAL INVESTIGATION<br />
LIGHT STANDARD SUPPORTS<br />
FORT NELSON AIRPORT<br />
FORT NELSON, B.c.<br />
I<br />
I<br />
I<br />
I<br />
I<br />
I<br />
I<br />
I<br />
I<br />
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I<br />
April, 2004<br />
J.R. PAINE & ASSOCIATES LTD.<br />
11020-89 Avenue<br />
GRANDE PRAIRIE, Alberta<br />
T8W 4W4<br />
PHONE:<br />
FAX:<br />
(780) 532-1515<br />
(780) 538-2262<br />
I
J.R. Paine &Associates Ltd.<br />
FILE NO: GP6132-2<br />
GEOTECHNICAL INVESTIGATION<br />
PROPOSED LIGHT STANDARDS<br />
FORT NELSON AIRPORT<br />
FORT NELSON, B.c.<br />
CHAPTER<br />
INTRODUCTION<br />
SITE DESCRIPTION<br />
FIELD INVESTIGATION<br />
LABORATORY TESTING<br />
TABLE OF CONTENTS<br />
PAGE<br />
1<br />
1<br />
2<br />
2<br />
SUBSURFACE<br />
SOIL CONDITIONS<br />
3<br />
RECOMMENDATIONS<br />
CLOSURE<br />
3<br />
5<br />
APPENDIX<br />
Site Plan, Testhole Logs, Test Data Sheets
~<br />
J.R. Paine &Associates Ltd.<br />
GEOTECHNICAL<br />
INVESTIGATION<br />
PROJECT:<br />
LOCATION:<br />
CLIENT:<br />
Proposed Light Standards<br />
Fort Nelson Airport<br />
Fort Nelson, RC.<br />
XTC ENGINEERING LTD.<br />
96 Lancaster Drive<br />
EDMONTON, Alberta<br />
T8N 2N8<br />
Attention: Stan Kolomyjec<br />
INTRODUCTION<br />
This report presents the results of the geotechnical investigation undertaken for the<br />
proposed light standards upgrade at the Fort Nelson Airport near Fort Nelson, Rc. The new<br />
standards will be replacing existing lighting situated on the airside of the main terminal building,<br />
between the building and apron. A total of 3 light standards will be replaced. It is understood<br />
that few details with respect to the method, size, and condition 0 f the existing 1ight standard<br />
foundation supports are known. At this time, it is understood that new foundations will be<br />
constructed for the new lighting. The easiest and least intrusive method of foundation would<br />
appear to be a pile foundation system.<br />
FIELD INVESTI GATI0 N<br />
. The field investigation for this project consisted of drilling and sampling 3 deep testholes<br />
within each existing light standard. Testhole 04-1 was located at the center standard. Testholes<br />
04-2 and 04-3 were located at the north end standard and south end standard respectively. The<br />
testholes were drilled to depths of 9.5m (Testhole 04-1), and to 6.Om(Testholes 04-2 and 04-3).
J.R. Paine &Associates Ltd. 2<br />
The deep testholes were placed to establish a continuous soil profile complete with strength<br />
parameter testing for foundation design requirements.<br />
The field investigation was undertaken utilizing a truck-mounted soils testing drill unit.<br />
All boreholes were advanced with l50mm diameter solid stem augers in 1.5m depth increments.<br />
A continuous log of the soils encountered was maintained on site during the drilling operation of<br />
each testhole. Noted were soil types, transitions, color, plasticity, relative moisture, consistency,<br />
inclusions, and any other notable physical feature. The auger cuttings were sampled at 0.75m<br />
depth intervals for laboratory analysis. Standard penetration tests were performed at regular<br />
intervals of 1.5m in TH04-l. Upon completion of the drilling program all testholes were<br />
backfilled with drill cuttings.<br />
LABORATORY TESTING<br />
All samples removed from the augers were submitted to the J.R. Paine and AssoCiates<br />
I<br />
Ltd. Grande Prairie laboratory for routine indice testing. All samples were tested for m6isture<br />
content. From these, selected sand samples were processed for grain size distribution. ..J single<br />
sample of clay was tested for liquid limit and plastic'limit determination.<br />
SUBSURFACE SOIL CONDITIONS<br />
For a detailed description of the soils encountered and testing performed specific to each<br />
testhole location, refer to the testhole logs attached. Sod and topsoil, l50mm in thickness, was<br />
encountered at Testholes 04-1 and 04-3. Testhole 04-2 was placed in a paved area revealing<br />
60mm of ACP structure. No gravel was encountered beneath the ACP.<br />
The native inorganic soils encountered at this site initiated with a sand deposit. The sand<br />
exhibited 15% to 32% silt based upon the results of 2 sieve analysis (attached). The sand was of<br />
fine to medium grain size.<br />
A standard penetration test (SPT) 'N' value of 16 blows per 300mm<br />
denoted a sand of medium density. The sand stratum was, primarily, in a damp state although a<br />
zone of saturation was encountered at the bottom of the deposit (where situated directly above<br />
the base clay soils). The sand terminated at depths of2.0m to 2.6m below the ground surface.<br />
The base deposit encountered to full termination depth of all testholes was a glacial<br />
deposit of clay till. The till was characteristically a dense silty clay base deposit exhibiting a<br />
sandy texture and containing occasional pebble to gravel size stones. Liquid limit and plastic
J.R. Paine &Associates Ltd. 3<br />
limit test results of 30% and 14% respectively denote a clay of low to medium plasticity.<br />
Moisture content values were in the mid to upper teen range. Standard penetration test results of<br />
12 blows per 300mm penetration to 16 blows per 300mm penetration denote a clay of stiff<br />
consistency.<br />
Some minor free water seepage was encountered during the advancement of TH04-1 and<br />
TH04-2. The water was dribbling into these testholes at the sand-clay interface, 2.5m to 2.6m<br />
below the ground surface. No significant accumulation of water was encountered at the end of<br />
drilling. No testhole sloughing was encountered.<br />
RECOMMENDATIONS<br />
The soil conditions encountered at this site are considered to be suitable for bored, castin-place<br />
concrete piles.<br />
The lighting standards will subject the piles to both lateral loads and<br />
vertical loads. The following design parameters may be applied to the pile sizing and reinforcing<br />
requirements:<br />
Table A Pile Design Parameters<br />
---<br />
Soil Property " Sand Clay Till<br />
Shaft Friction!Adhesion 20 kPa 20 kPa<br />
--..--..--------.....--..----..----..-----------------...-..------..--..<br />
!?~~!_!:!~~!__~~i~~!~(YQ !_~_..~~!~~ ?g-~~!~=_.._......<br />
Undrained Shear Strength, (Su)<br />
1<br />
- ....--..------------- 80 kPa<br />
Strain at 50% Su 0.007<br />
--...-..---------......------....<br />
_!?!~~~!~?~!~_?f!'.~~~!~?_~~J
I<br />
- ~<br />
J.R. Paine &Associates Ltd. 4<br />
the concrete placement.<br />
All holes should be carefully inspected to ensure that no water or slough<br />
material is present in the hole during concrete placement. Casing for piles and should be readily<br />
available on site to accommodate sloughing conditions or an excess of ingressing ground water.<br />
It is recommended that all piles be adequately reinforced. Concrete for all piles should be<br />
adequately compacted. The pile concrete should be placed as soon as possible after the pile has<br />
been bored.<br />
Screw piles may be considered as an alternative to conventional bored, cast-in-place<br />
concrete piles. It will be difficult to install screw piles through the frozen ground surface. An<br />
allowable soil end bearing value of 200 kilopascals (Clay Till) may be applied to the size<br />
selection calculations of individual screw piles. This value includes the total of all live and dead<br />
loads. If multiple helixes are utilized for individual screw piles, vertical spacing of the helixes<br />
should be at least 5 helix diameters. The bearing depth of the screw piles should be at least 4.6m<br />
below the ground surface. Where multiple helixes are utilized, the upper most helix must be<br />
situated at least I.8m below the ground surface. Lateral spacing between screw piles should be<br />
no less than 4 helix diameters. Pile groupings have not been considered. It is recommended that<br />
torque values measured during the installation process not be used as an estimate of the<br />
geotechnical capacity of the pile. Individual screw piles are not recommended for supporting<br />
laterally loaded structures.<br />
-
~<br />
.I<br />
.<br />
~<br />
J.R. Paine &Associates Ltd. 5<br />
CLOSURE<br />
This report is prepared for the exclusive and confidential use of XTC Engineering Ltd.<br />
and applies only to the subject project. The recommendations given are based on the subsurface<br />
soil conditions encountered during testhole boring, current construction techniques, and generally<br />
accepted engineering practices. No other warrantee, expressed or implied, is made. Due to the<br />
geological randomness of many soil formations, no interpolation of soil conditions between or<br />
away from the testholes has been made or implied. Soil conditions are known only at the test<br />
boring locations. Should other soils be encountered during construction 0 r 0 ther information<br />
III<br />
11<br />
"<br />
pertinent to the structures become available, the recommendations<br />
writing by the undersigned.<br />
may be altered or modified in<br />
We trust this information to be satisfactory. If you should have any further questions,<br />
please contact our office.<br />
Yours truly,<br />
J.R. PAINE & ASSOCIATES LTD.<br />
AL/aIlSOIL366<br />
Al Lang, P. Eng.<br />
11
[<br />
J.R. Paine &Associates Ltd.<br />
6<br />
APPENDIX<br />
11
I<br />
J.R. Paine &Associates Ltd.<br />
drawing light standards (1728x2146x2<br />
tiff)<br />
\)<br />
Cl<br />
:;z:<br />
!if<br />
;;j<br />
t<br />
(<br />
.'w ~.~<br />
t-<br />
TESTHOLE 04-1 ~<br />
. r J it<br />
n~I<br />
TESTHOLE 04-3<br />
.-/~ ~<br />
MAIN TERMINAL BUILDING<br />
--, ""
~<br />
PROJECT: Ft. NelsonAirportLight Stands CenterLightStandard TESTHOLENO: 04- 1<br />
CLIENT:XTCEngineeringLtd. WestSideof TerminalBuilding PROJECTNO:GP6132-2<br />
DRillER:FRONTIERENYIRO-DRllLlNG LTD.<br />
ELEVATION:<br />
SAMPLETYPE .DISTURBED I2J SP.T. [;g] LOSTSAMPLE a CHEM. ANALYSIS[illA-CASING [JJ SHELBYTUBE<br />
--' w<br />
:z:<br />
0<br />
-----<br />
-----<br />
OD-<br />
E<br />
E Soil<br />
§ji'= TEST :z:<br />
:z:<br />
:c<br />
>-w<br />
0<br />
(J) --'<br />
w
-'"<br />
I<br />
I<br />
PROJECT:Ft. Nelson Airport Light Sjands North light Standard TESTHOLENO: 04-2<br />
CUENT:XTCEngineering Ltd. West Side of Terminal Building PROJECTNO: GP6132-2<br />
DRillER: FRONTIERENVIRO-DRILUNGlTD.<br />
ELEVATION:<br />
SAMPLETYPE .DISTURBED [ZI S.PJ. kZJ LOSTSAMPLE 8 CHEM.ANALYSIS DJ] A-CASING [[] SHEL8YTUBE<br />
--.J w Z ---.<br />
0<br />
---.<br />
0 0- E<br />
E<br />
Soil<br />
TEST :z:<br />
:c<br />
>-w 0<br />
V) --.J w
~<br />
I<br />
PROJECT: Ft. NelsonAirportLight Steads SouthLight Standard TESTHOLENO: 04-3<br />
CLIENT:XTCEngineeringLtd. WestSideof TerminalBuilding PROJECTNO: GP6132-2<br />
DRIUIR:FRONTIERENVIRO-DRILLlNG LTD.<br />
ELEVATION:<br />
SAMPLETYPE .DISTURBED [Z] S.P.I [ZJ LOSTSAMPLE El CHEM.ANALYSIS []] A-CASING m SHELBYTUBE<br />
:z:<br />
-I .--....<br />
W<br />
0<br />
.--.... 00....<br />
E<br />
E Soil TEST<br />
:Z:<br />
!z;=;<br />
::r:<br />
>-w<br />
0<br />
(/) -I W4:<br />
r- CI<br />
0.... Pt...AST1C M.C. LKJUID<br />
-10....<br />
RESULTS 0:: ::><br />
W<br />
W<br />
Description<br />
o<br />
I-<br />
en -I<br />
(/) (/) :z: W<br />
Cl<br />
I . I<br />
-<br />
20 40 60 SO<br />
0.0 TOPSOIL(PT) O.OO-O.15m - 0.0<br />
1\withsod,sandy<br />
...<br />
f<br />
SIL1YSAND(SM)<br />
O.15-2.00m<br />
I<br />
brown-reddish brown,coarse,dense<br />
1.0 -1.0<br />
.. \ dry to damp,<br />
free draining,some small stones<br />
iliilt"<br />
2.0<br />
.::.=t<br />
CLAYTILL(Cl-CH) 2.00-6.00m -<br />
-2.0<br />
darkgrey,moist,<br />
firm/stiffto 4.0m,thenstiff<br />
3.0<br />
pebbles, occ.stones,siltpieces,<br />
occasional fissures, tracefreewater ,/-<br />
-3.0<br />
..<br />
4.0 -4.0<br />
,'<br />
'/ ..<br />
5.0<br />
/ -<br />
'1 I<br />
I<br />
-5.0<br />
6.0<br />
-<br />
ENDOFTESTHOLE 6.00m<br />
-6.0<br />
7.0 -7.0<br />
8.0 -8.0<br />
9.0 -9.0<br />
10.0 -10.0<br />
, .. n, ..t<br />
J.R. PAINE& ASSOCIATES<br />
LOGGEDBY: D.C.<br />
COMPLETIONDEPTH:6.0 m<br />
REVIEWEDBY: D.G.<br />
COMPLETE: 05/04/04<br />
Edmonton, Alberta Fio.No:3 of 3 Paqe1 of 1<br />
.,J
I<br />
I<br />
-<br />
I<br />
I<br />
I<br />
I<br />
I<br />
1I<br />
11<br />
@<br />
SCREEN ANALYSIS<br />
Sample:<br />
Location:<br />
0.8m Dept~ Depth:<br />
Testhole 04 - 3<br />
Sieve No.<br />
J.R. Paine & Associates Ltd.<br />
CONSULTING<br />
AND TESTING ENGINEERS<br />
EDMONTON - GRANDE PRAIRIE - WHITEHORSE - PEACE RIVER<br />
Size of Opening millimetres<br />
Client:<br />
Project:<br />
Made By:<br />
Ck'd By:<br />
XTC Engineering Ltd.<br />
Fort Nelson Airport<br />
File:<br />
Date:<br />
SM<br />
GP6132-2<br />
April 7, 2004<br />
Specifications<br />
Percent Finer Than Basis<br />
Percent Finer Than<br />
Minimum Maximum Original Sample<br />
125,000 125.0<br />
80,000 80.0<br />
50,000 50.0<br />
40,000 40.0<br />
25,000 25.0<br />
20,000 20.0<br />
16,000 16.0 100.0<br />
12,500 12.5 98.1<br />
10,000 10.0 98.1<br />
5,000 5.0 95.2<br />
1,250 1.25 80.7<br />
630 0.630 63.9<br />
315 0.315 44.4<br />
160 0.160 36.8<br />
80 0.080 32.7<br />
Description of Sample:<br />
Silty Sand (SM)<br />
Method of Preparation:<br />
Moisture Content:<br />
Remarks:<br />
Dry 0<br />
%<br />
Washed 0<br />
2 FaceCrushCount= %<br />
Time of Sieving: 15 minutes<br />
100<br />
90<br />
125 80 5040 25 20 16 10 5000 1250 630 315 160 80<br />
......<br />
"""',<br />
..............<br />
------<br />
80<br />
70<br />
c:<br />
ro .t:: 60<br />
l-<br />
Q;<br />
c:<br />
u: 50<br />
C<br />
ID 40<br />
a..<br />
30<br />
1\<br />
\<br />
1\ -- ----<br />
"'"<br />
f'., .......<br />
20<br />
10<br />
0<br />
1000 100 10 0.1 0.01<br />
Grain Size - millimetres<br />
-"
I<br />
@<br />
SCREEN ANALYSIS<br />
Sample:<br />
Location:<br />
0.8m Dep~ Depth:<br />
Testhole 04 - 1<br />
SieveNo.<br />
J.R. Paine &Associates Ltd.<br />
CONSULTING AND TESTING ENGINEERS<br />
EDMONTON - GRANDE PRAIRIE - WHITEHORSE - PEACE RIVER<br />
Size of Openingmillimetres<br />
Client:<br />
Project:<br />
Made By:<br />
Ck'd By:<br />
SM<br />
XTC Engineering Ltd.<br />
Fort Nelson Airport<br />
File:<br />
Date:<br />
GP6132-2<br />
April 7, 2004<br />
Specifications<br />
Percent Finer Than Basis<br />
PercentFinerThan<br />
Minimum Maximum OriginalSample<br />
125,000 125.0<br />
80,000 80.0<br />
50,000 50.0<br />
40,000 40.0<br />
25,000 25.0<br />
20,000 20.0<br />
16,000 16.0 100.0<br />
12,500 12.5 97.0<br />
10,000 10.0 97.0<br />
5,000 5.0 94.1<br />
1,250 1.25 82.7<br />
630 0.630 63.8<br />
315 0.315 34.6<br />
160 0.160 18.5<br />
'<br />
80 0.080<br />
15.2<br />
Description of Sample:<br />
Sand, Some Silt (SM)<br />
Method of Preparation:<br />
Moisture Content:<br />
Remarks:<br />
Dry 0<br />
%<br />
Washed 0<br />
2 FaceCrushCount= %<br />
Time of Sieving: 15 minutes<br />
100<br />
125 80 50 40 252016 10 5000 1250 630 315 160 80<br />
" ......<br />
""""<br />
""""<br />
90<br />
"""""'<br />
80<br />
..........<br />
70<br />
c<br />
~ 60<br />
l-<br />
Q;<br />
c<br />
u::: 50<br />
c<br />
Q)<br />
<br />
Q; 40<br />
0...<br />
1\<br />
\<br />
\ --<br />
\<br />
\<br />
'\<br />
30<br />
20<br />
r\<br />
'--.<br />
10<br />
0<br />
1000 100 10 0.1 0.01<br />
Grain<br />
Size - millimetres
MECHANICAL <strong>SPECIFICATIONS</strong><br />
NORTHERN ROCKIES REGIONAL MUNICIPALITY<br />
FORT NELSON<br />
AIRPORT TERMINAL BUILDING<br />
WASHROOM RENOVATIONS<br />
For<br />
CJP ARCHITECTS LTD.<br />
301 Sixth Street<br />
New Westminster, BC<br />
V3L 3A7<br />
February 2012<br />
File No. 1130.10<br />
Consulting Mechanical Engineers<br />
201 – 1661 West 2 nd Avenue, Vancouver, British Columbia V6J 1H3<br />
Phone 604-736-6724 Facsimile 604-736-6726
Fort Nelson NRRM TABLE OF CONTENTS Page: 1<br />
Airport Terminal Building<br />
Washroom Renovations<br />
SECTION<br />
PAGES<br />
15010 BASIC MECHANICAL REQUIREMENTS Pages 1-9<br />
15010 GENERAL ...............................................................................................................................1<br />
15011 SCOPE .....................................................................................................................................1<br />
15012 DISCREPANCIES, OMISSIONS, ETC ..................................................................................1<br />
15013 EQUAL & ALTERNATE EQUIPMENT................................................................................2<br />
15015 DRAWINGS ............................................................................................................................2<br />
15016 DEFINITIONS .........................................................................................................................3<br />
15017 GUARANTEE-WARRANTY .................................................................................................4<br />
15018 SITE VISIT...............................................................................................................................4<br />
15019 SHUTTING DOWN OR CUTTING INTO EXISTING SERVICES ......................................4<br />
15023 CODES, PERMITS & PLAN APPROVAL ............................................................................4<br />
15025 CUTTING & PATCHING .......................................................................................................5<br />
15026 RECORD DRAWINGS ...........................................................................................................5<br />
15028 TEMPORARY HEAT..............................................................................................................5<br />
15029 MATERIAL .............................................................................................................................6<br />
15031 SELECTIVE DEMOLITION...................................................................................................6<br />
15035 ELECTRICAL POWER CHARACTERISTICS & WIRING..................................................7<br />
15036 ELECTRIC MOTORS .............................................................................................................7<br />
15037 SERVICES ...............................................................................................................................8<br />
15044 CLEAN UP...............................................................................................................................8<br />
15045 PRIOR TESTS .........................................................................................................................8<br />
15046 SUBSTANTIAL PERFORMANCE ........................................................................................8<br />
15047 FINAL CONSTRUCTION REVIEW ......................................................................................9<br />
15048 PAINTING, FINISHING..........................................................................................................9<br />
15050 BASIC MECHANICAL MATERIALS METHODS Pages 1-12<br />
15050 ACCESS DOORS ....................................................................................................................1<br />
15051 DRAINS ...................................................................................................................................1<br />
15060 PIPING METHODS.................................................................................................................2<br />
15061 PLUMBING PIPING................................................................................................................3<br />
15062 UNDERGROUND PIPE AND FITTINGS (NOT IN CONTRACT) ......................................5<br />
15066 HEATING PIPING...................................................................................................................6<br />
15067 HEATING SYSTEM CLEANSING........................................................................................7<br />
15070 GAS PIPING ............................................................................................................................7<br />
15084 FIRESTOPPING FOR MECHANICAL SYSTEMS ...............................................................7<br />
15089 CANNINGS, OPENINGS & FIXINGS ...................................................................................9<br />
15094 PIPE EXPANSION, HANGERS & SUPPORTS ....................................................................9<br />
15135 FLOW MEASUREMENT VALVES.....................................................................................11<br />
15160 CIRCULATING PUMPS.......................................................................................................11<br />
15190 DENTIFICATION & STENCILLING...................................................................................11<br />
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SECTION<br />
PAGES<br />
15200 NOISE VIBRATION AND SEISMIC CONTROL Pages 1-5<br />
15245 SEISMIC RESTRAINTS .........................................................................................................1<br />
15250 MECHANICAL INSULATION Pages 1-5<br />
15261 PIPE INSULATION.................................................................................................................1<br />
15291 DUCT INSULATION ..............................................................................................................3<br />
15400 PLUMBING Pages 1-6<br />
15410 PLUMBING SYSTEM PIPING...............................................................................................1<br />
15430 DRAINAGE SPECIALTIES....................................................................................................2<br />
15440 PLUMBING FIXTURES & TRIM ..........................................................................................2<br />
15450 BACKFLOW PREVENTION..................................................................................................5<br />
15650 REFRIGERATION Pages 1-2<br />
15665 ROOF TOP HEATING & COOLING UNITS - GAS HEATING...........................................1<br />
15750 HEAT TRANSFER Pages 1-2<br />
15830 RADIATION............................................................................................................................1<br />
15850 AIR HANDLING Page 1-1<br />
15870 EXHAUST FANS ....................................................................................................................1<br />
15880 AIR DISTRIBUTION Pages 1-3<br />
15890 DUCTWORK...........................................................................................................................1<br />
15901 DIFFUSERS, GRILLES & REGISTERS ................................................................................3<br />
15920 CONTROLS Pages 1-4<br />
15921 GENERAL ...............................................................................................................................1<br />
15936 ELECTRICAL COMPONENTS, WIRING AND CONDUIT ................................................1<br />
15937 RELATED WORK...................................................................................................................2<br />
15958 CONTROL VALVES & ACTUATORS .................................................................................3<br />
15980 ROOM TEMPERATURE CONTROL....................................................................................4<br />
15984 PACKAGED ROOF TOP A/C UNITS....................................................................................4<br />
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PAGES<br />
15990 TESTING, ADJUSTING & BALANCING Pages 1-3<br />
15991 TESTS ......................................................................................................................................1<br />
15992 BALANCING & TESTING.....................................................................................................1<br />
15996 OPERATING INSTRUCTIONS..............................................................................................3<br />
15997 EQUIPMENT MANUALS ......................................................................................................3<br />
MECHANICAL SCHEDULES Pages 1-5<br />
• ROOF TOP AIR CONDITIONING UNITS ......................................................................1<br />
• EXHAUST FANS ..............................................................................................................2<br />
• GRILLES, REGISTERS, DIFFUSERS .............................................................................3<br />
• CONTROL VALVES ........................................................................................................4<br />
• WALL FIN RADIATION ..................................................................................................5<br />
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15010 GENERAL<br />
1. This section shall be read in conjunction with the General Conditions and Supplementary<br />
General Conditions of the Specifications.<br />
2. All work shall be performed by qualified tradesmen working for a reputable Contracting<br />
Company experienced in this type of work and shall be strictly in accordance with the best<br />
commercial practice.<br />
3. Co-ordinate work with the Contractor’s working schedule and co-operate to achieve the earliest<br />
possible completion of the work.<br />
15011 SCOPE<br />
1. Work covered by this Division is to provide complete systems as indicated on drawings and<br />
specified herein.<br />
2. These Specifications cover information, work, equipment, accessories listed under the following<br />
Division Sections:<br />
15010 Basic Mechanical Requirements<br />
15050 Basic Mechanical Materials & Methods<br />
15200 Noise Vibration & Seismic Control<br />
15250 Mechanical Insulation<br />
15400 Plumbing<br />
15650 Refrigeration<br />
15750 Heat Transfer<br />
15850 Air Handling<br />
15880 Air Distribution<br />
15920 Controls<br />
15990 Testing, Adjusting & Balancing<br />
3. This work shall include the employment of an approved, independent Balancing Firm for<br />
balancing of all air handling and heating systems installed under this contract, to the Engineer's<br />
requirements. Reports of Balancing Firm shall be submitted to the Engineer prior to<br />
establishment of substantial completion. This work shall include the preparation of equipment<br />
manuals as specified in Section 15990.<br />
15012 DISCREPANCIES, OMISSIONS<br />
1. Bidders finding discrepancies in, or omissions from, Drawings, Specifications, or other<br />
documents, or having any doubt as to the meaning or intent of any part thereof, shall at once<br />
notify the Engineer, J.M. Bean & Co. Ltd., who will send explanatory written instructions to all<br />
bidders. Neither the Engineer nor the Owner will be responsible for oral instructions.<br />
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2. Should there be a conflict within or between the Specifications or Drawings, the most stringent<br />
or higher quality requirement shall apply.<br />
3. Addenda, corrections or drawing revisions issued during time of bidding shall be included in<br />
tender and shall become part of Contract documents.<br />
15013 EQUAL & ALTERNATE EQUIPMENT<br />
1. Equipment, other than that specified, of equal quality, will be allowed. Acceptable equipment<br />
shall be that which has been reviewed by the Engineer five working days prior to the closing of<br />
bid depository or tenders if bid depository is not used.<br />
2. Should the Mechanical Contractor propose to substitute equipment having different dimensions,<br />
electrical wiring connections, or requiring connections or piping layout at variance with the<br />
Drawing, it shall be the Mechanical Contractor's responsibility to submit a detailed drawing<br />
showing how proposed substitute equipment is to be installed and connected in the available<br />
space. Any proposed variations from Contract Drawings shall be specifically indicated.<br />
3. Equipment, other than that specified, which has been considered by the Engineer as "EQUAL"<br />
prior to the closing of tenders may be substituted at the Mechanical Contractor's discretion<br />
provided aforementioned conditions are met.<br />
4. Equipment, other than that specified, which has been considered by the Engineer as an<br />
"ALTERNATE" prior to the closing of tenders, may be substituted by the Mechanical<br />
Contractor at the discretion of the Engineer provided suitable adjustment of Contract Price is<br />
negotiated.<br />
5. The Mechanical Contractor shall be responsible for all expenses incurred in the work of other<br />
trades made necessary because of substitution.<br />
6. Prior to placing orders submit to the Engineer a complete listing of sub-contractors, materials<br />
and equipment to be used. This listing shall be submitted to the Engineer within 14 calendar<br />
days of signing of Construction Contract.<br />
7. Where two or more items of equipment or materials of similar design are to be installed, they<br />
shall be the products of one manufacturer.<br />
15015 DRAWINGS<br />
1. The drawings, together with the specifications are intended to cover the complete installation of<br />
systems to function as described. The omission of the express reference to any items of labour<br />
or material necessary for the proper execution of the work, in accordance with present day<br />
practice shall not relieve responsibility of supplying such additional labour or material.<br />
2. The drawings are mainly schematic and do not attempt to show all offsets. Make such offsets at<br />
no additional cost to contract. Offset angles shall be as small as possible.<br />
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3. All figured dimensions shall have precedence over scale. Detail drawings shall have precedence<br />
over small scale drawings; any difference between same shall be decided upon by the Engineer.<br />
4. The Drawings and Specifications are the property of the Engineer and they shall be returned to<br />
him on request.<br />
5. Submit shop drawings to the standard of the Mechanical Contractor's Association of B.C. for all<br />
equipment to be installed on the job. Each shop drawing shall be submitted in the form of a<br />
"Master" drawing 8-1/2" x 11", 8-1/2" x 14" or multiples thereof suitable for photocopying.<br />
Drawings shall be submitted for review within 30 days of awarding of contract and bear<br />
contractors stamp indicating project name, date and signature of a responsible person who has<br />
reviewed the drawings for the contractor. By his review the contractor represents that he has<br />
determined and verified all field measurements, field construction criteria, materials, catalogue<br />
numbers and similar data. In addition he has checked and coordinated each shop drawing with<br />
the requirement of the work and contract documents.<br />
6. This review by J.M. Bean & Co. Ltd. is for the sole purpose of ascertaining conformance with<br />
the general design concept. This review shall not mean that J.M. Bean & Co. Ltd., approves the<br />
detail design inherent in the shop drawings, responsibility for which shall remain with<br />
Contractor submitting same, and such review shall not relieve the Contractor of his<br />
responsibility for errors or omissions in the shop drawings or of his responsibility for meeting all<br />
requirements of the Contract Documents. The Contractor is responsible for quantities and<br />
dimensions to be confirmed and correlated at the job site, for information that pertains solely to<br />
fabrication processes or to techniques of construction and installation and for co-ordination of<br />
the work of all sub-trades.<br />
7. Manufacture shall not commence until these shop drawings are reviewed. Shop drawings for<br />
fans and pumps shall include an operating curve. See additional requirements in Clause 15245<br />
SEISMIC RESTRAINTS.<br />
15016 DEFINITIONS<br />
1. The word "provide" shall mean "furnish and install, complete and ready for use".<br />
2. "Concealed" where used in connection with insulation and painting of piping, ducts and<br />
accessories, shall mean that they are hidden from sight as in trenches, chases, furred spaces, pipe<br />
shafts or hung ceilings: also, where they are not hidden from sight in the following locations: in<br />
partly excavated or crawl spaces and in service spaces used solely for repairs and maintenance.<br />
3. "Exposed" where used in connection with insulation and painting of piping, ducts and<br />
accessories shall mean that they are not "concealed" as defined above. Equipment rooms and<br />
fan rooms are to be considered as "exposed" areas.<br />
4. "Piping" includes, in addition to pipe, fittings, valves, hangers, other accessories which comprise<br />
a system.<br />
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15017 GUARANTEE-WARRANTY<br />
1. Correct promptly at own expense, defects or deficiencies in the work in accordance with the<br />
Warranty requirements of the Contract.<br />
2. The Engineer shall be the judge as to whether the failure is due to defective workmanship,<br />
improper usage or ordinary wear and tear.<br />
3. Make good any damage resulting from defective materials or workmanship.<br />
4. Rectify any deficiencies or omissions in respect to plans or Specifications which may appear<br />
during the guarantee period even though work has been accepted as complete.<br />
15018 SITE VISIT<br />
1. Before submitting prices, visit the site to determine working conditions and existing<br />
constructions. Particular attention shall be paid to proposed methods of construction and<br />
connection to existing system.<br />
2. Claims of lack of knowledge of existing conditions when bidding will not be acceptable as<br />
reason for authorization of extra charges to Contract Price.<br />
15019 SHUTTING DOWN OR CUTTING INTO EXISTING SERVICES<br />
1. No active existing service pipe shall be shut down or cut into without prior arrangement with the<br />
Owner or designated representative who will schedule the work to minimize inconvenience to<br />
Owner. When a critical service must be shut down, this contractor shall be held responsible to<br />
meet scheduled reactivation time. He shall provide overtime work, with no increase to the<br />
contract price if directed by the General Contractor to do so, in order to meet agreed schedules<br />
set for service reactivation.<br />
2. The domestic water systems shall not be shut down for longer than 6 hours in any 24 hour<br />
period, and shut down shall be scheduled between the hours of 9:00 a.m. to 4:00 p.m.<br />
15023 CODES, PERMITS & PLAN APPROVAL<br />
1. All work done under this section of the Specifications shall be in accordance with all National,<br />
Municipal and Provincial Codes applicable.<br />
2. All mechanical equipment furnished shall meet all specific requirements of, and be in<br />
accordance with, the current edition of the British Columbia Energy Efficiency Standards<br />
Regulation issued under the British Columbia Energy Efficiency Act.<br />
3. Abide by all public ordinances, pay all fees, obtain all permits and give all necessary notices to<br />
authorities having jurisdiction. The Contractor shall submit the required number of Drawings<br />
and Specifications to all authorities having jurisdiction for approval purposes.<br />
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4. Comply with the most stringent requirements of the B.C. Building Code and Provincial and<br />
Municipal Regulations and By-Laws, specified standards, codes and this specification.<br />
15025 CUTTING & PATCHING<br />
1. Make arrangements for all necessary cutting and patching required for this work.<br />
15026 RECORD DRAWINGS<br />
1. Keep a record set of drawings showing any changes made to original layout of piping, ducts,<br />
equipment rooms, etc. Record drawings shall be continuously updated, shall be available on site<br />
for examination, and shall be turned over to the Engineer for Owner's use upon completion. The<br />
drawings shall indicate the inverts and dimensioned locations of all services at the property line<br />
and where they penetrate the building perimeter. Each drawing shall be stamped “PROJECT<br />
RECORD DRAWINGS, CERTIFIED BY THE CONTRACTOR” the current “DATE” and<br />
signed by the Contractor.<br />
2. Prior to acceptance of the work, arrange and pay for a set of CAD drawing files of the tender<br />
drawings. Alter these using CAD drafting procedures, to show all changes made and obtain<br />
Engineer's approval of completed work. A charge of $25.00 per CAD drawing file will be made<br />
for each CAD drawing file provided. An "Authorization to use CAD Drawing File" agreement,<br />
restricting the use of the CAD files to the preparation of "As Installed" drawings, must be signed<br />
prior to obtaining the files.<br />
3. The revised CAD files along with three sets of record prints shall then be delivered to the<br />
Engineer for the Owner's use.<br />
15028 TEMPORARY HEAT<br />
1. Contract equipment cannot be used for temporary heating without written permission of the<br />
Architect. Prior to granting permission the following minimum conditions will have to be met.<br />
a. All piping systems must be complete and cleaned by flushing or as specified in this<br />
Division.<br />
b. Power supply to electrically operated equipment must be adequate and all protection and<br />
safety devices installed, tested and operating.<br />
c. All duct systems must be complete, filters installed and belt drives aligned and adjusted.<br />
d. Prior to substantial completion, contractor shall clean all air handling systems if judged<br />
necessary by Engineer.<br />
2. Prior to final acceptance of work, all equipment used for temporary heat shall be made "as new".<br />
Satisfactory reconditioning shall be established by the Engineer.<br />
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15029 MATERIAL<br />
1. All materials and equipment used shall be new, of the quality specified, finished and complete<br />
in every detail.<br />
2. Protect all materials and equipment from damage and weather. Store all pipe off the ground on<br />
racks and provide a weather cover. Protect all factory finished surfaces by adequate covers or<br />
other means. Prevent the entry of foreign objects into pumps, compressors, fans, etc., by sealing<br />
all openings with strong covers.<br />
3. Components with electric motors or switchgear mounted as part of an assembly shall be stored<br />
within a dry weatherproof enclosure unless the equipment has been designed for outside<br />
installation.<br />
4. Protect all finned equipment from fin damage and clean and comb all fins, if required, before<br />
putting the system into operation.<br />
15031 SELECTIVE DEMOLITION<br />
1. General<br />
- Remove all existing piping, equipment and ductwork that are redundant because of<br />
renovations/work.<br />
- Unless otherwise specified, carry out demolition work in accordance with CSA S350-<br />
M1980 (or latest edition), Code of Practice for Safety in Demolition of Structures.<br />
- Prevent movement or settlement of adjacent work. Provide and place bracing or shoring<br />
and be responsible for safety and support of such work. Be liable for any such<br />
movement or settlement, and any damage or injury caused.<br />
- Except where asbestos removal is the responsibility of the Contractor, cease operations<br />
and notify the prime consultant immediately for special protective and disposal and<br />
instructions when any asbestos materials are uncovered during the work of this section.<br />
- Prevent debris from blocking surface drainage inlets and mechanical and electrical<br />
systems which remain in operation.<br />
2. Existing Services<br />
- Building Mechanical Services: Maintain all active building services during<br />
demolition/removal of existing. Provide temporary connections as required during the<br />
course of construction.<br />
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3. Demolition<br />
- Completely demolish the items indicated and remove all materials from the site.<br />
- Carry out demolition in manner to cause as little inconvenience to the adjacent occupied<br />
building areas as possible. Coordinate this activity with the Construction Project<br />
Coordinator and the consultant.<br />
- Carry out demolition in an orderly and careful manner.<br />
- All coring, patching and removal of existing equipment, pipes and ductwork which may<br />
affect occupied areas of the building are to be done outside of regular office hours or as<br />
scheduled with the Construction Project Coordinator.<br />
15035 ELECTRICAL POWER CHARACTERISTICS & WIRING<br />
1. All low voltage and 120 volt control wiring shall be done by Mechanical sub-contractor.<br />
2. All starting and disconnect switches unless otherwise stated in this Division will be provided<br />
under Division 16. Any additional control relays or switches required and their wiring to ensure<br />
operation of systems as specified shall be provided under Division 15.<br />
3. Unless indicated differently in equipment specification clauses or equipment schedules:<br />
Motors ½ HP and larger shall be suitable for 208/3/60 power.<br />
Motors ⅓ HP and smaller shall be suitable for 120/1/60 power.<br />
15036 ELECTRIC MOTORS<br />
1. Provide, unless otherwise noted, open drip-proof, ball bearing continuous duty motors of CEMA<br />
B design and rated for a 40°C minimum temperature rise. Ensure that motors are C.S.A.<br />
approved and are labelled.<br />
2. Motors and accessories shall comply in all respects with CEMA standard except where they are<br />
part of the equipment.<br />
3. Motors shall be Standard protected, except for motors located in air plenums which shall be<br />
TEFC or TENV.<br />
4. Provide all motors with terminal boxes, suitable for power connections. Provide screw<br />
adjustable bases on all connected motors.<br />
5. Single phase motors shall be of the capacitor start type when they may be manually cycled from<br />
a starting switch which is located in the finished space. Where specified provide solid state<br />
speed controllers and where so controlled shaded pole motors may also be used.<br />
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6. Three phase motors, 1 HP and larger shall be High-Efficiency Motors as defined in CSA C390<br />
or IEEE 112B Nominal Standards. Minimum efficiency for motors shall be as listed in<br />
CAN/CSA-C390-93 Energy Efficiency Test Methods for Three-Phase Induction Motors.<br />
7. Motors used with adjustable speed drives shall be designed specifically for application with<br />
adjustable speed controllers on variable torque loads, 20 through 60 Hz, from PWM or six step<br />
inverters and shall be so certified by the motor manufacturer.<br />
8. Electric motors shall be sized so that the normal operating load is not more than 90% of the<br />
rated motor capacity.<br />
9. Motors exposed to outdoor temperatures shall be lubricated with lubricants suitable for<br />
operation at minus 20°C.<br />
10. Assist the Electrical Trade to ensure: proper connection; correct thermal overload selection; and<br />
correct stop-start controls.<br />
15037 SERVICES<br />
1. Gas Service:<br />
Arrange with Gas Utility Company to provide (increase in) gas service from meter location<br />
shown on drawings.<br />
Connect to gas fired equipment in strict accordance with regulations of B.C. Gas Inspection<br />
Department.<br />
15044 CLEAN UP<br />
1. Clean up all debris resulting from the work as it progresses. At the conclusion of the work,<br />
clean and restore all material, equipment, and fixtures to their as new condition. Remove all<br />
gummed labels.<br />
15045 PRIOR TESTS<br />
1. All work which will be covered or concealed shall be tested prior to covering. Notice of tests<br />
shall be given to the Engineer 48 hours in advance arranged to conform to construction<br />
schedule. Engineer shall be given the opportunity to review all tests.<br />
15046 SUBSTANTIAL PERFORMANCE<br />
1. Prior to calling for a substantial performance review, the following minimum requirements must<br />
be satisfied:<br />
- All air handling (supply & exhaust) systems must be operational with all controls and<br />
safety devices installed. Fire damper trip tests must be completed.<br />
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- Heating systems, cooling systems and controls must be operational.<br />
- A draft copy of the balancing report must be submitted for review to confirm system<br />
operation is substantially as designed.<br />
- Plumbing and drainage systems must be operational. Domestic water systems<br />
installations, backflow preventer tests and disinfection must be complete and tested.<br />
- Certification from the Balancing/Commissioning contractor that all fire dampers have<br />
been successfully trip tested must be submitted.<br />
- A signed and sealed copy of the Seismic Engineer’s Schedule C must be submitted.<br />
15047 FINAL CONSTRUCTION REVIEW<br />
1. Notify Engineer in writing when final construction review of installation may be performed. In<br />
the event that defects or deficiencies are found during this final review, they shall be corrected<br />
to the satisfaction of the Engineer.<br />
2. Engineer shall be reimbursed for time and expenses involved in subsequent reviews resulting<br />
from deficiencies noted during final construction review.<br />
3. Final review mentioned above will follow after substantial performance review and correction<br />
of deficiencies noted at that time.<br />
15048 PAINTING, FINISHING<br />
1. All uncoated steel surfaces, hangers, supports, stands, brackets, etc., shall be cleaned of all dirt,<br />
dust, grease, and millscale, and then given one heavy coat of Rustoleum No.796 damp-proof red<br />
primer.<br />
2. Mechanical equipment which is provided in a finish painted condition does not require painting<br />
unless called for in the Architectural drawings or specifications.<br />
3. Any marred or scratched surfaces shall be repainted or touched up to match the equipment<br />
suppliers finish coat. If touch up painting will not restore the equipment to as new appearance<br />
the entire surface area shall be repainted. The mechanical contractor is to arrange with the<br />
painting contractor and pay all costs involved in the touch up or repainting of damaged factory<br />
finish painted items.<br />
4. All other painting and all finish painting to be done by Section 09900.<br />
END of SECTION 15010<br />
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15050 ACCESS DOORS<br />
1. Provide access doors for concealed expansion joints, traps, strainers, cleanouts, balance<br />
dampers, fire dampers, other parts requiring accessibility for operating and maintenance.<br />
2. In suspended panel ceilings, use panel in place of access door; provide in such panel a button or<br />
other means of identification and easy removal when necessary.<br />
3. Access door size shall be as indicated and where not indicated, make 305mm x 406mm [12" x<br />
16"] minimum or 610mm x 457mm [24" x 18"] where persons have to enter. For acoustical<br />
ceilings, conform to architectural panel pattern.<br />
4. Unless otherwise indicated, access doors shall be hinged, flush type, steel framed panel, 14<br />
gauge minimum, satin finished galvanized steel or type 304 stainless steel, with anchor straps.<br />
5. Hinges shall be concealed, spring hinge to allow door to open 175°. Locking devices shall be<br />
flush cam type, screwdriver operated, doors and frames shall have prime coated rust inhibiting<br />
paint.<br />
6. Manufacturer shall be Maxam Metal Products Ltd. or equivalent from Acudor Acorn Ltd.<br />
Access doors shall be VanMet Style M unless noted otherwise on drawings; made of stainless<br />
steel for wet areas, washrooms, and all walls finished in ceramic tile.<br />
7. Where doors are required in fire rated walls, access doors shall be VanMet FRM Style M,<br />
uninsulated and for all fire rated ceilings and walls where maximum temperature rise limitation<br />
is applicable, shall be FRCI-150 Style M, insulated. All fire rated access doors shall have<br />
Warnock Hersey or ULC listed 2 hour fire rating and shall be installed in accordance with<br />
NFPA 80 and manufacturer’s installation instructions.<br />
15051 DRAINS<br />
1. Pipe all discharge from relief valves, air vents, drip pans, overflows, system drains, water<br />
columns, and major low points in the heating system to the nearest accessible drain. No drains<br />
or overflow shall discharge onto floor in the building.<br />
2. Provide 18 mm drain valves as shown on the drawings and at all low points of piping systems.<br />
Provide 40 mm valves for pipe cleaning. Provide hose end adaptors on all drain valves. Dahl<br />
piggy-back stops of Fig. 2316 hose bibbs may be used on water systems operating at less than<br />
93°C.<br />
3. Chained caps are required on all drain valves.<br />
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15060 PIPING METHODS<br />
1. Piping shall be installed on warm side of building insulation in all wall and ceiling spaces. In no<br />
case shall piping containing products that may freeze be run in or immediately adjacent to<br />
exterior block or brick walls. Should such an installation be considered necessary, it shall be<br />
called to the Engineers attention prior to installation so that alternate constructions may be<br />
considered.<br />
2. Where pipes pierce floors, walls or ceilings that are fire rated assemblies or fire separations, the<br />
space between the pipe sleeve or adjacent construction and the pipe shall be sealed with a fire<br />
stop system conforming to Part 3 Sub-section 3.1.9 of the 2006 BC Building Code. Such<br />
systems shall be labelled as meeting the ULC CAN4-S115M, "Standard Method of Fire Test of<br />
Firestop Systems" available from Hilti (Canada) Limited, 3M Fire Protection Products, Nuco<br />
Inc. or approved equal. See Section 15084.<br />
3. Where pipes pierce roofs provide compatible roof jack to RCABC standards extending at least<br />
305mm [12"] above the roof. Provide counter-flashing and caulking for weather-tight<br />
penetration.<br />
4. Floor, wall and ceiling plates shall be provided on all exposed piping passing through walls,<br />
floors, ceilings, or partitions. Plates shall be steel with polished nickel finish and securely<br />
anchored to the pipe.<br />
5. Provide lateral load resistance for mechanical equipment and pipes and their anchorage as<br />
described in Sub-Section 4.1.8 of the 2006 BC Building Code.<br />
6. Provide all valves shown on the drawings and as necessary for the proper control of piping and<br />
equipment. Unless otherwise shown or specified, all valves 12mm [½"] and smaller shall be<br />
globe pattern and all valves 20mm [3/4"] and larger shall be gate valves. All valves 65mm<br />
[2-1/2"] and smaller shall be brass, larger valves shall be iron body bronze mounted. At the<br />
contractor’s option, ball valve models, as specified, may be substituted for gate valves for 20mm<br />
[3/4"] and 25mm [1"] sizes on plumbing systems and for 20mm to 50mm [3/4" to 2"] sizes,<br />
inclusive, on heating systems.<br />
7. Provide dedicated ball valves for isolation on supply and return piping on each hydronic heating<br />
element. This includes all fan coils, zone coils, unit heaters, unit coils, convectors, radiant<br />
panels and other.<br />
8. Provide hose bibbs with brass caps and chain at all low points, for drainage.<br />
9. Provide Miljoco CDX9 series, Trerice SX9 series Solar Thermometer, or approved equal, where<br />
indicated on drawings and as specified herein. For all mixing valve applications provide a<br />
separable socket immersion thermometer adjacent to pump. Thermometers shall be industrial<br />
quality with 1% accuracy and separable socket and shall be fully interchangeable with liquid-inglass<br />
thermometers, complying with industrial standard dimensions, minimum 89mm [3-1/2"]<br />
length, with extension neck for insulation as required. Thermometers shall have easy to read<br />
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LCD display with switch to display Celsius or Fahrenheit degrees and an adjustable angle stem.<br />
Thermometer shall require no external power, needing only 35 lux of illumination to operate.<br />
10. Provide liquid filled pressure gauges where indicated on drawings and as specified herein.<br />
Provide on each side of each hot water circulating pump a pressure gauge with needle type<br />
isolation valve. Gauge calibration shall be such that instrument indicates at approximately mid<br />
scale under normal operating conditions. Gauges shall be 100mm [4.0"] diameter face as<br />
manufactured by Miljoco, Trerice, or approved equal. Pressure gauges shall be calibrated in S.I.<br />
metric units, or have dual metric/imperial calibration.<br />
11. Provide installation of temperature control system components where required in piping system.<br />
12. Insulating dielectric fittings shall be installed between dissimilar metals in systems. Brass<br />
adapters and valves are not accepted as dielectric fittings.<br />
15061 PLUMBING PIPING<br />
1. Water supply piping shall be hard copper type "L" in building, with solder joints. Underground<br />
piping shall be soft copper type "K" with wrought copper fittings and silver solder. Copper<br />
water tubing shall be certified by Warnock Hersey or Canadian Standards Association to ensure<br />
compliance with the B.C. Plumbing Code which references ASTM B88-83A. Water supply<br />
piping under concrete slabs or in walls shall be encased in standard weight flexible polyethylene<br />
pipe one size larger than copper tubing. All joints to be wrapped with Polyken tape. The use of<br />
Victaulic copper connection system is acceptable. Couplings to utilize angle bolt pad design<br />
Style 606 with EPDM flush seal gasket.<br />
2. Water service pipe 150mm (6") or larger in building shall be Ductile Iron, minimum Pressure<br />
Class 350 designed and manufactured in accordance with ANSI/AWWA C150/A21.50 and<br />
C151/A21.51. All pipe shall be cement-mortar lined in accordance with ANSI/AWWA<br />
C104/A21.4 and grooved to BS 4772/ISO 2531 standards to accept Victaulic fittings. Fittings<br />
shall be British Standard/ISO cement-mortar lined and bituminous coated ductile iron fittings<br />
conforming to ASTM A-536 with Grade “M” FlushSeal gaskets suitable for a temperature range<br />
of -20 F to + 200 F. Bolts and nuts shall be heat treated, plated carbon steel.<br />
3. Water supply piping exposed in finished areas shall be chrome plated brass pipe and fittings.<br />
4. Underground drainage piping under building or paved areas shall be mechanical joint cast-iron<br />
soil pipe. Specified piping materials and applications shall be in accordance with B.C. Building<br />
Code 2006, Part 7, Plumbing Services.<br />
5. Drainage and vent piping within the building shall be either DWV copper or cast iron at the<br />
Contractor's option, provided adequate space is available for drainage piping installation without<br />
allowing direct contact between piping and structure. Copper drainage and vent piping in<br />
masonry walls shall be Polyken tape wrapped if un-insulated.<br />
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6. Copper pipe used in systems subject to pressure fluctuations shall be thoroughly cleaned of all<br />
copper shreds before installation.<br />
7. Joints in copper tubing shall be made with standard fittings with 95% tin and 5% antimony<br />
solder. Tubing shall be cleaned with steel and non-corrosive paste flux. Victaulic Style 606<br />
may also be used.<br />
8. Roof flashings shall be aluminum, as per RCABC Standards, extending at least 305mm (12")<br />
from roof surface. Flashing shall not be turned down inside pipe. Provide Menzies 12 gauge<br />
extruded tube aluminum vent cap c/w slotted openings on vent terminal. Fasten cap to<br />
aluminum flashings with three pop rivets provided by cap manufacturer.<br />
9. Provide cleanouts and access covers, Zurn Series ZN-1400 “Level-trol adjustable floor cleanouts<br />
and ZNAB-1460 access covers as required by Bylaw and type of construction.<br />
10. Insulating dielectric unions and flange unions shall be installed when adapting between<br />
dissimilar metallic pipe for domestic water supply piping, and domestic water storage tanks.<br />
Unions shall be equal to those manufactured by Epco. Elsewhere, unions and adaptors for<br />
copper piping shall be cast brass pressure fittings. Victaulic Style 47 Dielectric Waterway is<br />
also acceptable.<br />
11. All valves of each type shall be of the same manufacture and clearly marked as to the<br />
manufacturer, valve catalogue number and working pressure. For domestic hot water service,<br />
materials used shall be suitable for 90°C service. Drain valves shall be provided with cap and<br />
chain. All valves 65mm (2-1/2") and smaller shall be at least 200 psi cold working pressure<br />
rating marked and approved equal to the following:<br />
Globe Valves Crane 1703 Jenkins 994AJ Red-White 220A Kitz 03<br />
Angle Valves Crane 17TF Jenkins 108BJ Red-White 260 Kitz 38<br />
Gate Valves Crane 1701 Jenkins 992AJ Red-White 281A Kitz 28<br />
Check Valves Crane 1707S Jenkins 997AJ Red-White 237 Kitz 23<br />
Ball Valves Crane F9222 Jenkins 202J Red-White 5049A Kitz 59<br />
Butterfly<br />
Valves<br />
Victaulic No. 608<br />
Mueller<br />
Locxend Model 89G<br />
Red-White 918BESL<br />
Kitz 6122E<br />
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All valves 75mm (3") and larger shall be at least 200 psi cold working pressure rating marked<br />
and approved equal to the following:<br />
Globe Valves Crane 351 Jenkins 2342J Red-White 400A Kitz 76<br />
Gate Valves Crane 461 or 460 Jenkins 451J or 452J Red-White 415A Kitz 5<br />
Check Valves Crane 373 or 372 Jenkins 588J or 587J Red-White 435A Kitz 78<br />
Check Valves Crane 383 Jenkins 477LJ Red-White 435A Kitz 78<br />
Sewage Valves Crane 383 OL & W<br />
Butterfly Valves<br />
(Gear Operated)<br />
Victaulic No. 608<br />
Mueller<br />
Locxend Model<br />
89G<br />
Red-White<br />
918BESL<br />
Drain and hose valves 20mm (3/4") and smaller shall be the following or approved equal:<br />
Sediment Faucets Emco 10740<br />
Drain valves Crane F9202/Jenkins 201J c/w ball & chain Red - White 5046 Kitz 68AC<br />
12. Expansion joints shall be Flexonics Model HB suitable for 1034 kPa (150 psi) working pressure<br />
and 50mm (2") traverse.<br />
13. Strainers 50mm (2") and smaller shall be Red & White Bronze Fig. No. 380E. Kitz 15<br />
Larger strainers shall be Red & White Bronze Fig. No. 381A. Kitz 80 or Mueller 351M<br />
15062 UNDERGROUND PIPE AND FITTINGS (NOT IN CONTRACT (NIC) )<br />
1. Underground water pipe shall be PVC pipe conforming to AWWA Standard C900-75 "Poly<br />
(Vinyl Chloride) (PVC) Pressure Pipe 4 through 12 inch (100 through 300mm) for water", CSA<br />
B137.3 ULC CEx448, and UNI-B-3-80. The pipe is to be Class 150psi (Dimensional Ratio<br />
(DR)-18 with cast iron outside diameter) and integral bell gasket joint. Gaskets are to be<br />
bonded into the ring groove prior to shipment. Underground fittings shall have joints and<br />
pressure rating compatible with pipe used.<br />
2. Provide underground gate valves where indicated. Valves shall be equal to Mueller double disc<br />
or Mueller resilient seated type, NRS style, installed with Dobney Foundry Nelson Type valve<br />
box at grade to permit easy operation. Valves shall conform to the applicable Municipal<br />
Standards for pressure rating and type.<br />
3. All underground piping for fire mains shall be installed, clamped and anchored and flushed and<br />
hydrostatically pressure tested according to requirements of NFPA 13 and NFPA 24 latest<br />
Editions. Flushing shall be done through 100mm (4") minimum diameter piping. Continuously<br />
threaded rod shall not be used for underground applications.<br />
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4. At all changes in direction and at tees, ells, plugs, caps, bends, and hydrants, anchor mains as<br />
per NFPA 24 latest Edition. Pipe clamps and tie rods, thrust blocks, or other approved methods<br />
or devices may be used.<br />
15066 HEATING PIPING<br />
1. Heating system shall be installed in compliance with ANSI/ASME B 31.9 Building Service<br />
Piping Code. Heating hot-water piping shall be Schedule 40 Specification A53 black steel.<br />
Fittings on pipe 65mm [21/2"] and smaller shall be Class 150 malleable iron. Fittings 65mm<br />
[21/2"] and smaller shall be threaded; larger sizes shall be welded. All nipples shall be extra<br />
heavy black iron.<br />
2. Provide automatic air vents equal to Hoffman No. 79 at all piping high points complete with<br />
isolation valves. Pipe discharge to the nearest drain. Provide automatic air vents equal to Dole<br />
No. 10, as required for radiation, piped to enclosure top or front.<br />
3. Expansion joints shall be Flexonics Model 'H' suitable for 1034 kPa [150 psi] working pressure<br />
and 50mm [2"] traverse.<br />
4. All valves of each type shall be of the same manufacturer and clearly marked as to the<br />
manufacturer, valve catalogue number and working pressure. Drain valves shall be provided<br />
with cap and chain. All valves 65mm [21/2"] and smaller shall be 150 pound steam pressure<br />
rating marked and approved equal to the following:<br />
Globe Valves Crane 7TF Jenkins 106BJ Red-White 221A Kitz 09<br />
Angle Valves Crane 17TF Jenkins 108BJ Red-White 260 Kitz 38<br />
Gate Valves Crane 431 Jenkins 2810J Red-White 298 Kitz 42<br />
Check Valves Crane 137 Jenkins 4092J Red-White 238 Kitz 29<br />
Ball Valves Crane 9102 Jenkins 201J Red-White 5044A Kitz 58<br />
Drain Valves Crane F9202 Jenkins 201J c/w<br />
ball & chain<br />
Red-White 5046 Kitz 58cc<br />
All valves 75mm (3") and larger shall be at least 200 psi cold working pressure rating marked<br />
and approved equal to the following:<br />
Globe Valves Crane 351 Jenkins 2342J Red-White 400A Kitz 76<br />
Gate Valves Crane 461 Jenkins 452J Red-White 415A Kitz 75<br />
Check Valves Crane 373 or 372 Jenkins 587J Red-White 435A Kitz 78<br />
Check Valves Crane 383 Jenkins 477LJ Red-White 435A Kitz 78<br />
Sewage Valves Crane 383 OL & W<br />
5. Square head adjusting cocks shall be installed where indicated, and elsewhere as necessary, to<br />
aid in the proper balancing of the entire system (De Zurik Series 400 or approved equal). Where<br />
flow measurement valves are noted on drawings or scheduled, provide fittings as specified in<br />
Clause 15135. Substitution of flow measurement fittings for balance fittings, at the contractor’s<br />
option, is acceptable.<br />
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6. Provide, in front of all pumps and where otherwise indicated, cast iron "Y" strainers equal to<br />
those manufactured by Mueller Steam Specialty Co. with 1.6mm [1/16"] diameter holes (37%<br />
open area).<br />
7. Unions shall be malleable iron ground joint, bronze to iron seat, 150lb. steam pressure rating.<br />
Provide in connections in boiler, pumps and other equipment requiring disconnection for repairs<br />
or replacement.<br />
8. Flexible connectors are to be Metraflex ML bronze construction, 1034 kPa [150 psi] working<br />
pressure for sizes up to and including 100mm [4"]. Larger sizes to be stainless steel<br />
construction, 1379 kPa [200 psi] maximum temperature to be 204°C [400°F] and 454°C<br />
[850°F] respectively. Provide in pipe connections to all equipment isolated on spring vibration.<br />
9. Use eccentric reducers at pipe size changes installed to provide positive drainage and venting.<br />
15067 HEATING SYSTEM CLEANSING<br />
1. On completion of installation and testing of system piping, equipment and accessories and<br />
before connecting to existing system, the complete system shall be subject to a high velocity<br />
water flush. All strainers shall then be removed from the system, cleaned, tap washed and<br />
re-installed.<br />
2. In order to ensure high water velocities for flushing and draining procedures, drain valves shall<br />
be full size of adjacent piping for pipe size up to 50mm and not less than 50mm on larger pipe<br />
sizes.<br />
15070 GAS PIPING<br />
1. Gas piping within buildings shall be ASTM Standard A53 or A 106 Welded and Seamless black<br />
steel pipe. Fittings used shall be of malleable iron or steel to comply with ANSI/ ASME<br />
Standard B16.3 for malleable iron fittings. All materials used and work done shall comply with<br />
the regulations of the B.C. Gas Inspection Department and CAN/CGA B149.1-M91 and<br />
CAN/CGA B149.2-M91 Natural Gas and Propane Installation Codes and applicable<br />
amendments.<br />
15084 FIRESTOPPING FOR MECHANICAL SYSTEMS<br />
1. Subject to compliance with through penetration firestop systems listed in U.L.C Fire Resistance<br />
Directory – Volume III or UL Products Certified for Canada (cUL) Directory, provide products of<br />
the following manufacturers as identified below:<br />
1. Hilti (Canada) Corporation, Mississauga, Ontario<br />
1-800-363-4458/www.ca.hilti.com<br />
2. 3M Fire Protection Products<br />
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2. A manufacturer's authorized representative shall be on-site during initial installation of firestop<br />
systems to verify qualifications or train appropriate contractor personnel in proper selection and<br />
installation procedures. An acceptable Installer is one who is certified, licensed, or otherwise<br />
qualified by the firestopping manufacturer as having been provided the necessary training to install<br />
manufacturer’s products per specified requirements.<br />
3. Firestop System installation must meet requirements of CAN4-S115-M or ULC S-115-M tested<br />
assemblies that provide a fire rating as shown below.<br />
For penetrations through a Fire Separation wall provide a firestop system with a "F" Rating as<br />
determined by ULC or cUL as indicated in the table:<br />
Fire Resistance Rating<br />
of Separation<br />
Required ULC or cUL “F” Rating<br />
of Firestopping Assembly<br />
30 minutes 20 minutes<br />
45 minutes 45 minutes<br />
1 hour 45 minutes<br />
1.5 hours 1 hour<br />
2 hours 1.5 hours<br />
3 hours 2 hours<br />
4 hours 3 hours<br />
For combustible pipe penetrations through a Fire Separation provide a firestop system with a “F”<br />
Rating as determined by ULC or cUL which is equal to the fire resistance rating of the<br />
construction being penetrated.<br />
For penetrations through a Fire Wall or horizontal Fire Separation provide a firestop system with a<br />
“FT” Rating as determined by ULC or cUL which is equal to the fire resistance rating of the<br />
construction being penetrated.<br />
4. Submit Product Data: Manufacturer’s specifications and technical data for each material including<br />
the composition and limitations, documentation of ULC or cUL firestop systems to be used and<br />
manufacturer's installation instructions to comply with Section 15015.<br />
5. For those firestop applications that exist for which no ULC or cUL tested system is available<br />
through a manufacturer, a manufacturer's engineering judgment derived from similar ULC or cUL<br />
system designs or other tests will be submitted to local authorities having jurisdiction for their<br />
review and approval prior to installation. Engineer judgment drawings must follow requirements<br />
set forth by the International Firestop Council (September 7, 1994).<br />
6. Coordinate location and proper selection of cast-in-place Firestop Devices with trade responsible<br />
for the work. Ensure device is installed before placement of concrete. Responsible trade to<br />
provide adequate spacing of field run pipes to allow for installation of cast-in-place firestop<br />
devices without interferences.<br />
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7. Inspection of through-penetration firestopping shall be performed by the Manufacturer’s<br />
Authorized Representative in accordance with ASTM E 2174, “Standard Practice for On-Site<br />
Inspection of Installed Fire Stops” or other recognized standard. Provide a letter to certification to<br />
the Engineer indicating all fire stopping supplied and installed for the project meets Building Code<br />
requirements and has been installed in accordance with the Manufacturer’s installation<br />
instructions.<br />
8. Avoid cutting or penetrating of existing firestop systems already installed by other trades. If<br />
unavoidable, especially in renovations, remove existing material and provide new fire stopping<br />
system to complete the installation in accordance with this specification.<br />
9. Install a warning card that is clearly visible adjacent to all large and medium openings that may be<br />
re-penetrated. This card should contain the following information:<br />
1. Warning that the opening has being fire stop protected<br />
2. Indicate the fire stop system used (ULC or cUL)<br />
3. F rating or FT rating<br />
4. Fire stop product(s) used<br />
5. Contact phone number or HELP line<br />
15089 CANNINGS, OPENINGS & FIXINGS<br />
1. Provide and accurately set all necessary cans for the passage of pipe, all necessary hanger<br />
inserts, anchor bolts and special hanger attachments.<br />
2. Openings required through beams, columns, bearing walls, joists, foundations not accounted for<br />
on the drawings shall be referred to the Engineer for approval before construction. Be<br />
responsible for cutting required openings in existing structure.<br />
3. All holes through existing concrete slabs shall be cored. All coring shall be done with proper<br />
coring equipment. No core drilling to be done without prior approval of the Engineer. ALL<br />
FLOOR SLABS SHALL BE X-RAYED PRIOR TO CORE DRILLING.<br />
4. All holes broken through existing concrete block walls shall be done neatly and sizes shall be<br />
kept to the minimum for piping installation.<br />
15094 PIPE EXPANSION, HANGERS & SUPPORTS<br />
1. Equipment, duct and piping shall be supported and restrained in accordance with Clause 15245.<br />
All piping shall be so installed that it will in no way be strained or distorted by expansion and<br />
contraction. Anchors shall be provided wherever necessary to protect equipment and control<br />
direction of pipe movement. Pipe guides shall be provided at each side of each expansion joint.<br />
2. Provide all hangers, anchors, brackets and miscellaneous supports as required for the installation<br />
of ductwork, piping and equipment. Supports, hangers, and brackets shall be attached to walls,<br />
ceilings and floors in an approved substantial manner. All hanger supports for equipment shall<br />
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be set in structural members of the building to the Architect's approval. Pipe hangers shall be<br />
Grinnell Fig. 260, adjustable wrought clevis, Fig. 101 adjustable swivel ring, solid ring Type or<br />
Fig. 237 steel band and bolt. Perforated band iron, wire or chain hangers will not be approved.<br />
All hangers for copper pipe shall be copper, copper clad or use plastic-tape wrapped pipe at<br />
hanger. Inserts shall be Grinnell Fig. 152.<br />
3. All hangers shall be capable of vertical adjustment after pipe is erected. Pipe shall not be hung<br />
from other pipe.<br />
4. All insulated pipe 50mm [2"] and larger shall be fitted with insulation protection saddles, or<br />
insulation protection shields.<br />
5. On all pipe with vapour-seal insulation the hanger shall fit outside the insulation. Provide Fig.<br />
167 insulation protection shields on all insulated cold piping such as domestic water, chilled<br />
water and rain water leaders so that hanger rod and pipe hanger will not penetrate insulation<br />
vapour barrier.<br />
6. Pipe hanger rods shall be continuously threaded, cadmium plated and shall be sized and spaced<br />
as follows:<br />
PIPE DIA<br />
(inches)<br />
HANGER<br />
ROD DIA.<br />
(inches)<br />
MAXIMUM HANGER SPACING<br />
STEEL<br />
SCH.40<br />
(feet)<br />
COPPER<br />
DWV,L,K<br />
(feet)<br />
CAST.I<br />
STD.<br />
(feet)<br />
GLASS<br />
(feet)<br />
PLASTIC<br />
DWV,SCH.40<br />
(feet)<br />
1/2" 1/4" 6' 6' 4'<br />
3/4" & 1" 1/4" 8' 6' 4'<br />
1¼" 3/8" 10' 6' 4'<br />
1½" 3/8" 10' 6' 10' 4'<br />
2" 3/8" 10' 10' 10' 4'<br />
2½", 3 & 4" 1/2" 10' 10' 10' 8' 4'<br />
5", 6" & 8" 5/8" 10' 10' 10' 8' 4'<br />
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PIPE DIA<br />
(mm)<br />
HANGER<br />
ROD DIA<br />
(mm)<br />
MAXIMUM HANGER SPACING<br />
STEEL<br />
SCH.40<br />
(mm)<br />
COPPER<br />
DWV,L,K<br />
(mm)<br />
CAST.I<br />
STD.<br />
(mm)<br />
GLASS<br />
(mm)<br />
PLASTIC<br />
DWV,SCH.40<br />
(mm)<br />
12 6 1800 1800 1200<br />
20 & 25 6 2400 1800 1200<br />
32 10 3000 1800 1200<br />
38 10 3000 1800 3000 1200<br />
50 10 3000 3000 3000 1200<br />
65, 75, 100 13 3000 3000 3000 2400 1200<br />
125, 150, 200 16 3000 3000 3000 2400 1200<br />
7. Vertical piping shall be supported with riser clamps installed on every floor.<br />
8. Provide retaining strap for beam clamp.<br />
15135 FLOW MEASUREMENT VALVES<br />
1. Provide Tour and Anderson, Newman Hattersley, or approved equal, flow measurement valves.<br />
Flow measurement valves shall be complete with meter read out ports with check valves and tap<br />
drain/purge port with cap and 20mm hose bibb connection. Each measurement fitting shall have<br />
nameplate bearing manufacturer's name and calibrated name plate. Fitting shall be installed in<br />
complete accordance with manufacturer's recommendations. Valves shall be globe style “Y”<br />
pattern, have memory stop indicator, specifically designed for balancing with positive shut off.<br />
Valves 50mm and smaller sizes shall be N.P.T. with bronze body construction to suit piping<br />
materials. Valves 65mm and larger shall be flanged, ductile iron body. Required locations for<br />
flow measurement devices are indicated on the drawings. Valves shall be complete with<br />
molded insulation to permit access for balance and readout.<br />
15160 CIRCULATING PUMPS<br />
1. Provide circulating pumps where indicated, designed for quiet operation and guaranteed by the<br />
manufacturer for the intended operation. Hot water circulating pumps shall be suitable for<br />
pumping 100°C water. All pumps shall be fitted with mechanical shaft seals. Domestic water<br />
pumps shall be all bronze construction.<br />
2. Refer to Section 15200 for vibration isolation and seismic restraint requirements.<br />
15190 IDENTIFICATION & STENCILLING<br />
1. Provide means of identifying the contents of pipes as follows:<br />
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Use basic colour schemes for identity band on covered and as finish painting of uncovered pipes<br />
as listed in the following schedule. Paint identifying band of colour listed in Schedule near each<br />
valve and fitting, on both sides of pipes passing through walls and on long pipe runs<br />
(approximately every 9.1m [30'] or closer when directed). Stencil on pipe identity band, near<br />
each valve, name of pipe contents in an abbreviated form as listed in the Schedule under the<br />
heading "Legend". Stencil the size of pipe adjacent to each Legend. Paint arrow next to Legend<br />
indicating direction of flow in the pipe. Place stencil legend in location so that it can be easily<br />
read from the floor. The size of the stencil letters shall vary with the size of pipe, as per<br />
ASA.A.13 Standard.<br />
2. Each zone of heating piping shall be identified, by stencilling, to provide reference to spaces<br />
served on both supply and return mains. Obtain direction from Architect on stencil<br />
nomenclature prior to application.<br />
3. Schedule of Piping Systems Identification:<br />
SERVICE BASIC COLOUR LEGEND<br />
Water, Cold Dark Green C.W.<br />
Water, Domestic Hot Yellow D.H.W.<br />
Water, Heating Hot Yellow H.W.S./H.W.R.<br />
Chilled Water Green CH.W.S./CH.W.R.<br />
Gas Yellow Gas<br />
Fire Protection Red -------<br />
Storm Drain or Sewer Green Storm<br />
Sanitary Drain or Sewer Green Sanitary<br />
4. Each zone of ductwork in mechanical rooms and accessible concealed spaces shall be identified,<br />
by stencilling, with flow directional arrows and reference to spaces served. Obtain direction<br />
from Architect on stencil nomenclature prior to application.<br />
5. Equipment Identification:<br />
Identify each equipment unit, valve, controls, dampers, temperature and pressure tubing for<br />
controls dampers, temperature and pressure tubing for controls and other parts of mechanical<br />
systems by means of rectangular "Lamicoid" tags with brass "S" hooks, chains or adhesive.<br />
6. Commercially available pipe markers and direction arrows, Brady B-946 film material or<br />
approved equal, will be permitted at the contractor's option. Labels shall be suitable for<br />
continuous operating temperatures between -40°C and 120°C [104°F and 248°F] and shall be<br />
applied in accordance with manufacturer's recommendations by this contractor. Labels shall<br />
have 50mm [2"] high letters for pipe sizes, 75mm [3"] and larger and 20mm [3/4"] high letters<br />
for smaller sizes.<br />
END of SECTION 15050<br />
February 2012 JM BEAN & CO. LTD 1130.10
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Airport Terminal Building SEISMIC CONTROL Page: 1<br />
Washroom Renovations<br />
15245 SEISMIC RESTRAINTS<br />
1. Provide lateral bracing systems, complying with B.C. Building Code section 4.1.9, in addition to<br />
vertical support systems as specified herein.<br />
- Acceptable details of bracing requirements are as shown and noted in "Seismic Restraint<br />
Manual, Guidelines for Mechanical Systems" published by The Sheet Metal and Air<br />
Conditioning Contractors National Association Inc., 1998. This document is available<br />
from the Mechanical Contractors Association of B.C. (MCA-BC) or British Columbia<br />
Sheet Metal Association (SMACNA-BC).<br />
- No bracing is required if the top of pipe is suspended 305mm [12"] or less from<br />
supporting structural member and pipe is suspended by an individual hanger or if piping<br />
is 20mm [3/4"] diameter or smaller. All other piping is to be braced as specified.<br />
- All suspended terminal boxes, ceiling cabinet fans, fan coils, etc., installed shall be<br />
braced.<br />
- Ducts without bracing shall be installed with a minimum clearance of 152mm [6"] to<br />
vertical ceiling hanger wires.<br />
2. Brace all rectangular ducts .56m² [6 ft².] of cross sectional area and larger and all round ducts<br />
700mm [28"] in diameter and larger.<br />
- Exception:<br />
No bracing is required if the duct hanger is fastened to the duct within 305mm [12"] or<br />
less from supporting structural member as noted in the Manual.<br />
3. Provide duct transverse bracing at 9.1m [30'] maximum centres. Transverse bracing at each<br />
duct turn and at each end of a duct run. Walls including sheathed non bearing partitions which<br />
have ducts running through them may replace a transverse brace. Provide solid blocking around<br />
the duct penetration with stud wall construction.<br />
4. Provide duct longitudinal bracing at 18.3m [60‘] maximum centres. Transverse bracing for one<br />
duct section may also act as longitudinal bracing for a section connected perpendicular to it, if<br />
the bracing is sized for the larger duct and installed within 4' of the intersection.<br />
5. Duct joints shall conform to SMACNA duct construction standard with all joints positively<br />
fastened together. Diffusers, grilles and registers shall be mechanically secured to sheet metal<br />
ducts. Where unconnected or connected with flexible ductwork, provide wire retainers or duct<br />
straps at diagonally opposite corners secured to building structure.<br />
6. A group of ducts may be combined in a larger size bracing frame using overall dimensions and<br />
maximum weight for selection of bracing members.<br />
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7. Brace fuel gas and oil piping, medical gas piping and compressed air piping 25mm [1"] and<br />
larger, all piping 32mm [1-1/4"] and larger located in boiler rooms, mechanical equipment<br />
rooms and refrigeration machinery rooms and all pipes 65mm [2 ½"] diameter and larger in all<br />
locations as follows:<br />
- Provide pipe transverse bracing at 12.2m [40'] maximum centres unless otherwise noted.<br />
On gas piping transverse bracing shall be at 6.1m [20'] maximum centres.<br />
- Provide pipe longitudinal bracing at 24.4m [80'] maximum centres unless otherwise<br />
noted. On gas piping longitudinal bracing shall be at 12.2m [40'] maximum centres.<br />
- Transverse bracing for one pipe section may also act as longitudinal bracing for a section<br />
connected perpendicular to it, if the bracing is installed within two feet of the elbow or<br />
tee of similar size.<br />
- Do not use branch lines to brace main lines<br />
- Trapeze pipe hangers may be used. Provide flexibility in joints where pipes pass<br />
through building seismic or expansion joints, or where rigidly supported pipes connect<br />
to equipment with vibration isolators.<br />
- Rigid piping shall not be braced to dissimilar parts of a building or building systems.<br />
Examples: Wall and roof; solid concrete wall and a metal deck with lightweight concrete<br />
fill.<br />
- Provide pipe sleeves through walls and floors large enough to accommodate differential<br />
movements.<br />
8. Vertical Piping shall be:<br />
- Secured at sufficiently close intervals to keep pipe in alignment and carry weight of pipe<br />
and contents. Stacks shall be supported at their bases and if over two stories in height at<br />
each floor by approved metal floor clamps.<br />
- Support I.P.S. screwed pipe at not less than every other storey height.<br />
- Support copper tubing 38mm [1½"] and larger diameter at each storey and smaller<br />
tubing at not more than 1.8m [6'] intervals.<br />
- For other approved pipe materials support in accordance with their approved installation<br />
standards.<br />
- Supported at a point or points above riser centre of gravity.<br />
- Laterally guided at top and bottom of riser and at points not to exceed 9.1m [30‘] on<br />
centre.<br />
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Airport Terminal Building SEISMIC CONTROL Page: 3<br />
Washroom Renovations<br />
- Fire sprinkler piping is not considered in this specification section and shall be<br />
restrained as required by applicable codes.<br />
9. All cast iron pipe, glass pipe and any other pipe joined with a shield and clamp assembly where<br />
top of pipe is 305mm [12"] or more from support structure shall be braced on each side of a<br />
change in direction of 90° or more. Riser joints shall be braced or stabilized between floors.<br />
10. Pipe weights to be used, for all pipes including cast iron, with water filling, for restraint<br />
requirements are:<br />
Pipe Size Weight Pipe Size Weight Pipe Size Weight<br />
12mm 1.5 Kg/m 38mm 5.4 Kg/m 100mm 24.5 Kg/m<br />
20mm 2.1 Kg/m 50mm 7.7 Kg/m 125mm 34.9 Kg/m<br />
25mm 3.1 Kg/m 62mm 11.8 Kg/m 150mm 47.0 Kg/m<br />
32mm 4.4 Kg/m 75mm 16.1 Kg/m 200mm 75.0 Kg/m<br />
1/2" 1.0 lb/ft. 1-1/2" 3.6 lb/ft. 4" 16.4 lb/ft.<br />
3/4" 1.4 lb/ft. 2" 5.2 lb/ft. 5" 23.4 lb/ft.<br />
1" 2.1 lb/ft. 2-1/2" 7.9 lb/ft. 6" 31.5 lb/ft.<br />
1-1/4" 3.0 lb/ft. 3" 10. 8 lb/ft. 8" 50.3 lb/ft.<br />
Allowable loads for hanger rods are:<br />
Rod Diam. Weight Rod Diam. Weight Rod Diam. Weight<br />
6mm 109 Kg 13mm 513 Kg 20mm 1232 Kg<br />
10mm 277 Kg 16mm 822 Kg 22mm 1714 Kg<br />
1/4" 240 lb. 1/2" 1130 lb. 3/4" 2710 lb.<br />
3/8" 610 lb. 5/8" 1810 lb. 7/8" 3770 lb.<br />
11. Locations of, and connections and fastenings for, restraint systems shall be reviewed by the<br />
project consultant prior to start of bracing installation.<br />
- The review process shall be initiated by the trade contractor's submission of shop<br />
drawings (Clause 15015) confirming location of restraint systems for pipes, ducts,<br />
fittings and equipment. Marked up prints of tender drawings for piping and ductwork<br />
systems may be used. Submitted drawings shall indicate support point locations, loads<br />
and hanger types. In addition longitudinal and transverse bracing connection point<br />
locations, loads and connection types shall be indicated.<br />
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- Suppliers' detailed drawings of support/connection types, marked up to show loads or<br />
load ranges shall be used to facilitate type designations.<br />
- Referenced construction details, from "Guidelines" mentioned in .01 above, of<br />
support/connection types, marked up to show loads or load ranges may be used to<br />
facilitate type designations.<br />
12. Provide equipment restraints as manufactured by Mason Industries Inc. or approved equal.<br />
Shop drawings must clearly indicate recommended method of installation and points of<br />
attachment of hangers and supports to provide the necessary seismic restraint and be sealed by a<br />
B.C. registered Professional Engineer.<br />
- Shop drawings shall include statements detailing:<br />
●<br />
●<br />
●<br />
●<br />
Operating weight<br />
Calculated lateral force value V p<br />
Number of foundation bolts required and shear force on bolts.<br />
Tension force on anchorages from sum of moments for overturning.<br />
- It is equipment manufacturer's responsibility to design strength and anchorage of internal<br />
components that exceeds the force level required to restrain and anchor the unit to the<br />
supporting structure. Manufacturer's equipment shop drawings, required to be submitted<br />
for review prior to fabrication, shall certify that equipment construction complies with<br />
requirements of 2006 B.C. Building Code section 4.1.9.<br />
13. The vibration isolation/seismic restraint vendor shall provide all seismic restraint related<br />
hardware for fastening equipment, from point of attachment to equipment through to and<br />
including attachment to structure. All hardware required for seismically restraining hung<br />
equipment, piping and ductwork (excluding sprinkler systems and standard suspension hardware<br />
i.e. threaded rod and angle iron) shall also be provided by vibration isolation/seismic restraint<br />
vendor. Equipment suppliers shall provide appropriate holes, tabs, brackets, etc. to<br />
accommodate attachment of seismic restraint devices.<br />
14. For Fort Nelson, B.C. site the following values apply:<br />
Seismic Hazard Level (SHL) = C<br />
Lateral force, V p = v(S p )W p .<br />
Zonal velocity ratio, v = 0.05<br />
Horizontal force factor, S p as defined in the Code for mechanical/electrical equipment.<br />
W p is weight of component(s) being considered.<br />
15. Provide the services of the Professional Engineer(s) who designed the restraint systems for<br />
"Field Review" of the installed components including completion of the Letters of Assurance of<br />
Professional Review and Compliance in accordance with the Building Code. Typewritten<br />
inspection reports shall be submitted to the project consultant during the construction period.<br />
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Assurance commitment letters shall be provided at the commencement of the project and at its<br />
completion.<br />
END of SECTION 15200<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM MECHANICAL SECTION 15250<br />
Airport Terminal Building INSULATION Page: 1<br />
Washroom Renovations<br />
15261 PIPE INSULATION<br />
1. The B.C. Insulation Contractors Association Standards Manual for mechanical insulation, latest<br />
edition together with authorized additions and amendments shall be used as a reference standard<br />
and shall form part of the Specification. Provide pipe insulation on the following:<br />
- All domestic water supply, and recirculation piping.<br />
- All internal storm water piping.<br />
- All heating piping.<br />
- Last 3m (10 feet) of plumbing vent pipes through roof.<br />
2. Provide and apply in accordance with BCICA Specification 1501 Piping, as hereinafter<br />
specified and/or modified a heavy density pre-formed, mineral fibre pipe insulation suitable for<br />
a temperature range of 0°C. to +455°C [32°F to +850°F] for hot water piping including<br />
domestic hot water and hot water recirculation. For piping sized 50mm [2"] and larger, include<br />
insulation on valve bodies, strainers, and flanges in accordance with Specification 1501H. For<br />
cold piping including storm water, chilled water, and heat pump piping include insulation on<br />
valve bodies, valve bonnets, strainers and flanges in accordance with Specification 1501C. Note<br />
that Victaulic couplings, valves and fittings may be used. Abrasions and cuts in insulation shall<br />
be sealed with vapour-proof mastic. Finish exposed raw pipe insulation bevels and ends with<br />
finishing jacket or Robson’s Mastic.<br />
3. In concealed areas, a jacket equal to Manville Micro-Lok c/w APT 2000 jacket, Manson<br />
APT/Fibreglass ASJ self sealing edged will be acceptable. In the equipment rooms, basements<br />
and elsewhere where covering is exposed in finished areas, finish with Alpha Maritex<br />
#3451-RW pre-pasted, pre-sized glass fibre jacket or U.L. listed Flamex FR Canvas, Thermo<br />
canvas, or Approved Equal jacket, in accordance with manufacturer's specification for<br />
installation. Jacket shall be neatly pasted in place with an approved insulation adhesive.<br />
Approved preformed PVC fitting covers secured in placed with staples and colour matched<br />
pressure sensitive tape may also be used. Otherwise, fittings and elbows shall be neatly rounded<br />
and given a skim coat of finishing cement and finished with the canvas jacket to match.<br />
4. Exposed piping outdoors shall be finished with aluminum jacket Childers jacketing system or<br />
approved equal. For all piping located outdoors, apply an aluminum jacket, 0.5mm [.016"] thick<br />
complete with integral vapour barrier, with all joints lapped a minimum of 50mm [2"] to shed<br />
moisture, and secured with 13mm x.5mm [2" x .015"] stainless steel bands at 305mm [12"]<br />
centres. Finish for fittings to match that of straight run piping.<br />
5. Insulation thickness shall be as selected from the following table for the appropriate pipes sizes<br />
and operating temperatures. Boiler operating temperature shall be assumed as 93°C [200°F],<br />
domestic hot and cold water piping shall be assumed as 52°C and 7°C [125°F and 45°F]<br />
respectively.<br />
6. For exposed and concealed cold pumps, meters, couplings, and cold pipe surfaces, where<br />
insulation is not otherwise specified, apply No Sweat-FX as per Robson Thermal Manufacturing<br />
Ltd.’s recommendations to prevent condensation.<br />
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7. For exposed and hot pumps, meters, couplings, and hot pipe surfaces over 60°C (140°F) and<br />
where insulation is not otherwise specified, apply ThermaLite as per manufacturer’s<br />
recommendations to prevent skin burns.<br />
8. Pipe insulation adhesives and coatings shall be non-toxic as defined by W.C.B. Regulations.<br />
Imperial Minimum Pipe Insulation Thickness (in.)<br />
Fluid Design<br />
Operating<br />
Temperature<br />
Range °F<br />
Insulation Conductivity<br />
Conductivity<br />
Range Btuin./hr.ft.<br />
3 °F<br />
Mean Rating<br />
Temperature °F<br />
Runouts a<br />
up to 2"<br />
Nominal Pipe Diameter (in.)<br />
1" and<br />
less<br />
1½"<br />
to 2"<br />
2½"<br />
to 4<br />
5" &<br />
6"<br />
8" &<br />
up<br />
Heating Systems (Steam, Steam Condensate, and Hot Water)<br />
Above 350<br />
251 - 350<br />
201 - 250<br />
141 - 200<br />
105 - 140<br />
0.32 - 0.34<br />
0.29 - 0.31<br />
0.27 - 0.30<br />
0.25 - 0.29<br />
0.24 - 0.28<br />
250<br />
200<br />
150<br />
125<br />
100<br />
1.5<br />
1.5<br />
1.0<br />
0.5<br />
0.5<br />
2.5<br />
2.0<br />
1.5<br />
1.5<br />
1.0<br />
2.5<br />
2.5<br />
1.5<br />
1.5<br />
1.0<br />
3.0<br />
2.5<br />
2.0<br />
1.5<br />
1.0<br />
3.5<br />
3.5<br />
2.0<br />
1.5<br />
1.5<br />
3.5<br />
3.5<br />
3.5<br />
1.5<br />
1.5<br />
Domestic and Service Hot Water Systems<br />
105 & Grtr. 0.24 - 0.28 100 0.5 1.0 1.0 1.5 1.5 1.5<br />
Cold Water (Domestic, Storm)<br />
40 - 55<br />
Below 40<br />
0.23 - 0.27<br />
0.23 - 0.27<br />
75<br />
75<br />
0.5<br />
1.0<br />
0.5<br />
1.0<br />
1.0<br />
1.5<br />
1.0<br />
1.5<br />
1.0<br />
1.5<br />
1.0<br />
1.5<br />
Cooling Systems (Chilled Water, Brine, Antifreeze (Heat Pump) and Refrigerant)<br />
40 - 55 0.23 - 0.27 75 1.0 1.0 1.5 1.5 1.5 1.5<br />
Cooling Coil Condensate Drain<br />
40 - 55 0.23 - 0.27 75 1.0 1.0 1.0 1.0 1.0 1.0<br />
a ) Runouts to individual terminal units not exceeding 3.7m [12’] in length.<br />
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Washroom Renovations<br />
Metric Minimum Pipe Insulation Thickness (mm)<br />
Fluid<br />
Design<br />
Operating<br />
Temp.<br />
Range C<br />
Insulation Conductivity<br />
Conductivity<br />
Range<br />
kW/m o C<br />
Mean Rating<br />
Temperature<br />
°C<br />
Nominal Pipe Diameter (mm)<br />
Runouts a<br />
to 50mm<br />
25mm<br />
& less<br />
32-<br />
50mm<br />
62 -<br />
100 mm<br />
125 -<br />
150mm<br />
200mm<br />
& lgr.<br />
Heating Systems (Steam, Steam Condensate, and Hot Water)<br />
Above 176<br />
121 - 175<br />
94 - 120<br />
60 - 93<br />
40 - 59<br />
46 - 48<br />
41 - 44<br />
38 - 43<br />
36 - 41<br />
34 - 40<br />
120<br />
92<br />
66<br />
52<br />
38<br />
38<br />
38<br />
25<br />
13<br />
13<br />
63<br />
50<br />
38<br />
38<br />
25<br />
63<br />
63<br />
38<br />
38<br />
25<br />
75<br />
63<br />
50<br />
38<br />
25<br />
88<br />
88<br />
50<br />
38<br />
38<br />
88<br />
88<br />
88<br />
38<br />
38<br />
Domestic and Service Hot Water Systems<br />
40 & Grtr. 34 - 40 38 13 25 25 38 38 38<br />
Cold Water (Domestic, Storm)<br />
4 - 13<br />
Below 4<br />
33 - 38<br />
33 - 38<br />
24<br />
24<br />
13<br />
25<br />
13<br />
25<br />
25<br />
38<br />
25<br />
38<br />
25<br />
38<br />
25<br />
38<br />
Cooling Systems (Chilled Water, Brine, Antifreeze (Heat Pump) and Refrigerant)<br />
4 - 13 33 - 38 24 25 25 38 38 38 38<br />
Cooling Coil Condensate Drain<br />
4 - 13 33 - 38 24 25 25 25 25 25 25<br />
a ) Runouts to individual terminal units not exceeding 3.7m [12’] in length.<br />
15291 DUCT INSULATION<br />
1. Thermal duct insulation shall be applied in the following locations:<br />
−<br />
−<br />
−<br />
−<br />
Downstream of all cooling coils, with the following exception:<br />
Unless noted otherwise on the drawings, insulation is not required on the<br />
exposed portion of ducts which supply air only to the same room in which the<br />
duct is located.<br />
All outdoor air intake ductwork<br />
Ducts located outdoors or in unheated spaces.<br />
Any other locations specifically noted on drawings as requiring thermal insulation.<br />
Thermal insulation is not required where ducts are internally lined, with the exception of ducts<br />
located outdoors or in unheated spaces.<br />
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2. Where insulated ducts are "concealed" provide 25mm [1"] applied thickness (EF/1) flexible duct<br />
insulation. Where concealed insulated ducts are handling cold air or air cooled by refrigeration<br />
equipment, provide integral vapour barrier having permeance of less than 0.5 and vapour sealed<br />
installation (EF/2).<br />
3. Where insulated ducts are "exposed" provide 25mm [1"] thick (ER/1) rigid duct insulation on<br />
rectangular ductwork and 1" thick (EF/1) flexible insulation on round ductwork. Where<br />
exposed insulated ducts are handling cold air or air cooled by refrigeration equipment, provide<br />
RFFRK integral vapour barrier having permeance of less than 0.03. Seal all ducts and joints<br />
with 75mm [3"] wide matching vapour barrier tape. Finish duct insulation with Alpha Maritex<br />
#3451-RW pre-pasted, pre-sized glass fiber jacket or U.L. listed Flamex FR Canvas, Thermo<br />
canvas jacket, or Approved Equal jacket in accordance with manufacturer' specification for<br />
installation.<br />
4. Insulation application shall conform to standard of B.C. Insulation Contractors' Association. It<br />
shall be the insulation contractor's responsibility to comply with building code regulations<br />
regarding fire resistance requirements of vapour barriers, adhesives, covers, etc.<br />
5. Acceptable products are:<br />
Flexible:<br />
Rigid:<br />
Manson Alley Wrap FSK<br />
Fiberglass AF 300 Type II/RFFRK<br />
Manville Microlite 0.75lb. x 38mm [1-1/2"] thick c/w FSK facing<br />
Fiberglass Rigid/Vapour Seal RFFRK<br />
Manson AK Board FSK<br />
Manville Spinglass 800 Series c/w FSK facing<br />
6. On ducts located outdoors and exposed to the weather, insulate as follows:<br />
Materials<br />
Pins:<br />
Insulation:<br />
Minimum 14ga. cup head weld pins.<br />
Rectangular duct systems – mineral fiber rigid board, min. density.<br />
3 lb./cu.ft. (Johns Manville 813 Board/1230 Fibrex mineral wool board).<br />
Round duct systems – preformed mineral fiber pipe insulation/pipe and tank<br />
insulation.<br />
All insulation products to be complete with factory applied foil faced vapour<br />
barrier with all seams taped with 3” FSK type to achieve a complete vapour<br />
barrier<br />
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Jacket:<br />
Insulation shall be protected with a minimum 5mm (0.020”) thick aluminum<br />
jacket attached within 12mm stainless steel band and/or 12mm x 20mm stainless<br />
steel Robertson screws.<br />
Application<br />
Insulation<br />
Aluminum:<br />
On rectangular duct, secure insulation using weld pins (cup head type) at 300mm<br />
on centre (min. 2 rows per side). On round duct, secure insulation using<br />
stainless steel banding at 300 mm on centre.<br />
On rectangular duct, all circumferential and longitudinal seams should<br />
incorporate a standing lap and/or drive cleat system and be installed in a manner<br />
that will prevent water transmission. Cross breaks should be incorporated to add<br />
additional stiffness to the jacket. Screws should not be used where the insulation<br />
vapour barrier can be penetrated. Seal all penetrations of aluminum jacket using<br />
a suitable exterior grade silicone caulking.<br />
7. Duct insulation adhesives and coatings shall be non-toxic as defined by W.C.B. Regulations.<br />
END of SECTION 15250<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM PLUMBING SECTION 15400<br />
Airport Terminal Building Page: 1<br />
Washroom Renovations<br />
15410 PLUMBING SYSTEM PIPING<br />
1. From indicated connection points, provide distribution systems for cold, hot, and hot water<br />
recirculation including mains, risers, branches, check valves, shock absorbers, and other parts as<br />
specified and connect to fixtures requiring these services.<br />
2. Sizes of mains, risers, branches, connections shall be as indicated. Where sizes of connections<br />
to fixtures are not indicated, use sizes not less than the following:<br />
- 25mm [1"] for W.C. flush valve or full size of inlet to valve, whichever is larger.<br />
- 25mm [1"] for urinal flush valve.<br />
- 12mm [½"] for sink.<br />
- 10mm [3/8"] for lavatory.<br />
- Others as recommended by fixture manufacturer.<br />
3. Provide isolation valves at base of each riser, at each washroom group, and at each fixture, as<br />
otherwise indicated. Valves shall be in an accessible location with access panel.<br />
4. On supply piping to fixtures having flush valves or faucets, provide manufactured water<br />
hammer arresters in accordance with Standard PD1-WH201 from the Plumbing and Drainage<br />
Institute.<br />
5. Drainage:<br />
Grade horizontal piping at uniform slope to low points for drainage. Where constant pitch<br />
cannot be maintained for long runs, establish intermediate low point and rise to new level.<br />
Grade branches to drain to main or riser. At bottom of riser, at low points, provide 12mm [½"]<br />
brass valves with nipple and cap. Where fixtures are connected to risers at lowest level, they<br />
may be considered as drains.<br />
6. Water Supply Contamination:<br />
Make water connections to plumbing fixtures, and other equipment using water, in manner<br />
which will eliminate possibility of spent water from fixtures being drawn back into water supply<br />
piping.<br />
7. Provide building, storm and sanitary drains with cleanout; soil, waste and vent stacks, extended<br />
through roof and flashed; branch piping and fixture traps. Connect to fixtures, floor drains, roof<br />
drains, and other equipment indicated or specified as requiring soil, waste, drain or vent<br />
facilities. Connect vent stacks at base to soil or waste pipe, at least 914mm [36"] below lowest<br />
fixture branch. Unless otherwise indicated, install soil and waste branches at the ceiling below<br />
the floor where fixtures occur. Provide cleanouts and other accessories where required by local<br />
Code.<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM PLUMBING SECTION 15400<br />
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8. Provide floor drains with lead flashings, clamping device and chrome plated strainers with<br />
diameter twice as great as drainage connections.<br />
9. Provide roof drains with flashing and strainers of size indicated. Roof drain installations shall<br />
be made in accordance with recommendations of Canadian Roofing Contractors Association.<br />
10. Lines and Grades:<br />
Lay piping true to line and grade; fit ends together, match so that sewer or drain will have<br />
smooth and uniform invert throughout its length.<br />
11. Minimum Cover:<br />
Maintain 762m [30"] minimum cover above piping or bury below frost line in accordance with<br />
local practice, whichever is greater. Where piping is indicated as connecting to or crossing over<br />
piping, determine elevations of such lines before proceeding with new piping installation. In<br />
shop drawing show necessary re-routing to avoid interferences, submit for approval before<br />
proceeding with this work.<br />
12. When trench has been excavated to required depth, test bottom to determine its suitability for<br />
pipe support. If rock is encountered excavate to depth of 150mm [6"] below pipe bottom and<br />
fill this space and other irregularities with tamped sand before pipe is laid.<br />
15430 DRAINAGE SPECIALTIES<br />
1. Cleanouts:<br />
Cleanouts shall be installed in easily accessible locations near the foot of each soil stack, waste<br />
stack or rain water leader, and at each change in direction of building drain greater than 45°.<br />
The distance between cleanouts in horizontal lines shall not exceed 15.2m [50']. Cleanouts shall<br />
be of the same nominal size as the piping in which they are installed up to 100mm [4"] and not<br />
less than 100mm [4"] in size for larger piping. When installed at finished floor level cleanouts<br />
shall have countersunk heads in unfinished areas and access boxes and covers on finished floor<br />
areas. All cleanouts are to be installed so cleanout hub faces directly into access door.<br />
15440 PLUMBING FIXTURES & TRIM<br />
1. General<br />
Provide as indicated on Drawings as specified herein Plumbing Fixtures and Trim. Fixtures<br />
shall be as listed below under their appropriate symbol and similarly identified on the drawings.<br />
The following notes apply:<br />
(a)<br />
(b)<br />
(c)<br />
All catalogue numbers are "American Standard" unless otherwise indicated.<br />
All fixtures (except stainless steel) are to be white.<br />
Refer to Architectural Drawings for exact location of fixtures.<br />
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(d)<br />
(e)<br />
(f)<br />
(g)<br />
(h)<br />
All gaps between fixtures, walls and floors are to be sealed with "MONO" Acrylic<br />
caulking compound as manufactured by Tremco.<br />
All supplies and fittings to be indexed for service provided.<br />
Provide rough brass straight stops for all fixtures unless otherwise specified. Emco<br />
Series 10120 or equal.<br />
Fixtures designated for persons with disabilities shall be installed in accordance with<br />
British Columbia Building Code Section 3.8 (1998).<br />
All fixtures shall conform to CAN/CSA Standards as listed in the current edition of the<br />
B.C. Plumbing Code.<br />
2. Fixture Schedule<br />
WC-1<br />
American Standard #3351.001 'AFWALL FloWise’<br />
ELONGATED' Toilet, wall hung, vitreous china, EverClean antimicrobial<br />
surface which inhibits the growth of stain and odor causing bacteria, mold and<br />
mildew, elongated syphon jet flush action bowl, 2-1/8" (54mm) fully glazed<br />
internal trapway, 10" x 12" (254mm x 305mm) large water surface, high<br />
efficiency 4.2 LPF (1.1 GPF) to low consumption 6 LPF (1.6 GPF), 1-1/2"<br />
(38mm) top spud with condensate channel, for use with exposed flush valve.<br />
(Minimum MaP Test Rating: 1000 grams.) Sloan #111 ES-S-YO REGAL<br />
OPTIMA Electronic 'No Touch' Flush Valve Unit, C.P. low consumption 6.0<br />
LPF (1.6 GPF), factory set flow, quiet action, diaphragm type with filtered bypass,<br />
infrared proximity sensor and courtesy flush over-ride button, solenoid<br />
flush controller, circuitry, S.S. wall access plate, vacuum breaker, seat bumper<br />
and back-check angle stop. Power requirement 5VA. Mount sensor to clear toilet<br />
seat. Sloan #EL-154 Transformer, 120/24 VAC 50 VA. Centoco #500STSCC<br />
Toilet Seat, elongated heavy duty solid plastic open front less cover, with<br />
reinforced stainless steel check hinge, posts, washers and nuts. Jay R. Smith<br />
#0210Y Single or Double Horizontal Carrier (refer to drawings), with block base<br />
feet, bolts, cap nuts, adjustable nipple, gasket, test plug and protection cap.<br />
Provide 4" (102mm) square electric boxes in wall for solenoid and sensor<br />
mounting.<br />
WC-2<br />
American Standard #3351.001 'AFWALL FloWise’<br />
ELONGATED' Toilet, wall hung, vitreous china, EverClean antimicrobial<br />
surface which inhibits the growth of stain and odor causing bacteria, mold and<br />
mildew, elongated siphon jet flush action bowl, 2-1/8" (54mm) fully glazed<br />
internal trapway, 10" x 12" (254mm x 305mm) large water surface, high<br />
efficiency 4.2 LPF (1.1 GPF) to low consumption 6 LPF (1.6 GPF), 1-1/2"<br />
(38mm) top spud with condensate channel, for use with exposed flush valve.<br />
(Minimum MaP Test Rating: 1000 grams.) Sloan #111 ES-S-YG REGAL<br />
OPTIMA Electronic 'No Touch' Flush Valve Unit, C.P. low consumption, 6.0<br />
LPF (1.6 GPF) factory set flow, quiet action, diaphragm type with filtered bypass,<br />
infrared proximity sensor and courtesy flush over-ride button, solenoid<br />
flush controller, circuitry, S.S. wall access plate, vacuum breaker, extended seat<br />
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bumper and back check angle stop, C.P. 5" (125mm) sq. sensor wall plate with<br />
vandal-resistant screws. Mount sensor to clear toilet seat. Power requirement<br />
5VA. Sloan #EL-154 Transformer, 120/24 VAC 50 VA. Centoco #820STS<br />
Toilet Seat, elongated heavy duty solid plastic open front with cover, reinforced<br />
stainless steel check hinge, posts, washers and nuts. Jay R. Smith #0210Y Single<br />
or Double Horizontal Carrier (refer to drawings), with block base feet, bolts, cap<br />
nuts, adjustable nipple, gasket, test plug and protection cap. Provide 4" (102mm)<br />
square electric boxes in wall for solenoid and sensor mounting.<br />
UR-1<br />
American Standard 6042.005 'Decorum FloWise'<br />
Urinal, wall hung, vitreous china, wash down flush action 1.9 LPF (0.5 GPF.)<br />
per flush, integral flush spreader, 3/4" (19mm) top spud wall hangers,<br />
connecting flange with gasket and bolts. American Standard #047068-0070A<br />
Strainer, removable stainless steel. Sloan #186-0.5 ES-S ROYAL OPTIMA<br />
Electronic 'No-Touch' Flush Valve Unit, C.P. high efficiency, 1.9 LPF (0.5 GPF)<br />
factory set flow, quiet action, PERMEX diaphragm type, with dual filtered bypass<br />
infrared proximity sensor, solenoid flush controller, circuitry, in S.S. wall<br />
access plate, high pressure vacuum breaker and V.P. smooth design stop cap on<br />
back-check angle stop. Power requirement 5VA. Provide 4" (102mm) square<br />
electric box in wall for solenoid and sensor mounting. Power requirement 5 VA.<br />
Sloan #EL-154 Transformer, 120/24 VAC 50 VA. Jay R. Smith #SQ4-1819<br />
Urinal Wall Access Cleanout, with 4-1/4" (108mm) V.P. round S.S. access<br />
cover. 0637 Urinal Carrier, with bearing plates and steel pipe legs, welded to<br />
block base feet supports. Provide 4" (102mm) Sq. elect. box in-wall for sensor<br />
mounting.<br />
L-1 American Standard #0495.221 'OVALYN'<br />
Basin,17-1/8" x 14-1/8" x 7-3/16" (435mm x 359mm x 182mm) deep, under<br />
counter mounted, vitreous china, front overflow, cut-out template, and mounting<br />
kit. (Provide rim sealant). Sloan #ETF-600-LT-BDT-VPB 'OPTIMA' Electronic<br />
'No Touch' Faucet, Hard-Wired C.P. 4" (102mm) C.C., solid cast brass body<br />
with integral proximity sensor, with vandal-resistant 1.9 LPM (0.5 GPM) flow<br />
spray outlet, control module, solenoid, strainer, tempered water supplied by<br />
thermostatic mixing valve with back checks and service stops housed in 12"<br />
(305mm) Sq. recessed metal box with 13" (330mm) Sq. V.P. S.S. face, located<br />
in wall under basin. Flexible conduit from control module to faucet and solenoid<br />
provided. Power requirement 15 VA. Provide tee, adaptors and flexible copper<br />
tubing to suit installation. Sloan #EL-154 Transformer, 120/24 VAC 50 VA.<br />
McGuire #155A Basin Drain, C.P., cast brass 1 pc. top, open grid with 17ga.<br />
(1.5mm), 1-1/4" (32mm) tailpiece. Provide S.S. Supply with escutcheon (to<br />
connect box to faucet). McGuire #8872C-17T 'p' Trap, C.P., 17 gauge (1.5mm),<br />
brass adjustable body, 1-1/4" (32mm) and escutcheon. SureFlo automatic bulk<br />
Top-Fill, electronic activation system soap Dispenser, C.P. locking, solid cast<br />
brass body. Soap dispenser to be mounted in counter top<br />
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L-2 American Standard #9482.000 OVALYN<br />
Basin, 19" x 15-3/4" x 3-3/8 - 4-3/4" (483mm x 400mm x 86-121mm) deep,<br />
under counter mounted, vitreous china, rear overflow and mounting kit. Provide<br />
basin rim sealant. Sloan #ETF-600-LT-BDT-VPB 'OPTIMA' Electronic 'No<br />
Touch' Faucet, Hard-Wired C.P. 4" (102mm) C.C., solid cast brass body with<br />
integral proximity sensor, with vandal-resistant 1.9 LPM (0.5 GPM) flow spray<br />
outlet, control module, solenoid, strainer, tempered water supplied by<br />
thermostatic mixing valve with back checks and service stops housed in 12"<br />
(305mm) Sq. recessed metal box with 13" (330mm) Sq. V.P. S.S. face, located<br />
in wall under basin. Flexible conduit from control module to faucet and solenoid<br />
provided. Power requirement 15 VA. Provide tee, adaptors and flexible copper<br />
tubing to suit installation. Sloan #EL-154 Transformer, 120/24 VAC 50 VA.<br />
McGuire #155WC Basin Drain, C.P., cast brass 1 pc. top, offset open grid with<br />
17ga. (1.5mm), 1-1/4" (32mm) tailpiece. Provide S.S. Supply with escutcheon<br />
(to connect box to faucet). McGuire #8872C-17T 'p' Trap, C.P., 17 gauge<br />
(1.5mm), brass adjustable body, 1-1/4" (32mm) and escutcheon. McGuire<br />
#PW2000WC 'PROWRAP' Sanitary Covering, of PVC, vandal-resistant flexible<br />
seamless construction, anti-microbial, to exposed piping (to protect against<br />
heat/contusions) as per local codes. SureFlo automatic bulk Top-Fill, electronic<br />
activation system soap Dispenser, C.P. locking, solid cast brass body. Soap<br />
dispenser to be mounted in counter top.<br />
FD-1<br />
Jay R. Smith #2005-AU-P050<br />
Floor Drain, all duco coated cast iron body, reversible flashing clamp with<br />
seepage openings round strainer , trap primer connection 1/2" (13mm).<br />
RD-1<br />
Series 1010ERCAD Jay R. Smith<br />
All duco coated 15" (381mm) diameter cast iron body roof drain, with under<br />
deck clamp, solid extension, sump receiver, and aluminum dome strainer.<br />
TP<br />
Zurn Z-1022-A<br />
Trap primer for each drain. No trap primer required for shower drains.<br />
15450 BACKFLOW PREVENTION<br />
1. Provide reduced pressure principal backflow preventers and/or double check valve assemblies as<br />
specified and indicated on the plumbing drawings. Pipe differential relief outlet to drain.<br />
2. Maximum mounting height of devices to be 1525mm (5'-0") above finished floor level.<br />
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3. Backflow prevention devices shall be in complete accordance with CSA B64.10-M88<br />
"Selection, Installation, Maintenance and Field Testing" and American Water Works<br />
Association - Western Canada Section and Pacific Northwest Section - 1990 Fifth Edition.<br />
4. Complete testing of all backflow prevention devices shall be carried out under this Section prior<br />
to final acceptance of plumbing systems. A certificate shall be submitted duly signed and<br />
witnessed that testing was satisfactory as part of the maintenance manuals.<br />
END of SECTION 15400<br />
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Fort Nelson NRRM REFRIGERATION SECTION 15650<br />
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15665 ROOF TOP HEATING & COOLING UNITS - GAS HEATING<br />
1. Units shall be Lennox LG Series R-410A High Efficiency models with capacities as scheduled<br />
incorporating direct expansion cooling and gas heating, with accessories as specified herein.<br />
The equipment shall be CSA/CGA approved and shipped pre-charged, piped and wired<br />
internally ready for field connections. Unit shall be complete with PVC coated condenser coil<br />
guards, condensate drain trap, economizer section with modulating damper motor, outdoor air<br />
and return air dampers, and pressure relief damper. Provide roof curbs, allowing weatherproof<br />
duct connection and entry into conditioned area.<br />
2. Heat exchanger shall be constructed of aluminized steel with a limited 10 year warranty. Inshot<br />
burners shall be individually removable for servicing. Gas controls to have intermittent spark<br />
ignition, electronic flame safety, automatic single stage gas valve, manual shut off, pressure<br />
regulator, induced draft fan, air proving switch, and manual reset flame roll out switch and fan<br />
limit switches and to protect heating system from abnormal operating temperatures. Unit shall<br />
have -60º F kit for cold temperature location. Unit shall have vertical vent extension kit, with<br />
B-vent and associated vent fittings provided by contractor per the kit instructions.<br />
3. Refrigeration circuit shall be factory sealed with full operating charges of oil and R-410A<br />
refrigerant and shall be complete with liquid line strainer, suction and liquid line service gauge<br />
ports, manual reset high pressure switch, low pressure switch, drier, freezestat and thermostatic<br />
expansion valve. Controls shall include dual pressure switch, compressor relay and overload<br />
protection. Hermetic, scroll type compressor shall have a limited warranty for five years,<br />
suction cooled and equipped with suction and liquid line valves, overload protection and<br />
effective slugging protection. Compressor shall be equipped with crankcase heaters. The entire<br />
running gear shall be spring mounted within the sealed unit and the entire compressor shall be<br />
mounted on rubber vibration isolators. Unit shall be capable of low ambient operation down to<br />
0°F (-18°C) and have 2 stages of cooling.<br />
4. Condenser fan shall be an axial flow variable speed ECM motor type, with overload protection,<br />
and permanently lubricated bearings. Supply air fan shall be direct drive, forward curved,<br />
centrifugal type, high efficiency variable speed ECM motor. Condenser and evaporator coils<br />
shall be aluminum fin on copper tube.<br />
5. Cabinet shall be hot dipped galvanized steel with baked on enamel finish with hinged access<br />
doors and fibreglass insulation. All panels shall have seals and quarter turn latching handles to<br />
provide a tight air and water seal.<br />
6. Provide disposable 50mm (2") thick type pleated MERV 7 filters with the unit.<br />
7. The unit shall be complete with a factory wired solid state microprocessor based control board<br />
with a limited warranty of three years, Prodigy Control System, consisting of standard operating<br />
and safety controls for the heating and mechanical cooling control systems as well as a terminal<br />
strip suitable for connection of low voltage controls. The Prodigy unit controller shall display<br />
temperature readings from return air, supply air and outside air sensors that are furnished as<br />
standard equipment. The Prodigy unit controller shall display detailed diagnostic information<br />
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and diagnostic codes to identify any problems. All codes shall be listed inside control access<br />
panel for easy reference.<br />
8. The unit shall have a fully modulating economiser section complete with outdoor air hood and<br />
pressure relief dampers (and hood). The economiser controls shall use the add-on Prodigy<br />
control board with the sensible control. Economizer shall be factory installed. The assembly<br />
shall include fully modulating 0-100 percent motor and dampers, barometric relief, minimum<br />
position setting, preset linkage, wiring harness with plug. The outdoor air damper shall return to<br />
a minimum position when outdoor temperature is too high for proper cooling. An adjustable<br />
minimum position damper switch shall position the outdoor air damper.<br />
9. Assemble units on roof; provide duct connections and accessories as indicated. Provide control<br />
wiring to and replace the existing programmable room thermostats with new wall mounted,<br />
programmable, auto-changeover thermostats and clear plastic guards. Arrange with the Owner<br />
for appropriate start and stop times to be programmed.<br />
10. Manufacturer or authorized representative shall provide field starting service for the units.<br />
Start-up air conditioning units in accordance with manufacturer’s start-up instructions. Test<br />
controls and demonstrate compliance with requirements. Provide start-up reports.<br />
Unit Schedule:<br />
AC - 2<br />
Model : LGH036H4ES_Y<br />
Supply Air Flow: 1000 CFM<br />
Gross Cooling (2 nd stage): 34,300 Btuh<br />
SEER / EER at ARI conditions: 17.0 / 12.5<br />
Heating input: 65,000 Btuh @ 80% AFUE<br />
Indoor blower HP: ½<br />
Electrical Characteristics: 208/230V, 3 Ph<br />
Minimum Circuit Ampacity: 23<br />
Weight (incl. accessories, wo/ curb): 716 lbs<br />
END of SECTION 15650<br />
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15830 RADIATION<br />
1. Provide Radiation of types, material, capacities, sizes, and locations as indicated and as<br />
specified herein.<br />
2. Ratings for hot water radiation are based on 93°C [200°F] entering water with 11°C [20°F]<br />
drop, and 18°C [65°F] entering air.<br />
3. Radiation air eliminators, Dole No. 10 with air chambers, shall be provided on all radiation<br />
located above supply mains. Neatly pipe eliminator to enclosure face to permit operation<br />
without enclosure removal.<br />
4. Provide radiation which is located below return mains with approved means for draining.<br />
5. Provide manually operated dampers manufactured by radiation manufacturer in all spaces not<br />
controlled by room thermostat.<br />
6. Provide all end pieces, element hangers, trim pieces, corner pieces, access doors and other<br />
enclosure trim as required, indicated or directed to complete radiation installation. Access doors<br />
shall be provided for all automatic control valves, hand operated radiation valves, balance<br />
valves and other fittings requiring adjustment or maintenance. Where wall fin radiation is<br />
indicated in Architectural cabinet, provide extension stem with guides for manual control valves<br />
so that valves may be operated from top of enclosure.<br />
7. Provide manual radiator valve and balance fitting with 100% shutoff feature on each piping loop<br />
containing radiation.<br />
8. Enclosure, element, damper, trim pieces shall be by same manufacturer. All radiation<br />
enclosures shall be provided in prime coat finish.<br />
9. Wall fin or baseboard radiation element shall consist of aluminum fins on copper tube, or steel<br />
fin on steel pipe with fin spacing as specified on Drawings. Bond fins to tubing by expanding<br />
tubes into fin collars to assure permanent contact. Lengths specified are actual fin lengths.<br />
10. Support fin pipe in enclosure by adjustable clips and brackets with ball bearings chair type<br />
carriers which will prevent noises caused by movement of element due to thermal expansion.<br />
11. Wall fin enclosure shall be as indicated, constructed from 16 gauge steel, unless otherwise<br />
indicated, firmly supported at top and bottom on enclosure brackets; installed in accordance<br />
with manufacturer's recommendations. Provide sponge rubber dirt guard under top channel.<br />
12. Unless indicated or specified otherwise, wall fin enclosures shall be 457mm [18"] longer than<br />
wall fin elements.<br />
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13. Provide convectors of the size and type indicated. Enclosures shall be fabricated from furniture<br />
steel of following minimum gauges: front, 16; back and ends, 20; top, 18; brace and reinforce<br />
with angles or channels for lengths over 914mm [36"] and heights over 762mm [30"].<br />
END of SECTION 15750<br />
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Fort Nelson NRRM AIR HANDLING SECTION 15850<br />
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15870 EXHAUST FANS<br />
1. Provide exhaust fans as noted on drawings. Roof exhaust fans shall be equipped with<br />
birdscreen, aluminum backdraft dampers with felted edges and factory wired disconnect switch<br />
under hood. Provide indicated ductwork and specialties to complete installation of fans.<br />
2. Provide location and size of roof openings required to the General Contractor.<br />
3. Roof exhaust fans shall be lagged to curbs with galvanized iron lag screws, rubber and<br />
aluminum washers. Caulk joint between curb and fan base air tight.<br />
END of SECTION 15850<br />
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Fort Nelson NRRM AIR SECTION 15880<br />
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15890 DUCTWORK<br />
1. Duct construction shall be in accordance with recommendations set forth in the current edition<br />
of Sheet Metal and Air Conditioning National Association Duct Construction Standards.<br />
2. Unless noted otherwise, ductwork shall be fabricated from G90 commercial quality galvanized<br />
steel. All materials used shall be new and in good condition. Where ductwork is exposed,<br />
provide materials which are free from visual imperfections including pitting, dents, and other<br />
imperfections, including those which would impair painting.<br />
3. The drawings do not attempt to show all offsets. The contractor shall make necessary offsets at<br />
no additional cost to the Owner. Offset angles shall be as small as possible.<br />
4. Curved elbows are preferred and shall have a centre-line radius equal to 1 1/2 times the duct<br />
width. Air turning vanes shall be installed in all abrupt or square elbows. They shall be<br />
standard manufactured products, quiet and free from vibration when system is operating.<br />
5. Volume dampers shall be installed in each branch duct to allow proper balancing. Dampers<br />
shall be complete with quadrant and locking device equal to Duro Dyne K-4, K-5 for rectangular<br />
ducts, K-2 or KR-3 dial for round ducts. Dampers shall be Model MBD-57 or MB-RD-84 as<br />
manufactured by Price Ltd. or approved equal. In rectangular ducts, dampers 305mm [12"] in<br />
height or less shall be single blade type. Larger rectangular ducts shall have opposed blade type.<br />
Round ducts 610 mm [24"] dia. or less, shall have single blade dampers. Larger ducts shall<br />
have opposed blade dampers.<br />
6. ULC labelled fire dampers shall be provided where indicated. Fusible links shall have a melting<br />
point of 71°C (160°F) or approximately 30°C (54°F) higher than maximum anticipated<br />
temperature, whichever is higher. Unless noted otherwise on drawings, dampers shall be as<br />
manufactured by Controlled Air Manufacturing Ltd., dynamic type, low resistance type B, or<br />
approved equal. Provide access doors for fusible link inspection or replacement. Static type fire<br />
damper is not acceptable.<br />
7. Where ducts pierce floors, walls, or ceilings that are fire rated assemblies or fire separations,<br />
they shall be tightly fitted and equipped with fire dampers as noted in .06. The installation shall<br />
conform to Part 3, Sub-section 3.1.8 of the 2006 B.C. Building Code.<br />
8. All ductwork shall be supported and restrained, as outlined in SEISMIC RESTRAINT Clause<br />
15245, by solid straps, at not more than 3 m (10 ft.) centres, of adequate strength extending<br />
down side of duct and turned under the bottom. On each strap provide two sheet metal screws<br />
on side and one in bottom. Where SMACNA standards are more stringent, they shall apply.<br />
9. Provide Duro Dyne DURALON flexible connections where indicated on drawings and for duct<br />
connections to equipment which is not internally isolated.<br />
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10. Where flexible ductwork is indicated provide Thermaflex III Type M-KE low velocity insulated<br />
duct installed in accordance with manufacturers recommendations. Flexible duct shall be not be<br />
used on return and exhaust ductwork.<br />
11. Provide duct access panels consisting of sheet metal patches gasketed and fastened with screws,<br />
305mm x 200mm [12" x 8"] minimum unless size of duct is smaller, for duct cleaning as<br />
follows:<br />
- At 12.2m [40 ft] intervals in all duct systems.<br />
- At 6.1m [20 ft] intervals in horizontal exhaust ducts.<br />
12. Provide duct access doors, Nailor 0800 Series Flat Oval with die formed frame and camlock<br />
fasteners, 0890 Series for low pressure round ducts, or approved equal, as follows:<br />
- At base of all duct risers.<br />
- On both sides of turning vanes or coils.<br />
- At each fire damper or control damper.<br />
- At temperature control components.<br />
- At smoke detectors.<br />
13. When door side dimension is 457mm [18"] or less removable cam latch panels may be used;<br />
over 457mm [18"] provide hinged door. In ceiling spaces and when door is greater than 1200<br />
mm (48”) above the floor, provide safety chain when not hinged. Where ductwork is lined or<br />
thermally insulated, door panel shall be insulated.<br />
- Access for cleaning shall be 305mm x 200mm [12" x 8"] minimum.<br />
- Access for service shall be 457mm x 457mm [18" x 18"] minimum.<br />
14. All low pressure ductwork shall be constructed to SMACNA standards for 500 Pa [2"] static<br />
pressure rating and its corresponding seal class rating, unless noted otherwise on drawing. All<br />
ductwork shall be sealed. Test as directed.<br />
15. Make all joints of metal ducts, connections to diffusers, plenums, flexible ducts with Robson’s<br />
Duct Seal, SPIR-L-OK Tough Bond, Duro Dyne S-2 or Flintkote "Premium" sealer applied as<br />
directed by manufacturer.<br />
16. Provide installation of temperature control system components where required in ductwork.<br />
17. Provide Manson Akousto-liner flexible duct insulation, or approved equal where indicated.<br />
Increase duct dimensions to accommodate insulation. Duct dimension noted on drawings are<br />
clear, inside dimensions. Insulation thickness shall be as noted on the drawings. All seams,<br />
joints and raw edges shall be sealed and covered with glassfab. Insulation shall be applied with<br />
mechanical fasteners and suitable adhesives. Duct insulation adhesives and coatings shall be<br />
non-toxic as defined by W.C.B. Regulations.<br />
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18. All openings in ductwork are to be sealed with temporary dust covers during construction.<br />
Failure to maintain duct cleanliness will require the inside of all air ducts, plenums and<br />
equipment in the air stream to be cleaned with an industrial vacuum cleaner before system<br />
balancing is started.<br />
15901 DIFFUSERS, GRILLES & REGISTERS<br />
1. Provide, where indicated on drawing, diffusers, grilles and registers as scheduled.<br />
2. Grilles, registers and diffusers shall be product of one manufacturer for generic type, ie grilles<br />
and registers by one, diffusers by one, or same. Selection shall conform to intended throw and<br />
noise criteria ratings. Catalogued or published ratings shall be those obtained from tests carried<br />
out by manufacturer or those ordered by him from independent testing agency signifying<br />
adherence to applicable codes and standards.<br />
3. Furnish door grilles to General Contractor for installation by millwork supplier.<br />
4. Where diffusers, grilles and registers are installed in ceilings or walls, have removable cones,<br />
plates, or cores, that are not mechanically fastened, provide retaining chains in a concealed<br />
location to fasten the removable item to the sheet metal duct or diffuser body.<br />
5. Refer also to Section 15200 for seismic restraint requirements.<br />
END of SECTION 15880<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM CONTROLS SECTION 15920<br />
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15921 GENERAL<br />
1. Provide low voltage control wiring for packaged devices in strict accordance with<br />
Manufacturer's Installation Instructions. Arrange with and pay electrical sub-contractor for<br />
installation of empty conduit for thermostat locations or provide such conduit in exposed<br />
locations and in walls.<br />
2. The Control System shall be installed by the Control Contractor but as an integral part of the<br />
Mechanical Sub-contract. The system shall be installed by certified journeymen, electricians<br />
and registered electrical apprentices regularly employed by the Control Contractor.<br />
3. The system shall be tested, completely calibrated and adjusted prior to final inspection by the<br />
Engineer.<br />
4. All instrument calibrations and readouts shall include SI metric units, temperatures shall be in<br />
Celsius.<br />
15936 ELECTRICAL COMPONENTS, WIRING AND CONDUIT<br />
1. Provide:<br />
All control system components, except those supplied as part of packaged equipment controls,<br />
but including all auto sequencing devices, electric relays, safety devices and electrical interlocks<br />
required to accomplish specified sequences. Refer to the electrical motor schedule in the<br />
electrical drawings and/or specification, which delineate the limits of electrical work in Division<br />
16 (Electrical) serving mechanical systems.<br />
All control circuit transformers required for control systems and not supplied by Division 16<br />
including line voltage power connection from indicated outlets shall be included by Division 15.<br />
All wiring shall be copper with RW90 X-Link P.E. insulation #12 minimum size. Wiring is to<br />
be in conduit in all wall spaces and exposed locations as well as in pipe chases, service spaces,<br />
attics, and crawl spaces which are entered for service access. Wiring in suspended ceiling<br />
spaces does not require conduit but shall be neatly installed parallel to building lines using<br />
bridle rings. All wiring installed under this contract shall be plenum rated FT-6 or FT-4, if<br />
approved by all authorities having jurisdiction. Locate wiring away from top or bottom of<br />
ceiling joists or trusses to minimize possibility of accidental damage. Number 18 gauge wire<br />
may be used in Class 2 circuits unless voltage drops are excessive. THHN wire will not be<br />
acceptable. Twisted shielded wiring, minimum of 22 gauge wire shall be used for all DDC or<br />
co-axial communication wiring. Line voltage alternating current wiring shall not be run in the<br />
same conduit, or cabling as DDC wiring.<br />
Use 1m of flexible conduit for all connections to vibrating equipment. Use liquid tight flex cable<br />
and connections where required.<br />
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2. The Control Contractor shall locate magnetic starters from the electrical drawings. All electrical<br />
work provided by this Contractor shall comply with all requirements of the Division 16<br />
electrical specification, the Canadian Electrical Code and Local Codes and Ordinances.<br />
3. Wire all line voltage thermostats, pressure switches or aquastats for single phase equipment.<br />
4. Division 16 has been requested to provide specific devices, including magnetic starters supplied<br />
with 120 volt holding coils, HOA switching and space for the addition of auxiliary contacts.<br />
The Control Contractor shall provide all necessary normally open and normally closed contacts,<br />
wired to a terminal strip within the starter enclosure, required to achieve the specified control<br />
interlocking and sequencing. Manual starters for 120 volt equipment are to contain On-Off<br />
selector, external H.O.A., integral overload protection and pilot lights. The Controls Contractor<br />
shall provide control wiring interlocks from the control contacts provided on the automatic<br />
branch lines of the assembly, which will be contained within the associated Motor Control or<br />
Starter Assembly.<br />
5. Refer to Division 16 Specifications and Motor Schedule for the scope of work to be provided by<br />
the Electrical Contractor. Division 15 shall supply and install all components, in addition to<br />
those outlined within the Division 16 documents, as may be deemed necessary to provide all<br />
interlocks or sequences as called for elsewhere within the specifications.<br />
6. All power supplies for controls are this Contractor's responsibility unless otherwise specified in<br />
the Electrical Specifications. All control transformers to be located in fan rooms or mechanical<br />
rooms only and are to be mounted in serviceable locations.<br />
7. Line voltage will not be run with signal or trunk wiring or be present in the same junction box.<br />
8. Run all wiring parallel to building lines. All wiring to be installed in a neat, workmanlike<br />
manner.<br />
9. Support wiring independent of piping, ductwork, and equipment. Keep wiring clear of hot<br />
piping, ductwork/equipment.<br />
10. Identify all junction boxes with control company label.<br />
11. There are to be no splices in any of the control wiring except at devices or control panels.<br />
12. All control wiring inside of field panels shall neat, and serviceable. All connections shall be<br />
made at terminal strips which shall be marked and labelled to match As built control drawings.<br />
15937 RELATED WORK<br />
1. The following incidental work shall be furnished by the mechanical sub-contractor under the<br />
supervision of the controls subcontractor:<br />
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• Installation of control dampers including duct transitions, assembly and interconnection<br />
of multiple section dampers.<br />
• Supply and installation of sheet metal baffles as required to eliminate air stratification.<br />
• Supply and installation of access panels for service and installation of control<br />
equipment.<br />
• Installation of automatic valves, wells, flow switches, and other pipe related control<br />
devices.<br />
15958 CONTROL VALVES & ACTUATORS<br />
1. Provide automatic temperature control valves as scheduled and indicated on drawings.<br />
Sufficient clearance above control valves shall be provided to allow removal of superstructure<br />
without removing body from line. All valve stems shall be vertical. All electric valves,<br />
including zone valves, scheduled for modulating service shall be fully proportional (no floating<br />
control) suitable for 0-10 volt, or 4-20 mA input signal.<br />
2. Control valves, both 2 and 3 way configuration, shall have the following minimum<br />
characteristics:<br />
• Body shall be brass meeting ANSI Standard B16.15 Class 250 for all valves 50 mm and<br />
smaller. Larger valves shall be cast iron, Class 125, meeting ANSI Standard B16.15.<br />
• Valve stem shall be 316 stainless steel.<br />
• Valves shall have brass plug, composition seat with maximum seat leakage of 0.01% of<br />
flow rating per ANSI B16.104, and equal percentage flow characteristic.<br />
• Valves for terminal zone coils, fan coils and radiation shall have EPT or TFE packing<br />
material and NPT, union or flare connections.<br />
• Valves for primary equipment sized 50 mm and smaller shall have screwed connections.<br />
Valves sized 65 mm and larger shall have flanged connections.<br />
• Ball Valves are not acceptable for control applications.<br />
3. When more than one control valve is used for temperature or pressure control on a system, or<br />
equipment item they shall be sequenced. e.g. two valves on a heating coil or pressure reducing<br />
station; heating and cooling coil valves on an air handling system.<br />
4. Valves on hazardous services shall fail to a safe position. e.g. Valves controlling heating to<br />
domestic hot water shall fail closed to heating when not powered.<br />
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5. Actuators shall be of the rotary or piston type for either modulating or two position control.<br />
Actuators shall be powered by an overload-proof synchronous motor. Control voltage shall be<br />
either 120 VAC, 24 VAC, 10 VDC, or 4-20 mA with spring return on power failure, where<br />
required. (ie outdoor air dampers and HVAC primary heating valves). Actuators (motors) shall<br />
have repair kits available, and be re-buildable in the field. Provide proportional actuator<br />
position feedback on all primary equipment (air handling units) to prove actuator position.<br />
6. All control valves shall have replaceable bonnets, and packing. The packing shall be<br />
replaceable in the field without having to remove the valve from the piping network.<br />
7. All control valves shall be sized to deliver the specified flow rate in the 100% open position.<br />
Control valves using a "limited stroke" to achieve the proper flow coefficient shall not be used.<br />
15980 ROOM TEMPERATURE CONTROL<br />
1. Provide room thermostats to position indicated and scheduled control valves to maintain desired<br />
space temperature.<br />
15984 PACKAGED ROOF TOP A/C UNITS<br />
1. Install thermostat and make connection to damper actuator and factory installed wiring terminal<br />
strip to sequence unit economizer control, and modulating gas control. Provide all field wiring<br />
to complete the installation of the AC systems.<br />
2. Refer to packaged equipment specifications for controls supplied as part of the packaged unit,<br />
AC-2. Relocate existing thermostat for AC-1.<br />
END of SECTION 15920<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM TESTING, ADJUSTING & SECTION 15990<br />
Airport Terminal Building BALANCING Page: 1<br />
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15991 TESTS<br />
1. At completion, provide all instruments and personnel and make tests of all equipment as<br />
required by these Specifications to demonstrate that all are in perfect working order. Present to<br />
the Engineer a typewritten report detailing methods used to obtain balance in air and heating<br />
systems and listing all final instrument readings taken by the Contractor at the site.<br />
2. Tests on plumbing systems shall consist of pressure tests. All leaks shall be corrected by<br />
remaking the joints. The system shall be retested until no leaks are present. Tests shall be as<br />
follows:<br />
• Sanitary systems - Hydraulic, 3 m [10 ft.] water column for 8 hours.<br />
• Storm drains - Hydraulic, 3 m [10 ft.] water column for 8 hours.<br />
• Domestic water - Hydraulic, 1034 kPa [150 psig]. for 8 hours.<br />
3. All plumbing fixtures shall be tested for soundness, stability of support and correct operation.<br />
4. Test hydrostatically, before painting or covering piping for all services except air to 1 1/2 times<br />
the maximum working pressure, but in no case less than 345 kPa [50 psi.], for at least 4<br />
consecutive hours, during which time the pressure shall remain constant without pumping.<br />
Subject welded joints to a hammer test while under hydrostatic pressure. Test piping which will<br />
be concealed in sections as approved, in manner which will not leave any pipe or joint untested.<br />
5. If, upon testing, leaks develop or the installation fails to function properly, make all necessary<br />
corrections and new tests until all defects or deficiencies have been remedied. Corrections<br />
necessary for the proper functioning of the installation shall be made to the satisfaction of the<br />
Owner before final acceptance of the system.<br />
15992 BALANCING & TESTING<br />
1. General:<br />
Balancing and adjusting of air handling and water systems shall be carried out by a firm such as<br />
Liner Services, RA Bruce & Associates or other approved by Consulting Mechanical Engineer.<br />
A copy of the balancing report shall be sent to the Engineer for record purposes.<br />
2. Air Handling Systems:<br />
All air handling systems shall be balanced for satisfactory performance. (Exhaust systems<br />
included). Balancing results shall be tabulated and include the following:<br />
• Single line drawing with outlets numbered corresponding to outlet summary sheets.<br />
• Outlet summary sheets listing outlet number, outlet make, model, area factor, required<br />
velocity/quantity, actual velocity/quantity.<br />
• Fan “minimum” outdoor air volume.<br />
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• Fan total air volume at 100% return air, “minimum” outdoor air, and 100% outdoor air<br />
settings.<br />
• Fan speed.<br />
• Fan motor current, and rated motor current.<br />
• Entering and leaving air temperatures for each heating coil.<br />
3. Water Systems (HVAC):<br />
Water circulating systems shall be balanced by means of balancing fittings and tabulated results<br />
shall include the following:<br />
• Differential head across all circulating pumps.<br />
• Flow and return water temperature to supply and return header for all zones.<br />
• Water temperature supplied to and returning from each coil and heating element.<br />
4. Contractor shall arrange with balancing technician to have water flow through radiation<br />
elements checked prior to installation of radiation enclosure.<br />
5. Domestic Hot Water Recirculation System:<br />
Domestic hot water recirculation system shall be balanced by proportioning the water flow at<br />
balancing fittings and ensuring adequate flow through each circuit.<br />
6. Testing of Fire Dampers & Fire Stop Flaps:<br />
The Balancing/Testing Agency shall conduct a "trip" test on all fire dampers and fire stop flaps<br />
to ensure that fire mechanisms function correctly and that dampers attain a fully closed position<br />
when tripped. A copy of test results tabulating the fire damper location, size, and date of trip<br />
test, shall be sent to the Engineer for record purposes. Copies shall also be inserted in<br />
Equipment Maintenance Manuals. Dampers and Flaps which fail to function correctly shall be<br />
re-tested after corrective action has been completed. Any fusible links damaged when<br />
conducting tests shall be replaced by this Contractor. A signed and dated test label shall be<br />
attached to each fire damper upon completion of test and resetting of fire damper.<br />
7. CAD drawing files of the heating and ventilating tender drawings will be made available to the<br />
Balancing Contractor if requested. To cover administrative time and the cost of retrieval and<br />
transmission of files, a charge of $25.00 will be made for each drawing requested, to an upset<br />
maximum of $150 per project. An "Authorization to use CAD Drawing File" agreement<br />
restricting the use of the CAD files to the preparation of the project balancing reports must be<br />
signed prior to obtaining the files.<br />
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15996 OPERATING INSTRUCTIONS<br />
1. During "substantial performance" review of the work the Mechanical Contractor, together with<br />
the Engineer, Control Sub-contractor, and other Sub-contractors designated by the Engineer,<br />
shall instruct the Owner's operating personnel in the proper operation and maintenance of all<br />
systems and equipment installed under the contract.<br />
2. It shall be the Mechanical Contractor's responsibility to have the specified equipment manuals<br />
prepared, previously approved by the Engineer, and ready for presentation to the Owner at this<br />
meeting.<br />
3. Convene the meeting with the aforementioned parties at the time called for in the substantial<br />
performance review. The arrangements shall include written notices to all the parties concerned.<br />
Should the equipment manuals, or system installation not be complete and operable at the<br />
proper time, he shall then convene the operating instruction meeting at a later date and pay any<br />
additional costs including time and travelling expenses for the personnel involved which are<br />
attributable to the delay.<br />
15997 EQUIPMENT MANUALS<br />
1. Provide three hard covered, durable plastic bound, loose leaf equipment manuals with index<br />
page and tabs.<br />
2. Equipment manuals shall contain the system description, manufacturer's descriptive literature,<br />
installation instructions and maintenance recommendations relative to methods and frequency<br />
requirements for lubrication, filter cleaning, belt adjustment and other items. Specific<br />
recommendations of the manufacturer relative to lubricants, adhesives, etc. will be required.<br />
Where literature furnished covers several models of the equipment, all data except that<br />
pertaining to the model installed shall be neatly "ruled" out.<br />
3. For each fan and pump installed, provide performance data in "Curve" or multi rating table.<br />
4. For each plumbing fixture, floor and roof drain installed, provide manufacturer's "cut" of that<br />
item and "cuts" of associated brass goods.<br />
5. Copies of extended guarantees and warranties for equipment items such as hot water tanks and<br />
heat exchangers shall be included in a separate section of the manual.<br />
6. A draft copy of the system description shall be sent to the Engineer for review and a final copy<br />
sent for record files.<br />
7. These manuals shall be compiled by Balancing Contractor as outlined in Scope Clause. The<br />
Mechanical Contractor shall furnish sufficient copies of equipment manufacturer's literature to<br />
the Balancing Contractor to meet the above requirements.<br />
END of SECTION 15990<br />
February 2012 JM BEAN & CO. LTD 1130.10
Fort Nelson NRRM<br />
Airport Terminal Building<br />
Washroom Renovations<br />
Mark<br />
Service<br />
Model<br />
MECHANICAL<br />
SCHEDULE<br />
Air Flow - L/s (cfm) 0 472 1000 0 0<br />
External S.P. - Pa (in w.g.) 0 200 0.8 0 0<br />
Heating Capacity - kW (MBH) 0.0 19.0 65 0.0 0.0<br />
Total Cooling Capacity - kW (MBH) 0.0 10.0 34 0.0 0.0<br />
Sensible Cooling Capacity - kW (MBH) 0.0 6.2 21 0.0 0.0<br />
Compressor FLA and LRA<br />
Condenser Fan FLA and LRA<br />
Evaporator Fan FLA and LRA<br />
Notes<br />
ROOF TOP AIR CONDITIONING UNITS<br />
AC-1 AC-2<br />
Existing Main Terminal<br />
LGH036H4ES_Y<br />
1,2<br />
Page 1 of 5<br />
Units shall be as manufactured by Lennox or approved equal unless noted otherwise. Refer to<br />
Specification for accessories not scheduled. Refer to drawings for installation details.<br />
Interlock operation with exhaust fans as noted on the exhaust fan schedule.<br />
Static pressures noted are external to the unit. Fan total pressure to include all cabinet effects as well as<br />
an allowance of 75 Pa (0.3" w.g.) for dirty filters. Motors to be sized so normal operating load is not more<br />
than 90% of rated motor capacity.<br />
Units rated at 19°C evaporater entering air temperature and 35°C condenser entering air temperature.<br />
Units to be suitable for 208/3/60 power.<br />
Provide the following optional equipment: single input electronic enthalpy economizer dampers complete<br />
with barometric relief air dampers, roof curb complete with seismic fastening.<br />
Provide low voltage electro mechanical controls with 24 volt automatic changeover thermostat and sub-base<br />
for 2 stage heating, auto, 2 stage cooling, fan-on, and fan-auto. Provide clear plastic locking guard and all<br />
field wiring for low voltage controls.<br />
1. Minimum outdoor air setting is to be 30%.<br />
2. Unit weight 500 Kg.<br />
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MECHANICAL<br />
SCHEDULE<br />
EXHAUST FANS<br />
Mark<br />
Service<br />
Model<br />
EF-1<br />
Mens<br />
GB-081-6<br />
EF-2<br />
Womens<br />
GB-081-6<br />
Air Flow - L/s (cfm) 236 500 236 500<br />
External S.P. - Pa (in w.g.) 62.5 0.25 62.5 0.25<br />
Horsepower<br />
RPM<br />
Tip Speed<br />
Sones<br />
Notes<br />
1/4<br />
1170<br />
3390<br />
6.5<br />
1,2<br />
1/4<br />
1170<br />
3390<br />
6.5<br />
1,2<br />
Page 2 of 5<br />
Fans shall be as manufactured by Greenheck or approved equal unless noted otherwise. Refer to<br />
Specification for accessories not scheduled. Refer to drawings for installation details.<br />
1 Fan to be interlocked with AC-2 occupied mode of operation by control contractor.<br />
2. Complete with field built curb. Refer to mechanical and architectural drawings for installation details.<br />
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MECHANICAL<br />
SCHEDULE<br />
GRILLES, REGISTERS, DIFFUSERS<br />
Mark SD-1 RG-1 ER-1 EG-1<br />
Service Supply Return Exhaust Ventilation<br />
Model SCD/31/3C 80/TB 530D/F/L/A 96/L/A<br />
Damper No No VCS3 No<br />
Finish B12 B12 B12 SPL<br />
Notes<br />
Page 3 of 5<br />
Grilles, Registers and Diffusers to be as manufactured by E.H. Price or approved equal.<br />
Refer to Architect’s Ceiling plan for exact location of ceiling diffusers. Size to suit ceiling module.<br />
B12 finish denotes factory white baked enamel finish.<br />
B15 finish denotes silver colour baked enamel finish.<br />
SPL finish denotes custom baked enamel finish. Colour to be selected by Architect at shop drawing review.<br />
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MECHANICAL<br />
SCHEDULE<br />
CONTROL VALVES<br />
Mark<br />
Service<br />
Type<br />
V-1<br />
WF-1<br />
3 Way<br />
V-2<br />
WF-2<br />
3 WAY<br />
V-3<br />
WF-3<br />
3 WAY<br />
Flow - L/s (gpm) 0.04 0.6 0.04 0.6 0.04 0.6<br />
P.D. - kPa (psi) 6.9 1.0 6.9 1.0 6.9 1.0<br />
Notes<br />
Page 4 of 5<br />
Refer to control contractor’s shop drawings for piping configuration for multi-port valves.<br />
Heating control valves are to be spring powered to fail to full heat upon loss of power where specified.<br />
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MECHANICAL<br />
SCHEDULE<br />
Mark<br />
Location<br />
Element Type (tube/fin)<br />
WF-1<br />
Men's<br />
RAF<br />
WF-2<br />
Women's<br />
RAF<br />
WF-3<br />
Corridor<br />
RAF<br />
Element Pipe Size - mm (in.) 19 0.75 19 0.75 19 0.75<br />
Rows<br />
Enclosure<br />
WALL FIN RADIATION<br />
2 2<br />
C<br />
C<br />
C<br />
Enclosure Depth - mm (in.) 121 4.75 121 4.75 121 4.75<br />
Enclosure Height - mm (in.) 406 16 406 16 406 16<br />
Capacity - kW/m (Btu/ft.) 1.46 1518 1.46 1518 1.46 1518<br />
Notes<br />
2<br />
Page 5 of 5<br />
Wall Fin Radiation to be as manufactured by Rosemex Slim Vector SV44 or approved equal.<br />
Wall Fin heating capacity is based upon 82 °C average water temp. and 11 °C water temp drop.<br />
Refer to drawing details for installation and piping requirements.<br />
Provide manually operated dampers manufactured by wall fin manufacturer in all spaces not controlled by<br />
a thermostat.<br />
Provide access doors for all valves and air vents.<br />
February 2012 J M BEAN & CO. LTD 1130.10