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AC100 Pro Technical Data Sheet

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10:1 RATIO VINYLESTER<br />

ADHESIVE INJECTION<br />

ANCHORING SYSTEM


The Powers Plus range includes many mechanical and chemical anchoring systems that have<br />

ETA reports and can be used with confidence to meet the new NCC requirements.<br />

Approval Listing<br />

Anchor products holding a European <strong>Technical</strong> Approval/Assessment (ETA) are qualified according to one of the<br />

following technical guidelines (ETAG):<br />

• ETAG 001 for metal anchors installed in concrete. (Option 1 for cracked concrete, Option 7 for uncracked<br />

concrete, Part 6 for multiple use for non-structural applications)<br />

• ETAG 029 for metal injection anchors installed in masonry.<br />

• EOTA TR 023 for post-installed reinforcement bars. <strong>Pro</strong>ducts complying with European standards or approvals<br />

are marked with the CE Marking.<br />

The German <strong>Technical</strong> Approval of post installed reinforcement bars certifies that the product meets the<br />

requirements to be installed by trained personnel. The German <strong>Technical</strong> Approvals are next to the European<br />

<strong>Technical</strong> Approvals the most renowned qualifications of anchor products.<br />

The Evaluation Service of the International Code Council (ICC ES) provides test guidelines for anchor qualification<br />

in the US. The technical reports issued on the basis of these guidelines are internationally recognized and provide a<br />

high degree of safety.<br />

NSF International is an independent organization that provides standards for e.g. product certification for public<br />

health and the environment.<br />

VOC CLASSIFICATION<br />

<strong>Pro</strong>ducts tested for the emission of volatile substances in indoor air, with a risk of inhalation toxicity, on a scale<br />

ranging from class A + (very low emissions) to C (high emissions) level.<br />

Loads evolving from earthquakes are termed seismic loads and are characterised by cyclic loading. The suitability of<br />

the seismic load is classified as:<br />

• Seismic Category C1<br />

• Seismic Category C2<br />

FIRE RATED<br />

A fire resistance rating provides the duration of fire exposure for which the anchor product is qualified. Ratings<br />

within the context of the European Organization of <strong>Technical</strong> Assessment (EOTA) are based on the following<br />

<strong>Technical</strong> Report (TR):<br />

• EOTA TR 020 “Evaluation of anchorages in concrete concerning resistance to fire”. In general, the design<br />

strength is reduced if exposure to fire is taken into account. Maximum duration for fire resistance is given in the<br />

specific product section and generally ranges from 120 to 240 min, depending on whether the anchor product is<br />

qualified for concrete anchoring or post-installed rebar connections.<br />

POWERS is one of the founding members of AEFAC (Australian Engineered Fasteners and Anchor Council).<br />

AEFAC is a consortium made of leading industry partners / suppliers of quality anchors to the construction industry<br />

and Swinburne University of Technology.<br />

AEFAC is a new industry-focused initiative which aims to set the standard for the specification, selection, design,<br />

applications and installation of structural anchors and fasteners in the Australian construction industry. AEFAC aims<br />

to enhance safety and efficiency associated with the use of structural anchors and fasteners. AEFAC is based at<br />

Swinburne University of Technology with access to state-of-the-art testing and research capabilities.<br />

The guidelines and resources being developed by AEFAC are intended to become the codes of practice in Australia.<br />

As well as being a founding member, POWERS is also on the Board and <strong>Technical</strong> Committee of AEFAC. POWERS<br />

also retains membership in several international organisations including Concrete Anchoring Manufacturers.<br />

2 <strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


<strong>AC100</strong>-PRO<br />

Vinylester 10:1 Adhesive Injection System<br />

The <strong>AC100</strong>-PRO is a two-component 10:1 ratio styrene-free vinylester<br />

adhesive anchoring system especially designed for anchoring of threaded rod,<br />

reinforcing bar or internal threaded rod sleeves into concrete and masonry<br />

base materials. This fast curing formulation is recommended for use in<br />

concrete and masonry.<br />

Unlike other systems on the market, one formulation is used for both solid and hollow base<br />

material applications (when used in combination with sleeves), reducing the chance of job<br />

site installation errors. The fast curing characteristics of this versatile anchoring system make it<br />

ideal for use in a broad range of applications.<br />

Features<br />

• 12 months shelf life*<br />

• Low odour level (Low VOC)<br />

• Curing time: 45 minutes at 20°C<br />

• Approved for hollow brick (M8-M16)<br />

• Styrene free, styrol free and odourless<br />

• Installation down to -10°C<br />

*from date of manufacture<br />

Approvals<br />

The following ETA assessment reports can be used to design anchors in accordance with SA<br />

TS 101:2015 which is referenced in the National Construction Code (NCC) 2016:<br />

• ETA-08/0290 ETAG 001-5 Option 1 - Threaded rod (M8-M30), internal threaded sleeve<br />

(M8-M20) & reinforcing bar (Ø8-Ø32) - cracked & uncracked concrete<br />

• ETA-13/0050 ETAG 029 – Masonry, solid & hollow brick (M8-M16)<br />

• ETA-09/0296 ETAG 001-5 TR023 - Post installed rebar connection (Ø8-Ø25)<br />

• ESR-2582 ICC-ES - Threaded rod and reinforcing bars (Cracked & uncracked concrete)<br />

• F120 Fire Resistance report<br />

• F180 Fire Resistance report (Rebar Connections)<br />

• Seismic Loading approval (C1: M12-M30 & rebar Ø12-Ø32)<br />

• NSF/ANSI 061 Potable drinking water certification<br />

• LEED report<br />

VOC CLASSIFICATION<br />

FIRE RATED<br />

APPROVED BASE MATERIAL LOADING CONDITIONS HOLE CONDITIONS<br />

Uncracked<br />

Concrete<br />

Cracked Concrete Solid Brick Hollow Brick Static Load Quasi-Static Load Seismic Moderate Wind High Wind<br />

Dry Hole/ Wet<br />

Concrete<br />

Flooded Holes † Core Drillled<br />

Description Box Qty Carton Qty Part No.<br />

420ml Cartridge + 2 Mixing Nozzles 2 10 <strong>AC100</strong>PRO-PWR<br />

Please refer to the relevant ETA / ICC-ES report for complete information before selection, design and use to check suitability of the product.<br />

†<br />

Uncracked concrete (8-16mm), cracked concrete (12-16mm)<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last Modified September, 2017<br />

3


Ultimate Limit State Design<br />

Concrete Temperature Range: 40 0 C/24 0 C (Maximum long term 24 0 C and Maximum short term 40 0 C).<br />

Concrete Thickness = 1xh min<br />

where h min<br />

as per ETA.<br />

Hole condition: Dry/wet, non-flooded hole.<br />

Drilling method: HAMMER DRILLED HOLES ONLY (Information is not valid for core drilled holes).<br />

Edge Distance: No concrete edge distance effect considered.(i.e. edge distance > maximum (10 X h eff<br />

& 60 X d) in all directions).<br />

Spacing between anchors: The values are for single anchors installed well away from concrete edges and other anchors. No spacing effects considered.<br />

UNCRACKED CONCRETE<br />

Single Anchor Load Capacities (kN) for Threaded Rod (static or quasi-static loads)<br />

Anchor<br />

Size<br />

(mm)<br />

Hole<br />

Size<br />

(mm)<br />

8 10<br />

10 12<br />

12 14<br />

16 18<br />

20 24<br />

24 28<br />

30 35<br />

Depth<br />

h eff<br />

(mm)<br />

Concrete<br />

Thickness<br />

(mm)<br />

Class 5.8 Threaded Rod Class 8.8 Threaded Rod A4-50 Stainless Steel<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa<br />

60 100 11.1 11.6 11.9 12.2<br />

11.1 11.6 11.9 12.2<br />

80 110<br />

7.3 14.7 15.5 15.9 16.2<br />

12.2<br />

100 130 18.4 19.3 19.5<br />

60 100 13.0 14.3 14.7 15.0<br />

13.0 14.3 14.7 15.0<br />

90 120<br />

11.6 20.4 21.4 22.1 22.5<br />

19.3<br />

130 160 29.5 30.9<br />

70 100 16.4 20.0 20.6 21.0<br />

16.4 20.0 20.6 21.0<br />

110 140<br />

16.9 29.9 31.4 32.3 32.9<br />

28.1<br />

155 185 42.2 44.2 45.0<br />

80 116 20.1 25.4 28.4 31.1<br />

125 161 39.2 47.6 49.0 49.9 31.3 39.2 47.6 49.0 49.9<br />

215 251 52.2 78.1 81.8 83.6<br />

90 138 24.0 30.3 33.9 37.1<br />

170 218 62.2 78.7 81.6 62.2 78.7 83.3 84.9<br />

49.0<br />

210 258<br />

85.4 99.9 102.9 104.8<br />

81.6<br />

270 318 122.5 128.4 130.6<br />

11.7 6.4 3.8<br />

18.6 10.2 6.1<br />

27.0 14.8 8.9<br />

20.1 25.4 28.4 31.1 C-Pryout 20.1 25.4 27.4<br />

50.1 27.4<br />

24.0 30.3 33.9 37.1 C-Pryout 24.0 30.3 33.9 37.1<br />

78.3 42.8<br />

100 156 28.1 35.5 39.7 43.5 C-Pryout 28.1 35.5 39.7 43.5 C-Pryout 28.1 35.5 39.7 43.5<br />

210 266 85.4 108.0 114.0 116.1<br />

85.4 108.0 114.0 116.1<br />

250 306 110.9 117.5 70.5 110.9 131.7 135.7 138.2<br />

350 406 117.5 175.9 184.4 188.0<br />

112.8 61.7<br />

120 190 36.9 46.6 52.2 57.1 C-Pryout 36.9 46.6 52.2 57.1 C-Pryout 36.9 46.6 52.2 57.1<br />

270 340 124.5 140.7 145.0 147.7<br />

124.5 140.7 145.0 147.7<br />

300 370 145.8 156.4 161.2 164.1 145.8 156.4 161.2 164.1<br />

112.1<br />

350 420 174.1 182.5 186.9 174.1 182.5 188.0 191.5<br />

550 620 186.9 273.6 286.7 295.5 299.0<br />

179.4 98.1<br />

16.5<br />

25.7<br />

37.0<br />

58.9<br />

Capacity is limited by steel strength. C-Pryout: Capacity is limited by the shear concrete pry-out<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Ultimate Limit State Design<br />

CRACKED CONCRETE<br />

Cracked concrete does not mean concrete having existing / physical cracks.<br />

The condition of concrete (cracked or uncracked) needs to be determined via<br />

stress analysis by the design engineer.<br />

Single Anchor Load Capacities (kN) for Threaded Rod (static or quasi-static loads)<br />

Anchor<br />

Size<br />

(mm)<br />

Hole<br />

Size<br />

(mm)<br />

12 14<br />

16 18<br />

20 24<br />

24 28<br />

30 35<br />

Depth<br />

h eff<br />

(mm)<br />

Concrete<br />

Thickness<br />

(mm)<br />

Class 5.8 Threaded Rod Class 8.8 Threaded Rod A4-50 Stainless Steel<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa<br />

70 100 8.1 8.5 8.7 8.9<br />

110 140 12.7 13.3 13.7 13.9 12.7 13.3 13.7 13.9<br />

16.9<br />

150 180 17.3 18.1 18.7 19.0 17.3 18.1 18.7 19.0<br />

240 270 27.6 28.1 27.6 29.0 29.9 30.4<br />

8.1 8.5 8.7 8.9 C-Pryout 8.1 8.5 8.7 8.9<br />

27.0<br />

12.7 13.3 13.7 13.9<br />

80 116 12.3 12.9 13.3 13.5 C-Pryout 12.3 12.9 13.3 13.5 C-Pryout 12.3 12.9 13.3 13.5<br />

125 161 19.2 20.1 20.7 21.1<br />

250 286 38.4 40.2 41.5 42.2 31.3 38.4 40.2 41.5 42.2<br />

310 346 47.6 49.9 51.4 52.2 47.6 49.9 51.4 52.4<br />

14.8<br />

19.2 20.1 20.7 21.1 C-Pryout 19.2 20.1 20.7 21.1<br />

50.1 27.4<br />

90 138 17.1 18.1 18.7 19.0 C-Pryout 17.1 18.1 18.7 19.0 C-Pryout 17.1 18.1 18.7 19.0<br />

170 218 32.6 34.2 35.2 35.9<br />

32.6 34.2 35.2 35.9<br />

300 348 57.6 60.4 62.2 63.4 57.6 60.4 62.2 63.4<br />

49.0<br />

350 398 67.2 70.4 72.6 73.9 67.2 70.4 72.6 73.9<br />

400 448 76.8 80.5 81.6 76.8 80.5 82.9 84.5<br />

78.3<br />

32.6 34.2 35.2 35.9<br />

100 156 20.0 24.1 24.9 25.3 C-Pryout 20.0 24.1 24.9 25.3 C-Pryout 20.0 24.1 24.9 25.3<br />

210 266 48.4 50.7 52.3 53.2<br />

48.4 50.7 52.3 53.2<br />

300 356 69.1 72.4 74.6 76.0 70.5 69.1 72.4 74.6 76.0<br />

480 536 110.6 115.9 117.5 110.6 115.9 119.4 121.6<br />

112.8<br />

42.8<br />

48.4 50.7 52.3 53.2<br />

120 190 26.3 33.3 37.2 40.7 C-Pryout 26.3 33.3 37.2 40.7 C-Pryout 26.3 33.3 37.2 40.7<br />

270 340 88.7 96.3 99.2 101.1<br />

88.7 96.3 99.2 101.1<br />

350 420 119.1 124.8 128.6 131.0 119.1 124.8 128.6 131.0<br />

112.1<br />

500 570 170.2 178.3 183.8 186.9 170.2 178.3 183.8 187.2<br />

600 670 186.9 204.2 214.0 220.5 224.6<br />

Capacity is limited by steel strength. C-Pryout: Capacity is limited by the shear concrete pry-out<br />

Notes:<br />

• The above tension load capacities are the minimum values from concrete cone, concrete bond/pullout and steel capacities.<br />

• The above shear load capacities are the minimum values from concrete cone pryout, concrete pullout pryout, concrete<br />

edge and steel capacities.<br />

• C-Pryout: Where indicated capacity is limited by the shear concrete pry-out failure mode. Please use PDA software to<br />

calculate capacities.<br />

• Please refer to SATS101 : 2015 for sustained load conditions requirement. The published data may be used when the ratio<br />

of sustained load to total load acting on the anchor at ultimate limit state is ≤ 0.6.<br />

• Interpolation is not permitted. Please use PDA software to calculate capacities for the configurations outside the published<br />

information.<br />

• Use of PDA software is recommended to calculate the capacities for multiple anchor configurations and single anchor<br />

installed close to edge/s of concrete, and / or other anchors.<br />

Combined Loading: Anchors loaded<br />

in both tension and shear must satisfy<br />

the relevant combined load equation.<br />

179.4<br />

61.7<br />

88.7 96.3 98.1<br />

98.1<br />

Reduction Factors for Ultimate Limit State Design Capacities:<br />

The following strength reduction factors are derived using the information given in SA TS 101:2015 and the partial<br />

safety factors in the issued ETA (Assessment Report) for static and quasi-static loads.<br />

8.9<br />

16.5<br />

25.7<br />

37.0<br />

58.9<br />

Cracked Concrete Uncracked Concrete Steel<br />

M12-M30 M8 M10-M30 Cl 5.8 Cl 8.8 A4-50<br />

Tension (Strength Reduction Factor “ ”) 0.56 0.67 0.56 0.67 0.67 0.35<br />

Shear (Strength Reduction Factor “ ”) 0.67 0.67 0.67 0.80 0.80 0.42<br />

PARTIAL SAFETY FACTORS GIVEN FOR DESIGN CAPACITIES IN ETA-08/0290<br />

M<br />

Tension (ETA Partial Safety Factor “ ”) 1.80 1.50 1.80 1.50 1.50 2.86<br />

Shear (ETA Partial Safety Factor “ M<br />

”) 1.50 1.50 1.50 1.25 1.25 2.38<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Working Stress Design<br />

Concrete Temperature Range: 40ºC/24ºC (Maximum long term 24ºC and Maximum short term 40ºC).<br />

Concrete Thickness = 1xh min<br />

where h min<br />

as per ETA.<br />

Hole condition: Dry/wet, non-flooded hole.<br />

Drilling method: HAMMER DRILLED HOLES ONLY (Information is not valid for core drilled holes).<br />

Edge Distance: No concrete edge distance considered. (i.e. edge distance > maximum (10 X h eff<br />

& 60 X d) in all directions).<br />

Spacing between anchors: The values are for single anchors installed well away from concrete edges and other anchors. No spacing effects considered.<br />

UNCRACKED CONCRETE<br />

Single Anchor Load Capacities (kN) for Threaded Rod (static or quasi-static loads)<br />

Anchor<br />

Size<br />

(mm)<br />

Hole<br />

Size<br />

(mm)<br />

8 10<br />

10 12<br />

12 14<br />

16 18<br />

20 24<br />

24 28<br />

30 35<br />

Depth<br />

h eff<br />

(mm)<br />

Concrete<br />

Thickness<br />

(mm)<br />

Class 5.8 Threaded Rod Class 8.8 Threaded Rod A4-50 Stainless Steel<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa<br />

60 100 5.5 5.8 6.0 6.1<br />

5.5 5.8 6.0 6.1<br />

80 110<br />

3.7 7.4 7.7 8.0 8.1<br />

7.3<br />

100 130 9.2 9.7 10.0 10.1<br />

60 100 7.8 8.6 8.8 9.0<br />

7.8 8.6 8.8 9.0<br />

90 120<br />

5.8 12.3 12.8 13.2 13.5<br />

11.6<br />

130 160 17.7 18.5 18.6<br />

70 100 9.9 12.0 12.4 12.6<br />

9.9 12.0 12.4 12.6<br />

110 140<br />

8.4 18.0 18.8 19.4 19.8<br />

16.9<br />

155 185 25.3 26.5 27.0<br />

80 116 12.0 15.2 17.0 18.7<br />

125 161 23.5 28.5 29.4 29.9 15.7 23.5 28.5 29.4 29.9<br />

215 251 31.3 46.8 49.1 50.1<br />

90 138 14.4 18.2 20.3 22.3<br />

170 218 37.3 47.2 49.0 37.3 47.2 50.0 50.9<br />

24.5<br />

210 258<br />

51.2 59.9 61.8 62.9<br />

49.0<br />

270 318 73.5 77.0 78.3<br />

5.9 5.2 2.6<br />

9.3<br />

13.5<br />

7.8 8.3<br />

8.3<br />

9.9 12.0 12.0<br />

12.0<br />

12.0 15.2 17.0 18.7 C-Pryout 12.0 15.2 17.0 18.7<br />

25.1 22.4<br />

14.4 18.2 20.3 22.3 C-Pryout 14.4 18.2 20.3 22.3<br />

39.2 35.0<br />

100 156 16.8 21.3 23.8 26.1 C-Pryout 16.8 21.3 23.8 26.1 C-Pryout 16.8 21.3 23.8 26.1<br />

210 266 51.2 64.8 68.4 69.7<br />

51.2 64.8 68.4 69.7<br />

250 306 66.5 70.5 35.3 66.5 79.0 81.4 82.9<br />

350 406 70.5 105.6 110.6 112.8<br />

56.4 50.4<br />

120 190 22.1 28.0 31.3 34.3 C-Pryout 22.1 28.0 31.3 34.3 C-Pryout 22.1 28.0 31.3 34.3<br />

270 340 74.7 84.4 87.0 88.6<br />

74.7 84.4 87.0 88.6<br />

300 370 87.5 93.8 96.7 98.5 87.5 93.8 96.7 98.5<br />

56.1<br />

350 420 104.5 109.5 112.1 104.5 109.5 112.8 114.9<br />

550 620 112.1 164.1 172.0 177.3 179.4<br />

89.7<br />

74.7 80.1<br />

80.1<br />

4.1<br />

6.0<br />

11.2<br />

17.5<br />

25.2<br />

40.0<br />

Capacity is limited by steel strength. C-Pryout: Capacity is limited by the shear concrete pry-out<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Working Stress Design<br />

CRACKED CONCRETE<br />

Cracked concrete does not mean concrete having existing / physical cracks.<br />

The condition of concrete (cracked or uncracked) needs to be determined via<br />

stress analysis by the design engineer.<br />

Single Anchor Load Capacities (kN) for Threaded Rod (static or quasi-static loads)<br />

Anchor<br />

Size<br />

(mm)<br />

Hole<br />

Size<br />

(mm)<br />

12 14<br />

16 18<br />

20 24<br />

24 28<br />

30 35<br />

Depth<br />

h eff<br />

(mm)<br />

Concrete<br />

Thickness<br />

(mm)<br />

Class 5.8 Threaded Rod Class 8.8 Threaded Rod A4-50 Stainless Steel<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

Tension Load (Concrete) Shear<br />

Load<br />

(Steel)<br />

20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa 20MPa 32MPa 40MPa 50MPa<br />

70 100 4.8 5.1 5.2 5.3<br />

4.8 5.1 5.2 5.3 C-Pryout 4.8 5.1 5.2 5.3<br />

110 140 7.6 8.0 8.2 8.4 7.6 8.0 8.2 8.4<br />

7.6 8.0 8.2 8.4<br />

8.4<br />

150 180 10.4 10.9 11.2 11.4 10.4 10.9 11.2 11.4 13.5 10.4 10.9 11.2 11.4<br />

240 270 16.6 16.9 16.6 17.4 17.9 18.2 12.0<br />

80 116 7.4 7.7 8.0 8.1 C-Pryout 7.4 7.7 8.0 8.1 C-Pryout 7.4 7.7 8.0 8.1<br />

125 161 11.5 12.1 12.4 12.7<br />

250 286 23.0 24.1 24.9 25.3 15.7 23.0 24.1 24.9 25.3<br />

310 346 28.6 29.9 30.9 31.3 28.6 29.9 30.9 31.4<br />

11.5 12.1 12.4 12.7 C-Pryout 11.5 12.1 12.4 12.7<br />

25.1 22.4<br />

90 138 10.2 10.9 11.2 11.4 C-Pryout 10.2 10.9 11.2 11.4 C-Pryout 10.2 10.9 11.2 11.4<br />

170 218 19.6 20.5 21.1 21.5<br />

19.6 20.5 21.1 21.5<br />

19.6 20.5 21.1 21.5<br />

300 348 34.6 36.2 37.3 38.0 34.6 36.2 37.3 38.0 34.6 35.0<br />

24.5<br />

39.2<br />

350 398 40.3 42.3 43.5 44.3 40.3 42.3 43.5 44.3<br />

35.0<br />

400 448 46.1 48.3 49.0 46.1 48.3 49.8 50.7<br />

100 156 12.0 14.5 14.9 15.2 C-Pryout 12.0 14.5 14.9 15.2 C-Pryout 12.0 14.5 14.9 15.2 C-Pryout<br />

210 266 29.0 30.4 31.4 31.9<br />

29.0 30.4 31.4 31.9<br />

29.0 30.4 31.4 31.9<br />

300 356 41.5 43.5 44.8 45.6 35.3 41.5 43.5 44.8 45.6 56.4 41.5 43.5 44.8 45.6<br />

480 536 66.4 69.5 70.5 66.4 69.5 71.7 73.0 50.4<br />

120 190 15.8 20.0 22.3 24.4 C-Pryout 15.8 20.0 22.3 24.4 C-Pryout 15.8 20.0 22.3 24.4 C-Pryout<br />

270 340 53.2 57.8 59.5 60.6<br />

53.2 57.8 59.5 60.6<br />

53.2 57.8 59.5 60.6<br />

350 420 71.5 74.9 77.2 78.6 71.5 74.9 77.2 78.6 71.5 74.9 77.2 78.6<br />

56.1<br />

89.7<br />

500 570 102.1 107.0 110.3 112.1 102.1 107.0 110.3 112.3<br />

80.1<br />

600 670 112.1 122.5 128.4 132.3 134.8<br />

6.0<br />

11.2<br />

17.5<br />

25.2<br />

40.0<br />

Capacity is limited by steel strength. C-Pryout: Capacity is limited by the shear concrete pry-out<br />

Notes:<br />

• The above tension load capacities are the minimum values from concrete cone, concrete bond/pullout and steel capacities.<br />

• The above shear load capacities are the minimum values from concrete cone pryout, concrete pullout pryout, concrete edge and steel capacities.<br />

• C-Pryout: Where indicated capacity is limited by the shear concrete pry-out failure mode. Please use PDA software to calculate capacities.<br />

• Please refer to SATS101 : 2015 for sustained load conditions requirement. The published data may be used when the ratio of sustained load to total load<br />

acting on the anchor at ultimate limit state is ≤ 0.6.<br />

• Interpolation is not permitted. Please use PDA software to calculate capacities for the configurations outside the published information.<br />

• Use of PDA software is recommended to calculate the capacities for multiple anchor configurations and single anchor installed close to edge/s of concrete,<br />

and / or other anchors.<br />

• To determine working load capacities a further suitable safety factor (minimum 1.4 or higher) shall be applied to the limit state design capacities derived<br />

from the PDA software.<br />

Combined Loading: Anchors loaded<br />

in both tension and shear must satisfy<br />

the relevant combined load equation.<br />

Incorporated Safety Factors for Working Stress Design Load Capacities:<br />

The following safety factors are used to derive values in the above table for the working<br />

stress design capacities for static load conditions<br />

Concrete<br />

Steel<br />

Cl 5.8 Cl 8.8 A4-50<br />

Tension 3.00 2.50 2.50 3.50<br />

Shear 3.00 2.50 2.50 3.50<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Installation information<br />

Installation data - threaded rod into concrete<br />

T max<br />

Notation<br />

Unit<br />

<strong>AC100</strong>-PRO - Threaded rod<br />

M8 M10 M12 M16 M20 M24 M27 M30<br />

S w<br />

Anchor diameter d [mm] 8 10 12 16 20 24 27 30<br />

d f<br />

Nominal drill bit diameter d 0<br />

[mm] 10 12 14 18 24 28 32 35<br />

Diameter of hole clearance in fixture d f<br />

≤ [mm] 9 12 14 18 22 26 30 33<br />

Diameter of steel brush d b<br />

≥ [mm] 12 14 16 20 26 30 34 37<br />

h min<br />

h 1<br />

h ef<br />

Min embedment & drill hole depth h ef,min<br />

[mm] 60 60 70 80 90 96 108 120<br />

Max embedment & drill hole depth h ef,max<br />

[mm] 160 200 240 320 400 480 540 600<br />

Minimum member thickness h min<br />

[mm] h ef<br />

+ 30mm ≥ 100mm h ef<br />

+ 2 X d 0<br />

Minimum spacing s min<br />

[mm] 40 50 60 80 100 120 135 150<br />

d 0<br />

Minimum edge distance c min<br />

[mm] 40 50 60 80 100 120 135 150<br />

Thickness of fixture t fix<br />

[mm] 0 mm ≤ t fix<br />

≤ 500mm<br />

Maximum torque T max<br />

[Nm] 10 20 40 80 120 160 180 200<br />

Torque wrench socket size S w<br />

[mm] 13 17 19 24 30 36 41 46<br />

Installation data - internal threaded sleeve into concrete<br />

T max<br />

Notation<br />

Unit<br />

<strong>AC100</strong>-PRO - Internal threaded sleeve<br />

M8 M10 M12 M16 M20<br />

S w<br />

External diameter of sleeve d [mm] 12 16 20 24 30<br />

t fix<br />

d f<br />

Nominal drill bit diameter d 0<br />

[mm] 14 18 24 28 35<br />

Diameter of hole clearance in fixture d f<br />

≤ [mm] 9 12 14 18 22<br />

Diameter of steel brush d b<br />

≥ [mm] 16 20 26 30 37<br />

t fix<br />

h 1<br />

h ef<br />

h min<br />

h 1<br />

h ef<br />

Embedment and drill hole depth h ef<br />

[mm] 80 90 110 150 200<br />

Minimum member thickness h min<br />

[mm] 110 130 160 210 270<br />

Minimum edge distance c min<br />

[mm] 60 80 100 120 150<br />

Minimum spacing s min<br />

[mm] 60 80 100 120 150<br />

d 0<br />

Screw diameter d 1<br />

[mm] 8 10 12 16 20<br />

Minimum length of screw l 1,min<br />

[mm] 8 10 12 16 20<br />

Maximum length of screw l 1,max<br />

[mm] 35 45 55 75 85<br />

Maximum torque T max<br />

[Nm] 10 20 40 80 120<br />

Recommended Torque wrench socket size S w<br />

[mm] 13 17 19 24 30<br />

Installation data – reinforcement bar into concrete<br />

Notation Unit<br />

Ø8<br />

<strong>AC100</strong>-PRO - Reinforcement bar<br />

Ø10 Ø12 Ø14 Ø16 Ø20 Ø24 Ø28 Ø32<br />

Nominal diameter of rebar d [mm] 8 10 12 14 16 20 24 28 32<br />

Nominal drill bit diameter d 0<br />

[mm] 12 14 16 18 20 24 28 35 37<br />

Diameter of steel brush d b<br />

[mm] 14 16 18 20 22 26 30 37 40<br />

Min embedment and drill hole depth h ef<br />

[mm] 60 60 70 75 80 90 96 112 128<br />

Max embedment and drill hole depth h ef<br />

[mm] 160 200 240 280 320 400 480 560 640<br />

Minimum member thickness h min<br />

[mm]<br />

h ef<br />

+ 30 mm ≥<br />

100mm h ef<br />

+ 2 X d 0<br />

d 0<br />

Minimum edge distance c min<br />

[mm] 40 50 60 70 80 100 120 140 160<br />

Minimum spacing s min<br />

[mm] 40 50 60 70 80 100 120 140 160<br />

8 <strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Setting Time<br />

The setting times listed for the <strong>AC100</strong>-PRO vinylester vary according to the volume of adhesive used and the base material temperature. The working<br />

time is the maximum time during which the vinylester can be dispensed before it begins to set. The minimum curing time is the time required for the<br />

vinylester to reach its published physical properties.<br />

Base Material Temp (°C) Max Working Time (minutes) Minimum Curing Time*<br />

≥ - 10°C 1 90 24hr<br />

≥ - 5°C 90 14hr<br />

0°C 45 7hr<br />

≥ + 5°C 25 2hr<br />

≥ + 10°C 15 80 min<br />

≥ + 20°C 6 45 min<br />

≥ + 30°C 4 25 min<br />

≥ + 35°C 2 20 min<br />

≥ + 40°C 1.5 15 min<br />

NOTE: 1 Cartridge temperature must be minimum +15°C.<br />

2 Curing time is for dry concrete. Curing time must be doubled for wet concrete.<br />

Quality Control <strong>Pro</strong>cedures<br />

<strong>AC100</strong>-PRO Vinylester Injection Adhesive is packaged individually. Each cartridge contains an expiry date which provides traceability of the components<br />

back to the original manufacturing batch. Every batch of material is subjected to extensive physical and chemical property testing during manufacture.<br />

Each combination of base resin and hardener material batches is tested as an installed anchor to ensure that the proper bond strength is developed.<br />

These procedures ensure consistent, top-quality performance to the specifier and the installer of the <strong>AC100</strong>-PRO Vinylester Injection Adhesive.<br />

OH&S<br />

Safety <strong>Data</strong> <strong>Sheet</strong>s are available on request (Ref. Chemwatch 4726-10 and 4726-11) or can be downloaded from www.powers.com.au<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last Modified September, 2017<br />

9


Installation Instructions<br />

Hammer Drilled Hole in Solid Concrete<br />

1 Using the proper drill bit size, drill a hole into the base material to the required depth.<br />

2 Blow the hole clean using a hand pump (suitable for maximum 20mm dia. hole)<br />

or compressed air 2 - 4 times minimum.<br />

3 Brush the hole with the proper wire brush - 4 times minimum.<br />

4 Blow the hole clean using a hand pump (suitable for maximum 20mm dia. hole)<br />

or compressed air 2 - 4 times minimum 3 .<br />

5 Squeeze out separately and discard a minimum of 10cm until the mortar is uniformly mixed and<br />

shows consistent colour. Starting from the rear of the hole, fill the hole up to approximately 2/3<br />

with uniformly mixed adhesive.<br />

6 Push the threaded rod / rebar into the hole while turning slightly to ensure positive distribution<br />

of the adhesive. Be sure that the rod / rebar is seated at the bottom of the hole and that some<br />

adhesive has flowed from the top of the hole.<br />

7 Allow the adhesive to cure for the time specified for the actual concrete temperature. Do not<br />

disturb or load the anchor until the adhesive has fully cured. Follow the longer curing time for<br />

wet concrete.<br />

1 2 3 4 5 6 7<br />

Deep Embedment<br />

Installation (Ground /<br />

Overhead / Horizontal)<br />

i Use a compressed air<br />

extension gun to blow<br />

debris from the hole. 4<br />

e.g.<br />

20˚C<br />

4X<br />

4X<br />

4X<br />

45 min<br />

SDS Plus<br />

Brush<br />

Adaptor<br />

Hollow Base Materials<br />

1 Using the proper drill bit size, drill a hole into the base material to the required sleeve size and depth.<br />

2 Blow the hole clean using a hand pump (suitable for maximum 20mm dia. hole)<br />

or compressed air 2 - 2 times minimum.<br />

3 Brush the hole with the proper wire brush - 2 times minimum.<br />

4 Blow the hole clean using a hand pump (suitable for maximum 20mm dia. hole)<br />

or compressed air 2 - 2 times minimum 3 .<br />

5 Insert the sleeve required for the hollow masonry into the hole. Squeeze out separately and<br />

discard a minimum of 10cm until the mortar is uniformly mixed and shows consistent colour.<br />

Fill the sleeve up completely with uniformly mixed adhesive.<br />

6 Push the threaded rod / rebar into the sleeve while turning slightly to ensure positive distribution<br />

of the adhesive. Be sure that the rod / rebar is seated at the bottom of the sleeve.<br />

7 Allow the adhesive to cure for the time specified for the actual masonry temperature. Do not<br />

disturb or load the anchor until the adhesive has fully cured. Follow the longer curing time for<br />

wet masonry.<br />

1 2 3 4 5 6 7<br />

2X<br />

2X<br />

2X<br />

Plastic<br />

Sleeve<br />

e.g.<br />

20˚C<br />

45 min<br />

ii Extend the reach of<br />

the brush by using a<br />

Powers 300mm SDS<br />

brush adaptor.<br />

Nozzle<br />

Extension<br />

Piston<br />

Plug<br />

iii Attach the plastic<br />

extension tube and<br />

correct size piston<br />

plug to the mixing<br />

nozzle. The Powers<br />

Battery Dispensing<br />

Tool is recommended<br />

for deep embedment<br />

applications.<br />

10 <strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Overhead Installation - Hammer Drilled Hole in Solid Concrete<br />

1 Using the proper drill bit size, drill a hole into the base material to the required depth.<br />

2 Blow the hole clean using a hand pump or compressed air 2 - 4 times minimum.<br />

3 Brush the hole with the proper wire brush - 4 times minimum.<br />

4 Blow the hole clean using a hand pump or compressed air 2 - 4 times minimum 3 .<br />

5 (a) Small Holes: Squeeze out separately and discard a minimum of 10cm until the mortar is uniformly mixed and shows<br />

consistent colour. Starting from the rear of the hole, fill the hole up to approximately 2/3 with uniformly mixed adhesive. or<br />

(b) Overhead/Horizontal Holes: Attach the plastic extension tube and correct size piston plug to the mixing nozzle. Squeeze<br />

out separately and discard a minimum of 10cm until the mortar is uniformly mixed and shows consistent colour. Starting from<br />

the rear of the hole, fill the hole up to approximately 2/3 with uniformly mixed adhesive.<br />

6 Assemble the correct size retaining cap onto threaded rod at desired position, ensuring accurate embedment depth is achieved.<br />

7 Push the threaded rod into the hole while turning slightly to ensure positive distribution of the adhesive. Be sure that the rod<br />

is seated at the bottom of the hole and that some adhesive has flowed from the top of the hole. Ensure the retaining cap<br />

is wedged in the hole to support the threaded rod during curing time. If additional support is required, or the retaining cap<br />

does not fit, commercially available plastic wedges should be used as a secondary support system to provide further stability.<br />

A wedge should be positioned on either side of the threaded rod / rebar to ensure it is stable and centered in the hole. There<br />

should be no movement or slippage during curing time. Extra measures should be used to support heavier / longer lengths of<br />

threaded rod to avoid any movement during curing time. Ensure the threaded rod is free of dirt, grease, oil or other foreign<br />

material.<br />

8 Allow the adhesive to cure for the time specified for the actual concrete temperature (in dry concrete). Do not disturb or load<br />

the anchor until the adhesive has fully cured. Follow the longer curing time for wet concrete.<br />

1 2 3 4 5 (a) 5 (b)<br />

4X<br />

4X<br />

4X<br />

Piston<br />

Plug<br />

Extension<br />

Tube<br />

6 7 8<br />

Nozzle<br />

Retaining<br />

Cap<br />

Retaining<br />

Cap<br />

Wedges<br />

e.g.<br />

20˚C<br />

45 min<br />

Notes:<br />

1. Always refer to the product assessment reports and approvals (e.g. ETA) for detailed information including the design criteria<br />

2. Always use appropriate filters to prevent oil from the compressed air unit contaminating the drilled hole. The compressed air<br />

shall be free from oil.<br />

3. Holes may be dry or damp, but should be free of standing water or frost.<br />

4. For deeper depths an industrial vacuum shall be used to help clean the dust/debris from the holes in steps 2 and 4 for hammer-drilled<br />

holes. A proper size hose of vacuum shall be inserted to the bottom of the hole for removal of debris/water.<br />

5. When a longer extension tube is attached to the cartridge for injecting into deeper holes, the cartridge and its contents are required<br />

to be pre-warmed / conditioned to higher temperatures (e.g. 25-30ºC) just before injecting especially in cold conditions.<br />

The cartridges shall be stored within the storage conditions but only conditioned to higher temperatures just before injecting.<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last Modified September, 2017<br />

11


Dispensers<br />

Manual Dispensing Tools<br />

CG PRO-4 Manual Injection Tool is ideal for those who use the POWERS adhesive<br />

range. Designed with a pump style drive mechanism which has a high pump ratio<br />

to provide fast dispensing. The base unit is a unique design which allows for the<br />

dispensing of different cartridge and component ratios. The CG PRO-4 will dispense<br />

the 385 & 585ml (3:1) cartridge, as well as 300, 380 & 420ml (10:1) cartridges.<br />

CG PRO Manual Injection Tool like the CG PRO-4, is designed for use with Powers<br />

adhesives, however is suitable for low to medium volume users. Designed with a<br />

high-ratio pump style drive mechanism to provide fast dispensing. The base unit and<br />

handle assembly are manufactured from precision steel casting for long life. A specially<br />

designed wear compensation mechanism ensures consistent pumping over the life of<br />

the tool.<br />

G380KF2 Manual Injection Tool is designed with a pump style drive mechanism which<br />

has a high pump ratio to provide fast dispensing. The base unit and handle assembly<br />

are manufactured from a precision steel casting for long life. A specially designed<br />

wear compensation mechanism ensures consistent pumping over the life of the tool.<br />

Suitable for use with 380 & 420ml (10:1) coaxial cartridges.<br />

Battery Dispensing Tool<br />

CGB Battery Injection Tool works on<br />

Lithium-Ion technology providing longlasting<br />

consistent performance. It features<br />

a reinforced steel sheet cradle and a trigger<br />

system which provides instant pressure relief<br />

for the cartridge to reduce waste. Suitable for<br />

use with 380-420ml (10:1) coaxial cartridges.<br />

Charge Time: 60 minutes<br />

Drive System: 5000N (500kg)<br />

Extrusion Rate: 120 to 240 ml/m<br />

Tool Weight: 2.4kg<br />

Tool Length: 390mm<br />

Description Cartridge Box Qty Carton Qty Part No.<br />

Manual Dispensing Tool 420ml 1 10 CG380KF2-PWR<br />

Manual Dispensing Tool 3:1 & 10:1 POWERS Adhesives 1 10 CGPRO-PWR<br />

Manual Dispensing Tool 3:1 & 10:1 POWERS Adhesives 1 10 CGPRO-4-PWR<br />

Battery Dispensing Tool ( 2 x Batteries) 380 - 420ml (10:1) 1 10 CGB-420-PWR<br />

Replacement Battery Li-Ion 10.8V 1.5Ah 1 N/A CGB-10.8V-PWR<br />

12 <strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Threaded Rod<br />

POWERS supplies a range of adhesive anchor studs for use based on standard embedment depth applications. For alternate<br />

embedment depths, studs should be cut to specified size as per application requirements. Studs are available in stainless steel,<br />

galvanised steel and zinc plated carbon steel complete with nut and washer. Environmental factors and application factors should be<br />

considered carefully prior to selecting the correct stud.<br />

Flat Cut Stud<br />

• Suitable for use with any adhesive injection system.<br />

• Depth set mark for standard embedment depth<br />

ZINC<br />

GAL<br />

Size Drill Dia Embed Depth Fixture Thickness Box Qty Carton Qty Part No. Part No.<br />

8 x 110mm 10 80 17 10 200 FCS8110-PWR FCSG8110-PWR<br />

10 x 130mm 12 90 28 10 200 FCS10130-PWR FCSG10130-PWR<br />

12 x 160mm 14 110 36 10 100 FCS12160-PWR FCSG12160-PWR<br />

16 x 190mm 18 125 42 10 50 FCS16190-PWR FCSG16190-PWR<br />

20 x 260mm 24 170 72 5 25 FCS20260-PWR FCSG20260-PWR<br />

24 x 300mm 28 210 66 5 20 FCS24300-PWR FCSG24300-PWR<br />

Chisel Point Stud<br />

• Suitable for use with Powers SC-PRO capsules or any adhesive<br />

injection system.<br />

• Depth set mark for accurate embedment depth.<br />

• External hex for stability when driving the stud in glass capsule<br />

Size Drill Dia Embed<br />

Depth<br />

Fixture<br />

Thickness<br />

Box Qty<br />

Carton<br />

Qty<br />

ZINC<br />

GAL<br />

STAINLESS<br />

Part No. Part No. Part No.<br />

8 x 110mm 10 80 15 10 200 STM8110-PWR STM8110G-PWR STM8110SS-PWR<br />

10 x 130mm 12 90 21 10 200 STM10130-PWR STM10130G-PWR STM10130SS-PWR<br />

12 x 160mm 14 110 27 10 100 STM12160-PWR STM12160G-PWR STM12160SS-PWR<br />

16 x 190mm 18 125 40 10 50 STM16190-PWR STM16190G-PWR STM16190SS-PWR<br />

20 x 260mm 24 170 60 5 25 STM20260-PWR STM20260G-PWR STM20260SS-PWR<br />

24 x 300mm 28 210 56 5 20 STM24300-PWR STM24300G-PWR STM24300SS-PWR<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last Modified September, 2017<br />

13


Internally Threaded Sleeve<br />

Internally threaded sleeves for use in cracked and un-cracked concrete to provide a<br />

female anchorage allowing the use of standard metric fasteners. ETA Approvals apply<br />

when used with Powers <strong>AC100</strong>-PRO in concrete.<br />

ZINC CLEAR<br />

STAINLESS<br />

Size Drill Dia Embed Depth Thread Dia Thread Depth Box Qty Carton Qty Part No. Part No.<br />

M8 14 80 M8 35 10 100 ITS-M8-PWR ITS-SS-M8-PWR<br />

M10 18 90 M10 45 10 100 ITS-M10-PWR ITS-SS-M10-PWR<br />

M12 24 110 M12 55 5 50 ITS-M12-PWR ITS-SS-M12-PWR<br />

M16 28 150 M16 75 5 20 ITS-M16-PWR ITS-SS-M16-PWR<br />

M20 35 200 M20 85 5 20 ITS-M20-PWR ITS-SS-M20-PWR<br />

Threaded Rod Retaining Cap<br />

(For overhead and horizontal installation)<br />

Size Drill Dia Stud Dia Box Qty Carton Qty Part No.<br />

8 10 8 10 N/A RC8-PWR<br />

10 12 10 10 N/A RC10-PWR<br />

12 14 12 10 N/A RC12-PWR<br />

16 18 16 10 N/A RC16-PWR<br />

20 24 20 10 N/A RC20-PWR<br />

14 <strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last modified September, 2017


Accessories<br />

Mixing Nozzle<br />

To ensure complete and proper mixing of the two components, the <strong>AC100</strong>-PRO system uses a proprietary static mixing nozzle. This<br />

reduces the possibility of mixing errors which are common with hand mixed pourable grout materials.<br />

Each nozzle contains a series of static mixing elements. As the vinylester components are pumped through the nozzle, they are<br />

progressively divided and recombined by the mixing elements to ensure precise automatic mixing.<br />

Description Box Qty Carton Qty Part No.<br />

Mixing Nozzle 1 N/A 8482-PWR<br />

Mixing Nozzle Extensions (200mm) 10 N/A MNEXT-PWR<br />

Mixing Nozzle Extensions (1000mm) 10 N/A AEXTN-PWR<br />

Hole Cleaning<br />

Blow Pump<br />

For dust extraction (up to 20mm hole sizes)<br />

SDS Plus Wire Brush<br />

For machine cleaning<br />

Description<br />

Drilled<br />

Hole Ø<br />

Brush<br />

Size<br />

Thread<br />

Width<br />

Box Qty Carton Qty Part No.<br />

Standard Steel Brush 18 20 M6 1 N/A AWBM16-PWR<br />

Standard Steel Brush 20 22 M6 1 N/A AWBR16-PWR<br />

Standard Steel Brush 24 26 M6 1 N/A AWBM20M24-PWR<br />

Standard Steel Brush 32 34 M6 1 N/A AWBM30-PWR<br />

Standard Steel Brush 37 40 M6 1 N/A AWBM36-PWR<br />

Standard Steel Brush - SDS Plus Extension 300mm M6 1 N/A AWBEXT-PWR<br />

Standard Steel Brush - SDS Plus Adaptor M6 1 N/A AWBSDSPLUS-PWR<br />

Blow Pump - Industrial 1 N/A BLOWPUMP-PWR<br />

Piston Plugs – For Deep Hole Anchoring<br />

Description Box Qty Carton Qty Part No.<br />

Adhesive Piston Plug - 18mm Hole 10 N/A APP18-PWR<br />

Adhesive Piston Plug - 20mm Hole 10 N/A APP20-PWR<br />

Adhesive Piston Plug - 24mm Hole 10 N/A APP24-PWR<br />

Adhesive Piston Plug - 28mm Hole 10 N/A APP28-PWR<br />

Adhesive Piston Plug - 35mm Hole 10 N/A APP35-PWR<br />

Adhesive Piston Plug - 40mm Hole 10 N/A APP40-PWR<br />

<strong>AC100</strong>-PRO <strong>Technical</strong> <strong>Data</strong> <strong>Sheet</strong>. Last Modified September, 2017<br />

15


Powers Design Assist<br />

Real-Time Anchor Design Software.<br />

This pioneering software has become the industry standard. It contains data on Powers anchoring systems and makes anchor design<br />

to both ETAG and ACI requirements effortless. Its easy-to-use tab structure, real-time 3D graphics and dynamic results make anchor<br />

design simple, safe and economical.<br />

• Fully featured and easy to use interface<br />

• Easy 5 step anchor design with 3D modelling of fastening<br />

• <strong>Pro</strong>fessional specification of Powers fastenings to ETA guidelines<br />

• Customised anchor design facility<br />

KEEP PACE WITH CHANGING CONSTRUCTION ENVIRONMENTS<br />

WITH POWERS DESIGN ASSIST.<br />

www.powersdesignassist.com<br />

Locations<br />

Australia<br />

VIC (Head Office)<br />

Level 2, 810 Whitehorse Road,<br />

Box Hill, Victoria, 3128<br />

Tel: (03) 8669 5200<br />

Fax: (03) 8401 3501<br />

Email: info@powers.com.au<br />

NSW<br />

11 Smeaton Grange Road<br />

Smeaton Grange NSW 2567<br />

T: (02) 4634 7600<br />

F: (02) 4648 3139<br />

E: info@powers.com.au<br />

QLD<br />

58 Link Drive<br />

Yatala QLD 4207<br />

T: (07) 3441 9300<br />

F: (07) 3441 9399<br />

E: info@powers.com.au<br />

New Zealand<br />

39 Business Parade North, Highbrook,<br />

East Tamaki Heights, Auckland, 2013<br />

PO Box 12-135, Penrose, Auckland, 1642<br />

T: 0800 3392 58<br />

F: 0800 2782 6539<br />

E: nzsales@sbdinc.com<br />

SA<br />

5 Stirling Street<br />

Thebarton SA 5031<br />

T: (08) 8161 3000<br />

F: (08) 8443 6565<br />

E: info@powers.com.au<br />

WA<br />

49A Mercantile Way<br />

Malaga WA 6090<br />

T: (08) 6102 1610<br />

F: (08) 9303 4477<br />

E: info@powers.com.au<br />

NT<br />

1/14 Menmuir Street<br />

Winnellie NT 0820<br />

T: (08) 8947 5097<br />

F: (08) 8947 5124<br />

E: info@powers.com.au<br />

DISCLAIMER FOR RECOMMENDATIONS, INFORMATION AND USE OF DATA:<br />

The recommendations, information and data contained in this manual are put together with the greatest care and accuracy possible. It is based on principles, equations and safety factors set out in the technical documentation of Stanley<br />

Black & Decker that are believed to be correct and current as of 11/09/17. The information and data is subject to change after such date as Stanley Black & Decker reserves the right to change the designs, materials and specifications of the<br />

products in this manual without notice. It is the responsibility of the design professional to ensure that a suitable product is selected, properly designed and used in the intended application. This includes that the selected product and its<br />

use is compliant with the applicable building codes and other legal requirements and will satisfy durability and performance criteria and margins of safety which they determine are applicable. The products must be used, handled, applied<br />

and installed strictly in accordance with all current instructions for use published by Stanley Black & Decker. The performance data given in this manual are the result of the evaluation of tests conducted under laboratory conditions. It is<br />

the responsibility of the designer and installer in charge to consider the conditions on site and to ensure the performance data given in the manual is applicable to the actual conditions. In particular the base material and environmental<br />

conditions have to be checked prior to installation. In case of doubt, contact the technical support of Stanley Black & Decker.<br />

LIMITATION OF LIABILITY<br />

Stanley Black & Decker offers a limited product warranty to customers or end users that the product meets its applicable specifications. Except for the express warranty in the immediately preceding sentence, Stanley Black & Decker grants<br />

no other warranties, express or implied, regarding the products, their fitness for any purpose, their quality, their merchantability or otherwise. Further, Stanley Black & Decker shall have no liability with respect to changes in the design,<br />

materials and specifications in the products presented in this manual, nor with respect to any product which has been modified or installed improperly, regardless of any specific instructions to the installer. The responsible designer and<br />

installer shall indemnify, defend, and hold harmless Stanley Black & Decker for any and all claimed loss or damage occasioned, in a whole or in part, by the modified products or deviation in product installation procedures.<br />

LIMITATION OF DAMAGES<br />

Stanley Black & Decker or its affiliates or their respective officers, members, managers, directors, representatives, agents or employees are not obligated for direct, indirect, incidental or consequential damages, losses or expenses in<br />

connection with, or by reason of, the use of, or inability to use the products for any purpose. Implied warranties of merchantability or fitness for a particular purpose are specifically excluded. Last Modified September, 2017<br />

www.powers.com.au

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