Geotechnics - Amazon Web Services… · 2017-11-27 · Woven Geotextiles Standard Grades Woven and Non-woven Geotextiles Fastrack SG 609 – Standard Grade Lightweight Woven Geotextile

GeotechnicsWoven Geotextiles 292

Woven and Non-woven Geotextiles 293

Thermally Bonded Non-woven Geotextiles 294

Geosynthetic Clay Liner 295

Tensar® Triax® Geogrids 296

Tensar® Basetex High Strength Geotextiles 297

Gabions and Mattresses 298

Concrete CanvasTM 301

Concrete CanvasTM Material Data 303

FloodSax® Commercial 304

291

292 Utilities | Geotechnics Utilities | Geotechnics 293The information in this brochure is to the best of our knowledge true and accurate, but all recommendations or suggestions are made without guarantee. Since the conditions of use are beyond their control, Keyline disclaim any liability for loss or damage suffered from the use of these data or suggestions.

Furthermore no liability is accepted if use of any product in accordance with these data or suggestions infringes any patent. Keyline Utilities reserve the right to change product specifications without further notification.

Woven GeotextilesStandard Grades

Woven and Non-woven GeotextilesFastrack SG 609 – Standard Grade Lightweight Woven Geotextile

Keyline Utilities offers a complete range of woven geotextiles. From the Fastrack 609 for use as a basic separation and filtration material to high strength woven reinforcing grades for use in basal reinforcement, highway and applications with larger stone sizes. Also available are high flow geotextiles that can be used where water infiltration properties are the most important requirement. Our Woven geotextiles are manufactured from polypropylene tapes & yarns, and exhibit an excellent chemical resistance to commonly encountered acids and alkalis at ambient temperatures.

Tensile strengths up to 300 kN per metre (kN/m) width CBR Puncture Strengths ranging from 1.800 N to 12.500 N

Mechanical Properties that offer maximum strength at minimal cost and ensure the products survival capability both against installation damage and against wear and tear

Lightweight woven geotextiles typically offer greater mechanical strengths per unit weight than comparable nonwoven grades. This makes lightweight woven geotextiles the ideal choice for separation

A range of consistent opening sizes suited for use in soils ranging from clay to coarse granular fill

Hydraulic properties that are suited to the demands of everyday separators

Available from stock in 4.5 m and 5.25 m wide rolls, or other widths to order.

Typical applications include:

As a general purpose separator for use under site access roads and areas of hardstanding

As a separation and strengthening layer under new roadways, car parks, industrial units etc

As an erosion control layer under heavy rock armour in coastal defence projects

For any separation application where there exists a need to prevent the intermixing of soft foundation soils with good clean granular fill.

Separating / Strengthening layer under access roads and areas of hard standing

Separating / Reinforcing – layers under stone foundation for new buildings

Erosion control – coastal defences

Separating / Reinforcing – layers under new roads, car parks and industrial areas

Separation – granular fill from sub soils and other fill types.

Separating / Strengthening layer under access roads and areas of hard standing

Filter surround for french drains

Separation to stop the intermixing of dissimilar soil layers

Horse Arenas – separation of infill materials

Filter surround for infiltration tanks

Filtration, allowing the flow of water whilst preventing the passage of soil.

Applications for Fastrack SG Orange

Standard Separation and Filtration Geotextiles

Applications for Multitrack 1000 – Standard Grade Non-woven Geotextile

Mechanical Properties Test Units Fastrack SG OrangeTensile Strength – MD EN ISO 10319 kN/m 16.0 Tensile Strength – XD EN ISO 10319 Kn/m 11.5

Elongation at break – MD EN ISO 10319 % 18.5 Elongation at break – XD EN ISO 10319 % 18.5 CBR Puncture Resistance EN ISO 12236 N 1500 Hydraulic Properties Test Units Fastrack SG Orange

Water-flow normal to the plane EN ISO 11058 l/m2.s 17Characteristic Opening (pore) size EN ISO 12956 µm 250

Physical Properties Test Units Fastrack SG OrangeThickness under 2 kPa EN 964/1 mm 0.40

Weight EN 965 g/m2 75Roll Size m 4.5 x 100

Mechanical Properties Test Units MULTITRACK 1000 Tensile Strength – MD EN ISO 10319 kN/m 8.0 Tensile Strength – XD EN ISO 10319 kN/m 8.0

Elongation at break - MD EN ISO 10319 % 45.0 Elongation at break - XD EN ISO 10319 % 55.0 CBR Puncture Resistance EN ISO 12236 N 1500 Hydraulic Properties Test Units Fastrack SG Orange

Water-flow normal to the plane EN ISO 11058 l/m2.s 110Characteristic Opening (pore) size EN ISO 12956 µm 120

Physical Properties Test Units Fastrack SG OrangeThickness under 2 kPa EN ISO 9863-1 mm 1.0

Weight EN ISO 9864 g/m2 100Roll Size m 4.5 x 100

Mechanical Properties Test Units 609 Tensile Strength – MD EN ISO 10319 kN/m 20.0 Tensile Strength – XD EN ISO 10319 kN/m 11.0

Elongation at break – MD EN ISO 10319 % 15.0 Elongation at break – XD EN ISO 10319 % 16.0 CBR Puncture Resistance EN ISO 12236 N 1 800

Dynamic Cone Drop EN ISO 13433 mm 18.0 Hydraulic Properties Test Units 609

Characteristic Opening Size EN ISO 12956 µm 260.0 Hydraulic Velocity EN ISO 11058 m/s 26 x 10-3

Permeability EN ISO 11058 l/m2.s 23 Physical Properties Test Units 609 Thickness under 2 kPa EN ISO 9863-1 mm 0.47

Weight EN ISO 9864 g/m2 78.0 Roll width cm 450 Roll length m 100

Full load volume (+/- 10%) m2 135 000 Roll diameter (+/- 10%) cm 24



Thermally Bonded Non-woven GeotextilesTerram – Standard Separation and Filtration Geotextiles 0338

Test Method Unit T700 T900 T1000 T1000 Orange T1300 T1500 T2000 T3000 T4000

Mechanical Properties Mean Value

Tensile Strength EN ISO 10319 kN/m 6.0 7.5 8.0 8.0 10.5 12.5 14.5 18.0 22.0

Tensile Elongation EN ISO 10319 % 60 60 60 60 60 60 60 60 60

CBR Puncture Resistance EN ISO 12236 N 1050 1350 1500 1500 2000 2250 2750 3250 4300

Cone Drop EN ISO 13433 mm 42 40 38 38 34 32 26 24 22

Hydraulic Properties

Pore Size – Mean AOS µm 95 75 75 75 65 65 65 60 60

Permeability – (H50

) EN ISO 11058 I/m2s 100 95 90 90 75 65 55 50 30

Test Method Unit T700 T900 T1000 T1000 Orange T1300 T1500 T2000 T3000 T4000

Physical Properties

Thickness @ 2kPa EN ISO 9863-1 mm 0.9 1.0 1.1 1.1 1.4 1.6 1.7 1.8 2.0

Material Dimensions

Standard Roll Length m 150 150 100 100 100 100 100 100 50

Standard Roll Width m 4.5 4.5 4.5 4.5 4.5 4.5 4.5 4.5 4.5

Maximum Roll Width m 6.0 6.0 6.0 6.0 6.0 6.0 6.0 6.0 6.0

Gross Roll Weight (nominal)[c] kg 65 85 60 60 75 85 100 120 80

Retained Strength

Test Method Unit All Grades

Properties Relating to Durability

Weathering 200MJ/m2 Exposure EN 12224 % >90

Microbiological Resistance EN 12225 % No loss

Resistance to Acids and Alkalis EN 14030 % No loss

Oxidation at 85 Days EN 12225 % >90

Geosynthetic Clay Liner

Geosynthetic Clay Liners (GCL) are high performance environmental liners comprised of a layer of low-permeability sodium bentonite encapsulated between geosynthetic carrier layers. They provide hydraulic performance equivalent to one metre of compacted clay, with a total GCL thickness of less than 10mm. GCLs are self-sealing if punctured, and are manufactured in large rolls that require just a simple overlapped seam. Fast and easy to install, as well as being highly cost effective, GCLs provide a superior choice for both designers and contractors. Bentomat SS100®

Bentomat SS100® is a reinforced needle-punched Geosynthetic Clay Liner (GCL) specifically designed for landfill, surface water impoundments and secondary containment.

Bentomat CL®

Bentomat CL® is designed for better performance under more variable conditions, by providing permeabilities ranging from 10 to 1000 times lower than standard GCLs. Ideal for applications where additional hydraulic performance is required, the CL range incorporates a flexible plastic membrane liner that adds an extra layer of protection to the GCL.

SS100 offers the following advantages:

Very low flux and value

Highly competitive installed cost

Fast and easy to install

Self-sealing if punctured

Excellent slope stability characteristics

Excellent climatic resistance

High chemical resistance

Resistance to differential settlement.

Bentomat CL® offers the following advantages:

Natural granular sodium bentonite

Lowest flux of all GCLs

Unique composite of natural and synthetic materials

Unrivalled hydraulic performance

Fast and easy to install

Highly competitive installed cost

Self-sealing if punctured

Excellent chemical resistance.

Applications:

Landfill caps

Landfill liners

Contaminated land capping

Secondary containment

Civil engineering/transportation

Surface water impoundments

Mining.



Tensar® TriAx® Geogrids

Tensar® Geogrid unique features include:High strength integral junctionsStiff ribs which present a thick square leading edge to the aggregate.

What are the benefits of Tensar® Geogrids?

Tensar biaxial geogrids combine major cost savings with considerable performance benefits in granular capping and sub-base layers.

Tensar® Geogrid benefits include:Savings in granular thickness of up to 50% with no performance lossIncreased design life by a factor of 3 Reduction of excavated soil together with conservation of natural aggregates Reduced disturbance and weakening of sensitive subgrade formationsImproved fill compactionControl of differential settlementSpanning of voids.

Tensar® TriAx® Geogrids

Stabilisation Applications for Tensar® Technology

There are now unprecedented demands to design economic and environmentally sensitive roads, container ports, car parks, airfields and hardstandings sited over weak or variable ground. Tensar® can provide high performance geogrid-based systems which meet these demands.

The structural contribution made by Tensar® TriAx® geogrids is to stabilise the unbound layers of roads and trafficked areas to create a mechanically stabilised layer. Aggregate particles interlock with the geogrid and are confined within the apertures, creating an enhanced composite material with improved performance characteristics.

TriAx® geogrids have radial stiffness producing a truly multi-directional product with near isotropic properties.

Independent trials have confirmed that it is the shape and form of the ribs and junctions of Tensar® geogrids, which determine the structural performance of pavements.

Since 1980, several hundred million square metres of Tensar® geogrids have been successfully incorporated into a wide range of sites under diverse working and climatic conditions.

Combining cost savings and reduced emissionsTensar® TriAx® geogrids combine major cost savings with considerable performance benefits in granular capping, sub-base and other aggregate layers. When compared with an unstabilised aggregate layer, TriAx® can:

Give savings in granular thickness of up to 50% with no performance loss

Provide a reduction of excavated soil together with conservation of natural aggregates

Control differential settlement

Reduce disturbance and weakening of sensitive subgrade formations

Improve fill compaction

Increase design life

Increase bearing capacity

Give savings of up to 50% on construction CO

2 emissions.

Increasing lifeThe use of Tensar® TriAx® geogrids in pavement layers can extend the service life of the road and therefore the use of Tensar® Technology makes significant savings in maintenance budgets.

Controlling differential settlementMultiple layers of Tensar® TriAx® geogrids in an aggregate layer create a flexurally stiff platform. Through the use of Tensar® Technology the effects of a variable quality of support from a foundation soil can be smoothed out.

Increasing bearing capacityBy applying Tensar® Technology the load spreading capability of a Tensar® TriAx® stabilised layer can increase the bearing capacity of working platforms for heavy-duty plant, cranes and piling rigs.

Capping weak depositsWhere the ground is exceptionally weak, Tensar® TriAx® Technology is available to enable a capping operation. Tensar® TriAx® geogrids enable safe placement and compaction of the fill when capping sludge lagoons and industrial waste deposits.

Product Reference 200/50 400/50 600/50 800/50 1000/50

Polymer Polyester Polyester Polyester Polyester Polyester

MD Strength(1) (minimum) kN/m 200 400 600 800 1000

TD Strength(1) (minimum) kN/m 50 50 50 50 50

Thickness (typical) mm 2 2.5 2.5 2.5 3

Pore Size BS6906: Part 2 1989 090µm >400 >400 >400 >400 >400

Water Flow BS6906: Part 3 1989 Breakthrough Head Flow Rate (typical)

mmI/m2/sec

097.67

0115.58

083.62

056 (2)

045.59

Weight (approximate) g/m2 480 800 1130 1520 1840

Roll Width (nominal) m 4.4 4.4 4.4 4.4 4.4

Roll Length (minimum) m 100 100 100 100 100

Roll Weight (approximate) kg 215 355 505 675 815

Tensar® Basetex High Strength GeotextilesBasal Reinforcing and Load Bearing Geotextiles

General

Tensar® Basetex products are a range of ultra high strength geotextiles manufactured using a weft insertion knitted process.

Products produced from this process differ from conventional woven fabrics in that the load bearing yarns remain essentially linear. When subjected to load the yarns are able to reach full tensile strength without undergoing the elongation associated with straightening of the yarns.

For the Standard Product Range, the load bearing yarns are 100% high tenacity polyester, providing excellent creep performance and high tensile modulus.

The high molecular weight of the polyester yarn selected for Basetex ensures that the product is highly resistant to environmental damage within the normal range of pH and temperatures encountered in soils.

Tensar® Basetex can be manufactured with longitudinal strengths up to 1200kN/m and transverse strengths up to 500kN/m.

(1) Determined in accordance with ISO 10319(2) Estimated: Based on 800/50 result

Principal applications:

Embankment base reinforcement over soft soils

Load transfer platforms

Void spanning over areas of mineworkings or land reclamation.

Standard Product Range

Over the last 10 years there has been an increase in the development of brownfield rather than greenfield sites where ground conditions are normally poor. With the rise of flooding, erosion of embankments has become an increasing problem. Additionally the growth of renewable energy generation which by its nature often involves the building of Windfarms, or Hydro schemes some distance from the main highway infrastructure has resulted in contractors looking for innovative solutions to reduce construction speed, enviromental inpact and overall material costs. Whatever your requirements Keyline Utilities can provide a complete solution.



Gabions and Mattresses

Gabions are manufactured from dimensionally stable panels of mesh that are formed by welding transverse and longitudinal wires at each and every intersection to form a grid. The gabion box is then part assembled by hinging the face, back, sides and internal diaphragms to the base panel and the lid to the rear panel with ‘C’ rings or clips. The units are transported to site flat packed with lacing wire as standard for on site erection.

Once assembled, the gabions are filled with stone or rock and the lid secured to form a monolithic structure in accordance with the recommended installation procedures.

Mass gravity retaining walls

Landfill

Acoustic barriers

River and coastal protection

Weirs

Abutments

Temporary works.

Applications:


Welded Mesh Gabion 39 System Standard Gabions.

Welded mesh Gabion 39 System is available in mesh aperture 76.2mm x 76.2mm and in the following specifications to the nominal dimensions stated below. Other non-standard mesh apertures are available on request.

Gabion 39 Specifications

CoatingsGalfan coated (95% zinc 5% aluminium)

Zinc / PVC coated Stainless steel (to special order)

Wire Diameters (combinations thereof)

3.0mm (galfan or stainless steel) 4.0mm (galfan or stainless steel) 5.0mm (galfan or stainless steel) 2.7mm/3.2mm (zinc/PVC coated) 3.8mm/4.3mm (zinc/PVC coated)

Standard Nominal Sizes (non standard sizes available)

1.0m x 1.0m x 0.5m 1.0m x 1.0m x 1.0m 1.5m x 1.0m x 0.5m 2.0m x 1.0m x 0.5m 2.0m x 1.0m x 1.0m

Welded Mesh Gabion 27 System Modular Welded Mesh Gabions.

The Gabion 27 System comprises of modular welded mesh units that are sub-divided into 685mm cells along the length of the cage. The base of the gabion forms the lid of the unit below. The base is extended by fixed dimensions on one face to allow for a predetermined stepping arrangement at each course. The base on the other face is flush, allowing for a flush faced wall to be constructed if required or coursing with a combination of flush and stepped faces.

Gabion 27 Specifications

CoatingsGalfan coated (95% zinc 5% aluminium)

Zinc / PVC coated

Mass Gravity Walls

Wire Diameters3.0mm to the body of the unit

4.0mm to the front and rear faces

Standard Nominal Sizes

Lengths: 2.0m Widths: 0.7m, 1.0m, 1.4m,

1.7m, 2.1m Heights: 0.3m, 0.7m, 1.0m

Architectural Cladding Units

Wire Diameters 3.0, 4.0, 5.0mm (combinations thereof)

Standard Nominal Sizes

Lengths: 1.0m, 2.0m Widths: 0.3m

Heights: 0.7m, 1.0m, 1.4m, 2.07m

Trapezoidal Units

Wire Diameters 3.0, 4.0, 5.0mm (combinations thereof)

Standard Nominal Sizes(base and top widths can be increased in increments of 150mm)

Lengths: 1.0m, 2.0m Base Widths: Minimum 0.6m Top Widths: Minimum 0.46m

Heights: 0.7m, 1.0m




All Enviromesh® Gabions are BBA Approved

Woven Mesh Gabions and Mattresses

The mesh fabric for all these products is formed by weaving adjacent strands of wire by twisting them through one and a half turns at intervals, forming a hexagonal shaped mesh. The ends of the mesh wires are wrapped around a heavier transverse edge wire to form the panels. The tensile strength of the mesh in the direction of the weave is greater than across the weave.

The gabion box is manufactured from a main panel that forms the face, base, rear and lid of the unit. The side panels and diaphragms are then jointed to the base section of the main panel. The unit is then folded flat for transportation. On site, the unit can be opened out into the required position and the sides, diaphragm and end panels are rotated vertically. The vertical joints are formed by a continuous lacing operation with the wire supplied or with ‘C’ rings to form the box shape.

Once assembled the gabions are filled with stone or rock and the lid secured to form a monolithic structure.

The gabion mattress is a box unit where the plan area is large compared to its height. Each unit is subdivided into compartments normally to give cells 2m x 1m in plan. The units are laid on the bed of rivers. Once filled with stone or rock and the lid closed, they form a blanket erosion control system.

Mattresses are also used to provide under scour protection to retaining structures.

Woven Mesh Gabion Specifications

Coatings Zinc / PVC Coated

Wire Diameters

2.40mm for the fabric (3.40mm overall for PVC coated units)

80mm + 100mm mesh

3.40mm for the selvedge wires (4.40mm overall for PVC coated units)

Woven Mesh Mattress Specifications

Coatings Zinc / PVC Coated

Wire Diameters

2.00mm for the fabric (3.00mm overall for PVC coated units)

2.70mm for the selvedge wires (3.70mm overall for PVC coated units)

Concrete CanvasTM

Concrete Canvas (CC) key facts:Rapid Install CC can be laid at a rate of 200sqm/hour, up to 10 times faster than conventional concrete solutionsEasy to Use CC is available in man portable rolls for applications with limited access. The concrete is pre-mixed so there is no need for mixing, measuring or compacting. Just add waterLower Project Costs The speed and ease of installation mean CC is more cost-effective than conventional concrete, with less logistical complexityEco-Friendly CC is a low mass, low carbon technology which uses up to 95% less material than conventional concrete for many applicationsWater Proof The PVC backing on one surface of the Canvas ensures that the material has excellent impermeabilityStrong The fibre reinforcement prevents cracking, absorbs energy from impacts and provides a stable failure modeDurable CC is chemically resistant, has good weathering performance and will not degrade in UVFlexible CC has good drape characteristics and will closely follow the profile of any ditch or embankment. The material can negotiate tight bends and fit around existing infrastructure. Unset CC can be cut or tailored using basic hand tools.

Concrete Canvas (CC), is a flexible, concrete impregnated fabric that hardens when hydrated to form a thin, durable, waterproof concrete layer. CC allows concrete construction without the need for plant or mixing equipment. Simply position the Canvas and just add water. CC consists of a 3-dimensional fibre matrix containing a specially formulated dry concrete mix. A PVC backing on one surface of the canvas ensures the material is waterproof. The material can be hydrated either by spraying or by being fully immersed in water. Once set, the fibres reinforce the

concrete, preventing crack propagation and providing a safe plastic failure mode.

CC is available in 3 thicknesses: CC5, CC8 and CC13, which are 5, 8 and 13mm thick respectively.

Concrete Canvas applications

Ditch Lining Culverts Erosion Control Pipeline Protection

NEW Innovation in concrete

just add water!



CC Type Thickness Batch Roll Size Bulk Roll Size Roll Width Mass Unset Density Unset Set

CC5 5mm 10m2 200m2 1m 7kg/m2 1500kg/m3 +30-35%

CC8 8mm 5m2 125m2 1.1m 12kg/m2 1500kg/m3 +30-35%

CC13 13mm n/a 80m2 1.1m 19kg/m2 1500kg/m3 +30-35%

SETTING Initial Set > 2 hours Final Set < 24 hours CC will achieve 80% strength at 24 hours after hydration.

Concrete CanvasTM Concrete CanvasTM Material Data

Post set data is based on CC hydrated in accordance with the CC Hydration Guide.

Strength Very high early strength is a fundamental characteristic of CC. Typical strengths and physical characteristics are as follows:

Compressive tests based on ASTM C109 – 02 (initial crack) – 10 day compressive failure stress (MPa) 40

Bending tests based on BS EN 12467:2004 (initial crack) – 10 day bending failure stress (MPa) 3.4 – 10 day bending Youngs modulus (MPa) 180

Tensile data (Initial crack)

CC has achieved Euroclass B certification: BS EN 13501-1:2007+A1:2009 B-s1, d0

CC has achieved MSHA approval: 30 CFR, Part 7, Subchapter B, Section 7.24 Passed

Patent ProtectedPat Pend/Granted: AE (766/2011), AE (932/2006), ARIPO (AP/P/2011/005842), AU (2010209524), AU (2005254788), BR (PI1005309-3), CA (2655054), CA (2749991), CA (2570532), CL (01809-2011), CN(201080005835.6), CO (11-092824), EP (2027319), EP (2393970), EP (1766162), GB (2455008), HK (12100037.1), ID (W00 2011 028 25), IL (214350), IN (5429/DELNP/2011), IN (20/DELNP/2007), JP (2011-546952), KR (10-2011-7020005), MN (3644), MX (MX/a/2011/007802), MY (PI2011003536), NO (20070245), NZ (594823), OM (OM/P/2011/00162), PH (1-2011-501468), RU (2011134016), RU (2386767), SG (201105143-0), TH (1101001335), US (8287982), US (US-2010-0233417-A1), US (13/146836), US(7721749), US (13/708074), VN (1-2011-02023), ZA (2009/00222), ZA (2011/06289), ZA (2007/0471) and other patents pending.

* Occasionally there will be a Beam Fault (fabric imperfection under 100mm wide running across the width) in a Bulk Roll. This fault is unavoidable due to the manufacturing process and the fault will be clearly marked with a red tag, there will be a maximum of (1) one Beam Fault in any Bulk Roll. A joint may need to be made on site where there is a Beam Fault as the material at a fault will not reach the performance specified in this Data Sheet. The maximum un-useable material due to any Beam Fault will be 100mm. There are no beam faults in standard batched rolls.

The information contained herein is offered free of charge and is, to the best of our knowledge, accurate. However, since the circumstances and conditions in which such information and the products discussed therein can be used may vary and are beyond our control, we make no warranty, express or implied, of merchantability, fitness or otherwise, or against patent infringement, and we accept no liability, with respect to or arising from use of such information or any such product.

© Concrete Canvas Ltd 2013

** For containment applications it is recommended to use CC as a protective overlay in combination with an appropriate sealed membrane liner. CC is not recommended as the sole barrier layer where impermeability is critical.

* Indicative values

Other Abrasion Resistance (DIN 52108) – Similar to twice that of OPC Max 0.10 gm/cm2

Manning’s Valve (ASTM D6460)

CBR Puncture Resistance EN ISO 12236: 2007 (CC8 and CC13 only) – Min. Push-through force 2.69kN – Max. Deflection at peak 38mm

Standard Test Method for Impact Resistance of Pipeline Coatings ASTM G13 (CC13 only) Passed

Freeze-thaw testing (ASTM C1185) 200 Cycles

Freeze-thaw testing (BS EN 12467:2004 part 5.5.2) Passed

Soak-dry testing (BS EN 12467:2004 part 5.5.5) Passed

Water impermeability (BS EN 12467:2004 part 5.4.4) Passed**

Post Set CC Properties

Reaction to Fire

CC Patent Information

Setting Working Time: 1-2 hours subject to ambient temperature CC will achieve 80% strength at 24 hours after hydration.

Method of Hydration Spray the fibre surface with water until it feels wet to touch for several minutes after spraying.

Re-spray the CC again after 1 hour if:

Installing CC5

Installing CC on a steep or vertical surface

Installing in warm climates.

Notes:

CC cannot be over hydrated and an excess of water is always recommended

Minimum ratio of water:CC is 1:2 by weight

Do not jet high pressure water directly onto the CC as this may wash a channel in the material

CC can be hydrated using saline or non-saline water

CC will hydrate and set underwater

CC has a working time of 1-2 hours after hydration. Do not move CC once it has begun to set

Working time will be reduced in hot climates

CC will set hard in 24 hours but will continue to gain strength for years

If CC is not fully saturated, the set may be delayed and strength reduced. If the set is delayed, re-wet with a large excess of water.

CC Physical Properties*

Pre-Set CC Properties

CCThickness

(mm)Batch RollSize (m2)

Bulk RollSize (m2)

Roll Width(m)

CC5 5 10 200 1.0CC8 8 5 125 1.1CC13 13 N/A 80 1.1

CCMass (unset)

(kg/m2)Density (unset)

(kg/m3)Density (set)

(kg/m3)

CC5 7 1500 +30-35%CC8 12 1500 +30-35%CC13 19 1500 +30-35%

Tensile strength (kN/m)Length direction Width direction

CC5 6.7 3.8CC8 8.6 6.6CC13 19.5 12.8

Concrete Canvas Ltd.CF37 5SP, United Kingdom

11

EN12467:2004Concrete Canvas:Fibre cement sheetNTOversize sheetsClass 1, Category AReaction to Fire B-s1,d0

Utilities | GeotechnicsThe information in this brochure is to the best of our knowledge true and accurate, but all recommendations or suggestions are made without guarantee. Since the conditions of use are beyond their control, Keyline disclaim any liability for loss or damage suffered from the use of these data or suggestions. 304

FloodSax® Commercial

FloodSax® are an innovative self-inflating flood defence system set to revolutionise the way we control damage due to flooding. The semi-porous inner liner contains hundreds of absorbent crystals which absorb water to 90% capacity in just 3 to 5 minutes. FloodSax® are so easy to carry, store and deploy that anyone can use them from national government and local councils through to local tradesmen.

Features and benefits

Super absorbent – Each bag will absorb 20 litres of water

Compact – Store anywhere as five vacuum packed bags weigh just over 2 kilograms and are only centimetres thin

Ease of Use – You can build walls up to a metre high, you can soak up water and divert water flow.

Roads and Highways

Housing

Commercial and Industrial

Repairs and Maintenance

Utilities

Energy

Rail

Public Sector.

Groundworkers and Drainage Companies

Civil Engineering and Infrastructure Companies

House Builders

Self-Builders

National Contractor or Management Company

Interior Building Contractors

Housing Associations

Jobbing and General Builder

Local Governments and Authorities

Utility Companies.

The Sandless Sandbag

Industry Application

Typical User

Documents

Geotechnics - Amazon Web Services… · 2017-11-27 · Woven Geotextiles Standard Grades Woven and Non-woven Geotextiles Fastrack SG 609 – Standard Grade Lightweight Woven Geotextile